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Why Does Not Mars Rotation Period Equal 243 Days?

The Research Question

Why Does Not Mars Rotation Period Equal 243 Days? The answer is in page no (341)

The Research Hypothesis

The Sun Is Not Doing Nuclear Fusion To Produce Its Rays- Instead- The Sun Rays Are Produced By The Gravitational Waves Motions Energies- And The Gravitational Waves Are Produced By The Planets Motions Energies- Means- The Sun Rays Are Created By The Planets Motions Energies Total- Shortly- The Sun Is A Phenomenon Created After All Planets Creation And Motion Because The Sun Is Created By The Planets Motions Energies.

That explains why the sun corona temperature is 5 million Kelvin but the sun surface temperature is 5800 Kelvin- because the energy is not produced from the sun body but the energy comes from out of the sun body for that the energy out of the sun is so greater than the energy inside the sun (the energy comes from the gravitational waves which are produced by the planets motions energies total)

The Research Presentation Items

I- Research Methodology

II- Major Problems In The Physics Book

(1) The Physicist Wrong Vision Contradicts The Nature System

(2) Planet Motion Energy Definition

(3) Mass Gravity Force Analysis

(4) The Matter Creation And Its Nature Definition

III- My 5 Equations

(1st equation) Planet orbital distance equation-

the equation proves planet orbital distance is defined based on its neighbor orbital distance and no planet mass is used for this definition- Newton is wrong-

(4th equation) Planet diameter equation

The equation proves planet diameter is created based on a geometrical rule (NO Random Creation- the big bang theory is wrong) -also the equation proves the matter is created based on two energies because one energy is Not enough to cause the matter creation

(5th equation) Planet velocity equation

The equation proves planet mass has no effect on this planet velocity definition

IV- The Research Discovery

The Gravitational Waves Are Produced By The Planets Motions Energies And Not By The Gravitational Field- Moreover- There's No Gravitational Field

V- The Gravitational Waves Reflection Analysis

The Gravitational Waves Reflection Proves The Gravitational Waves Are Produced By The Planets Motions Energies

VI- Planet Creation And Nature Definition

The Matter Creation has 2 basic features which are (1st feature) the matter is an intersection point between two energies- means- the matter creation depends on two energies where (one energy is not enough to cause the matter creation) AND (2nd feature) the matter is created in pairs and no single matter can be created (as electron and positron are produced from Gamma ray 1.2 Mev) and also (the creation system male and female proves the matter is created in pairs)

These Same Features Are Used For Planet Creation

Planet Is An Intersection Point Between Two Energies- This is similar to two ropes or cables are connected together by one knot (or joint)- the knot is connected with both ropes and each rope motion effect on its motion- this Knot is the planet -This picture makes the planets typical to The Puppets Theater- because their motions depend on the motions of the energies from which the planets are created.

Also- the planets are created in pairs and no single planet can be created– planet velocity definition and its diameter creation both proves this fact

Planet Nature Definition aims to prove (Planet is created based on a coherence of light- means- the matter generally is created based on a coherence of light)- Planet Nature definition is written in details in page No. (10) and its proves are discussed in page No. (306)

VII-The Solar System Description Refutation-

(The Sun Is The Planets Motions Result But The Description Supposes The Sun Is The Planets Motions Reason) and (The Matter Is Created Depending On Its Motion But The Description Supposes The Matter Is Created Independently From Any Motion)

VIII-The Planets Motions Use Different Rates Of Time

IX -The Physicist Wrong Vision Proves

X -The Refutations Of Many Theories In The Physics Book

XI -The Proves For My Theory

(There's A Light Beam Moves By Speed 1.16 Million Km Per Second)

XII-The Solar System History And Neptune Orbit Creation

XIII-The Proves For Planet Creation And Nature Definition

The Research Hypothesis Explanation

The Sun Rays Creation Process

This Is Extraordinary: Gravity Can Create Light, All on Its Own

https://www.msn.com/en-us/news/technology/this-is-extraordinary-gravity-can-create-light-all-on-its-own/ar-AA19YL5d?ocid=hpmsnHYPERLINK "https://www.msn.com/en-us/news/technology/this-is-extraordinary-gravity-can-create-light-all-on-its-own/ar-AA19YL5d?ocid=hpmsn&cvid=620db4352aa943e2b454919a7b724604&ei=83"&HYPERLINK "https://www.msn.com/en-us/news/technology/this-is-extraordinary-gravity-can-create-light-all-on-its-own/ar-AA19YL5d?ocid=hpmsn&cvid=620db4352aa943e2b454919a7b724604&ei=83"cvid=620db4352aa943e2b454919a7b724604HYPERLINK "https://www.msn.com/en-us/news/technology/this-is-extraordinary-gravity-can-create-light-all-on-its-own/ar-AA19YL5d?ocid=hpmsn&cvid=620db4352aa943e2b454919a7b724604&ei=83"&HYPERLINK "https://www.msn.com/en-us/news/technology/this-is-extraordinary-gravity-can-create-light-all-on-its-own/ar-AA19YL5d?ocid=hpmsn&cvid=620db4352aa943e2b454919a7b724604&ei=83"ei=83

This new article tells the gravitational waves can move by speed of light and can produce a light beam- I claim The Sun Rays are produced based on this method by the gravitational waves motions and not by the sun nuclear fusion process- also –No star rays is produced by the nuclear fusion process but all rays are created by the gravitational waves motions energies as the article states.

Here we have four questions to answer

How can the gravitational waves be produced by the planets motions energies?

How can the gravitational waves move by speed of light?

How can the gravitational waves motions produce a light beam?

Can The Planets Motions Energies Total Be Sufficient To Produce The Sun Rays?

Let's answer in following

1st Question

How Can The Gravitational Waves Be Produced By The Planets Motions Energies?

Planet motion produces energy (1/2 mv^2) but where's this motion energy? Planet can NOT store its motion energy inside its body because It would raise its temperature- and no planet temperature is raised by its motion- logically- planet motion energy is stored in the space in moving waves –Means- planet motion in space is similar to a fish swimming in the sea- the fish swimming creates waves in the sea and similar to that - planet motion energy creates waves in the space- and - fish swims because it hits the water by its body and that creates waves in the water- and these waves move by a velocity equal the fish velocity because of the reaction force- similar to that- Planet moves in the space and its motion energy creates waves in the space and these waves move by velocity equal this planet velocity- for example- Mercury (47.4 km/s) moves and its motion energy creates waves in the space and these waves move by equal velocity (47.4 km/s)

Shortly- the planets move and their motions create waves in the space and each wave moves by velocity equal its planet velocity

AND the planets revolve around the sun in the same one direction and for that their motions energies create waves in the space and these waves move perpendicular on the revolution direction (Toward Pluto orbit)

AND in Pluto orbit these waves are unified together into one unified wave- this wave moves by a velocity= 205.8 km/s where The 9 planets velocities total=176 km/s but I add the Earth moon velocity (29.8 km/s) that makes the total to be 205.8 km/s – I add the moon velocity because the energy is stored finally in the moon orbit-

Note- The moon and the Earth revolve around the sun together for that the moon velocity is considered equal the Earth velocity relative to (the sun) –

NOW the unified wave moves by (205.8 km/s) is the gravitational wave-

The scientists discovered these waves in the space and they called them (gravitational waves) supposing these waves are produced by the sun gravitational field- BUT Planet motion energy must be stored in the space as moving waves – as proved by the previous analysis -means- even if There's NO Gravitational field at all there's a strong reason to find waves in the space because these waves are created by the planets motions energies

Note- I refute the sun gravitational field theory- and prove the sun has no massive gravity and also No Planet Moves By The Sun Gravity (Newton Is Wrong)

The Conclusion

The Unified Wave Its Velocity 205.8 Km/S Is The Gravitational Wave

Notice - the new article still believes that the gravitational waves are produced by the gravitational field- I refuse this idea and prove the gravitational waves are produced by the planets motions energies but I need the article because it tells the waves can move by speed of light and can produce the light beam where I suppose the sun rays are created by this method

The Answer Of The Questions No. (2) And No. (3)

2ndQuestion How Can The Gravitational Waves Move By Speed Of Light? AND

3rdQuestion How Can The Gravitational Waves Motions Produce A Light Beam?

What Do We Have?

We have One unified wave moves by velocity 205.8 km/s

What Do We Need?

We need to accelerate the unified wave to move by speed of light (C=300000 km/s) and this wave should produce (A Light Beam)

We know the light beam is produced from (C^2= Squared Speed Of Light)

Technically- How To Solve This Problem?

We Need To Square The Wave Velocity

Let's see my hypothesis (The Gravitational Wave Reflection Causes To Square The Gravitational Wave Velocity) –

Let's see if this hypothesis can solve the problem

(a)

(205.8)^2 x 7.1 = 300000 km/s = C = (speed of light)

Where

205.8 km/s= the velocity of the unified wave (the gravitational wave)

7.1 is Lorentz length contraction effect rate for speed (0.99 C)

Let's discuss the equation

The unified wave moves by (205.8 km/s)– and this wave is reflected- the wave reflection causes to square its velocity – for that the velocity (205.8 km/s) is squared and be (205.8 km/s)^2= 42354 km/s

Means the wave before reflection moves by (205.8 km/s) and after reflection the wave moves by (42354 km/s)

But Lorentz length contraction effect rate causes to increase the distance 42354 km to be (42354 x 7.1 = 300000 km)– means- the speed 42354 km/s is accelerated to be 300000 km/s = C=speed of light by Lorentz length contraction effect �� we understand the rate 7.1 causes to contract the distances but here the rate increases the distances because the wave reflection causes to reflect the geometrical effects.

Conclusion No. (1)

The Wave Reflection Causes To accelerate the unified wave from (205.8 km/s) to move by speed of light (C=300000 km/s)

(b)

Now we have a gravitational wave moves by speed of light (C=300000 km/s)

This wave is reflected one more time

The gravitational wave reflection causes to square its speed by that – the wave speed was = speed of light (C=300000 km/s) before the reflection and after the reflection this speed will be (C^2=Squared Speed Of Light)

The light beam is produced from this value (C^2=Squared Speed Of Light)

Now we know how the unified wave (205.8 km/s) can be accelerated to move by speed of light (C=300000 km/s) and how this wave can produce a light beam

Conclusion No. (2)

The Gravitational Wave Reflection Causes To Square The Wave Velocity

This is the main useful result from the wave reflection- because without the squaring of the wave velocity no acceleration can be done for the wave and by that the gravitational wave can't move by speed of light Nor produce any light beam

Notice (1)

The waves are reflected three times in the solar system and the abstract provides strong proves for these reflections and more proves are found in the paper- the waves reflection causes basic changes in planets data and I suppose – the waves reflection causes also to square the waves velocity

Notice (2)

The rate 7.1 is produced by Lorentz length contraction effect as a result for motion by speed (.99C= 297000 km/s)- I proved this fact in (Item no. 5-6 Can Relativistic Effects Be Found In The Solar System?)

THE SUN POINT CREATION

The sun point of space has geometrical features enable to produce the sun rays and that means – the sun rays can be created only in the sun corona and far from the sun NO light beam can be created – let's see the sun geometrical features in following

(i)

The Sun Point Is A Stationary Point Its Velocity 1 km/s = Zero Approximately

This is important feature – Because

All motions are done relative to the sun point of space – for example- Pluto velocity is 4.7 km/s –means- Pluto moves by 4.7 km/s relative to the sun point of space – Shortly- the whole solar system is in motion (space and planets are in motion) but the sun point is stationary (static point moves by velocity 1 km/s = Zero approximately) Means- the solar system is similar to a sea of water and the sun is similar to a vortex or whirlpool found on the sea page – the vortex doesn’t move with the sea waves -Shortly- the sun point of space is the stationary point in the solar system and all motions are done relative to the sun point of space-

Example – Venus moves by 35 km/s that means Venus moves by 35 km/s relative to the sun point of space – also we know Venus motion produces energy and this energy creates waves in the space and these waves move by velocity 35 km/s – means- these waves move by 35 km/s relative to the sun point of space-

(ii)

Why Is It Necessary For The Sun Point To Be Stationary Point? Because

1- The Gravitational Wave (Unified Wave) Moves By Speed Of Light Relative To The Sun

2- The Gravitational Wave Can NOT Move By Speed Greater Than Speed Of light

3- The Wave Reflection Causes To Square The Different Speed Between The Gravitational Wave Speed And The Sun Point Motion Speed

4- If The Different Speed Is Less Than Speed Of Light (C=300000 Km/S) The Speed Squaring Process Will Never Produce The Value (C^2= Squared Speed Of Light) – means- No Light Beam Can Be Created

Now we see the necessity to make the sun point as stationary point moves by (Zero approximately =1 km/s) – because – if the sun point moves by any higher speed than (1 km/s) the different speed will be less than speed of light and the squared value will be less than (C^2) and No light beam can be created

Now let's ask- while the space is in motion as the sea of water – how can this stationary point be created? let's answer in following

(iii)

The planets were created before the sun creation and the planets revolve around a point in space (any point in space) the revolution creates two velocities on both sides of the revolution- the two velocities are equal in value opposite in direction- the total be Zero- means- the revolution motion creates a stationary point in the revolution center-

By That -the sun point of space is created as a stationary point- and the sun point is the only stationary point in the solar system- for that all motions are done relative to the sun point of space-

4th Question

Can The Planets Motions Energies Total Be Sufficient To Produce The Sun Rays? the question is logical because

Planet motion energy (1/2 mv^2) is so small energy and the sun rays energy is massive energy -for that- It's Logical Question To Know How Can The Planets Motions Energies Total Be Sufficient To Produce The Sun Rays?

Let's answer in following

(1)

The secret is the rates of time using-

The planets motions use different rates of time- by that- the planets motions energies can be accumulated during long period of time to produce massive energy sufficient to produce the sun rays – let's give examples

Example No. (1)

(One Solar Day Of The Sun Clock = 365.25 Solar Days Of The Earth Clock)

By this rate of time– The Earth motion energy for one complete year can be used by the sun in one solar day – in fact- the solar planets motions energies total during one complete year (365.25 solar days) is accumulated and stored in one energy and be used by the sun motion on one solar day that causes to accumulate massive energy to be used (notice 1461 days = 365+365+365+366)

Example No. (2)

(One Second Of The Sun Clock=1461Seconds Of The Gravitational Wave Clock)

We remember the unified wave (the gravitational wave) moves by 205.8 km/s -And – the gravitational wave moves in 1461 seconds a distance = 300000 km -BUT the Sun clock doesn't see this period 1461 seconds but sees only the period (ONE SECOND) – means-

The distance 300000 km is passed in (ONE SECOND)only for the sun clock– That causes the gravitational wave to move by speed of light (C=300000 km/s) relative to The Sun – (the rate of time using and effect is explained in details in item no VIII)

Planet Creation And Nature Definition

In this analysis I suppose- Planet is created based on a coherence of light- here- I define planet creation as example for the matter creation generally- and- I prove planet is created by coherence of light- means- the matter is created by coherence of light.

I want to say -

The main idea tells- Planet is created based on two energies interaction (or two light beams coherence)– one source of energy can NOT create any matter (Nor Any Planet)

Planet Nature Analysis

Let's Discuss Planet Nature Features in following

(1ST FEATURE)

Planet Is An Intersection Point Between Two Energies- Imagine we have one energy moves in (x-axis direction) and have also another energy moves in (y-axis direction)- the two energies meet each other in One Point which is (an intersection point) – this point is A Planet

This is similar to two ropes or cables or strings are connected together by one knot (or joint)- the knot is connected with both ropes and each rope motion effect on this knot motion direction-

This explanation is typical to The Puppets Theater-the puppets are connected with strings and these strings define these puppets motions direction-shortly- Planet motion depends on the motions of the energies by which this planet is created-simply Planet is an intersection point between two energies and these energies motions effect on this planet motion Direction

Notice- The data doesn't show any effect of planet mass on its motion.

Shortly– Theprevious explanation tells Planet is created based on two energies- one energy is NOT enough to create a planet (the matter)

(2ND FEATURE)

The Matter Is Created In Pairs And No Single Matter Can Be Created -AND

Planet Creation And Motion Are Defined By Another Planet Motion

As in the experiment- (Gamma ray 1.2 Mev can produce electron and positron)- that proves the matter is created in pairs and no single matter can be created- also the creation system (male and female) supports this same fact- I want to say- all matters are created similar to the electron and positron from Gamma ray- simply- the matter is created in pairs- for that- Planets also are created in pairs and no single planet can be created- Planet velocity and diameters analysis prove this fact clearly- the proves discussion are found in page no. (**)

This feature also proves the matter is created based on two energies- also in the Gamma ray experiment because we need two energies– the first energy is Gamma ray 1.2 Mev from which electron and positron can be produced– the second energy is the used energy to produce electron and positron from Gamma ray- means-the method by which Gamma ray 1.2 Mev can produce electron and positron- please note the principle idea tells (the matter is created in pairs and no single matter can be created-AND- the matter creation needs two energies because one energy is not enough to create the matter)

Please note- Feature no.(1) tells, planet is an intersection point (a knot) between two energies- but Feature no. (2) tells matter is created in pairs and no single matter can be created– that means- these intersection points (knots) are created in pairs and can't be created individually-BUT Why?? because the matter creation depends on the energy reflection- the reflection causes to create the matter is pairs- this fact is explained in feature No. (5)

(3RD FEATURE)

Planet Diameter Is Created As A Function In Its Rotation Period

This fact is proved by my planet diameter equation

Please note-my planet diameter equation proves Planet diameter is created based on two motions because the equation uses two planets velocities (v1/v2) that proves two motions are required to produce planet diameter which supports our principle tells (Planet matter is created depending on two energies because one energy is not enough to produce the matter)

(4TH FEATURE)

I have two examples explain the matter nature

(1st Example) the matter is similar to creature muscles- shortly- even if the muscle is very strong as a rock- we understand this muscle is found depending on the blood motion-and any change in the blood motion can effect on the muscle dimensions and ability- similar to that the matter is created depending on the motion of the energies Based on which this matter is created-

(2nd Example)–If the space is similar to the sea of water- the matter is similar to a whirlpool (vortex) found on the sea page- we understand the whirlpool (vortex) is created by the sea water but it has a distinguish picture from the sea waves and it moves by a different velocity from the sea waves- that explains how the moving energy can effect on the matter creation data- for example- we have a whirlpool (vortex) its diameter is 2 meters- why does this diameter equal= 2 meters? The diameter is created depending on the water velocity, pressure, amount and motion angle and many other features of (the moving water)- the moving water creates this whirlpool with diameter 2 meters and as long as the water motion is not changed this diameter will not be changed also-

Notice we understand the whirlpool (vortex) is found because at least two streams of water meet each other- means- one stream is not enough to create a whirlpool (vortex)– similar to that- one energy is not enough to cause the matter creation but two energies are required to cause the matter creation- because the matter is an intersection point between these two energies-

(5TH FEATURE)

Why should The Matter be Created In Pairs And No Single Matter Can Be Created? Let's answer -The matter creation needs two energies because the matter is an intersection point between these two energies- means- the matter creation (and planet creation) needs two energies-

In the solar system one of these two energies is A Reflected Energy-

let's explain that

The solar planets matters and their distances are created from one energy and this one energy is provided by one light beam moves by speed = 1.16 million km per second- The light built the solar system starting its motion from Mercury orbit toward Pluto orbit- the light created the planets orbits before any planet creation- means- all orbits are created before any planet creation- the orbits are created based on each other (as proved by my planet orbital distance equation) after the light created all orbits and reach to Pluto orbit- the light energy is consumed in the space creation- and the rest energy is found in one light beam its speed is (300000 km/s = the known speed of light)- we understand this is one light beam its speed was 1.16 million km per second in Mercury orbit before the space creation- and its speed be 300000 km/s in Pluto orbit after the space creation as result for the energy consumption in the space creation-

In Pluto orbit- The light had no energy to build any more orbits -for that- the light returned to its origin point (Mercury orbit) for that the light is reflected with speed (C=300000 km/s) from Pluto orbit to Mercury orbit passing through all built orbits– no energy is required in this motion for that the light beam moves with speed of light (C=300000 km/s) in Mercury orbit.

This explanation tells us- there are 2 energies in each orbit which are the (1st energy) is the orbit energy by which the orbit is created (depends on the original speed 1.16 million km per second)- and the (2nd energy) is the reflected energy (moves by the known speed of light 300000 km/s)

The Solar System Coherence Of Light

Here I claim planet creation is done by the coherence of light-

The previous explanation shows the reflected energy (the light beam moves by the known speed of light C=300000 km/s) is reflected from Pluto to Mercury and passed through all orbits while each orbit is built by energy and this energy is provided by the original light beam speed (1.16 million km per second)- means- the orbit energy is the energy of the original light beam its speed (1.16 million km per second) and the reflected energy is the energy moves by the known speed of light (C=300000 km/s)- shortly- The coherence of light is done between these two light beams- one of them moves by the original light beam speed (1.16 million km per second) and the other moves by the known speed of light (C=300000 km/s)- the coherence of light is done between these two light beams

The planets are created based on this coherence of light – I have Three Proves for this fact –let's see them in following

(First Proof)

The planets velocities are defined based on the speed (1.16 million km per second)- this is proved by the rule (v1v2=322) as explained - let's remember this explanation

322 = 47.4 km/s (Mercury velocities) x 6.8 km/s (Uranus velocities)

322 = 35 km/s (Venus velocity) x 4.7 km/s (Pluto velocity) x 2

322 = 29.8 km/s (the Earth velocity) x 5.4 km/s (Neptune velocities) x 2

322 = 24.1 km/s (Mars velocity) x 13.1 km/s (Jupiter velocity)

Venus (35 km/s) moves a distance 1.16 million km in 4.7 x 2 hours and

Pluto (4.7 km/s) moves a distance 1.16 million km in 35 x 2 hours -And

Earth (29.8 km/s) moves a distance 1.16 million km in 5.4 x 2 hours and

Neptune (5.4 km/s) moves a distance 1.16 million km in 29.8 x 2 hours

Shortly the planets velocities are defined complementary one another based on The Original Light Beam Speed 1.16 million km per second-

Means the planets velocities are defined as function in this original speed 1.16 million km per second- as proved by the data- this data analysis proves the effect of the original speed of light (1.16million km per second) on the planets velocities definition

(Second Proof)

The planets velocities total is defined based on the known speed of light (C=300000 km/s) –let's remember this fact in following

(205.8)^2 x 7.1 = 300000 km/s = C = (Speed Of Light)

Where

205.8 km/s= 9 the planets velocities total + the Earth moon velocity (29.8 km/s)

(the moon and the Earth revolve together for that their velocities are considered equal)

7.1 is Lorentz length contraction effect rate for speed (0.99 C)

Let's discuss the equation

The planets motions energies create waves in the space and these waves move by their planets velocities and these waves move toward Pluto orbit and in Pluto Orbit these waves are unified together into one unified wave moves by the planets velocities total – means- This unified wave moves by (205.8 km/s)–and then this unified wave is reflected- the wave reflection causes to square the wave velocity– for that the velocity (205.8 km/s) is squared and be (205.8 km/s)^2= 42354 km/s – means- the wave velocity was (205.8 km/s) before its reflection and after the reflection the wave velocity be (42354 km/s) -

-BUT- Lorentz length contraction effect rate causes to increase the distance 42354 km to be (42354 x 7.1 = 300000 km) – means- the speed 42354 km/s is accelerated to be 300000 km/s = C=speed of light by Lorentz length contraction effect – we understand the rate 7.1 causes to contract the distances but here the rate increases the distances because the wave reflection causes to reflect the geometrical effects

This data shows- the planets velocities total is LIMIT to the known speed of light (C=300000 km/s) because the energy reflection effects are obligatory- means- the planets velocities can NOT be greater than (205.8 km/s) because that would cause the final speed to be greater than speed of light (C=300000km/s) which is impossible and that tells the planets velocities are defined by The Limit which is (the known speed of light C=300000 km/s)

The two proves show the planets velocities are defined based on two limits – the original speed (1.16 million km per second) based on which the planets velocities are defined and the known speed of light (C=300000km/s) which is The Limit for the planets velocities total– this analysis proves my theory tells (The Planets Are Created Depending On The Coherence Of Light Is Done Between The Original Light Beam Its Speed 1.16 Million Km Per Second And The Reflected Energy Which Moves By The Known Speed Of Light (C=300000 km/s))

(Third Proof)

Young coherence of light produces the interference (bright fringes and dark fringes)- let's suppose– we see bright fringes as planets- and if the fringe breadth is comparable with planet diameter- we will find that- the solar planets distribution is typical to the interference of Young- because- the greatest diameter planet "Jupiter" is found in the middle and the other planets diameters are decreased gradually on both sides typical to the fringes distribution in Young interference- please note- I have proved Mars original orbit was between Mercury and Venus and Mars had migrated to its current orbit by that the inner planets original order was (Mercury-Mars- Venus- The Earth) the diameters are decreased gradually from the Earth to Mercury typical to Young Interference (Also the outer planets diameters are decreased gradually from Jupiter to Pluto)

The Matter Is Created In Pairs

Now we know each orbit has two energies- (1st energy) the orbit energy by which the orbit is created (2nd energy) the reflected energy which is passed through all orbits- by that- NOW one energy is a reflected energy and the reflection caused the matter to be created in pairs- why??

The energy reflection causes to create complementary values- imagine a light beam is reflected on some mirror- here–we have the original light beam and the reflected light beam- the two light beams are similar in all data but in opposite directions- that tells the energy reflection causes to create the data reflected on each other (and complementary one another)- and the complementary data cause to create the matters in pairs and no single matter can be created-

Shortly -because the energy is reflected in the solar system the matter is created in pairs by the energy reflection effect where No single matter can be created

(6TH FEATURE)

How can planet matter be created by two energies? By what method this creation can be done? There are three methods can be used

(First Method) Can Planet Be Created As A Wave?

We know the particle has double nature and behaves as a wave-

Let's suppose planet is created as a wave? How can the wave be created?

We need two motions perpendicular on each other- means- we need two energies perpendicular on each other- means- by two energies motions a wave can be created and this wave will be a planet - Just we need to suppose that the two energies in each orbit are perpendicular on each other and that will cause to create the planet as a wave

(Second Method) The Energy Reflection

As explained the energy reflection causes to create the values in pairs (reflected on each other and complementary one another) because the original values produce reflected values and that cause the values to be created in pairs-and that cause the matter to be created in pairs- shortly- the energy reflection is the reason to create the matter in pairs- that causes planets data to be created in pairs complementary one another- (as proved by planet velocity definition by the rule v1v2=constant= 322)

Also planet diameter follows this same rule (R1R2=Constant)- because the planets are created in pairs and the matter generally is created in pairs (as electron and positron from Gamma ray 1.2 Mev)

Shortly- The Creation In Pairs Is Done Basically Because Of The Energy Reflection

(Third Method) The Coherence Of Light

As explained before Young coherence of light produces the interference which can be comparable with the solar system because the bright fringes distribution is typical to the solar planets distribution if we suppose the fringe breadth is comparable with planet diameter

Notice - we understand, the matter is created in pairs because of the energy reflection and if the planets are created by the coherence of light that tells the coherence of light must contain reflection of energy which is a fact- because- the coherence of light contains reflection of energy and this reflection is seen in the fringes distribution because the fringes breath is decreased gradually on both sides means each side is reflected on the other and that shows there's a reflection of energy found in the coherence of light-

NOTICE The Proves Discussion for Planet Nature Definition is found in pages (306)

First Item - Research Methodology

I use the planets data analysis to discover the planets creation and motion facts–

In details- I try to discover how the planet get its data- for example – why Jupiter diameter is 142984 km? why Neptune axel tilt is 28.3 deg? why Pluto orbital period is 90560 days? This method helps greatly to discover the solar system facts let's provide two examples to explain how this method works

Example No. (1)

Why Is The Moon Orbital Apogee Radius = 406000 Km?

The moon daily displacement =88000 km and during 29.53 days (the moon day period) the displacements total be = 2.598 million km = 2π x 413600 km

The data tells us the moon orbital apogee radius should be 413600 km and also it tells, because the moon daily displacement (88000 km) is so long, the moon should revolve around the Earth through this apogee orbit its radius (413600 km) only and can't revolve around the Earth through any more near orbit…

Not Facts

The moon orbital apogee radius =406000 km only and the moon revolves around the Earth through near orbits and can reach to perigee radius (363000 km).

How Can The Moon Do That?

The intelligent moon creates an angle (θ) between its motion direction and its orbit horizontal level by that the real displacement (L) through the orbit be less than (88000 km) because it be (L = 88000 km cos θ), as a result the total displacements be less than (2.598 million km) and that makes the moon orbital apogee radius to be decreased from 413600 km to 406000 km.

We should pay attention for the angle (θ), because this angle controls the moon motion features – where- with the angle (θ) increasing the real displacement (L) be shorter and the moon can revolve around the Earth through more near orbits – but –with the angle (θ) deceasing the real displacement (L) be longer and that pushes the moon far from the Earth to more far orbits- The moon orbital motion equation depends on this angle (θ) it tells θ1 = θ0 +1.7 deg where (θ1) = today angle and (θ0) =yesterday angle and 1.7 deg is used as the moon motion degrees per solar day for the equation

Example No. (2)

Can Mars Itself Cause The Earth Moon Creation?

Giant-impact hypothesis tells (NO) – but let's see the planets data analysis

I Suppose - Mars Original Orbit Was Between Mercury And Venus

The order (Mercury – Mars – Venus – Earth) shows correct order in planets diameters (and masses), and orbital distances - BUT – Mars had migrated from its original orbit (between Mercury and Venus) to its current one (227.9 million km) and Mars had collided with Venus and then with the Earth in its migration motion – and Mars itself has caused the Earth moon creation- My Mars Migration Theory answers many left questions by Giant-Impact Hypothesis – for example -

Why Does Venus Have No Moon? Mars had migrated from its original orbit (between Mercury and Venus) – and moved to its current orbit (227.9 million km) – BUT- Mars had moved by a force – and then Mars had collided with Venus –and Mars had pushed ALL DEBRIS with it in its Motion Direction because of its strong motion - Venus had found no debris around and for that Venus couldn't create its moon –But – The Earth mass is greater than Venus' and the debris lost some of their momentum for that the Earth could attracted some debris and created its moon-Mars has 2 moons and this fact supports my theory because Mars with small mass could attract two moons because the debris were around it while Venus has greater mass but couldn't create its own moon because the debris are moved with Mars motion- the rest debris are attracted by Jupiter gravity and created the asteroid belt

Shortly

The planet data analysis compares between the theory and the planets data to see if there's harmony between them and if the data logical analysis supports the theory

Second Item - Major Problems In The Physics Book

(1) The Physicist Wrong Vision Contradicts The Nature System

(2) Planet Motion Energy Definition

(3) Mass Gravity Force Analysis

(4) The Matter Creation And Its Nature Definition

1stProblem The Physicist wrong Vision Contradicts The Nature System

The Physicist Vision

The physicist supposes there's (a unit of building)- by that- the physicist sees the matter (mass) as a wall and this wall is consisted of bricks (small similar units) and the physicist searches for this (unit of building)–

For that the physicist divided the matter and found the particles and then the particle is divided into Molecules and the Molecule is divided into atoms and the atom is divided into nucleus and electron moves around and the nucleus is divided into proton and Neutron- and the proton is divided into quarks …etc

The physicist searches for the building unit- for that he divides anything to reach to this building unit-

The Nature System Vision

The Nature designer aims to create INTEGRATION- as the marriage– male and female- For that- the matter is created complementary one another-means- The Matter Is Created In Pairs (as Gamma ray 1.2 Mev produces electron and positron)

No building unit- AND

I want to show how the physicist causes fatal error for the research method while the physicist divides the elements (from matter to particle to molecule to atom to proton to quarks …etc) this division from out into inner till reach to very small unit which the physicist considered the building unit – that causes to destroy the geometrical design of the integration process- Shortly- the physicist sees a universe (never be created by the designer)- while the designer created the integration is a goal and created tools to perform this integration the physicist destroyed the integration tools while he searched for the building unit which is not found at all.

NOTICE

Another point shows the physicist wrong vision is (The Planet Motion)

While the solar planets move as gears in one machine and all planets motions are unified into one unified general motion- means- all planets motions are unified and produce one result only (one unified motion)- the physicist supposes each planet motion is independent-by that- in place of one machine of gears moves and produces one unified motion (one result) the physicist told us each planet motion is independent and No unification is found for the planets motions –here – one more time the physicist sees very different picture from the real one- in place of one hand has five fingers the physicist sees five independent moving fingers

2ndProblem Planet Motion Energy Definition

Let's remember this question where's Planet Motion Energy?

We agreed planet motion produces energy (1/2 mv^2) and this energy must be stored in the space as moving waves because planet can NOT store its motion energy inside its body otherwise this planet temperature would be raised- that tells- the space has moving waves produced by planet motion energy

Also –we agreed- planet motion energy creates waves in the space and these waves move by velocity equal this planet velocity-

Shortly- for example- Mercury (47.4 km/s) moves in the space and its motion energy produces waves in the space and these waves move by velocity (47.4 km/s) –this analysis creates 3 difficulties for the physics book let's see them

First Difficulty

This analysis tells the space has moving waves are produced by planets motions energies– But- the scientists discovered these waves and they told these waves are produced by the gravitational field- and they called them (gravitational waves)- I prove the sun doesn’t produce a gravitational field and has no massive gravity and no planet moves by the sun gravity – But- here we need to answer (from what source these waves are produced?) because planet motion energy analysis forces us to accept that these waves are produced by the planets motions energies

Here – we need to answer (from what source these waves are produced?)

I prove the gravitational waves are produced by the planets motions energies and not by any gravitational field.

I provided two major proves

(1st proof) I proves there's no gravitational field and the sun has no massive gravity and no planet moves by the sun gravity

(2nd proof) the gravitational waves reflection proves the waves are produced by the planets motions energies because the waves reflection causes effects on the planets data

Second Difficulty

Now we know planet motion energy is stored in the space as moving waves (the gravitational waves)- But- the planets move since long period of time means the planets motions should cause to store massive motion energy in space during this long period- Now -where's this stored massive energy? also the energy can NOT be stored in space forever- so what's happening for this stored massive energy? I prove the sun rays are created from this stored massive energy and not from the sun nuclear fusion process- this is my research hypothesis – in all cases we should know how this stored massive energy be used because this massive energy can cause risk for the solar system stability.

Third Difficulty

Newton Mass gravity definition is disproved by planet motion energy

Because

Suppose the moon moves by the Earth mass gravity and the moon motion produces energy (1/2 mv^2) now let's ask- From What Source The Moon Motion Energy Is Provided? What's the moon motion reason? The mass gravity- means- the mass should provide the motion energy- means – if The moon moves by the Earth gravity that necessitates to decrease the masses of the Earth and the moon by the motion energy- here's the problem- Any Motion Is Done By Mass Gravity Will Cause To Decrease This Mass- this decrease is done because of the motion energy

The analysis tells us–the physicist supposes planet motion produces NO energy this is the only one solution for the problems created by the physicist neglect to observe planet motion energy-

3rdProblem Mass Gravity Force Analysis

The Refutation Of The Sun Gravitational Field

The Sun Doesn't Produce A Gravitational Field Nor Has Massive Gravity – let's prove that in following

(i)

The sun rotation period is (25.4 days– at equator) and (34.4 days – at pole) that shows the sun has no massive gravity nor even ordinary gravity equal any planet gravity otherwise the sun would rotate around its axis in one period of time-

(ii)

No Planet Moves By The Sun Gravity–Newton is wrong- because- Planet moves by the force caused its creation- means- planet creation and motion is done by one force only- otherwise this planet would be broken if two forces have effects on it-

Suppose planet is created (by any force) and the sun gravity attracted this planet and forced it to revolve around the sun by the sun gravity (as Newton imagined) that would force this planet to move against its internal structure and that will cause this planet to be broken-

Imagine a human is forced to walk on his hands in place of his legs- this human will be dead by this motion-

That's why the planet creation and motion is done by one force only- Newton mistake is that he didn't know how the planet is created- and he considered - the creation force is a historical force has no effect on the current motion- Shortly-the sun didn't cause to create any planet and the sun doesn't cause any planet to move

(iii)

We agreed that, mass gravity force can NOT cause any motion- again Newton is wrong- because –any motion will produce energy- suppose the moon moves by the Earth mass gravity- the moon motion produces energy- and – from what source this energy is provided? From the masses of the Earth and the moon –here's the problem

Where Any Motion Is Done By Mass Gravity Will Cause To Decrease This Mass

BUT Mass gravity is a fact - the mass gravity creates a bond between two masses (The Earth and the moon are bond by their masses gravity ) if some outer force causes the Earth to move the moon will move with the Earth and in this case the outer force will provide the motion energy for the Earth and the moon.

(iv)

The planets order contradicts the gravitation equation- for example- Jupiter the greatest mass is not the most near planet to the sun- when we asked the physicist told us this problem is done by (the planets initial conditions)- all these are wrong- planet orbital distance does NOT depend on the sun mass nor on this planet mass- planet orbital distance depends on its neighbor planet orbital distance – my equation proves this fact- let's see it

Planet orbital distance equation (my 1st equation)

d^2= 4do (d-do)

where d=planet orbital distance

do= its neighbor orbital distance

Example (1) Venus orbital distance (108.2)^2 = 4 x 57.9 x (50.3)

d= 108.2 million km = Venus Orbital Distance d0= 57.9 million km = Mercury Orbital Distance

50.3million km=The Distance Between Venus And Mercury Venus Depends On Mercury

Example (2) Saturn orbital distance (1433)^2= 4 x 778.6 x 655

d= 1433 million km = Saturn Orbital Distance d0= 778.6 million km = Jupiter Orbital Distance

655million km=The Distance Between Saturn And Jupiter Saturn Depends On Jupiter

All planets orbital distances are defined based on their previous neighbor planets orbital distances- the equation is correct and discussed in item no. (III)- Shortly- planet mass has no any effect on this planet orbital distance definition.

Notice

Planet orbital distance definition depends on its neighbor orbital distance this fact is proved by many different methods my equation is one method only of them, all these methods don't use any planet mass- all planets orbits are defined based on their neighbor planets orbits (item No. III has more proves)

(v)

Also-Newton told-planet motion depends on its mass- means-planet velocity depends on its mass- this also is wrong - I define planet velocity (my 5th equation)- planet velocity is defined by many rules all of them don't use any planet mass- at all Planet mass has no rule in this planet velocity definition.

The Conclusion

The Sun Doesn't Produce Any Gravitational Field

4th Problem The Matter Creation And Its Nature Definition

In following we compare between the physics book theory about the matter creation and my theory about it- the discussion contains Two points

I- The Physics Book Theory About The Creation of the Matter (Mass)

The Matter Is Created Independently From Any Outer Motion – means- even if the matter motion is stopped the matter is still found and never be perished (the motion here means the outer motion and not the atoms motions)

The Matter Is Motionless By Nature

The Matter Needs Mass Gravity Force To Cause Its Motion

The Matter Data And Dimensions Are Not Changed By Its Motion

The big bang theory tells planet is created by random creation- for example- Jupiter diameter is created by unknown value and Jupiter is collided many times in its history and these collisions caused Jupiter diameter (and mass) to be decreased- based on that– Jupiter diameter value (142984 km) is found by random process and without any geometrical reason behind- by that- the big bang theory prevent us to use any planet data to discover the creation and motion rules of this planet.

Note – The physicist doesn't use planet data in forming a theory to explain this planet motion-for example- Jupiter diameter is 142984 km and the physicist has a theory explains Jupiter motion but if Jupiter diameter is changed into 180000 km the theory will have no change because the physicist doesn't consider Jupiter diameter is a player in its motion- that's why the big bang theory is wrong because it supposes the change in diameter and mass doesn't cause a change in motion

Shortly- the physics book doesn't tell how the matter is created nor what's the matter nature- we remember Einstein problem in physics- he told (All researches in particle electromagnetic properties can't predict this particle behavior in the daily life physics) that shows two different branches of the physics one for the electromagnetism and the other for the mass gravity physics

II- My Theory About The Creation of the matter (mass) –

The Matter Main Features Are:

The Matter Is Created In Pairs Means- No Single Matter Is Created -This conclusion depends on Gamma ray experiment -From Gamma ray (1.2 Mev) electron and positron are created- by this experiment- the matter is created in pairs from electromagnetic waves- the produced pair particles motions depend on each other (or related to each other) (notice the creation system is male and female–two complementary matters-that tells the source of energy must be electromagnetic wave)

The matter is created depending on its motion- means- the motion is found before the matter creation- this conclusion depends on my planet diameter equation because planet diameter is created depending on this planet velocity (for example Neptune diameter is 49528 km because Neptune velocity is 5.4 km/s)- means–Planet motion is defined before its creation -later explained

Lorentz transformation proves Matter dimensions are effected by high speed motion- also- Lorentz transformation proves the matter and space are created from the same energy for that particle length and distance both are contracted by the same one equation (Lorentz length contraction effect)

The Matter Is Created Depending On Light Motion –

The Discussion Proves These Features Strongly

The Matter Creation Depends On 5 Main Facts Which Are

Gamma Ray Can Produce Electron And Positron

Lorentz Transformation

My Planet Diameter Equation

The Coherence Of Light (Young Interference)

Planet Diameter Creation Depends On This Planet Orbit

(Item No. i) Gamma Ray Can Produce Electron And Positron From Gamma ray (1.2Mev) one electron and one positron are created- I prove the matter is created by this method- means- the matter is created in pairs and no single matter is created

(Item No. ii) Lorentz Transformation

Lorentz transformation tells

If a particle moves by high speed motion (near to speed of light), this particle length would be contracted and its mass would be increased and its time would be dilated

I accept this meaning clearly and find this meaning supports my theory strongly BUT Many physics Books tell the following

(NO Real Change Is Done For Any Particle Data Moves By High Speed Motion But All Changes Are Illusions Of Measurements)-

Means- while a particle is moving by high speed motion and the experiments results show contraction in its length and increasing in its mass and dilation in its time – these changes are just illusions in measurements and the particle itself has no change in any data - tenth of books tell this meaning clearly and with confirmation and the physicist killed Lorentz work and made Lorentz transformation measures illusions and not facts- regardless the empirical proves which supports Lorentz transformation

I refuse these books idea because

The Physics Is The Measurements Science And What's Measured Is The Fact

If no real changes are done how the problem of Michelson and Morelly experiment is solved?- also- Why the synchronous events in one frame can't be synchronous in another (as Einstein stated) where no change is found for any data- the distances are Not contracted nor the time is dilated nor the mass is increased why the events can NOT be synchronous in any frame?

If the particle own data is measured correctly while it moves by my motion velocity and these measurements are suffered from illusions because the particle moves by high speed motion relative to my motion that means (I'm the universe reference point)

We notice- Lorentz length contraction equation can't distinguish between particle length and a distance, both can be contracted by the same one equation- that supports my theory tells (Matter And Space Are Created From The Same Energy)–

My planet diameter equation proves planet diameter is created depending on this planet motion and also proves the matter and space are created from the same one energy which supports Lorentz transformation

NOTICE

The major importance of Lorentz transformation is

The transformation proves there's a connection between particle dimensions and its motion means the motion has effect on particle dimensions definition and by that the matter (mass) can't be independent because its existence depends on a motion- shortly (The Matter Existence Depends On Its Motion)

The matter and space are created from the same energy- because- particle length and the distance both are contracted by the same equation (Lorentz length contraction effect) shortly (Matter And Space Are Created From The Same One Energy) (This theory is proved by my planet diameter equation)

(Item No. iii) My Planet Diameter Equation

My Planet Diameter Equation (v1/v2)= (s/r)= I

v = Planet Velocity

r = Planet Diameter

I= Planet Orbital Inclination

s= Planet Rotation Periods Number In Its Orbital Period

v2, s, r and I are belonged to one planet and v1 is belonged to another planet

The planet (v1) is defined by test the minimum error

Earth Equation uses Neptune velocity

Mars Equation uses Pluto velocity

Jupiter Equation uses the Earth moon velocity

Saturn Equation uses Mars velocity

Uranus Equation uses Neptune velocity (As Earth)

Neptune Equation uses Saturn velocity

Pluto Equation uses the Earth moon velocity (As Jupiter)

Example Neptune Equation (89143 /49528) = 9.7/ 5.4 =1.8

89143 = Neptune rotation periods number in Neptune orbital period

49528 km = Neptune diameter

9.7 km/s = Saturn velocity and

5.4 km/s = Neptune velocity

1.8 degrees= Neptune Orbital Inclination

59800 days = Neptune orbital period (and Neptune rotation period =16.1 hours)

Discussion

(1)

The Equation Concept Planet diameter should be a function in its orbital distance –otherwise- this planet would be broken by its motion- BUT- the designer can't create a function has only 2 variables (Planet diameter and its orbital distance)- because– If this planet changes its orbit (orbital distance) its diameter would be broken also because the diameter is a direct function in the orbital distance without any other variables -As A Result- the designer created planet diameter as a function in this planet rotation period and the planet rotation period is created as a function in this planet velocity and the planet velocity is created as a function in this planet orbital distance- by that- the function between Planet diameter and its orbital distance is created but also it contains many variables (rotation period, orbital period and velocity)- by that- if the Planet changes its orbital distance- this planet orbital period, and velocity and rotation period would be changed but its diameter will be saved

(2)

Matter Definition Based On My Planet Diameter Equation

My equation tells, Planet diameter is created depending on its velocity- for example Neptune diameter is 49528 km because it velocity is 5.4 km/s where the velocity is used in the diameter definition equation- means- Planet motion is defined before this planet creation- how can that be possible? let's answer in following

The original energy was in motion and planet matter is created from this moving original energy and planet matter dimensions are defined by this original energy motion features- after Planet creation, the planet moves with this original energy motion means the planet moves this same motion based on which the planet data and dimensions are created that's why Planet data is in full harmony with its motion features- that explains how planet diameter is created based on its velocity

Shortly- the matter is similar to a muscle in a creature- the muscle dimensions depend on the blood motion- similar to that- the matter dimensions depend on this energy motion from which this matter is created-

Also space is similar to the sea of water- and the matter is similar to a whirlpool (vortex) is found on the sea page- the matter creates for itself a distinguished picture different from the space picture and the matter moves by a different velocity from the space motion velocity- as the whirlpool (vortex) on the sea page- it's created by the sea water but it has a distinguish picture from the sea waves and it moves by a different velocity from the sea waves- that explains how the moving energy can effect on the matter creation data- for example- we have a whirlpool (vortex) its diameter is 2 meters- why does this diameter equal= 2 meters? The diameter is created depends on the water motion velocity, pressure, amount and motion angle and many other features of (the moving water)- the moving water creates this whirlpool with diameter 2 meters and as long as the water motion is not changed this diameter will not be changed also- (notice- The Gravitational Waves Prove The Space Has Motion And Not Static)

NOTICE Also (No Planet Moves By The Sun Gravity) Newton is wrong, because planet moves by the energy from which this planet is created- as explained here – means– The Matter Is Not Motionless By Nature- The Matter moves with the energy from which this matter is created-

(3)

Matter Existence Depends On Its Motion

Shortly-if the motion is stopped the matter will be perished- again the matter is similar to a muscle in a creature body- if the blood motion is stopped the muscle will be perished- this is the fact- Based on that- Neptune velocity is 5.4 km/s if Neptune stops its motion Neptune diameter and matter will be perished-

The fact I prove is (The Matter Creation Depends On Its Motion) – Lorentz transformation and my planet diameter equation supports this fact strongly

DEEP DISCUSSION

(4)

The Matter Is Created In Pair And No Single Matter Is Created

Planet velocity is defined based on the rule (v1v2=constant= 322) let's prove that

322 = 47.4 km/s (Mercury velocities) x 6.8 km/s (Uranus velocities)

322 = 35 km/s (Venus velocity) x 4.7 km/s (Pluto velocity) x 2

322 = 29.8 km/s (the Earth velocity) x 5.4 km/s (Neptune velocities) x 2

322 = 24.1 km/s (Mars velocity) x 13.1 km/s (Jupiter velocity)

322 = (17.9 km/s)^2 (Ceres velocity) (Max error 2%)

The idea is understandable – let's summarize it in following

(i)

The planets velocities are created complementary one another based on the rule (v1v2=constant= 322) and

(ii)

Planet data is created depending on its velocity- means- planet velocity is the first data in this planet creation and based on the velocity all other data is created- as we see in the planet diameter equation, planet diameter and all creation data is created depending on this planet velocity- means- based on (v1/v2) but planet orbital distance is defined based on (v1/v2)^2 and planet orbital period is defined based on (v1/v2)^3

Based on this system planet data is created but we know that planet orbital distance is defined before planet creation and based on the orbit, planet velocity is defined and then all data is defined based on the planet velocity-

(iii)

Now the idea is clear- let's summarize it

The planets velocities are created complementary one another based on the rule (v1v2=322) and planet diameter is created depending on its velocity for that reason planet diameter is created complementary to another planet diameter- let's prove that

341.7 million km = Jupiter diameter 142984 km x Pluto diameter 2390 km

341.7 million km = Jupiter radius 71492 km x Mercury diameter 4879 km (2%)

341.7 million km = Saturn diameter 120536 km x 4 Mars diameter 6792 km (4%)

341.7 million km = Uranus diameter 51118 km x Earth radius 6378 km (5%)

341.7 million km = Neptune diameter 49528 km x 2 The Moon diameter 3475 km

Clearly we see the planets diameters are complementary one another- because the matter is created in pairs and no single matter is created

Notice (1)

Suppose the physicist can create a type of single matter which has no complementary can that disprove my theory tells (The Matter Is Created In Pair And No Single Matter Is Created?) NO NEVER

Because- the matter is created from the original energy and the energy uses a system depends on matters in pairs complementary one another- means any type of matter can't be used by the original energy will be neglected and useless because the energy uses matters in pairs

(Item No. v) The Coherence Of Light (Young Interference)

I provide proves tell Gamma Ray and Young experiments are used in the solar planets creation – let's remember these experiments

(1st Experiment) Gamma ray (1.2 Mev) can produce electron and positron

(2nd Experiment) the coherence of light experiment (Young Interference)

Let's provide the proves for the using of these two experiments in the planets creation

Gamma Ray Experiment

There are two facts prove this experiment concept is used in the planets creation

First Fact Planet creation data is defined based on its velocity- this fact is proved by my planet diameter equation because planet diameter is created depending on this planet velocity as explained before (Neptune diameter is 49528 km because Neptune velocity is 5.4 km/s)-means- Planet velocity is the first data in this planet creation process and based on this velocity all planet creation and motion data is created

Second Fact Planet velocity is complementary one another, which is proved by the rule (v1v2= 322 = constant)- that shows the planets data must be complementary one another as I have proved in the diameters values analysis

Shortly – The planets data are complementary one another (similar to the electron and positron are created from Gamma ray)

The Coherence of light Experiment (Young Interference)

There are two facts prove this experiment concept using in the solar system creation

1st Fact

The planets order is typical for Young interference- if we consider planet diameter is equivalent to the fringe breadth by that the planets order be typical for Young interference where the greatest fringe is in the middle (the greatest planet Jupiter) and the fringes breadth is deceased gradually on both sides

(I Proved Mars Original Orbit Was Between Mercury And Venus- so the original inner planets order was Mercury – Mars – Venus – The Earth) which shows gradual decreasing in diameters- the outer planets diameters also is decreased gradually

2nd Fact

There's a coherence of light in the solar system- what does that mean?

Means- while planet orbit has energy of a light beam- another light beam enters this orbit by that there are two light beams in the same orbit- these two light beams create coherence of light- the planets orbits creation explain this fact in details- but here I want to prove this fact by simple direct proof before the planets orbits creation discussion –let's write this proof here

We have seen that the planets velocities are complementary one another by the rule (v1v2=constant=322) and planet all data is created depending on its velocity- by that the planets diameters also follow this rule where (R1R2= constant) as I have proved in my planet diameter equation

Now let's ask – can the planets orbits complementary one another? NO

So- how this rule (v1v2=constant= 322) is found?

By the energy reflection- means- the energy is reflected in the solar system and this reflection of energy causes the velocities to be reflected on one another and that produced the rule (v1v2=constant= 322)

We note the planets can’t be reflected on each other because the planets are connected with their orbits- and the energy reflection needs freedom in motion- means- this reflection of the planets velocities are done by effect of the energy reflection- please note- the energy reflection is a proved fact in the solar system- this fact is proved by hundreds of the planets data because the energy reflection cause effects on the planets data- shortly- the planets data is created by effects of the energy reflection-

Here we see the coherence of light is created because the orbits have energy where the space is energy and (Another energy is reflected and moved through all orbits and caused to create the planets data) by that each orbit has two energies together- I prove both energies are light beams-for that the two light beams create a coherence of light

I want to say- there are two facts prove the solar system has coherence of light which are the reflection of energy and the planets order

The planets orbits creation explain this theory in details I discuss it in item no. (**)

NOTICE

Please Note – I proved Mars original orbit was between Mercury and Venus and Mars is migrated to its current orbit behind the Earth- by that the inner planets original order was (Mercury – Mars – Venus – The Earth) here we see planets diameters are decreased gradually from the Earth to Mercury where Jupiter was the planet beside the Earth- means – the planets diameters are decreased gradually from Jupiter to Mercury- and the outer planets – the planets diameters also are decreased gradually- as I explained – if we compare planet diameter with fringe- the planets order be typical to Young interference – but – the order is reflected each other –let's see that

The inner planets (Mercury – Mars – Venus – The Earth)- the order tells greater diameter necessitates longer orbital distance – but

The outer planets (Jupiter– Saturn– Uranus– Neptune –Pluto)- the order tells greater diameter necessitates shorter distance

Here we see the orders are reflected one another- but in Young interference there's no reflection- I want to say- the planets orders are reflected because of the sun position- if the sun is not found no reflection will be found- that means- the reflection of energy caused to create the sun in the solar system because the sun creation causes the planets order to be reflected one another- my paper proves the sun is created after all planets creation and motion – and the sun is created by the reflected energy

(Item No. vi) Planet Diameter Creation Depends On This Planet Orbit

The solar planets matters and their distances are created from one energy and this one energy is provided by one light beam and this light beam moves by speed = 1.16 million km per second (The speed is proved strongly and decisively)

The light (its speed 1.16 million km per second) built the solar system orbits starting from Mercury orbit toward Pluto orbit- the light created the planets orbits before any planet creation- means- all orbits are created before any planet creation- the orbits are created based on each other (this fact is proved by my planet orbital distance equation) after the light created all orbits and reach to Pluto orbit- the light energy is consumed in the space creation- and the rest energy is found in one light beam its speed is (300000 km/s = the known speed of light)- we understand this is one light beam its speed was 1.16 million km per second before the space creation (In Mercury Orbit) and its speed becomes 300000 km/s after the space creation (in Pluto orbit) as result for the energy consumption in the space creation-

In Pluto orbit - the light could Not move any further to build any more orbits because any additional space creation will consume more energy and that will decrease the light speed to be less than 300000 km/s (the known speed of light) – and – No known light moves by speed less than 300000 km/s – means- the light had no energy to move any further after Pluto orbit- for that- the light returns to its origin point (Mercury orbit) for that the light is reflected with speed (300000 km/s) from Pluto orbit to Mercury orbit passing through the built orbits– no energy is required in this motion for that the light beam moves with speed of light (300000 km/s) till Mercury orbit.

Please note- the light (300000 km/s) is reflected from Pluto to Mercury

The reflection of the light beam (300000 km/s) Caused To Create The Solar Planets

Comments

The light (1.16 million km per second) created the orbits with energy means the created orbits have energies- and each planet orbit energy is less than its previous neighbor orbit because the planets velocities are decreased gradually- almost the energy is less by rate 80% because the velocities are rated with (0.8)

Each planet diameter is created based on its orbit energy- the planet is similar to a tree planted in a ground and the planet orbit is this ground- that's why each planet diameter depends on this planet velocity and orbital inclination- please note Mars diameter equation proves this fact because Mars original orbit was between Mercury and Venus and Mars diameter is created based on this orbit energy and Mars had migrated from its original orbit to its current one behind the Earth but Mars diameter equation still shows Mars original orbital inclination (5.1degrees) while Mars current orbital inclination is 1.9 degrees- Mars diameter is created based on this inclination (5.1 deg) for that this inclination is seen in Mars diameter equation frequently (please review my planet diameter equation)

The Occurrence Of The Coherence Of Light - The light beam (300000 km/s) is reflected and passed through all created orbits- that shows there two light beams are found in the same area (in any orbit)- because in each orbit there's this orbit energy which is found with the orbit creation by the light (1.16 million km per second) for that we say (Space Is Energy) because any orbit has energy found with its creation- and also the reflected light beam (300000 km/s) passed through all orbits- by that- in any orbit there are two different light beams (two different energies) and these light beams create A Coherence together-

The Amazing Coherence Of Light There's a major interesting point here-the light beam (300000 km/s) created a coherence with the light 1.16 million km per second! BUT HOW?? because the light 1.16 million km per second is consumed and its energy is used for the space creation and the rest energy is this light beam moves by known speed of light (300000 km/s)!! how can the light beam (300000 km/s) meet the original light beam the 1.16 million km per second to create this coherence of light?

Please note- the speed 1.16 million km per second is the major used speed in the solar system data- means- the speed 1.16 million km per second is the secret by which the solar system data can be understood because all data is created as function in this speed-I prove that in the next pages- but this information is written to explain that the light 1.16 million km per second is consumed but its energy still works and causes continuous effect- BUT HOW??

Let's write the answer

The light (300000 km/s) is reflected to move from Pluto to Mercury (while the original light 1.16 million km per second moved from Mercury to Pluto) means the light (300000 km/s) moved in opposite direction for the motion of the original light 1.16 million km per second- MEANS- the light (300000km/s) moved in the opposite direction of space to reach to Mercury- BUT NOT ONLY- in fact- the light (300000 km/s) moved also in the opposite direction OF TIME and moved into its own past – and in past – this light beam (300000 km/s) met the original light beam 1.16 million km per second – and in past – the two light beams created the coherence of light and then this coherence of light results have effects on our present time-

Shortly- the coherence of light in the solar system proves the light beam (300000 km/s) moved on the time-axis and this is an empirical proof for the time-axis motion where the light can move simply on the time axis

Notice – this motion can help us to create the time machine- because- if the light can move into the past that means we may use this motion and take photos of the past events and this will be our time machine which can go into the past and make photos and videos for the past events – even the events since thousands of years we can see in videos or in photos – this motion of light can give us a great option to create our machine of time

Notice the original light beam 1.16 million km per second can not move into the future to meet the light beam (300000 km/s) because in future the original light 1.16 million km per second is NOT found because its energy is consumed in the space creation- but- the light beam (300000km/s) can move into the past because in the past the light beam (300000 km/s) was part in the original light beam 1.16 million km per second and by that the two light beams be found in the same time

Notice – we can not travel ourselves into the past- because planet diameter is created depending on its velocity- as proved by my planet diameter equation- means- the matter is created depending on its motion velocity- and the velocity is a motion in defined direction- the light is free in motion and doesn't forced to move in any direction for that the light has this option to move on the time axis but the matter is created depending on a motion in defined direction (no freedom in motion) for that the matter can't move on the time axis because the motion force the matter to move in a defined direction – the matter moved just to the future– and the matter can't move into the past-

Planet Creation Machine Please note–we see the coherence of light is done by the two light beams 300000 km/s and 1.16 million km per second (because the light beam 300000 km/s can reach to the light 1.16 million km per second by moving into its past)- shortly – here we have 2 light beams in any orbit- and these two light beams cause two motions – we can imagine these two motions are perpendicular on each other – this perpendicular motions create a wave and planet is created as a wave (Particle is a wave also)- that explains how the planets are created

Please note- The reflection of energy is very effective in the solar planets data because the reflection of energy caused the planets to be created- the matter can't be created by the energy of any orbit alone but the reflection of energy adds second energy inside each orbit- by that- two energies are found in any orbit (two light beams) by these two light beams the light coherence is created and also the planets are created as waves-that explains why the planets data prove the reflection of energy because the planets are created by this energy reflection- as when we plant a tree we need a ground and we need seeds to be put in this ground- two players- the planets are created by two energies (two light beams coherence) and for that the planets velocities are defined based on the two speeds (300000 km/s) and (1.16 million km per second) as planet velocity definition proves.

Please note the Matter Is Created In Pairs (as electron and positron from Gamma rays 1.2 Mev) – this is the main system of creation but -In planets creation the rule is used with some complex method- the complementary is found for the planets velocities and the planets data is created depending on these velocities- the same concept but the method is more complex- this similar to the creature creation- the cell reproduction is done by split the cell into two new cells- but in higher creatures the reproduction use more complex methods but the cell method is still the base of these complex methods

Please note the previous analysis tries to conclude how the planet matter is created – I put all available facts to reach to this conclusion- the matter real mechanism may be still not clear but many provided facts help to reach to this mechanism- also- we know the main concept behind the matter creation which is (The Matter Is Created In Pairs And Not Single Matter Is Created)

This Concept Is Proved Strongly And Clearly By The Gamma Rays Experiment And The Planets Data

(Item No. vii) The Proves Of The Light Speed 1.16 million km per second

THE SPEED PROVES

In following I prove the speed 1.16 million km per second is found

The paper provides many powerful proves – but - here I refer to 4 proves only

(1st Proof)

Planet Velocity Analysis proves the speed 1.16 million km per second

Data

322 = 47.4 km/s (Mercury velocities) x 6.8 km/s (Uranus velocities)

322 = 35 km/s (Venus velocity) x 4.7 km/s (Pluto velocity) x 2

322 = 29.8 km/s (the Earth velocity) x 5.4 km/s (Neptune velocities) x 2

322 = 24.1 km/s (Mars velocity) x 13.1 km/s (Jupiter velocity)

322 = (17.9 km/s)^2 (Ceres velocity) (Max error 2%)

Discussion

This is one rule used to define planet velocity- we know this rule (v1v2 = constant =322) – other rules are discussed in planet velocity definition- here we ask only

Why the constant is 322?? Because 1160000 seconds = 3600 x 322 hours

Means – for example

Mercury (47.4 km/s) moves in 6.8 hours a distance 1.16 million km – and

Uranus (6.8 km/s) moves in 47.4 hours a distance 1.16 million km-

Means- the light moves 1.16 million km but we see it as 1160000 seconds and based on this period the constant 322 hours is defined and based on this constant the planets velocities are defined- means- the planets velocities are defined as functions in the speed 1.16 million km per second

(2nd Proof) the planets orbital circumferences total is defined by light speed 1.16 million km per second- let's prove that

100733 million km = 86400 seconds x 1160000 km/s

100733 million km = The Planets Orbital Circumferences Total

86400 seconds = The solar day

Means- light its speed 1.16 million km per second passes in a solar day a distance = 100733 million km = The Planets Orbital Circumferences Total

The planets data analysis proves that the solar day is the major period of time in the solar system- that because- all planets rotation periods are defined based on it- the paper proves this fact strongly

(3rd Proof)

The planets orbits and orbital distances are created from the energy of the light beam its speed is 1.16 million km per second- for that- this speed is registered in the distances data – let's prove that in following

Example

778.6 million km (Jupiter orbital distance) = 1160000 km/s x 671 seconds

721 million km (Jupiter Mercury distance) = 1160000 km/s x 629 seconds

Where

671 million km = Jupiter Venus Distance

629 million km = Jupiter Earth Distance

This example tells that

The light (its speed 1.16 million km per second) created the distances based on each other- means

The light uses 671 million km (Jupiter Venus Distance) as a period of time 671 seconds to pass the distance 778.6 million km (Jupiter Orbital Distance)

Also -the light uses 629 million km (Jupiter Earth Distance) as a period of time 629 seconds to pass the distance 721 million km (Jupiter Mercury Distance)

By this method the light (1.16 million km per second) creates the distances based on each other- means – the distances be created in one network and by one design

the previous data is example for so many other distances let's see them in following

(778.6 / 671)= (721/629) = (629/551)= (2x551/940)= (4900/4188) = (5906/5127)= (5127/4437) = (4345/3717)= 1.16

Where

778.6 million km = Jupiter Orbital Distance

721 million km = Jupiter Mercury Distance

671 million km = Jupiter Venus Distance

629 million km = Jupiter Earth Distance

551 million km = Jupiter Mars Distance

940 million km = Earth Orbital Circumference

4188 million km = 2 x 2094 million km (Jupiter Uranus Distance)

4900 million km = Jupiter Orbital Circumference

5906 million km = Pluto Orbital Distance

5127 million km = Pluto Jupiter Distance

4437 million km = Mercury Neptune Distance

4345 million km = The Earth Neptune Distance

3717 million km = Jupiter Neptune Distance

The paper provides so many other powerful proves for the speed 1.16 million km

Notice

(1.16/0.3) x 2π = 24.3

The equation tells, because the solar system is created by light beam its speed 1.16million km per second with its other speed 300000 km/s

For that - the space is created in curved lines (2π) and the time is created based on the solar day (24 hours)- that explains why the planets orbital circumferences total depends on the solar day period

(4th Proof)

300000 = (205.8)^2 x 7.1 where

The 9 planets velocities total 176 km/s and I add the Earth moon velocity 29.8 km/s the total be 205.8 km/s - the unified wave velocity (205.8 km/s)

7.1 is Lorentz length contraction effect produced by speed 99% of speed of light-

Shortly- the reflection of energy causes to square the wave velocity for that the unified wave velocity (205.8 km/s) is squared by the energy reflection

Now (205.8 km/s)^2 = 42354

The rate 7.1 causes to increase the distance from (42354 km) to (42354 x 7.1= 300000 km)- note-although 7.1 is Lorentz length contraction rate but it increases the distances in place of the contraction effect because the reflection of energy causes to reflect the geometrical effects-

shortly the equation (300000=(205.8)^ x 7.1) proves the planets velocities are defined as function in the known speed of light (300000 km/s)

that proves the planets velocities are defined based on the two speeds of light –the known speed of light 300000 km/s and the original speed of light 1.16 million km per second.

NOTICE

Lorentz length contraction effect for a velocity 99% of speed of light (297000 km/s) is (7.1) as seen in the equation but the solar system uses this rate with modification

(7.1/100)+ 1 = 1.0725

And this final rate (1.0725) controls 40% of all planets data (distances, periods, axial tilts and other data)- this effect is a proof for the motion by high velocity because this rate (1.0725) controls 40% of all data in the solar system and no explanation except Lorentz length contraction effect- more proves are in (Item No. 5-6 Can Relativistic Effects Be Found In The Solar System?)

(Item No. viii) Planet creation depends on light motion

The previous analysis proves planet diameter is created depending on its orbit- specifically- planet diameter depends on its velocity and the velocity depends on its orbit- this fact is proved by my planet diameter equation (where planet diameter is created depending on its velocity) and by Kepler statement (Planet orbit defines its velocity) – but-

Why Does Planet Orbit Define Its Velocity?

Where I proved no planet moves by the sun gravity- by that the planet orbital distance has no effect on this planet motion or velocity nor planet mass has any effect on its velocity-So - Why Does Planet Orbit Define Its Velocity? The next data proves there's a connection between planet velocity and its orbit through light motion

DATA

300000 km = 4.7 km/s (Pluto velocity) x 3600 x 17.73

5906 s x 300000 km/s = 1773 million km

300000 km = 5.4 km/s (Neptune velocity) x 3600 x 15.43

5144 s x 300000 km/s = 1543 million km ((5144= 4495 x (1.0725)^2)

300000 km = 9.7 km/s (Saturn velocity) x 3600 x 8.6

2870 s x 300000 km/s = 8600 million km

300000 km = 6.8 km/s (Uranus velocity) x 3600 x 12.26

4085 s x 300000 km/s = 1226 million km

300000 km = 13.1 km/s (Jupiter velocity) x 3600 x 6.36

2120 s x 300000 km/s = 636 million km

Where

5906 million km = Pluto Orbital Distance

4495 million km = Neptune Orbital Distance

2872 million km = Uranus Orbital Distance = 2 x Saturn Orbital Distance

4900 million km = Jupiter Orbital Circumference

Notice

18048 million km (Uranus Orbital Circumference) = 4.4 x 4085 million km

4900 million km (Jupiter Orbital Circumference) = 2.3 x 2120 million km

4.4 = 2.2 x 2 (with 2.3 the error 5%)

Discussion

The data shows each outer planet velocity is related to its orbital distance by effect of the light motion (300000 km/s)- Uranus and Jupiter shows the rate 4.4 which related to Jupiter (3.1 deg Jupiter axial tilt + 1.3 deg Jupiter orbital inclination)- the energy is reflected from Uranus to Jupiter that causes the two planets use the same rate.

The data proves the planets motions depend on light motion and explains how the planet orbit defines its velocity

Notice

0.8 = (27.8 /35) = (24.1/29.8) = (10.8/13.1) = (5.4/6.8) = (17.2/21.4) = 19.8/24)

Where

35 km/s = Venus velocity

29.8 km/s = The Earth velocity

27.8 km/s = The moon velocity

13.1 km/s = Jupiter velocity

6.8 km/s = Uranus velocity

5.4 km/s = Neptune velocity note (10.8 = 5.4)

17.2 hours = Uranus Rotation Period

21.4 hours = 2 x 10.7 h Saturn Rotation Period

19.8 hours = 2 x 9.9 h Jupiter Rotation Period

24 hours = The solar day period

The data shows harmony between the planets velocities and their rotation periods

Third Item - My 5 Equations

My 5 Equations Prove Planets Creation and Motions Data Is Defined By Geometrical Rules (NO Random Creation)-I provide here the three main equations (1st, 4th and 5th) let's refer to them in following

Planet orbital distance equation (My 1st equation)

d^2= 4do (d-do)

where d= planet orbital distance and do= its previous neighbor orbital distance

Example (1) Venus orbital distance (108.2)^2 = 4 x 57.9 x (50.3)

d= 108.2 million km = Venus Orbital Distance

d0= 57.9 million km = Mercury Orbital Distance

50.3million km=The Distance Between Venus And Mercury Venus Depends On Mercury

Example (2) Saturn orbital distance (1433)^2= 4 x 778.6 x 655

d= 1433 million km = Saturn Orbital Distance

d0= 778.6 million km = Jupiter Orbital Distance

655million km=The Distance Between Saturn And Jupiter Saturn Depends On Jupiter

The equation depends on the planets order, just 2 neighbor planets can be used

The equation exceptions are, Earth depends on Mercury Not Venus – and Mars depends on Venus Not Earth And Pluto depends on Uranus Not Neptune

The Equation Concept Support

let's suppose–There's a right triangle by the 3 points The Sun, Mercury and Venus)- by that - Venus angle is (61 degrees) because Venus orbital distance (108.2 mkm) x cos (61) = Venus Mercury distance (50.3 mkm) – and

Earth angle is (51 degrees) because Earth orbital distance (149.6 mkm) x cos (51) = Earth Mercury distance (91.7 mkm) – and

Mars angle is (41.7 degrees) because Mars orbital distance (227.9mkm) x cos (41.7)= Mars Mercury distance (170 mkm)- and

Jupiter angle is (22.2 degrees) because Jupiter orbital distance (778.6 mkm) x cos (22.2)= Jupiter Mercury distance (721 mkm)

Similar to that – Saturn angle is 16.5, Uranus angle is 11.6 deg, Neptune angle is 9.2 deg and Pluto angle is 8 deg- these angles follow the same system

for example -Pluto angle is (8 degrees) because Pluto orbital distance (5906 mkm) x cos (8)= Pluto Mercury distance (5848 mkm) –

NOTICE No. (1)

The right angle and its triangle is (a hypothesis) – but we can prove it's a fact because (v1/v2) = (θ1/ θ2) -means – these angles are rated with their planets velocities – for example (Neptune velocity 5.4/ Pluto velocity 4.7) = (9.2 deg /8 deg)

NOTICE No. (2) these angles are complementary one another for that

940 = 61 x 2 x 8 = 51 x 2 x 9.2 = 41.7 x 22.2

(61 degrees) is Venus angle and (51 degrees) is The Earth angle and (41.7 degrees) is Mars angle and (8 degrees) is Pluto angle and (9.2 degrees) is Neptune angle and (22.2 degrees) is Jupiter angle

DISCUSSION

The equation and angles system data prove the following

(1)

The planets orbital distances are defined based on their neighbors and NO mass is required to define it- Newton is wrong- planet orbital distance is Not defined based on this planet mass (also planet motion doesn't depend on its mass)

Shortly- the mass is not related for the orbital distance definition at all

(2) The gravitation equation is wrong because it contradicts the planets order- for example (Mercury- Venus – the Earth) this order tells more mass needs longer orbital distance while the gravitation equation tells more mass needs shorter distance- clearly the equation contradicts the planets order- also Jupiter the greatest mass is not the more near planet to the sun – when we asked the physicist he told this is happened because of the planets initial conditions- my equation proves no initial conditions have effects on any distance – all distances are defined by the same one rule and the angles system supports the equation concept proves that (the planets orbital distances are defined based on each other and no mass is required in this definition)

Planet Diameter Equation (My 4th equation)

My Planet Diameter Equation (v1/v2)= (s/r)= I

v = Planet Velocity

r = Planet Diameter

I= Planet Orbital Inclination

s= Planet Rotation Periods Number In Its Orbital Period

v2, s, r and I are belonged to one planet and v1 is belonged to another planet

The planet (v1) is defined by test the minimum error

Earth Equation uses Neptune velocity

Mars Equation uses Pluto velocity

Jupiter Equation uses the Earth moon velocity

Saturn Equation uses Mars velocity

Uranus Equation uses Neptune velocity (As Earth)

Neptune Equation uses Saturn velocity

Pluto Equation uses the Earth moon velocity (As Jupiter)

Example Neptune Equation (89143 /49528) = 9.7/ 5.4 =1.8

89143 = Neptune rotation periods number in Neptune orbital period

49528 km = Neptune diameter

9.7 km/s = Saturn velocity and

5.4 km/s = Neptune velocity

1.8 degrees= Neptune Orbital Inclination

59800 days = Neptune orbital period (and Neptune rotation period =16.1 hours)

All planets diameters follow this equation perfectly

Notice- This equation is discussed with matter creation and definition (item no. I) also the equation is analyzed and discussed with all details in the paper discussions

Planet velocity equation (My 5th equation)

Planet velocity definition is important point of study because many planet data is defined based on its velocity- specifically

Planet diameter is defined based on the rate (v1/v2) by my planet diameter equation –discussed before – and

Planet orbital distance is defined by the rate (v1/v2)^2 –and

Planet orbital period is defined by the rate (v1/v2)^3

Please note – Kepler stated (Planet orbit defines its velocity) and it's fact proved by the planets data – but Newton stated Planet motion depends on its mass- this is NOT Fact and Planet velocity is defined without any effect of its mass as the data shows

(I have refuted Newton theory of the sun gravity and his theory for mass gravity)

Now – let's ask - How Is Planet Velocity Defined?

Planet velocity is defined by Five Rules let's see them in following

(i) First Rule

v1v2 = constant= 322 (my 5th equation)

47.4 km/s (Mercury velocity) x 6.8 km/s (Mercury velocity) =322

35 km/s (Venus velocity) x 4.7 km/s (Pluto velocity) x 2 =322

29.8 km/s (The Earth velocity) x 5.4 km/s (Neptune velocity) x 2 =322

24.1 km/s (Mars velocity) x 13.1 km/s (Jupiter velocity) =322 (Max error 2%)

The rule (v1v2=322) tells the velocities are defined in pairs and not individually, each planet velocity has its own complementary- the rule tells the velocities are reflected on one another- the reflection of energy and data is discussed later.

In this rule we interest for the constant (322)- let's ask- why the constant = 322?

The constant 322 depends on the speed 1.16 million km per second because

(1160000 seconds = 322 hours) - Means

Mercury (47.4 km/s) moves in 6.8 hours a distance = 1.16 million km and

Uranus (6.8 km/s) moves in 47.4 hours a distance = 1.16 million km

Shortly -we realize that the constant 322 is produced based on the speed 1.16 million km per second- means- the planets velocities are complementary each other because they are defined as functions in this same speed 1.16 million km per second

(This is similar to electron and positron are produced from Gamma ray, The two particles depend on Gamma energy in their masses)

Based On This Data

I concluded there's a light beam its speed 1.16 million km per second and from this light beam energy the solar system is created- and the planets velocities are defined as functions in this speed 1.16 million km per second and that causes the velocities to be complementary each other-

(Note the speed 1.16 million km per second is proved strongly in my paper)

(ii) Second Rule

v1v2 = 1

The velocity here uses the solar day (86400 seconds) – let's prove that-

Mercury moves per solar day = 4.095 million km

Venus moves per solar day = 3.024 million km

The Earth moves per solar day = 2.574 million km

The Moon moves per solar day = 2.4 million km

Mars moves per solar day = 2.082 million km

Jupiter moves per solar day = 1.1318 million km

Saturn moves per solar day = 0.838 million km

Uranus moves per solar day = 0.5875 million km

Neptune moves per solar day = 0.4665 million km

Pluto moves per solar day = 0.406 million km

AND

0.406 (Pluto velocity) x 2.4 (the moon velocity) = 1 (error 2.5%)

0.4665 (Neptune velocity) x 2.082 (Mars velocity) = 1 (error 2.5%)

0.5875 (Uranus velocity) x 3.024 (Venus velocity)/1.772 = 1 (error 2.5%)

0.838 (Saturn velocity) x 1.1318 (Jupiter velocity) = 1 (error 5%)

(1.772 = π^1/2)

The second rule tells very similar meaning (v1v2= constant= 1)

The data uses the velocities per solar day for that the constant is changed from 322 into 1 but the rule is the same- (v1v2= Constant)

I want to say- the rule (v1v2 = Constant) tells that (The Velocities Are Reflected On Each Other) this conclusion is simple one (A x 1/A= constant=1)

The rule proves the energy is reflected in the solar system and this reflection has effect on the planets data and for that the planets velocities are defined by this energy reflection and the velocities are produced complementary each other as a result.

Notice the second rule causes confusion because the complementary player is changed- for example Pluto is complementary with Venus (in the first rule 35 x 4.7 x 2 = 322) but Pluto is complementary with the Earth moon in the second rule (0.406 x 2.4 = 1) that tells the players are changed which is illogical idea- how can we solve this problem? The third rule solves it – let's see this rule in following

(iii) Third Rule

v1/v2 = 0.8 (based on the planets order)

47.4 km/s (Mercury velocity) x 0.8 = 38 (35 km/s = Venus velocity error 7.25%)

35 km/s (Venus velocity) x 0.8 = 27.78 (The moon velocity)

29.8 km/s (The Earth velocity) x 0.8 = 24.1 (Mars velocity) (error 1%)

24.1 km/s (Mars velocity) x 0.8 = 2 x 9.7 (Saturn velocity)

13.1 km/s (Jupiter velocity) x 0.8 = 2 x 5.4 (Neptune velocity) (error 3%)

6.8 km/s (Uranus velocity) x 0.8 = 5.4 (Neptune velocity)

5.4 km/s (Neptune velocity) x 0.8 = 4.3 (Pluto velocity 4.7 the error 7.25%)

Please note

The error 7.25 is found by the rate 1.0725 – that means

47.4 km/s (Mercury velocity) x 0.8 = 38 = 1.0725 x 35 km/s (Venus velocity)

5.4 km/s (Neptune velocity) x 0.8 = 4.3= 4.7 km/s (Pluto velocity) / 1.0725

29.8 km/s (Earth velocity) = 27.78 km/s (The moon velocity) x 1.0725

We know the rate 1.0725 is found by Lorentz length contraction effect- and we know this rate has effect on around 40% of all planets data – that's why we see this rate has effect on the planets velocities definition-

Let's remember the question-

In the rule (v1v2=322) we found that Pluto is complementary with Venus because

4.7 km/s (Pluto velocity) x 35 km/s (Venus velocity) x 2 = 322

But in the rule (v1v2 =1) we found Pluto is complementary with the moon because

0.406 mkm (Pluto Velocity Daily) x 2.4 mkm (The Moon Velocity Daily) = 1

The question asked – if the planets velocities are defined in pairs complementary each other and not individually how can the players be changed?

The answer tells – the planets velocities are rated by (0.8) based on the planets order means – the moon velocity daily 2.4 mkm = Venus velocity daily 3.024 mkm x 0.8

The rate (0.8) defines all planets velocities depend on each other by order-

Now let's see Planet velocity final definition– because- the definition uses three planets velocities together and not only two – let's put that clearly in following-

(iv) The Planet Velocity Final Definition

(A)

47.4 km/s (Mercury velocity) x 0.8 = 38 km/s (Venus velocity 35 km/s)

Venus moves per solar day 3.024 million km -But

1/3.024 = 0.3307 million km = Uranus moves per solar day 0.5875 million km /1.77

(note 1.77 = π^1/2) and (38 = 35 x 1.0725)

For that

47.4 km/s (Mercury velocity) x 6.8 km/s (Uranus velocity) = 322

(B)

35 km/s (Venus velocity) x 0.8 = 27.78 km/s (The Moon velocity)

The moon moves per solar day 2.4 million km -But

1/2.4 = 0.406 million km = Pluto moves per solar day 0.406 million km

For that

35 km/s (Venus velocity) x 4.7 km/s (Pluto velocity) x 2 = 322

(C)

29.8 km/s (The Earth velocity) x 0.8 = 24.1 km/s (Mars velocity)

Mars moves per solar day 2.082 million km -But

1/2.082 = 0.4665 million km = Neptune moves per solar day 0.4665 million km

For that

29.8 km/s (The Earth velocity) x 5.4 km/s (Neptune velocity) x 2 = 322

(D)

13.1 km/s (Jupiter velocity) x 0.8= 2 x 5.24km/s (Neptune velocity 5.4 km/s error 3%)

Neptune moves per solar day 0.4665 million km - But

1/0.4665 = 2.082 million km = Mars moves per solar day 2.082 million km

For that

13.1 km/s (Jupiter velocity) x 24.1 km/s (Mars velocity) = 322

Shortly

Three planets velocities are defined in each equation- that tells the planet velocity definition is a process more complex than the simple equation (v1v2= constant)

Notice

The 9 planets velocities total is 176 km/s – if we add the Earth moon velocity (29.8 km/s) the total will be 205.8 km/s

The planets velocities are complementary also for this velocity 205.8 km/s – let's see

205.8 km/s = Mercury velocity (47.4 km/s) x Pluto velocity (4.7 km/s) / 1.0725

205.8 km/s = Venus velocity (35 km/s) x Neptune velocity (5.4 km/s) x 1.0725

205.8 km/s = Earth velocity (29.8 km/s) x Uranus velocity (6.8 km/s)

205.8 km/s = Jupiter velocity (13.1 km/s) x Neptune velocity (5.4 km/s) x 3

Mercury velocity = 2 Mars velocity by that Pluto will be used for Mars also

Max error (3%)

Please Note- Saturn is exceptional because

205.8 km/s = 9.7 km/s (Saturn velocity) x 21.4

Where 21.4 hours = 2 x 10.7 hours (Saturn rotation period) -Means- the distance is passed by all planets motions in one hour equal the distance is passed by Saturn in 2 rotation periods (21.4 hours) that tells more analysis is required for Saturn velocity- as we should do later.

A QUESTION

(Why Is The Rate (0.8) Used To Define Each Planet Velocity Based On Its neighbor?) Kepler stated (Planet orbit defines its velocity) and

My planet orbital distance equation proves each planet orbit is defined based on its neighbor – means- my equation uses only 2 neighbor planets orbital distances

Here also-Planet velocity is defined based on its neighbor – means- this connection enabled Kepler to conclude his statement (Planet orbit defines its velocity)

But Why The Rate (0.8)??

The rate (0.8) is found by the energy reflection effect on Planets velocities definition, for that we analyze the energy reflection process deeply in the paper discussion (CONT)

Gerges Francis Tawdrous +201022532292

Physics Department- Physics & Mathematics Faculty

Peoples' Friendship university of Russia – Moscow

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#Earth #solar storm #Northern Hemisphere #U.S. National Oceanic and Atmospheric Administration #solar outburst #geomagnetic storm #Northern Lights #Federal Emergency Management Agency #Space Weather Prediction Center #NASA #solar flare #coronal mass ejection #plasma #magnetic field #corona #radiation levels #aurora borealis #aurora

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thepastisalreadywritten · 9 months ago

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By Marcia Dunn

Updated 9:45 PM, 11 May 2024

CAPE CANAVERAL, Fla. (AP) — An unusually strong solar storm hitting Earth produced stunning displays of color in the skies across the Northern Hemisphere early Saturday, with no immediate reports of disruptions to power and communications.

The U.S. National Oceanic and Atmospheric Administration issued a rare severe geomagnetic storm warning when a solar outburst reached Earth on Friday afternoon, hours sooner than anticipated.

The effects of the Northern Lights, which were prominently on display in Britain, were due to last through the weekend and possibly into next week.

Many in the U.K. shared phone snaps of the lights on social media early Saturday, with the phenomenon seen as far south as London and southern England.

"There were sightings from top to tail across the country,” said Chris Snell, a meteorologist at the Met Office, Britain’s weather agency.

He added that the office received photos and information from other European locations including Prague and Barcelona.

NOAA alerted operators of power plants and spacecraft in orbit, as well as the Federal Emergency Management Agency, to take precautions.

“For most people here on planet Earth, they won’t have to do anything,” said Rob Steenburgh, a scientist with NOAA’s Space Weather Prediction Center.

The storm could produce northern lights as far south in the U.S. as Alabama and Northern California, NOAA said.

But it was hard to predict and experts stressed it would not be the dramatic curtains of color normally associated with the northern lights, but more like splashes of greenish hues.

“That’s really the gift from space weather: the aurora,” Steenburgh said.

He and his colleagues said the best aurora views may come from phone cameras, which are better at capturing light than the naked eye.

"Snap a picture of the sky and there might be actually a nice little treat there for you,” said Mike Bettwy, operations chief for the prediction center.

The most intense solar storm in recorded history — in 1859 — prompted auroras in central America and possibly even Hawaii.

“We are not anticipating that but it could come close," NOAA space weather forecaster Shawn Dahl said.

This storm poses a risk for high-voltage transmission lines for power grids, not the electrical lines ordinarily found in people’s homes, Dahl told reporters.

Satellites also could be affected, which in turn could disrupt navigation and communication services here on Earth.

An extreme geomagnetic storm in 2003, for example, took out power in Sweden and damaged power transformers in South Africa.

Even when the storm is over, signals between GPS satellites and ground receivers could be scrambled or lost, according to NOAA.

But there are so many navigation satellites that any outages should not last long, Steenburgh noted.

The sun has produced strong solar flares since Wednesday, resulting in at least seven outbursts of plasma.

Each eruption, known as a coronal mass ejection, can contain billions of tons of plasma and magnetic field from the sun’s outer atmosphere, or corona.

The flares seem to be associated with a sunspot that’s 16 times the diameter of Earth, NOAA said.

It is all part of the solar activity ramping up as the sun approaches the peak of its 11-year cycle.

NASA said the storm posed no serious threat to the seven astronauts aboard the International Space Station.

The biggest concern is the increased radiation levels, and the crew could move to a better shielded part of the station if necessary, according to Steenburgh.

Increased radiation also could threaten some of NASA’s science satellites.

Extremely sensitive instruments will be turned off, if necessary, to avoid damage, said Antti Pulkkinen, director of the space agency’s heliophysics science division.

Several sun-focused spacecraft are monitoring all the action.

“This is exactly the kinds of things we want to observe,” Pulkkinen said.

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tardistimeladyyeah · 6 months ago

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Super quick, Republicans are trying to rebrand Project 2025 as Agenda 47. THEY ARE PRETTY MUCH THE SAME THING, so both horrible. They will keep changing the name/rebranding it until it succeeds or until everyone who supports it just stops (supporting it or existing).

John Oliver had a segment on weather a few years ago that is still fairly relevant (like most of his segments). It aired during the Trump administration and focuses on privatizing weather reports and I hope they get a chance to talk about it again.

youtube

Also here's a recent article about what's actually happening since the video is from 2019 (I miss 2019)

Reminder: the companies and political entities pushing Project 2025 have addresses and go out to lunch a lot and should never eat a spitless meal for the rest of their lives.

Practice bagpipes outside their secure compounds.

Follow them around ringing a bell wherever they go.

If they are going to be farcically evil, be Animaniacally good. Be the definition of chaotic justice.

Also, vote. It might just kick the ball down the road a bit, but that gives people more time to organize a concerted resistance (in no way on any social media platform) to the fascist creep happening in America. It is possible to take this country from the bastards who control it, it will take work, effort, and occasionally going offline and talking to humans though.

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tornadoquest · 9 days ago

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Tornado Quest Top Science Links For January 11 - 18, 2025 #science #weather #climate #climatechange #winter #wildfire

Greetings to all! I’m glad you stopped by. This week, we’ll continue with winter weather safety information, the latest US Drought Monitor update, and several very interesting science reads. Let’s get started. Tornado Quest micro podcast for January 11 – 18, 2025 Much has been written about the Hubble telescope over the years. Here’s an interesting read on a chapter of the Hubble’s history that…

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multimediacreative · 4 months ago

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Aurora – the biggest display of lights on Earth

#aurora #aurora polaris #Extreme Weather Taranaki #folklore #FOOD VIEWS from around the world #indigenous #introduction offer #New Zealand #NOAA Space Weather Prediction Center #northern lights #solar cycle #solar flares #southern lights #Sun

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futurefatum · 4 months ago

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Channeled Message- The Time of New Earth (Tone: 300)

The New Earth is here! Stay focused on heart-centered creation as the shift continues. #NewEarth #SpiritualAwakening

Posted on October 8th, 2024 by @iamsarahshook ABOUT THIS VIDEO: The video discusses the ongoing transition towards a “New Earth,” where spiritual awakening and the convergence of timelines are central themes. It addresses the role of dark entities trying to maintain control through manipulation and resource depletion, while lightworkers are urged to stay focused on creating the New Earth. The…

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townpostin · 7 months ago

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Monsoon Arrives in Jharkhand, Bringing Relief from Heat

Weather department predicts good rainfall across 24 districts in coming days Temperature drop expected as southwest monsoon advances through the state. RANCHI – The southwest monsoon has officially entered Jharkhand, including the Kolhan region, on Friday, according to Dr. Abhishek Anand, meteorologist at the Ranchi center. "We expect the monsoon to expand further in the coming days, with good…

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#राज्य #Bay of Bengal weather system #Dr. Abhishek Anand meteorologist #Jamshedpur weather update #Jharkhand agriculture monsoon impact #Jharkhand district rainfall predictions #Jharkhand monsoon arrival #Jharkhand temperature drop #Kolhan region rainfall #Ranchi weather center forecast #southwest monsoon advance India #STATA

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xtruss · 2 years ago

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Solar Storm Expected to Make Northern Lights Visible in 17 States

An Aurora Borealis, also known as the northern lights, is seen in the night sky in the early morning hours of Monday, April 24, 2023, near Washtucna, Washington. A solar storm forecast for Thursday, July 13, is expected to give skygazers in more than a dozen American states a chance to glimpse the Northern Lights. (AP Photo/Ted S. Warren)

— Associated Press | Saturday July 8, 2023

A Solar Storm forecast for Thursday is expected to give skygazers in 17 American states a chance to glimpse the Northern Lights, the colorful sky show that happens when solar wind hits the atmosphere.

Northern Lights, also known as Aurora Borealis, are most often seen in Alaska, Canada and Scandinavia, but an 11-year solar cycle that’s expected to peak in 2024 is making the lights visible in places farther to the south. Three months ago, the light displays were visible in Arizona, marking the third severe geomagnetic storm since the current solar cycle began in 2019.

The Geophysical Institute at the University of Alaska at Fairbanks has forecast auroral activity on Thursday in Alaska, Oregon, Washington, Idaho, Montana, Wyoming, North Dakota, South Dakota, Minnesota, Wisconsin, Michigan, New York, New Hampshire, Vermont, Indiana, Maine and Maryland.

Auroral activity also has been forecast for Canada, including Vancouver.

Light displays are expected to be visible overhead in Milwaukee, Minneapolis and Helena, Montana, and low on the horizon in Salem, Oregon.; Boise, Idaho; Cheyenne, Wyoming; Annapolis, Maryland; and Indianapolis, according to the institute.

The National Oceanic and Atmospheric Administration’s Space Weather Prediction Center said people wanting to experience an aurora should get away from city lights and that the best viewing times are between 10 p.m. and 2 a.m. local time.

Northern Lights occur when a magnetic solar wind slams into the Earth’s magnetic field and causes atoms in the upper atmosphere to glow. The lights appear suddenly and the intensity varies.

A geomagnetic index known as Kp ranks auroral activity on a scale from zero to nine, with zero being not very active and nine being bright and active. The Geophysical Institute has forecast Kp 6 for Thursday’s storm.

#Northern Lights #Aurora Borealis #Solar Storm #NewsNation #The National Oceanic and Atmospheric Administration’s Space Weather Prediction Center

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campaaronapollo · 2 years ago

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swpc-bot--unoffical · 19 days ago

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NOAA 3-Day Forecast

Product: 3-Day Forecast Issued: 2025 Jan 08 1230 UTC Prepared by the U.S. Dept. of Commerce, NOAA, Space Weather Prediction Center A. NOAA Geomagnetic Activity Observation and Forecast The greatest observed 3 hr Kp over the past 24 hours was 4 (below NOAA Scale levels). The greatest expected 3 hr Kp for Jan 08-Jan 10 2025 is 3.67 (below NOAA Scale levels). NOAA Kp index breakdown Jan 08-Jan 10 2025 Jan 08 Jan 09 Jan 10 00-03UT 3.67 1.33 1.33 03-06UT 2.33 1.33 1.33 06-09UT 1.67 1.67 1.33 09-12UT 0.67 1.33 1.33 12-15UT 1.67 1.33 1.33 15-18UT 1.67 1.33 1.67 18-21UT 2.00 1.67 1.67 21-00UT 2.33 1.67 1.67 Rationale: No G1 (Minor) or greater geomagnetic storms are expected. No significant transient or recurrent solar wind features are forecast. B. NOAA Solar Radiation Activity Observation and Forecast Solar radiation, as observed by NOAA GOES-18 over the past 24 hours, was below S-scale storm level thresholds. Solar Radiation Storm Forecast for Jan 08-Jan 10 2025 Jan 08 Jan 09 Jan 10 S1 or greater 10% 10% 10% Rationale: A slight chance for S1 (Minor) solar radiation storming will persist through 10 Jan as multiple CME producing regions transit and exit the western limb. C. NOAA Radio Blackout Activity and Forecast Radio blackouts reaching the R1 levels were observed over the past 24 hours. The largest was at Jan 07 2025 2305 UTC. Radio Blackout Forecast for Jan 08-Jan 10 2025 Jan 08 Jan 09 Jan 10 R1-R2 55% 55% 55% R3 or greater 15% 15% 15% Rationale: R1-R2 (Minor-Moderate) radio blackouts are likely, with a slight chance for isolated R3 (Strong) or greater events through 10 Jan. This is based on the magnetic complexity and persistent activity of Region 3947.

#NOAA 3-Day Forecast #SWPC #Space Weather Prediction Center #Space Weather #NOAA #Aurora #Aurora Forecast #Northern Lights #Northern Lights Forecast

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meteorologistaustenlonek · 10 months ago

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#WeatherAware:"Tornado potential will continue into the evening as additional storms do appear probable…. A new #tornadowatch will be needed."

NOAA NWS Storm Prediction Center

#NWS #NWS Storm Prediction Center #Mesoscale Discussion #Tornado Weather #spc.noaa.gov #Severe Weather Outlook

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itsgerges · 2 months ago

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Best Regards

The Gravitational waves reflection proves the gravitational waves are produced by the planets motions energies and not by the gravitational field

1- Preface

2-Can The Planets Data Be Reflected On Each Other?

3- The Planets Data Reflection Is Done By The Gravitational Waves Reflection

4- The Gravitational Waves Are Reflected Three Times In The Solar System

5- Why Does The Gravitational Waves Reflection Prove The Waves Are Produced By The Planets Motions Energies And Not By The Gravitational Field?

6- The Gravitational Waves Reflection Effect On The Planets Data

7- The Planets Data Reflection Proves

1- Preface

My theory tells (The gravitational waves are produced by the planets motions energies and not by the gravitational field moreover there's NO gravitational field) – and because the gravitational waves are reflected in the solar system- this article uses the gravitational waves reflection as a method to prove my theory – that's why the article tile is (The Gravitational Waves Reflection Proves The Gravitational Waves Are Produced By The Planets Motions Energies And Not By The Gravitational Field)

Let's refer to my theory before to prove by using the gravitational waves reflection

(i)

The Gravitational Waves Are Produced By The Planets Motions Energies

Planet motion produces energy (1/2 mv^2) but where's this energy? Planet can NOT store its motion energy inside its body because It would raise its temperature- and no planet temperature is raised by its motion- logically- planet motion energy is stored in the space in moving waves –Means- planet motion creates waves in the space – by that planet motion is similar to a fish swimming in the sea- the fish swimming creates waves in the sea and- planet motion energy creates waves in the space- let's see the picture clearly- the fish swims because it hits the water by its body and that creates waves in the sea- by that- the water waves move by a velocity equal the fish velocity because of the reaction force- similar to that- Planet moves in the space and its motion energy creates waves in the space and these waves move by velocity equal this planet velocity- for example- Mercury (47.4 km/s) moves and its motion energy creates waves in the space and these waves move by equal velocity (47.4 km/s)-

(ii)

The planets revolve around the sun in the same one direction and for that their motions energies create waves in the space and these waves move perpendicular on the revolution direction (Toward Pluto orbit)

AND

In Pluto orbit these waves are unified together into one unified wave- this wave moves by a velocity = 205.8 km/s = the planets velocities total (where The 9 planets velocities total=176 km/s but I add the Earth moon velocity (29.8 km/s) that makes the total to be 205.8 km/s – I add the moon velocity because the energy is stored finally in the moon orbit)

Note- The moon and the Earth revolve around the sun together for that the moon velocity is considered equal the Earth velocity relative to (the sun) –

Shortly

The planets motions energies are unified into unified wave and this wave moves by velocity (205.8 km/s) – means- while the planets revolve around the sun, there's one unified wave revolves around the sun and moves by velocity 205.8 km/s

This unified wave is the gravitational waves

The question is

The scientists discovered waves in the space and they told these waves are produced by the gravitational field but why?? because planet motion energy analysis proves the motion energy must be stored in the space as moving waves- so the discovered waves are created by the planets motions energies and not by any gravitational field – also let's prove the sun doesn't produce a gravitational field to support my theory

(iii)

The Refutation Of The Sun Gravitational Field

The Sun Doesn't Produce A Gravitational Field Nor Has Massive Gravity – let's prove that in following

(a)

(b)

No Planet Moves By The Sun Gravity–Newton is wrong- because- the planet moves by the force caused its creation- means- the planet creation and motion is done by one force only- because- if two forces have effects on the same one planet this planet would be broken- now- suppose the planet is created (by any force) and the sun gravity attracted this planet and forced it to revolve around the sun by the sun mass massive gravity (as Newton imagined) that would force the planet to move against its inner structure and will cause this planet to be broken- this is similar to a human is forced to walk on his hands in place of his legs and when this human refuses to do that (they told him we can force you by our power) for that this human walk on his hands forcedly and later this human is dead by this motion- shortly- the planet is NOT broken by its motion because the planet creation force is the force causes this planet motion- it's one force caused the planet creation and motion-

Newton mistake is that he didn't know how the planet is created and by that he didn't realize that planet creation and motion are done together by the same one source- simply- the sun didn't cause to create any planet and for that the sun doesn't cause any planet to move- this analysis shows logical base but left us with puzzles to know (by what rule the planet moves?) and (Why is the sun found in the solar system if it doesn't cause the planets motions?) these questions are answered in the paper abstract and discussions.

(c)

The mass gravity force can NOT cause any motion- again Newton is wrong- the mass gravity creates a bond between two masses- (the Earth and the moon are bond by the mass gravity)- by that they are similar to a lorry and its trailer – if the lorry moves the trailer will move with the lorry- but the mass gravity can NOT cause any motion- why? suppose the moon moves by the Erath gravity force- the moon moves and produces energy (1/2mv^2) and we have to ask from what source this energy will be provided?- from the mass itself- means if the Earth causes the moon to move the Earth and the moon masses should be decreased by the motion energy- this is a wrong definition for the mass gravity- the mass gravity creates a bond between two masses (The Earth and the moon) if some outer force causes the Earth to move the moon will move with the Earth and in this case the outer force will provide the motion energy for the Earth and the moon-

(d)

The planets order contradicts Newton gravitation equation- where- the gravitation equation tells (greater mass necessitates shorter distance)- clearly- Jupiter the greatest mass is not the most near planet to the sun- means- the planets order contradicts the equation- when we asked the physicist told us this problem is done by (the initial conditions)- all these are nonsense clearly- planet orbital distance does NOT depend on the sun mass nor on the planet mass- planet orbital distance depends on the neighbor planet orbital distance – my equation proves this fact- let's see it

Planet orbital distance equation (my 1st equation)

d^2= 4do (d-do) where d= planet orbital distance and do= its neighbor distance

Example (1) Venus orbital distance (108.2)^2 = 4 x 57.9 x (50.3)

d= 108.2 million km = Venus Orbital Distance

d0= 57.9 million km = Mercury Orbital Distance

50.3million km=The Distance Between Venus And Mercury Venus Depends On Mercury

Example (2) Saturn orbital distance (1433)^2= 4 x 778.6 x 655

d= 1433 million km = Saturn Orbital Distance

d0= 778.6 million km = Jupiter Orbital Distance

655million km=The Distance Between Saturn And Jupiter Saturn Depends On Jupiter

All planets orbital distances are defined based on their previous neighbor planets orbital distances- the equation is correct perfectly and all planets orbital distances are defined by it- my paper tests and discusses this equation

Shortly- planet mass has no any effect on this planet orbital distance definition.

Notice

Planet orbital distance definition depends on its neighbor orbital distance this fact is proved by many other different methods my equation is one method only of them, all these methods don't use any planet mass- all planets orbits are defined based on their neighbor orbits- (Please note- Newton gravitation equation is wrong- I don't critic it by many critics to short the discussion- but- the fact is that- the light beam created all planets orbits before any planet creation- the light created each planet orbit depends on its neighbor orbit- I prove this fact in the paper discussion- logically this fact kills the gravitation equation because the orbit is created before the planet creation)

Notice -Newton is so far from the truth- let's give one more example- Newton told us planet moves by the sun mass gravity- the fact is that- the Sun itself is created by the planets motions energies- that's why Newton ideas are not interesting for discussion because his ideas are imaginary have no part of truth-

(e)

Also-Newton told-planet motion depends on its mass- means-planet velocity depends on its mass- this also is imaginary idea- I define planet velocity in the paper abstract- planet velocity is defined by many rules all of them don't use any planet mass- at all Planet mass has no rule in this planet velocity definition.

THE CONCLUSION

The Gravitational Waves Are Produced By The Planets Motions Energies And Not By The Sun Gravitational Field- Also-There's No Gravitational Field At All

2-Can The Planets Data Be Reflected On Each Other?

The solar system is created from one energy- and this energy is reflected on each other- for that reason- many planets data are reflected on each other- the energy reflection is seen in different data of planets – let's give 3 examples

Example No. (1)

Planet velocity definition proves planets velocities are reflected on each other –

(v1v2= constant = 322) (my 5th equation)

This equation proves the planets velocities are created in pairs and not individually- means each planet has its complementary – let's prove that

Mercury (47.4 km/s) x Uranus (6.8 km/s) = 322

Venus (35 km/s) x Pluto (4.7 km/s) x 2 = 322

The Earth (29.8 km/s) x Neptune (5.4 km/s) x 2 = 322

Mars (24.1 km/s) x Jupiter (13.1 km/s) = 322

Planet velocity is defined by many rules but our rule is the major one and all other rules depend on it

Clearly the rule (v1v2=322) tells the velocities are reflected on each other

Example No. (2)

The inner planets order (Mercury – Venus – The Earth) tells

Greater diameter (and mass) necessitates Longer orbital distance

(I proved Mars original orbit was between Mercury and Venus)

The original order was (Mercury – Mars - Venus – The Earth)

This order also tells the same rule (Greater diameter (and mass) necessitates longer orbital distance)

AND

The outer planets order (Jupiter – Saturn – Uranus – Neptune – Pluto) tells

Greater diameter necessitates Shorter orbital distance

Clearly the planets orders are reflected on each other

(Uranus diameter is greater than Neptune diameter but Neptune mass is greater – means – the order depends on the planets diameters and not masses)

Example No. (3)

Venus orbital inclination = 3.4 degrees and

Pluto orbital inclination = 17.2 degrees

But sin (3.4 degrees) = (1/17.2)

I try to show that the planets data is reflected on each other but we need to defines which planet data is reflected on which

3- The Planets Data Reflection Is Done By The Gravitational Waves Reflection

Let's see the picture clearly

(a)

we see the planets data are reflected on each other – and we ask – how this data be reflected on each other?

(b)

The planets can't be reflected on each other – why?? because each planet is connected by its orbit- the planets are found in their orbits- the reflection of energy needs freedom in motion- we understand this meaning clearly

For example- I can use a mirror to reflect a light beam but I can NOT control the reflected light beam – the reflected energy moves free in space- here – if the planets are reflected on each other they will leave their orbits because they will be carried by the energy into the reflection direction-

I want to say- the motion in orbit is a feature of the planet – and the reflection is a feature of wave – planet motion can not support the reflection feature because the motion is done in orbit (defined position)

Shortly- the planets can not be reflected on each other

(c)

How can the planets data reflected on each other if the planets can't be reflected on each other? how can their data be reflected?

There are 2 steps to answer this question – I write them in (d) and (e)

(d)

The gravitational waves are reflected- in fact- the gravitational waves are reflected three times in the solar system- please pay attention- we deal with one gravitational wave and this one gravitational wave is reflected three times in the solar system

The wave first reflection from Neptune to Saturn

The wave second reflection from Uranus to Jupiter

The wave third reflection from Venus to Mars

The gravitational waves are reflected and this reflection causes to reflect the planets data on each other

(e)

Why does the gravitational waves reflection cause to reflect the planets data?

The solar planets and distances are created from one energy – means – one cycle of energy is found behind the solar group creation and motion

This is similar to the blood circulation in a creature- the planets are similar to this creature members- the blood moves to this creature liver, kidney, heart and brain each member is similar to a planet- the blood moves through all of them- if this blood is poisoned all of them will be dead- if the blood healthy the members will be strong-

Similar to that

The gravitational waves are reflected and pushes energy in defined direction- each planet data is defined by this energy –and because- some energy moves in direction opposite to other energy (because of the reflection of energy) for that some planets data be reflected on each other-

Please pay attention

We have one energy behind the solar system- the reflection of energy causes part of this energy to move in opposite direction to the other part that causes the data to be reflected on each other and for that some planets data be reflected on other planets data-

The major problem in this explanation is the matter definition- because- the physics book defines the planet as (Planet is a rigid body created independently from the space and the other planets)- this definition is the problem because based on it the data can never be reflected on each other even if the gravitational waves are reflected let's provide a new definition for matter and prove it

Matter Definition

I have discovered (Planet Diameter Is Created Based On A Mathematical Equation) let's see this equation

My Planet Diameter Equation (v1/v2)= (s/r)= I

v = Planet Velocity

r = Planet Diameter

s= Planet Rotation Periods Number In Its Orbital Period

I= Planet Orbital Inclination (example, 1.8 degrees be produced as a rate 1.8)

v2, s, r and I are belonged to one planet and v1 is belonged to another planet

The planet (v1) is defined by test the minimum error

Earth Equation uses Neptune velocity

Mars Equation uses Pluto velocity

Jupiter Equation uses the Earth moon velocity

Saturn Equation uses Mars velocity

Uranus Equation uses Neptune velocity (As Earth)

Neptune Equation uses Saturn velocity

Pluto Equation uses the Earth moon velocity (As Jupiter)

(The Equation works from The Earth To Pluto) (the discussion explains the reason)

Example

Neptune Equation (89143 /49528) = 9.7/ 5.4 =1.8

89143 = Neptune rotation periods number in Neptune orbital period

49528 km = Neptune diameter

9.7 km/s = Saturn velocity

5.4 km/s = Neptune velocity

59800 days = Neptune orbital period (and Neptune rotation period =16.1 hours)

1.8 degrees = Neptune Orbital Inclination

The equation tells planet diameter is created based on its velocity –means- Neptune diameter is 49528 km because Neptune velocity is 5.4 km/s

The Equation Concept

Planet diameter should be a function in its orbital distance –otherwise- this planet would be broken by its motion- the fact is that – The necessary requirement for planet safe motion is to create a function between this planet diameter and its orbital distance

BUT- the designer can't create a function has only 2 variables (Planet diameter and its orbital distance)- the function in this case can't be useful because– If this planet changes its orbital distance its diameter would be broken also because the diameter is a direct function in the orbital distance without any other variables -As A Result

The designer created planet diameter as a function in this planet rotation period and planet rotation period is created as a function in this planet velocity and planet velocity is created as a function in this planet orbital distance- by that- the function between planet diameter and its orbital distance is created but the function contains also more variables (rotation period, orbital period and velocity)- by that- if a planet changes its orbital distance- this planet diameter will not be changed but its rotation period, orbital period, and velocity will be changed and the diameter will be saved-

NOTICE-

Mars is the example for this theory because Mars original orbit was between Mercury and Venus and Mars had migrated from its original orbit to its current one- after Migration Mars changed its motion data but Mars diameter is saved

NOTICE-

Planet diameter equation is very useful to analyze the energy reflection in the solar system because the equation shows the changes in data resulting from the energy reflection- for example- the equation produces the planet orbital inclination-but in Saturn equation- the equation produces the value (0.4) while we know Saturn orbital inclination is 2.5 degrees- the value (0.4) is produced because the energy is reflected in Saturn and that caused effect on the data by that the value (2.5) become (1/2.5)=0.4

Matter Definition (Deep Analysis)

What's The Matter And How Is Created?

The matter and space are created from the same one energy and both move with the motion of this energy from which they are created- but- the matter creates for itself a distinguish form and moves by different velocity from the space motion (notice the gravitational waves prove the space has motion and not static).

This is similar to the sea of water- the space is similar to the sea of water and the matter is similar to a whirlpool (vortex) found on the sea page-

The whirlpool (vortex) is created by the sea water and it's carried by the sea water motion- spite of that- the whirlpool is different in its form from the sea waves – also the whirlpool moves by different velocity from the sea waves motion velocity- this example gives explanation for the matter definition- the matter is similar perfectly to the whirlpool on the sea page- it's created by the sea water motion but it has a distinguish form and different velocity from the sea waves-

Also

The whirlpool dimensions depend on the sea water motion features- for example – we have a whirlpool its diameter is 2 meters, this diameter is formed by the sea water motion features (the water velocity- amount-pressure -……etc) that tells the whirlpool is found later after the sea creation- and the water motion is found before the whirlpool creation- this meaning is a fact for the matter creation and dimensions- the matter dimensions are created based on this matter motion- means- the motion is defined before the matter creation- this is proved strongly by my planet diameter equation- the equation tells (for example) Neptune diameter is 49528 km because Neptune velocity is 5.4 km/s- the whirlpool idea explains how the planet matter data is defined based on its motion- because

The original energy was found in motion at first and the planet matter is created from this moving original energy and the planet matter dimensions are defined by this original energy motion features- after the planet creation, the planet moves with this original energy motion means the planet moves this same motion based on which the planet data is created that's why the planet data is in full harmony with the planet motion features.

Also the idea shows the planet motion reason- as I proved before- no planet moves by the sun gravity- Newton is wrong- because the planet creation and motion are done by one force only otherwise this planet would be broken if two forces have effects on it- here we see the planet motion reason- the planet moves with the original energy from which this planet is created

4- The Gravitational Waves Are Reflected Three Times In The Solar System

Please pay attention - we deal with one gravitational wave and this one gravitational wave is reflected three times in the solar system

The wave first reflection from Neptune to Saturn

The wave second reflection from Uranus to Jupiter

The wave third reflection from Venus to Mars

The planets data is reflected according to this table – for that we need to define each reflection in details to see the reflected data between the two planets

5- Why Does The Gravitational Waves Reflection Prove The Waves Are Produced By The Planets Motions Energies And Not By The Gravitational Field?

Let's suppose the gravitational waves are produced by the gravitational field as the physics book tells- the waves are reflected and caused changes for the planets data- as I prove in the next point- that means – the gravitational waves provides new energy for the planets which caused the planets data to be effected by the gravitational waves reflection- this will add new energy for these planets and the whole solar system-

This is similar to the rains on Earth- we know- the rains is vaporized water from the seas and rivers and this vaporized water is found in the clouds which cause the rains

Means- we don't imagine the water is found in the sky by itself – and we don't think the rains water is new water found in the sky without water vaporization from the seas and rivers- because- if the rain water is found in the sky by itself without vaporization for the seas water that will add new water on the Earth- and that will cause the whole Earth to be drown in water and no ground will be found because the rains add new water to the Earth-

Similar to that- if we suppose- the gravitational waves are produced by the gravitational field and these waves are reflected and cause effects on the planets data because these waves add new energy for the planets – this new energy will increase the solar system energy – this is a wrong idea- because

No source of energy can cause the continuous increase for the solar system energy

The solar system stability in motion proves no change in energy is found

The planets orbital periods are not changed prove the solar system energy is a stable value has no change

Shortly- the solar system energy is defined stable value of energy moves in a cycle (as the sea water and rains) –

This analysis proves the gravitational waves are produced by the planets motions energies and by that the gravitational waves effect on the planets data is a part of the energy cycle where these waves energy is produced by the planets motions and this energy has effects on these planets shows a complete cycle of energy.

Means

The solar system energy is stable- the reflection of energy causes to accumulate the energy in one point but the energy before the accumulation equal the energy after the accumulation- the reflection causes to accumulate the energy in one point only

The conclusion

The gravitational waves reflection proves the gravitational waves are produced by the planets motions energies and not by the gravitational field (even if found)

6- The Gravitational Waves Reflection Effect On The Planets Data

The Data Changes

The gravitational waves reflection causes basic changes in planets data let's refer to these changes in following

What's used as (A) before the reflection will be used as (1/A) after the reflection.

What's used as (a distance) before the reflection will be used as (a period of time) after the reflection

The velocities be squared –the rate (v1/v2) before reflection will be (v1/v2)^2 after the reflection.

The energy direction is changed by the reflection

The players of the rates of time are reflected also –

Notice – the gravitational waves reflection needs three planets –as we have seen - the 1st reflection (from Neptune to Saturn) and between them Uranus – also the 2nd reflection (from Uranus to Jupiter) and between them Saturn– and also the 3rd reflection (from Venus to Mars) and between them The Earth– that shows three planets are used in each reflection- the middle planet is effected also by the wave reflection as we will see in the data discussion – shortly – No reflection can be done by two neighbors planets -

These changes are done with each reflection for the gravitational waves- the planets data proves this fact as we will see in the data analysis and comparison

Let's see how these changes have effects on the planets data in the next point no. (7)

7- The Planets Data Reflection Proves

Group Data No (I)

(1)

The gravitational waves are reflected from Venus to Mars – For that

Venus orbital circumference 680 mkm is Changed Into Mars orbital period 687 days

And

687 days x 2π = 4331 days (Jupiter orbital period)

687 days x 4π = 10747 days (Saturn orbital period) x 0.8

687 days x 6π x 2 = 25920 years (The Precession Cycle)

(2)

The gravitational waves are reflected from Uranus to Jupiter– For That

Jupiter orbital circumference 4900mkm is Changed Into The period4900 days

And

4900 days x 2π = 30589 days (Uranus orbital period)

4900 days x 4π = 59800 days (Neptune orbital period) (error 3%)

4900 days x 6π = 90560 days (Pluto orbital period) (error 2%)

(3)

The gravitational waves are reflected from Neptune to Saturn–

BUT

The distance 1433 mkm is still a distance And

(1410 mkm = Pluto Neptune Distance)

1433 mkm = Mars orbital circumference

1433 mkm x 2π = 9010 mkm (Saturn Orbital Circumference)

1433 mkm x 4π = 18048 mkm (Uranus Orbital Circumference)

1433 days x 8π = 37100 days (Pluto orbital Circumference) (error 2.5%)

Discussion

(1)

The data shows the following

The Gravitational Wave Reflection From Venus To Mars Defines Mars, Jupiter And Saturn Orbital Periods

(Saturn orbital period is effected by the rate 0.8 we should discuss later)

The Gravitational Wave Reflection From Uranus To Jupiter Defines Uranus, Neptune And Pluto Orbital Periods

The Gravitational Wave Reflection From Neptune To Saturn Defines Saturn, Uranus, Neptune And Pluto Orbital Circumference

This data proved my planet definition (the planets are geometrical points carried by the same one energy- or- the planets are geometrical points found on the same one light beam- and the planets move with this light beam motion- and the planets are created depending on each other and No planet is independent from the others in its creation and motion) – means- the planets are similar to whirlpools (vortex) found on the sea water page- we can imagine many whirlpools (vortex) are found on the same one sea and they are near to each other- this picture is very similar to the planets nature- that explains how the reflection of energy for one time can define the orbital periods for three planets (or 4 planets) together-

Here we imagine there are 4 whirlpools (vortex) on the sea page near to each other and then one strong wave of water passed through these 4 whirlpools (vortex), and this water wave motion causes effects on the 4 whirlpools-

This information is so important because one motion only (one wave reflection) can cause to define three or four planets data that proves strongly the planets Can NOT be independent neither in Creation Nor in motion- the planets are created and moving depends on each other because all of them are created from the same one energy and they move with this same energy motion-

NOTICE Let's imagine we have 4 whirlpools (vortex) on the sea page near to each other and one strong water wave passes through these 4 whirlpools (vortex) - now – suppose we put some red color on this strong water wave- what would happen? The water color will be red and the red water will pass through these 4 whirlpools (vortex)

We pay attention here because one reflection of energy can define the orbital periods of three planets – Means – all of them must be dependent on this reflected energy.

That tells the planets are NOT independent but they are dependent on the mother energy from which they are created and that caused they to be dependent on each other – Now let's analyze each reflection individually

(1) The Third Reflection (The Wave Is Reflected From Venus To Mars)

224.7 days (Venus orbital period) is changed into 227.9 mkm (Mars orbital distance)

AND-

680 mkm (Venus Orbital Circumference) is changed into 687 days (Mars orbital period)- (max error 1.5%) –

As the rule tells (what's used as distance before the reflection be used as a period of time after the reflection and vice versa)

The orbital periods definition

687 days x 2π = 4331 days (Jupiter orbital period)

687 days x 4π = 10747 days (Saturn orbital period) x 0.8

687 days x 6π x 2 = 25920 years (The Precession Cycle)

We don't discuss the precession cycle here

(Saturn orbital period is effected by the rate 0.8 we should discuss later)

The data shows, the planets orbital periods are defined by the rates (2π, 4π, 6π)

It's not clear yet why the design uses these rates to define the planets orbital periods but this is the rule we will see it in the other two reflections of energy.

The important notice here tells that- the gravitational wave reflection for one time defines 3 planets orbital periods – this fact is proved strongly by the data and it disproves the wrong idea tells (Planet is created independently from the other planets)

(2) The Second Reflection (The Wave Is Reflected From Uranus To Jupiter)

Here we have a clear problem – let's see the data

Jupiter orbital circumference 4900 mkm is Changed Into The period 4900 days

And

4900 days x 2π = 30589 days (Uranus orbital period)

4900 days x 4π = 59800 days (Neptune orbital period) (error 3%)

4900 days x 6π = 90560 days (Pluto orbital period) (error 2%)

We see clearly, the data distribution is typical to the previous data of the third reflection- let's compare them

Venus orbital circumference 680 mkm is Changed Into Mars orbital period 687 days

687 days x 2π = 4331 days (Jupiter orbital period)

687 days x 4π = 10747 days (Saturn orbital period) x 0.8

Jupiter orbital circumference 4900mkm is Changed Into The period 4900 days

4900 days x 2π = 30589 days (Uranus orbital period)

4900 days x 4π = 59800 days (Neptune orbital period) (error 3%)

4900 days x 6π = 90560 days (Pluto orbital period) (error 2%)

The comparison shows the data is almost typical- by that- we have to suppose- the gravitational wave is reflected from Jupiter to Uranus- It is NOT Fact–because

The gravitational wave is reflected from Uranus to Jupiter (and then to Venus) – we see clearly the problem where the data distribution is reversed the wave reflection direction-

Notice - please note clearly – we deal with one gravitational wave only- there are NOT three gravitational wave and each wave is reflected in one reflection- it's NOT Fact – the fact is that- it's one gravitational wave reflected three times in the solar system- the comparison next data proves this fact and gives no area for any doubt-

It's one gravitational wave sent from Pluto to Neptune and reflected to Saturn then this same wave is sent from Saturn to Uranus and Uranus reflected the same wave to Jupiter and Jupiter sent the same wave to Venus and Venus reflected the same wave to Mars- One Gravitational Wave moves through all these planets

The Conclusion

The planets data is distributed in the reversed direction for the reflected energy- the energy is reflected from Uranus to Jupiter but the data is distributed from Jupiter to Uranus- there's a geometrical reason for this behavior we should discover later.

(3) The First Reflection (The Wave Is Reflected From Neptune To Saturn)

We still have another problem- let's remember this problem reason

The gravitational wave first reflection is done from Pluto to Neptune, supposing Neptune would send the energy to Uranus but Neptune didn't send the energy instead Neptune kept the energy inside its orbit and prevent it to move toward Uranus – also Uranus itself couldn't release the imprisoned energy from Neptune orbit – and that necessitated Saturn itself to create interaction with Neptune to release the imprisoned energy for that the energy is moved toward Saturn immediately by that this reflection of the wave is considered the first reflection because the energy is released from Neptune to Saturn directly – Shortly- the wave energy is sent from Pluto to Neptune and the energy is reflected from Neptune to Saturn and this is the first reflection of the energy (the gravitational wave first reflection)

Let's see the data - The distance 1433 mkm (Saturn orbital distance) is still a distance And (1410 mkm = Pluto Neptune Distance)

1433 mkm = Mars orbital circumference

1433 mkm x 2π = 9010 mkm (Saturn Orbital Circumference)

1433 mkm x 4π = 18048 mkm (Uranus Orbital Circumference)

1433 days x 8π = 37100 days (Pluto orbital Circumference) (error 2.5%)

The data follows the rule (2π, 4π, 8π) perfectly as the other two reflections but the data shows 2 problems which are

1st problem

The data distribution is in the reversed direction of the energy motion direction- because the reflection is done from Neptune to Saturn but the data shows the orbital circumferences of (Saturn, Neptune, Uranus and Pluto) are defined by this reflection which supposes the energy is reflected from Saturn to Neptune and that's NOT Fact

This behavior is typical the behavior of the second reflection from Uranus to Jupiter-

Means- this behavior is repeated in the two reflections of energy which tells that the behavior depends on a geometrical reason.

2nd problem

The distance is not changed into a period of time as the other reflections but stayed as a distance! How and why?? let's see deeply this data

If the energy is reflected from Saturn to Neptune, Saturn orbital circumference 9010 mkm should be changed into a period of time to be 9010 days and then

9010 days x 2π = 2 x 28244 days (28244 mkm = Neptune orbital circumference)

9010 days x 4π = 113223 days

9010 days x 6π = 169840 days

We see the data gives NO real values- means- this is not the direction of the data creation- Instead – the distance 1433 mkm or the circumference 9010 mkm is still distance and then

1433 mkm x 2π = 9010 mkm (Saturn Orbital Circumference)

1433 mkm x 4π = 18048 mkm (Uranus Orbital Circumference)

1433 days x 8π = 37100 days (Pluto orbital Circumference) (error 2.5%)

And

1433 mkm = Mars orbital circumference

We understand that, the data provides a distance (1433 mkm) and not a period of time then we have to ask again why this distance is not changed into a period of time?

We understand that the outer planets have 2 reflections (first reflection from Neptune to Saturn) and (the second reflection from Uranus to Jupiter)- also we understand that the solar system needs one reflection only in the outer planets and one reflection only in the inner planets and also we know the outer planets have two reflections because of Neptune negative effect on the solar system- means if Neptune is removed from the solar system the outer planets would have one reflection only – for that- the designer caused the two reflections in the outer planets to be complementary one another – the reflection from Uranus to Jupiter defines the planets orbital periods and the reflection from Neptune to Saturn defines these same planets orbital circumferences

The designer caused to make the two reflections complementary one another and by that the two reflections can be unified into one reflection and based on that the machine will work by one unified reflection in the outer planets and one single reflection in the inner planets- but how the energy motion produces the distances in place of the periods of time? this question is hard to answer because we don't see deeply how the reflection of energy can define each planet orbital period (or orbital circumference) by using the rates (2π, 4π, 6π) we just discovered the rule but more geometrical analysis is required to see how this rule works

NOTICE

In the third reflection (from Venus to Mars) – let's remember the data

Venus orbital circumference 680 mkm is Changed Into Mars orbital period 687 days

687 days x 2π = 4331 days (Jupiter orbital period)

687 days x 4π = 10747 days (Saturn orbital period) x 0.8

687 days x 6π x 2 = 25920 years (The Precession Cycle)

We have asked- why Saturn orbital period is effected by the rate (0.8)?

Let's try to answer – let's see the data 10747 /9800 = 9800/9010 where

10747 days = Saturn orbital period and 9010 mkm = Saturn orbital circumference

9800 mkm = 2 x 4900 mkm (Jupiter Orbital Circumference)

We know 4900 mkm and 4900 days is the player in the second reflection from Uranus to Jupiter- means- Saturn has effect also in the second reflection for that the second reflection has effect on Saturn data and caused its orbital period to be produced under the effect of the rate (0.8) which is the reflection rate as we will see in the next data

Group Data No (II)

(1)

3.024 mkm (Venus motion distance per solar day) x 0.8 = 2.4 mkm

2.57 mkm (Venus motion distance per solar day) = 1.0725 x 2.4 mkm

2.57 mkm x 0.8 = 2.082 mkm (Mars motion distance per solar day)

(2)

1.1318 mkm (Jupiter motion distance per solar day) x 0.8 = 2 x 1.0725 x 0.421 mkm

(3)

0.838 mkm (Saturn motion distance per solar day) x 0.8 = 2 x 1.0725 x 0.3129 mkm

Discussion

We discuss the data no. (2) and (3) at first

DATA NO. (2)

1.1318 mkm (Jupiter motion distance per solar day) x 0.8 = 2 x 1.0725 x 0.421 mkm

(0.421 mkm = Uranus motion distance in its rotation period)

DATA NO. (3)

0.838 mkm (Saturn motion distance per solar day) x 0.8 = 2 x 1.0725 x 0.3129 mkm

(0.3129 mkm = Neptune motion distance in its rotation period)

MORE DATA

0.5875 mkm (Uranus motion distance per solar day) x 0.8 = 0.46688 mkm

(0.466884 mkm = Jupiter motion distance in its rotation period) And

0.46688 mkm (Neptune motion distance per solar day) x 0.8 = 0.3736 mkm

(0.3736 mkm = Saturn motion distance in its rotation period) And

0.46688 mkm (Pluto motion distance per solar day) x 0.8 = 0.3248 mkm

(i)

The rate (0.8) is created by the waves reflection and the planets velocities are defined based on each other by this rate as discussed in the planet velocity definition- here the data shows the rate (0.8) defines each planet motion distance based on the other planet motion distance (in the same one reflection) –

let's explain that in more details

(1st reflection From Neptune to Saturn) for that

Saturn motion distance per solar day (0.838 million km) by the rate (0.8) defines Neptune motion distance in its rotation period 0.3129 million km

Also

Neptune motion distance per solar day (0.46688 million km) by the rate (0.8) defines Saturn motion distance in its rotation period 0.3736 million km

AND

(2nd reflection From Uranus to Jupiter) for that

Jupiter motion distance per solar day (1.1318 million km) by the rate (0.8) defines Uranus motion distance in its rotation period 0.421 million km

Also

Uranus motion distance per solar day (0.5875 million km) by the rate (0.8) defines Jupiter motion distance in its rotation period 0.46688 million km

AND

In the 3rd reflection we will see Mars motion distance per solar day is defined by Venus motion distance per solar day- follows the same rule

Notice

We note the data No. (2) and (3) show the data is distributed in the reversed direction for the energy motion because the energy is reflected from Neptune to Saturn and from Uranus to Jupiter- But data is distributed in the reversed direction-

In the third reflection we will see the data moves in the same direction with the energy distribution

Also

In Venus data we will see that it uses the square value (0.8)^2 and we will explain why the rate is used in square value

(ii)

Why is the rate (1.0725) found in the data? because the gravitational wave moves by speed of light (300000 km/s) in Saturn orbit and in all planets orbits till Venus orbit-

Shortly

the wave velocity was 205.8 km/s through Pluto, Neptune and Uranus orbits BUT

The wave velocity is accelerated in Saturn orbit and its velocity be = speed of light =300000 km/s, for that reason the rate (1.0725) is created because this is (Lorentz length contraction effect rate) and it can be produced only by motion with speed=(99% speed of light =297000 km/s)- shortly- the wave velocity be equal=speed of light = 300000 km/s in Saturn orbit, for that the rate (1.0725) is produced in the orbits of Saturn and Jupiter as the data shows (and also in Venus data we will see it)

(iii)

The previous data shows the planets distances are rated by the rate (0.8) for the planets players in the same wave reflection- but- this picture is not complete yet – because the planets which aren't players in the same reflection shows equal distances also but this distances equality doesn't depend on the rate (0.8) let's give examples

Jupiter motion distance in its rotation period = Neptune motion distance per solar day =0.466884 million km

And

Saturn motion distance in its rotation period 0.3736 mkm x π = Uranus motion distance per solar day 0.5875 mkm x 2

And

The Earth motion distance per solar day = Pluto motion distance in its rotation period = 2.574 million km

This distances equality must be produced also by the waves reflection but the rule is not clear yet- I want to say the effect of the rate (0.8) on the planets distances is part of greater rule explains how this distances equality is produced and the useful result of it –

Please note–I analyze this data in details in 2nd part of this 1st hypothesis explanation-

Now

Let's discuss the data No.(1)

DATA NO. (1)

3.024 mkm (Venus motion distance per solar day) x 0.8 = 2.4 mkm

2.57 mkm (The Earth motion distance per solar day) = 1.0725 x 2.4 mkm

2.57 mkm x 0.8 = 2.082 mkm (Mars motion distance per solar day)

2.57 mkm = The Earth motion distance per solar day= Pluto motion distance in its rotation period

Means

3.024 million km x (0.8)^2 x 1.0725 = 2.082 million km where

3.024 mkm =Venus motion distance per solar day

2.082 mkm =Mars motion distance per solar day

Notice

2.57 mkm = The Earth motion distance per solar day

2.57 mkm = 1.0725 x 2.4 mkm The moon motion distance per solar day

2.59 mkm = Pluto motion distance in its rotation period

The data tells Mars motion distance per solar day depends on Venus motion distance per solar day – here all distances are defined by the solar day-

In the third reflection- the wave is reflected from Venus to Mars- here also Venus motion distance per solar day (3.024 mkm) defines Mars motion distance per solar day (2.082 mkm)- but the definition depends on the squared value (0.8)^2

That shows Venus reflection follows the same rule used by the other reflections – where the sender planet motion distance per solar day defines the receiver planet motion distance

Perfectly the rule is followed BUT Why does Venus use the square value (0.8)^2??

Because of the reflections order – let's explain that

The two reflections in the outer planets are complementary each other and by that they are unified and can be considered as One Unified Reflection in the outer planets

Means- there is one unified reflection in the outer planets and one single reflection in the inner planets and these are two reflections- means – Venus reflection should be considered the second reflection that causes to square the value (0.8)- that explains why Venus uses the squared Value (0.8)^2

Notice

This is a proof for my theory that (one gravitational wave is reflected three times)- means- this wave is reflected before and effected by the rate (0.8) and this same wave is reflected again for that the rate (0.8) be in its squared value (0.8)^2

The Conclusion

The gravitational waves reflection causes the sender planet motion distance to define the receiver planet motion distance as seen in the data- the definition depends on the rate (0.8) – here we see one rule proves the receiver planet motion depends on the sender planet motion-

Group Data No (III)

(1)

5.56 = (568/102) = (59800/10747)

(2)

21.8 = (1898 /86.8) = 30589 /1407.6

(3)

(4.87/0.642) ^2 = (7.6)^2 and (7.6)^2 x 224.7 days = 2π^2 x 687 days

And

π^3 = 31 = (5.56)^2 = 4x 4.75 (but between 7.75 and 7.6 the error 2%)

Discussion

Data No. (1)

5.56 = (568/102) = (59800/10747)

568 x 10^24 kg = Saturn Mass

102 x 10^24 kg = Neptune Mass

59800 days = Neptune orbital period

10747 days = Saturn orbital period

In the first reflection the gravitational wave is reflected from Neptune to Saturn

This behavior shows second rule– for the planets in the same reflection- we see the masses rate defines the orbital periods rate and this behavior is used by the other two reflections- means- the gravitational wave reflection between two planets cause these two planets masses rate to define their orbital periods rate – let's see the rest data

Data No. (2)

21.8 = (1898 /86.8) = 30589 /1407.6 (notice1407.6π =4331 error 2%)

1898 x 10^24 kg = Jupiter Mass

86.8 x 10^24 kg = Uranus Mass

30589 days = Uranus orbital period

4331 days = Jupiter orbital period

In second reflection the gravitational wave is reflected from Uranus to Jupiter

It's the same rule and behavior, the planets masses rates defines their orbital periods

Just Jupiter orbital period 4331 is divided by (π) – no any other change in the rule proves that the rule is a fact and used with the planets of the same reflection

Data No. (3)

(4.87/0.642) ^2 = (7.6)^2 and (7.6)^2 x 224.7 days = 2π^2 x 687 days

4.87 x 10^24 kg = Venus Mass and 0.642 x 10^24 kg= Mars Mass

224.7 days = Venus orbital period and 687 days= Mars orbital period

In the third reflection the gravitational wave is reflected from Venus to Mars

Here also we see the planets use the same rule and the same behavior – the masses rate defines the orbital periods rate-But the rate is squared! Why?

Venus Mass = 7.6 Mars Mass but the data uses the squared rate (7.6)^2 –

We should pay attention for this rate because the other planets used their masses rate but NOT squared value – Why does Venus use the squared value (7.6)^2?

We have solved this question in the distances discussion when Venus used (0.8)^2 and the other planets use (0.8) only- here also is similar to that- let's remember the reason

We agreed that the two wave reflections in the outer planets are complementary one another and by that they are unified together into one unified reflection and by that the outer planets has one unified reflection and the inner planets has one single reflection and these are considered as two reflections and for that Venus reflection is considered the second one in the solar system (and the final one) for that Venus uses the squared Value – where we know the wave reflection causes to square the value

Notice - 5.56 = (568/102) = (59800/10747) = (10/1.8) =9010/1622 where 1.8 deg = Neptune orbital inclination and 10 =4 x 2.5 deg (Saturn orbital inclination) and -9010 mkm= Saturn orbital circumference and 1622 mkm = Neptune Uranus Distance

Notice π^3 = 31 = (5.56)^2 = 4x 4.75 (but between 7.75 and 7.6 the error 2%) – this data is discussed in the next point

The Conclusion The Wave Reflection Causes The Sender And Receiver Planets Masses Rate To Define Their Orbital Periods Rate.

Group Data No (IV)

(1)

12104 km (Venus diameter) /6792 km (Mars diameter) = 3.4 deg /1.9 deg = π^0.5

(2)

142984 km (Jupiter diameter)/51118 km (Uranus diameter) = 2.79 =5.56/2

(3)

378675 km (Saturn Circumference)/49528 km (Neptune diameter) = 7.6

Discussion

Notice

π^3 = 31 = (5.56)^2 = 4x 4.75 (but between 7.75 and 7.6 the error 2%)

This data shows the rates (5.56) and (7.6) are found based on the value (π^3=31) I try to prove that it's one energy (one value π^3=31) and the different rates as (5.56 and 7.6) are found depending on (this one value π^3=31) by geometrical reasons – that proves it's one energy (one wave) is reflected three times in the solar system – the value (π^3 = 31 =) is very important because all rates depend on it

The group data shows the planets diameters rates depend on the value (π^3 =31)- let's examine it in following

Data No. (1)

12104 km (Venus diameter) /6792 km (Mars diameter) = 3.4 deg /1.9 deg = π^0.5

3.4 degrees = Venus Orbital Inclination

1.9 degrees = Mars Orbital Inclination

The data shows the two planets diameters are rated with rate equal their orbital inclination and this rate equal π^0.5

Notice

177.4 degrees (Venus axial tilt) = 1.9 deg (Mars orbital inclination) x 93.4

90+ 3.4 = 93.4 deg

Data No. (2)

142984 km (Jupiter diameter)/51118 km (Uranus diameter) = 2.79 = 5.56

We remember 31 = (5.56)^2

Data No. (3)

378675 km (Saturn Circumference)/49528 km (Neptune diameter) = 7.6

Also we remember 31/4 = 7.75 (and the difference between 7.75 and 7.6 is 2%)

The data shows the diameters rates depend on the value (π^3 = 31 =) as the masses do

Means- the planets masses and diameters are created rated to one another based on this same value (π^3 = 31 =)

I try to prove that – one energy is found behind all this data- the value (π^3 = 31 =) refers to one energy and this energy is effected by different geometrical reasons and that causes this energy (π^3 = 31 =) to show different rates as (5.56) and (7.6)

Shortly – we deal with one energy reflected three times in the solar system and the planets data are defined by the effect of this energy on them

Please note- we can imagine one river of water moves through different cities and each city deals with the river based on its own data- one city has great soil and this uses the river water to plant vegetables and fruits- another city its ground has many holes and caves the river water will cause all these holes to be filled of water and that will create many moors in this city and that will not be useful for it –

We have here the same picture- One energy moves through the solar system and reflected three times in it and this reflection causes changes for the planets data for that the different rates (5.56 and 7.6) are created from this one energy (π^3 = 31 =) by geometrical reasons have effects on it.

Group Data No (V)

(1) 243 mkm = 2.082 mkm x 116.7 days

(2) 17.2 km = 13.1 km/s x 1.3129 seconds

(3) 16.1 km = 9.7 km/s x 1.65 seconds

Discussion

We discuss data No. (2) and (3) at first

Data No. (2)

17.2 km = 13.1 km/s x 1.3129 seconds

13.1 km /s = Jupiter velocity

1.13129 = (5.25/4) but 5.25 x 1.0725 = 5.56

17.2 hours = Uranus rotation period

Data No. (3)

16.1 km = 9.7 km/s x 1.65 seconds

9.7 km /s = Saturn velocity

1.65 = (5.25/π) but 5.25 x 1.0725 = 5.56

16.1 hours = Neptune rotation period

The data shows each planet rotation period depends on the other planet velocity based on the rate (5.56) where (31=5.56^2)- that shows Uranus rotation period is connected with Jupiter velocity and Neptune rotation period is connected with Saturn velocity proves that a deep connection is found between each two planets as a result for the wave reflection between them

Data No. (1)

243 mkm = 2.082 mkm x 116.7 days

243 days = Venus rotation period

2.082 mkm =Mars motion distance per solar day and 116.75 days = Venus day period

We see also here – Venus rotation period is related to Mars velocity- and this similar to the other planets behavior as we have discussed before

Notice

Venus (35 km/s) moves in 10747 seconds a distance = 378675 km

Where

378675 km = Saturn circumference

10747 days = Saturn orbital period

We know that- No direct reflection is found between Venus and Saturn- but the data shows deep interaction is found between them

I want to say

I provide different data to prove my hypothesis tells (The gravitational waves are produced by the planets motions energies and the waves are reflected three times in the solar system and the wave reflection causes to square the wave velocity) for that I put different data trying to prove this hypothesis

But- the real design is much complex than this small hypothesis- because this hypothesis refers to one rule found in the design but the design is consisted of hundreds of rules and by that I provide very narrow vision for the whole truth-

Imagine we examine the artery connected between the human liver and his heart- it's one artery – it's fact and real piece of the human body but it's just one artery of many others- I want to say- the real vision of the solar system is so wide than this one I provide here- that's why the rules are not complete- but I provide strong data can prove my hypothesis and can show a piece of truth about the solar system real design.

Group Data No (VI)

(1)

177.4 degrees = 115.2 degrees x π/2

(2)

97.8 degrees = 31 x 3.1 degrees

(3)

28.3 degrees (Neptune axial tilt) = 26.7 degrees (Saturn axial tilt) x 1.0725

Discussion

Data No. (1)

177.4 degrees = 115.2 degrees x π/2

177.4 degrees = Venus Axial Tilt

25.2 degrees = Mars Axial Tilt BUT 25.2 +90 = 115.2 degrees

Please note

(12104 km Venus diameter / 6792 km Mars diameter) = 3.4/1.9 = π^0.5

(3.4 deg and 1.9 deg are the orbital inclinations of Venus and Mars respectively)

And

(177.4 deg Venus axial tilt / 115.2 degrees) = π/2

We see clearly the data depend on the value (π^3) and different geometrical reasons have effect on this value to produce these rates (π^0.5 and π/2)

Data No. (2)

97.8 degrees = 31 x 3.1 degrees

97.8 degrees = Venus Axial Tilt

3.1 degrees = Mars Axial Tilt

The data still depends on this same value (π^3= 31)

Group Data No (VII)

The distance 1433 million km

This distance should prove the energy is transported and the waves are reflected in the solar system because this distance is used frequently in the solar system and no explanation for such using better than the reflection of energy – let’s see its data

1433 million km = Mars Orbital Circumference

1433 million km = Saturn Orbital Distance

1433 million km = Uranus Saturn Distance

2 x 1433 million km = Uranus Orbital Distance

π x 1433 million km = Neptune Orbital Distance

(π+1) x 1433 million km = Pluto Orbital Distance

1410 million km = Pluto Neptune Distance (with 1433 mkm error 1.7%)

Also

1433 days = 2π x 224.7 days (Venus Orbital Period)

Logically there's a geometrical reason to cause all these distances to be equal and rated to each other based on this same root (1433)- and the wave reflection can be this geometrical reason by which this data is created.

The Explanation Of The Wave Reflection Effect On The Solar System Design

The gravitational waves reflection has great effect on the solar system design- let's refer to this effect in following

The Planets Distribution

The three outer planets (Pluto- Neptune- Uranus) have great orbits- why?

Because the gravitational waves move by velocity 205.8 km/s in these orbits and the planets motions energies are stored in these orbits as waves move by this velocity 205.8 km/s – means – great and massive motion energy is stored in these orbit where the waves move by 205.8 km/s that needed great areas to store so massive amount of energy

BUT

The Waves Velocity Is Accelerated In Saturn Orbit

This is the important point- because- the interaction between the outer planets caused to reflect the wave in Saturn orbit firstly and this reflection causes to square the velocity and then the velocity is squared and be equal the speed of light – means- the gravitational waves move by speed of light starting from Saturn orbit and continues with this speed till Venus and the other inner planets-

This is very important picture because

The low velocity 205.8 km/s needed great areas that causes the orbits or Pluto, Neptune and Uranus to be so great areas – BUT

The high speed motion (speed of light) doesn't need great areas – that's why the planets orbits from Saturn to Mercury are small orbits and the inner has very small orbits because the energy doesn't depend on the number of waves move by velocity 205.8 km/s but the energy depends on the motion by speed of light by that the energy of 1461 waves move by 205.8 km/s be equal the energy of one wave moves by speed of light – that causes the orbits to be small orbits – and that explains the distribution of the planets from the sun to Pluto.

And for that

When the massive reflected energy reached to Venus- it doesn't destroy the small inner planets and their orbits because the energy is used immediately to produce the sun rays means no need for storing the energy and for that no places for the energy storing instead the energy is used immediately- I try to show that- the planets distribution depends on the gravitational waves velocity in different orbits and by that the planets create their orbits in harmony with the moving energy

The Planets Masses Distribution

The outer planets have great masses but the inner planets have very small masses- why? because the rates of masses enable to accelerate the wave velocity in Saturn orbit-this idea is explained clearly in (Mass definition) in my paper definitions

The mass is used as a rate of time and the rates between the great and small masses aim to create the required rates of time and by these rates of time the wave velocity is accelerated

Thanks

Please read my paper

The Sun Can NOT Be Created Before The Planets Creation

And

A Great Gap Between The Physics Book And The Solar System Facts

And

The Gravitational waves reflection proves the gravitational waves are produced by the planets motions energies and not by the gravitational field

Gerges Francis Tawdrous +201022532292

Physics Department- Physics & Mathematics Faculty

Peoples' Friendship university of Russia – Moscow

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seospicybin · 26 days ago

Text

NEPTUNE.

Hyunjin x reader. (s,a)

Synopsis: In a distant future where an app can predict your death, a retired dancer and an ambitious swimmer cross path by chance. With their final day looming, they choose to share it together, finding unexpected connection in the fleeting hours they have left. (19,6k words)

Author's note: With this fic, I hope that you get to realize that no matter how small your achievement is, it matters. You are matter. Happy new year, everyone! ❣

In the distant future, death isn’t a mystery. It’s an appointment.

It started with a breakthrough—an algorithm said to be so precise it could predict the exact day someone would die. Governments called it progress, a tool to manage the chaos of an overburdened planet. They named it Mortem. What they didn’t expect was how quickly the app would seep into the fabric of life.

People stopped planning for the long term. Relationships became fleeting, careers lost their permanence, and calendars filled with expiration dates. Death notifications became part of the noise—just another alert blinking alongside weather updates and dinner reservations.

But Mortem wasn’t perfect. It couldn’t tell you the when—only the day. That meant hours, minutes, or fleeting seconds could separate you from the end. For some, it was a mercy. For others, a torment.

Tonight, the city pulses with quiet tension, as it always does. Neon lights flicker against a backdrop of endless skyscrapers, their glass walls reflecting a future built on progress and control. Somewhere, phones buzz softly, notifying their owners of an unchangeable truth: Tomorrow is your last day.

For those who receive the message, there are choices to make. Will they cling to the comforts of routine, pretending the day ahead is like any other? Or will they seek something different—a chance to hold onto life for just a little longer?

Two strangers will soon find themselves asking that same question. Their lives have never crossed before, but by the time tomorrow ends, they will have shared something no one else can understand.

5:00 a.m.

The alarm pierces the early morning silence, jolting Hwang Hyunjin awake. With practiced ease, he silences it, sitting on the edge of his bed as he stretches his long arms. His back arches slightly, muscles awakening as he bends forward to gather his thoughts.

The world outside is still cloaked in darkness, but Hyunjin is already lacing up his running shoes. A quick double knot secures them before he presses play on his playlist, music flooding his ears and sharpening his focus.

The crisp, cool morning air greets him as he steps outside. It stings against his skin, but he welcomes it, inhaling deeply as he begins to run. His strides are steady, powerful, each one cutting against the wind. His long, dark hair bounces with the rhythm of his movement, dampened slightly by the early morning mist.

After completing his route, Hyunjin stops by his favorite bakery, where the warm aroma of freshly baked bread envelops him. He orders his usual: a selection of warm pastries and a steaming cup of coffee to go. Back at his apartment, he settles by the window, the city stirring to life beyond the glass. He takes slow bites of his breakfast, sipping his coffee as the first golden rays of sunlight paint the skyline.

It’s moments like this, quiet and unassuming, that he treasures most. They remind him of the beauty in simplicity, grounding him before the demands of the day.

By ten o’clock, Hyunjin arrives at the training center, his focus razor-sharp. He begins with a grueling gym session, pushing his limits to strengthen his arms and back. The burn in his muscles is a familiar companion, one he embraces with resolve. Sweat drips down his chin as he finishes his final set, his determination unwavering.

But this is only the beginning.

Hyunjin steps into the aquatic center, the sharp scent of chlorine filling his lungs. In the locker room, he changes into a sleek pair of swimming briefs.

"How are you feeling, my man?" A friendly pat on his back pulls him from his thoughts.

"Excellent," he replies confidently, catching his reflection in the mirror as he adjusts his swim cap. His friend's grin widens, sensing the energy radiating off him.

"What's your current record?"

"For the 100 or the 200 medley?" Hyunjin asks, slipping the last strands of his hair beneath the cap."You know which one I'm asking."

"47.12." A proud smile curves his lips.

"Bet you can take it to 46 today," his friend challenges, tossing his shoes into his locker.

The words hang in the air, lighting a spark in Hyunjin. He doesn’t need the push—he’s already determined—but the encouragement fuels his fire.

Hyunjin steps onto the pool deck, his reflection shimmering on the surface of the water. Memories of his younger self flicker in his mind, the boy who first discovered the joy of being in the water. Back then, it felt like another world—quiet, weightless, serene.

That love hasn’t faded.

He dips a hand into the pool, splashing the cold water onto the back of his neck. It’s a small ritual, an anchor before the dive. His goggles are snug against his face, a protective barrier between him and the world above.

Hyunjin climbs onto the starting block, his heart steady, his goal clear. He holds the current record in the 100-meter freestyle, but today isn’t about records or accolades. It’s about pushing himself to the edge, chasing a version of himself he’s yet to meet.

The whistle shrieks, and Hyunjin dives.

The water welcomes him, enveloping him in its familiar embrace. Each stroke propels him forward, every kick slicing through the resistance. His body moves in perfect harmony, years of training reducing the act to instinct.

To Hyunjin, the sky isn’t the limit—it’s just the beginning. And soon, he knows, he won’t just swim among the clouds. He’ll soar beyond them.

8:02 a.m.

The studio is quiet, save for the soft creak of polished wood beneath your bare feet. Sunlight streams through the high windows, casting long beams across the mirrored walls. You breathe in the familiar scent of resin and faintly worn leather, grounding yourself in this sacred space.

This is how you always start your mornings: alone, warming up in the quiet before the day begins. It’s a small luxury, one you’ve come to cherish in a world that feels anything but certain.

You stand in the center of the room, your reflection poised and still. Slowly, you move through the routine, arms lifting, legs extending, muscles lengthening with every step. The rhythm flows from memory—an old habit, a comfort that never falters.

Then, it happens.

A sharp ping breaks through the silence, echoing off the walls.

You freeze mid-pirouette, your balance wavering. Across the room, your phone sits on the bench, its screen lit up with a single notification. For a moment, you don’t move. It’s not unusual for your phone to chime—messages from parents, reminders for classes—but something about the sound feels heavier this time.

You exhale, lowering your arms. Whatever it is can wait. You’ve always finished what you started, and today will be no different.

You push forward, completing the warm-up with careful precision. The movements are second nature, your body carrying you through muscle memory. But there’s a weight in the air now, and with each step, your focus frays a little more.

Finally, you stop.

The studio falls silent again as you walk toward the bench. Your pulse quickens when you see the notification’s source: Mortem.

You stare at it, your breath catching in your chest. The app sits there, waiting, the message unread. Tomorrow is your last day. Is that what it will say? Or will it be another date, far off in the future?

For a moment, you consider turning away. Dancing has always been your escape, your solace. Maybe one more routine will help you clear your mind.

You step back toward the center of the studio, muscles coiled and ready to begin again. But something stops you. A voice, faint but insistent, whispers at the edge of your thoughts: Face it.

Your hands tremble as you pick up the phone. You swipe the screen, heart pounding in your ears, and open the notification.

Your eyes lock onto the date, and for a moment, everything freezes. Confusion flickers in your chest, followed by the sharp pang of disbelief. You’d told yourself you were ready for this, that the day would come eventually, but seeing it spelled out so plainly shakes you.

And then, as quickly as it came, the chaos fades. You take a deep breath, grounding yourself as you’ve done countless times before. The truth is undeniable, and no amount of fear will change it.

You’ve made your peace with death. You always knew it would come soon. And now, soon is here.

3:22 p.m.

Dahlias.

Your mother’s favorite flowers. They stand out vividly against the muted tones of the hospital’s inpatient ward, clutched close to your chest as you make your way to her room.

It started with an ache—sharp and unrelenting—but she didn’t see a doctor until the nausea and loss of appetite became impossible to ignore. Six months ago, the diagnosis came: stage 3 pancreatic cancer. The doctor gave her six months to a year to live, and with every agonizing moment, you’ve come to understand why she wishes the end would hurry along.

But the notification she hopes for never arrives.

“Honey, I haven’t gotten my notification yet,” she mutters the moment you step into her room. Her voice is flat, a mix of irritation and resignation, as her eyes glance at the flowers in your hands.

She’s always irritable after chemo, so you don’t let her tone sting. Instead, you walk to the sink, filling a vase with water.

After the nurse checks her IV and blood pressure, you’re left alone with her. The silence isn’t new, but it feels heavier today.

“They said six months. Why am I still here?” she groans, struggling to adjust her pillow.

You hurry to help, carefully setting the vase of dahlias on the bedside table. They brighten the room immediately.

“They’re beautiful,” she finally says, softening just a little.

“I’m glad you like them,” you reply with a faint smile.

Your mother has always lived with vivacity. She wasn’t one for small dreams; she lived a thousand of them. In her teens, she wanted to be a singer. By her twenties, fashion called her, leading to an internship at a fabric shop. There, she befriended a chef who inspired her to pursue culinary arts. It was during that chapter of her life that she met a classical musician—your father.

And you.

Her dreams shifted then, morphing into family and love, and for years, she poured herself into creating a home filled with warmth. When your father passed, she found a new dream: becoming a florist. She turned it into a thriving business.

Until six months ago.

“Are you eating well?” she asks suddenly, her concern for you breaking through her fatigue.

You nod. “Yes.”

“What did you eat this morning?”

It’s a routine question, part of her new reality where food tastes like nothing. Asking you lets her imagine the flavors she misses.

“I had cranberry ciabatta from the bakery across the street,” you lie gently.

She hums contentedly, closing her eyes. “They make the perfect ciabatta.”

“Mom,” you say softly, taking her frail hand in yours.

“Yes, my darling?”

“What would you cook for your last dinner?” You smile to hold back the lump in your throat.

Her face lights up, pleased by the question. She’s always loved sharing her stories, and now they’re all she has left to give.

“For an appetizer, I’d make eggplant croquettes,” she says with a teasing grin.

“Mom, not the eggplant,” you protest, wrinkling your nose.

Her laugh is weak but genuine. “Okay, okay. How about scampi bruschetta?”

“Now that’s more like it,” you say with exaggerated approval.

She closes her eyes, envisioning her creation. “With thyme and lemon. I’d toast the ciabatta for five minutes—just enough for a crunch—and sear the shrimp with olive oil and a pinch of salt. Then sauté spring onions with thyme, lemon zest, and honey. Acacia honey.”

As she speaks, her voice gains strength, her enthusiasm igniting memories of her former self. Between recipes, she slips in anecdotes, turning her imagined last meal into a tapestry of her life.

You hang on every word because you know these stories matter. They are her, distilled into moments you’ll carry forever.

And yet, the cruel irony doesn’t escape you.

You were supposed to be the one holding her hand at the end, not the other way around. The thought pierces through your heart as you sit there, smiling at her stories. She has spent six months longing for death, only for it to come for you first.

She deserves to rest, to find peace after everything she’s endured. You would have done anything to give her that. But the universe is merciless. It has flipped the natural order, leaving her with the unbearable task of outliving her child.

The injustice of it sits heavy in your chest, threatening to choke you. How is it fair that the one who wants to die must keep fighting, while you—her child—are robbed of the chance to live?

By the time she moves to selecting drinks, her eyelids grow heavy.

“You’re sleepy, Mom,” you whisper, smoothing the duvet around her.

She nods, offering a tired smile. “I’m just a little tired these days.”

You watch her closely, memorizing every line of her face, every glimmer in her weary eyes. “You look beautiful today.”

Her smile deepens, faint but radiant. “I know.”

“You’ve always been beautiful,” you add, unable to stop yourself.

She chuckles weakly. “I look good with cancer, huh?”

You laugh softly, brushing a strand of hair from her face, committing her image to memory.

As you stand to leave, her hand clasps yours, pulling it to her chest. For a moment, it rests there, and just when you think she’s asleep, she lifts her other hand to pat your head.

“You’re a superstar,” she whispers. “I adore you so much.”

Those were her bedtime words to you as a child, and now they hit deeper, wrapping around your heart with bittersweet comfort.

In her eyes, you will always be her child, no matter how much of the world you’ve seen or what you’ve become.

As she drifts to sleep, you kiss the back of her hand, releasing it gently. You take one last look at her before leaving the room.

This isn’t goodbye. It’s not the last mother-daughter moment, either, because in life and in death, she will always be your mother.

For you, death isn’t the opposite of life. It’s simply a part of it.

6:16 p.m.

“46.92!”

The words ring out in the humid air of the locker room as Hyunjin’s friend pats his back enthusiastically. They’re both standing under the shower, letting the day’s fatigue wash away.

“I see a gold medal in your near future,” his friend adds, grinning.

Hyunjin can’t stop the smile that creeps onto his face. The thought of victory is intoxicating, the image of standing atop the podium almost tangible. He can taste it—sweet, like honey.

“Beers? What do you think?” another teammate calls out as Hyunjin turns off his shower head.

For a moment, he’s tempted. He deserves it, doesn’t he? Breaking his personal record, getting closer to his dream—surely, a small celebration wouldn’t hurt.

But discipline pulls him back. His body is his temple, and the bread he allowed himself this morning was already a rare indulgence.

“Not tonight,” Hyunjin says, his tone polite but firm.

“Next time, then,” his friend replies easily, shrugging it off as he heads for the lockers.

The others filter out, their laughter and chatter fading down the hallway until silence envelops the space. Hyunjin is alone now, drying his damp hair with a towel. He moves methodically, packing his bag, folding his towel, tucking everything neatly into place.

When he pulls out his phone, a cluster of notifications greets him. Most are messages from his teammates—congratulations, plans for the weekend, harmless banter. He skims through them absentmindedly until one notification stops him cold.

It stands out like a blot of ink on an otherwise pristine page.

Mortem: Tomorrow is your last day.

For a moment, Hyunjin forgets to breathe. The locker room feels impossibly quiet, the white noise of the air conditioning fading into nothingness.

He reads the notification again, hoping—no, praying—that he’s misunderstood. But the words remain the same.

Hyunjin’s legs feel unsteady as he forces himself to move, his bag slipping from his shoulder as he stumbles toward the pool. He steps onto the edge, the scent of chlorine sharp in the air. The water is eerily still, reflecting the overhead lights in perfect symmetry.

He looks down at his reflection, and what he sees isn’t the confident, ambitious swimmer who broke his record earlier today.

It’s someone hollow. A boy with dreams just out of reach, crushed under the weight of a cruel truth.

His fists clench at his sides as anger rises in his chest, hot and unrelenting.

“FUCK YOU!” he screams, his voice tearing through the silence, reverberating across the chamber.

The sound ricochets off the walls, rippling across the surface of the water. His reflection distorts, breaking apart into fragments before settling again, unfamiliar and unkind.

They say death comes at the right time. A gentle visitor, arriving only when it’s supposed to.

But that’s a lie.

It doesn’t care about dreams or sacrifices. It doesn’t care that Hyunjin has spent years of his life in pursuit of one thing, pushing his body and mind to their limits.

It doesn’t care that he’s so close.

And now, when victory is within his grasp, it will take everything away.

He closes his eyes, chest heaving as he fights to steady his breathing. The rage doesn’t subside—it sits in his chest, a molten core of grief and frustration.

Hyunjin knows there’s nothing he can do to stop what’s coming. But for tonight, he lets himself curse the unfairness of it all, his voice echoing into the void until there’s nothing left but silence.

For Hyunjin, death is a thief.

7:22 p.m.

Alcohol is never your first choice. You’re not a fan of the bitter aftertaste or the burn as it slides down your throat. But tonight, you need something to dull the ache.

Your phone lies face-up on the bar, the notification glaring at you like a cruel joke. It’s accompanied by offers—a funeral service arrangement, a hotline for counseling.

You stare at the screen, unsure how to even begin processing it all. Sadness feels too small a word for the heap of emotions weighing you down. Beneath the sorrow lies a sliver of joy at the thought of not having to endure another day. And beneath that, a fragile sense of relief that it will soon be over.

How do you explain that to anyone? How do you untangle that mess of feelings, let alone share them with a therapist?

The bartender doesn’t ask. He doesn’t need to. Your sadness is written all over your face.

An hour passes, your drink long since gone, and you finally decide to leave. The bartender approaches, not with the check but with a bottle in hand.

“Here,” he says, taking your empty glass away.

You blink at him, confused. “I’m ready to pay—”

“I’m not taking your money,” he interrupts, pouring liquid from three different bottles into a pair of shot glasses with precise movements.

It clicks belatedly in your mind—some unspoken gesture, one you wouldn’t have recognized if you didn’t spend most of your nights at home.

“May I ask what this is?” you say, eyeing the amber liquid as he slides the shot glass toward you.

“The Three Wise Men,” he says with a faint smile.

“And who are they?”

“Johnnie Walker, Jim Beam, and Jack Daniels,” he explains, gesturing to the bottles on the counter.

“Ah...” A small laugh escapes you. “Very wise indeed.”

He lifts his shot glass, holding it up in a silent toast. “Ready?”

You hesitate, your hand wrapping around the glass. “Any tips for this?”

“Don’t think. Just swallow.”

You nod, mirroring his stance.

“To the three wise men,” he says.

“To the three wise men,” you repeat, exhaling before tipping the shot back. The liquid burns all the way down, leaving a warmth in its wake.

“Whoo...” the bartender exhales, slamming his glass upside down on the counter.

You mimic him, wiping your mouth with the back of your hand. “That was…” You pause, laughing nervously. “…something.”

He chuckles, leaning on the counter as his gaze sweeps the bar. “They say you’re either living to die or dying to live.”

The room feels quieter for a moment as his words settle.

He sighs, his voice softening. “But you know what? I only pity the living.”

The statement strikes you in a way you can’t quite articulate. You don’t want to die, not really. But the thought of living, with all its weight, feels far worse.

“Another round?” he offers, holding up one of the bottles.

You shake your head. “No, thank you. I haven’t eaten dinner, so I don’t think that’s… wise.”

“See? You learned from these men,” he teases, capping the bottle with a grin.

You pull out your wallet, sliding a card toward him. “At least let me pay—”

He steps back, hands raised in mock surrender. “Use the money to buy yourself a nice dinner, okay?”

There’s no arguing with him, so you reluctantly tuck your card away. “Thank you,” you say softly, your voice heavier with gratitude than the words can carry.

He nods, his smile kind. “Hey, I needed that shot too.”

You rise from the stool, glancing back as you sling your bag over your shoulder. “Have a great night.”

The bartender is busy with another order, but a few steps later, his voice calls out to you.

“See you on the other side,” he says, raising a hand in farewell.

For a moment, you pause, then nod, offering a faint wave before stepping out into the night.

7:45 p.m.

There's nowhere to go.

You’ve been walking aimlessly since leaving the bar, letting your feet lead the way. Your hands are stuffed into your jacket pockets as you stop at a crosswalk, waiting for the light to turn green. The thought of returning to your apartment, where silence lingers like an unwelcome guest, feels unbearable.

You could visit your mother again, but the idea of seeing her only to leave her forever—it's too much to handle.

There are so many things you want to do, yet none of them feel right.

The light finally turns green, and you step off the curb. But before you can take another step, something grabs your shoulders and pulls you back. A motorcycle speeds past, narrowly missing you.

Your mind goes blank. Instead of your life flashing before your eyes, everything shuts down for a moment.

"Come on!" a voice urges. A hand takes yours, pulling you across the street just as the light turns red again.

You don’t realize what just happened until you’re safely on the other side. Someone has just saved you. If they hadn’t stopped you, that motorcycle might have dragged your body halfway down the street.

You turn to look at your savior and freeze. He’s beautiful—stunning, even—and for a moment, you’re speechless.

"Are you okay?" he asks, his voice gentle but tinged with concern.

His words snap you out of your daze, and you hurriedly compose yourself. "Yeah, I’m sorry, I was—"

"No, no, it’s not your fault. That motorcycle ran the light," he interrupts, shaking his head.

Why are you apologizing? You should be thanking him. But when you look at him, the words catch in your throat, so you glance away. "Thank you… for, uh, earlier," you manage to say.

He smiles, and his eyes curve along with it, warm and genuine. But then his next words take you by surprise.

"Your death isn’t today, right? I’m pretty sure it said tomorrow."

You freeze again, alarm bells ringing in your head. How does he know that? You take a step back, suddenly wary.

Realizing he’s scared you, he raises his hands in a gesture of surrender. "I’m sorry—I should’ve explained first."

He lowers his hands and exhales before continuing, "I was in the bar earlier. I accidentally saw the notification on your phone when I was getting my drink. And then I followed you..." He grimaces. "Wait, that makes me sound like a creep."

He stops rambling and pulls his phone from his jacket pocket, tapping the screen until it lights up. He turns it toward you, revealing a notification identical to yours.

His death is tomorrow, too.

"I guess we’re doomed, huh?" he says with a shrug, his tone oddly lighthearted.

You’re at a loss for words, staring at the screen and then at him. How is it possible that someone like him—this beautiful, radiant man—is doomed?

He puts his phone away and looks at you earnestly. "I know this is sudden, and random, and... probably really weird. But do you want to have dinner with me?"

It is sudden, random, and undeniably strange. But as you look at him—this stranger who saved your life—one thought crosses your mind: What’s the worst that could happen?

You’re going to be dead in a matter of hours anyway.

"Okay," you say.

08:10 p.m.

The two of you decide to walk to dinner, hands tucked into your jacket pockets, his adjusting his beanie every few steps. He finally breaks the silence as you pass the second block from where you met.

"I'm Hyunjin, by the way," he says.

You glance at him and give your name in return. When you expect the exchange to end, he extends his hand, and you shake it, feeling the chill of his skin against yours. His long fingers, adorned with rings, seem oddly delicate.

"Nice to meet you," he says with a small smile, pulling his hand back to adjust his beanie again.

“So... when did you get your notification?” he asks after a beat.

“This morning,” you reply, freeing your hands from your pockets now that the silence has been broken. “You?”

He tilts his head back slightly, lips pressing into a thin line. “Two hours ago.”

A strange feeling of unease stirs inside you, but he doesn’t let the conversation falter. “How do you feel about all this?”

“All this?” you echo.

He nods, waiting for your response. You search for the words, trying to name the whirlwind of emotions you’ve carried since the moment you opened that notification.

“I feel... alright, I guess.”

Hyunjin stops mid-step, turning to look at you with incredulity. “Alright?”

You shrug, unsure how to elaborate.

“You’re not angry? At all?” His tone sharpens, his brow furrowing in disbelief.

Angry? That hadn’t crossed your mind. There’s an odd peace in accepting what you can’t control, a clarity you never expected. You shake your head. “No.”

His eyes darken, and he mutters, “Well, I am.” He starts walking again, this time faster, his strides growing wide and purposeful.

“I’m livid,” he says through gritted teeth. “If death had a face, I’d punch it.”

You pick up your pace to match his, almost jogging, until he notices and abruptly halts.

“Are you okay?” he asks, his frustration dissolving into concern.

You nod, panting slightly.

He chuckles softly, his eyes crinkling into crescent moons. “Sorry, I tend to walk fast when I’m angry.”

The two of you fall into a slower, more deliberate pace, hands swinging at your sides. You want to ask what exactly makes him so angry, but before you can, he stops again.

“We’re here,” he announces, holding the door open for you.

You step inside and immediately feel out of place. The restaurant is elegant, full of people dressed to the nines. Self-consciousness creeps up your spine, and you spin around to look at him—only to bump into his chest.

“Sorry,” you mumble, looking down.

Hyunjin steadies you with a firm grip on your shoulders. “You alright?”

“Yeah,” you say quietly, stepping back to stand behind him.

“Table for two, please,” he tells the hostess.

She leads you to a table by a large window overlooking the city, the full moon casting a gentle glow over the skyline. As she places menus in front of you, Hyunjin mutters a polite thank-you, his attention already elsewhere.

You glance at him as he removes his jacket, folding it neatly over the back of his chair. He seems unbothered by the setting, completely at ease. He flips open the menu, his eyes scanning the options.

“Any ideas on what to have?” he asks, glancing up at you.

You fumble to open your menu, pretending to read it while avoiding his gaze. Finally, you lean forward and whisper, “Don’t you think we’re underdressed?”

He gasps dramatically, as if your words remind him of something crucial. Tugging off his beanie, his dark hair tumbles down, slightly damp and shiny, framing his small face. He ruffles it quickly, then shrugs.

“Steak? Pizza? Pasta?” he suggests, ignoring your question entirely.

You hesitate. When he offered to take you to dinner, you’d imagined a casual spot, maybe a pizza joint or noodle bar. Not this. And while you’re trying not to think about money, the menu’s prices make your stomach turn.

“I think we should go somewhere else,” you say quietly, your eyes darting over the options.

“Why?”

“It’s... too expensive.”

Hyunjin laughs, low and amused. “Do you think I can’t afford it?”

You shake your head frantically. “No, no, that’s not what I meant—”

“I’m kidding,” he interrupts with a grin. Leaning forward, he drops his voice to a whisper. “Honestly? I can probably only afford a plate of pasta and garlic bread.”

Your eyes widen, but his sly smile makes it clear he’s joking again.

“Good thing we’ve got the pity card,” he says, leaning back with a nonchalant shrug.

You freeze, reminded of the pity card. It’s a small perk that comes with the notification—a free pass to almost anything, covered by taxes. A gesture from the system to say, “Sorry you’re dying soon—here’s a little something.”

But the thought of using it makes your skin crawl.

“No,” you say, shaking your head firmly. “Not the pity card.”

“Why not?”

You struggle to explain. “It just... feels wrong. I don’t want their pity.”

Hyunjin raises a brow. “Who cares? We’ll be dead in a few hours.”

Before you can respond, a waiter approaches to pour water and set down a plate of bread. Hyunjin thanks them softly, then turns back to you.

“It’s not like we’re taking their pity with us to the grave,” he says, lifting his glass. “So, what do you say?”

You glance at the clock on the wall. Four hours left. Soon, none of this—money, pity, pride—will matter.

“We only die once, right?” you say, lifting your glass awkwardly.

Hyunjin laughs, his grin lighting up his face. “We only die once,” he echoes, clinking his glass against yours.

8:20 p.m.

You're not much of a conversationalist, so Hyunjin takes it upon himself to break the silence, his curiosity about you driving him forward. He has a myriad of questions on his mind but decides to start simple.

"May I ask what you do?"

His question makes you look up at him, and after a moment's hesitation, you place your hands under the table and answer with a sheepish smile, "I'm a ballet instructor."

The pieces click into place for him—the flowy skirt, black tights, and your hair tied neatly into a bun.

"So, you're a ballerina," Hyunjin remarks, nodding thoughtfully.

"I was," you correct him softly.

He tilts his head, his brows furrowing slightly. "Was?"

"I'm retired," you say briefly, offering another shy smile.

Hyunjin blinks in confusion. Retired? You seem far too young for that. "May I ask why?"

You adjust the cutlery in front of you, your hand steady despite the weight of your words. "I got into an accident a couple of years ago. I badly injured my leg, and the doctor insisted I stop dancing if I wanted to keep walking..." Your voice trails off, and your lips curve into a sad smile as you avert your gaze.

The weight of your story hits him. He can empathize with the sense of loss; after all, his situation is eerily similar. You had to give up your passion because of an accident, while he faces an abrupt end because of the ticking clock. Both of you are here, grappling with the unfairness of it all on what could be your final hours.

"It's like that saying," you continue, "‘Those who can, do. Those who can't, teach.’ So that’s what I’m doing now." You tuck a stray strand of hair behind your ear and flash him a reassuring smile, but Hyunjin isn’t convinced. He recognizes the facade; he’s worn it himself.

"And you're not mad about it?" he asks, fully aware he might be treading into private territory.

"I was, for a long time. But eventually, I realized there’s no point in drowning myself in anger."

This time, your smile is different—genuine, even serene. It’s as if you’ve made peace with the cruelty of life, embracing it with quiet strength. Hyunjin admires it, though he knows how hard it must’ve been for you to reach that place.

He takes a breath and shifts the conversation, sensing the need to lighten the mood. "So, you’re teaching at a dance company?"

"A dance academy," you correct him with a nod. "I teach girls between the ages of seven and sixteen."

He can picture it easily—you, guiding a room full of eager young dancers, patient and warm. You probably make their favorite teacher list without even trying.

"And what about you?" you ask, lifting your glass of water for a sip.

"I'm an athlete," he replies.

"Ah..." you murmur, intrigued. "What sport?"

"Take a guess," he says with a playful grin, leaning back in his seat.

Your laughter fills the air, and you give him a once-over, your eyes narrowing as you search for clues. After a moment of deliberation, you venture, "You’re tall and lean so... basketball?."

Hyunjin chuckles, pleased with the compliment but shakes his head. "Nope."

You purse your lips in thought. "Soccer?"

"I like soccer," he admits, leaning forward, "but that’s not it."

You groan in mock defeat, covering your face with your hands. "I’m terrible at this!"

Hyunjin laughs, finding your reaction endearing. "I’m a swimmer," he reveals.

Your eyes widen in surprise. "That’s amazing!"

"I was scouted for the national team," he says, a hint of pride in his voice. "I was supposed to compete this summer."

The realization of his words hits him mid-sentence, and the excitement drains from his face. Summer is two months away—a future he knows he won’t see.

"That’s incredible," you say gently, your empathetic smile offering comfort.

Just then, the waiter arrives with the menus, saving the atmosphere from slipping into melancholy.

"Would you like to order some wine?" the waiter asks, presenting a list.

You scan the menu and suggest, "I think I’ll have white wine."

Hyunjin glances over the options, muttering to himself, "Vanilla and peach... sounds nice."

"Viognier, sir?" the waiter recommends.

Hyunjin looks to you for approval, and your small nod seals the deal. "We’ll have that," he says.

The wine arrives alongside your meals, and the two of you fall into a rhythm of eating, sipping, and conversing between bites.

"How long have you been swimming?" you ask.

"Since I was eight," he replies, pausing to take a sip of wine.

"Wow. I didn’t even realize I wanted to be a ballerina until I was twelve," you admit.

He’s struck by how much more at ease you seem now, whether it’s the wine or simply warming up to him. "What did you want to be before that?"

"A lot of things. An astronaut, a doctor, a ventriloquist..." You pause, your cheeks flushing with a laugh. "A vampire slayer."

Hyunjin bursts into laughter, shaking his head in disbelief. "You really wanted to be everything."

"My mom broke my heart when she said I couldn’t be a vampire slayer," you say, your expression deadly serious.

"Honestly? I’d be sad too," he jokes, grinning.

You lean in, lowering your voice as if sharing a secret. "Then she told me this: ‘It’s okay if you can’t achieve your dream. You can always go back to sleep and live a new dream.’"

Your laughter carries across the table, and Hyunjin smiles faintly, though the sentiment hits too close to home. Finding a new dream is one thing—but having the time to chase it is another entirely.

You finish your meal and dab your lips with a napkin. "The academy I teach at isn’t far from here, just a few blocks away. I actually have to stop by to grab a few things."

You glance at him, your expression soft. "Do you want to come with me?"

The invitation catches him off guard, but the warmth behind it makes it impossible to refuse.

"I’d love to," Hyunjin answers, smiling. For a fleeting moment, he feels less alone in facing the inevitable—because now, at least, he has a friend.

09:15 p.m.

"We'd like to pay with this," Hyunjin slides his phone across the table to the waiter.

The waiter studies the screen for a moment. You can see the subtle shift in his expression as realization dawns—Hyunjin's pity card, stark proof of his limited time, is what he offers as payment. The waiter looks back at both of you, his eyes softening, probably assuming this is some kind of farewell dinner.

He forces a smile and says, "We'll process it right away."

Hyunjin raises his eyebrows at you, a small grin tugging at his lips as if to say, Here it comes.

Sure enough, the waiter, taking a step away, turns back around and says solemnly, "We're very sorry."

Both of you burst into quiet laughter, your shared amusement breaking the gravity of the moment.

"That's one!" you tease, raising your coffee cup as if to toast.

When the waiter returns with Hyunjin's phone and the bill, his demeanor is still tinged with melancholy. As Hyunjin signs, the waiter fidgets slightly, clearly wrestling with unspoken words. In the end, all he offers is another subdued, "I'm very sorry."

You glance at Hyunjin with a smirk. "Two," you whisper under your breath.

The waiter departs, but not before the lady at the till calls after you as you're leaving. "Thank you, and we're very sorry."

The moment the door closes behind you, you and Hyunjin burst into unrestrained laughter.

"A hat trick!" he says, shaking his head, his hands tucked into his jacket pockets.

As you stroll to the academy, you find yourselves critiquing the meal like professional food critics, though the details blur in your slightly tipsy haze. The wine stands out—delicious enough that you’d kept asking for refills. Thankfully, the cool evening air helps clear your head by the time you reach the academy.

You unlock the studio door, the faint scent of wood polish and faint traces of rosin welcoming you. The dim overhead lights flicker on, casting a warm glow over the polished floor and mirrored walls. Hyunjin steps inside, his eyes widening as he takes in the space.

"This is where you work?" he asks, his voice tinged with awe.

You nod. "My second home."

Hyunjin walks around the room, his footsteps echoing softly against the floor. He pauses by the ballet barre, running his fingers lightly over the smooth wood. "This place is beautiful," he murmurs.

You smile, setting your bag down. "It has its charm, doesn't it?"

His gaze falls on the wall of framed photos—groups of smiling children in costumes, candid shots of performances. "Are these your students?"

"Yes," you say, walking up beside him. "They’re the reason I still love what I do."

Hyunjin glances at you, his expression soft. "I can see why they'd love you as a teacher."

The compliment catches you off guard, and your cheeks warm. Quickly, you motion to the barre. "Want to try something?"

He raises an eyebrow, intrigued. "Are you offering to teach me ballet?"

"Why not?" you say, grinning. "You’re an athlete. It’ll be fun."

10:25 p.m.

You stand in front of him, arms crossed, as Hyunjin tentatively grips the barre. His tall frame looks comically out of place in the elegant studio.

"Okay," you begin, stepping closer. "We’ll start with something simple—a plié."

Hyunjin looks at you skeptically. "A what?"

You laugh softly. "It’s just bending your knees. Easy."

Demonstrating, you lower yourself gracefully, your knees bending outward as your back stays straight. Hyunjin watches, nodding, and attempts to mimic you.

His execution is… not as graceful.

"No, no," you say, laughing, stepping behind him to adjust his posture. "Straighten your back. And don’t forget to keep your heels on the ground."

You place your hands lightly on his shoulders to guide him. The moment your hands touch him, he stiffens, looking up at your reflection in the mirror.

"Relax," you say softly, your gaze meeting his.

He swallows hard, his Adam’s apple bobbing, and finally eases into the position. You step around to face him, studying his form critically.

"Not bad," you tease. "But your turnout needs work."

"What’s that?" he asks, genuinely curious.

You tap his knee gently. "It’s the angle of your legs. Let me show you."

You crouch slightly, your hands brushing his calf as you adjust his stance. He watches you intently, his dark eyes following your every move. When you glance up, you find him staring.

"Something wrong?" you ask, standing upright.

He blinks and shakes his head. "No, it’s just… you’re really good at this."

You chuckle, stepping back. "It’s my job."

Encouraged by your patient coaching, Hyunjin tries another plié. It’s still a little stiff, but he manages to get through it without wobbling.

"See? You’re getting the hang of it," you say, clapping lightly.

"Don’t lie," he says, laughing.

"Okay, you’re still stiff," you admit with a grin, "but that’s expected. Ballet is all about control and precision."

Hyunjin straightens up, rolling his shoulders. "It’s harder than it looks."

"Now you understand why ballerinas are tough," you say, playfully nudging him.

He laughs, the sound light and carefree. "Okay, what’s next?"

You hesitate, considering. "Maybe a pirouette?"

"A what?"

You demonstrate the spin, moving with effortless grace. Hyunjin stares, wide-eyed.

"Yeah, no," he says, laughing nervously. "I’ll break something."

You step closer, placing a reassuring hand on his arm. "I’ll guide you. Trust me."

As you position him for the spin, your hand lingers on his waist. The closeness brings an unexpected tension between you, and for a moment, neither of you moves.

"You ready?" you ask, your voice barely above a whisper.

Hyunjin nods, his eyes locked on yours.

"Okay. One… two… three."

He spins—clumsily, of course—but the two of you dissolve into laughter as he nearly stumbles into you. You catch his arm to steady him, the laughter fading as you find yourselves standing mere inches apart.

"Not bad for your first time," you say softly, your hand still on his arm.

Hyunjin smiles, his gaze lingering on you. "Only because I had a good teacher."

10:55 p.m.

The quiet of the studio wraps around you like a soft blanket, interrupted only by the faint hum of the overhead lights. Hyunjin leans against the barre, watching you adjust your pointe shoes with practiced precision. The thought has been circling his mind since you both left the restaurant, but now, in this space that seems so deeply a part of you, he can’t hold back his curiosity.

“So…” he begins cautiously, his voice light but uncertain, “how did it happen?”

You pause, looking up at him with a flicker of confusion.

“I mean, your accident,” he clarifies quickly, his expression apologetic, as though he’s afraid he’s overstepped. “If it’s okay to ask.”

A faint smile touches your lips, and you straighten, leaning against the mirror. “Two years ago,” you say softly, the words feeling fragile yet certain, as if the memory lives just on the edge of your voice.

Hyunjin stays quiet, giving you space to continue.

“I was preparing for an audition—Swan Lake,” you say, your eyes shimmering with a mix of pride and pain. “I’d been working on my fouett��s for weeks, trying to perfect all thirty-two of them. It was… everything to me.”

He can see it in your expression, the longing for something lost yet deeply cherished.

“The morning of the audition, I was rushing to catch the bus,” you continue, your hand gesturing lightly as though retracing steps from that day. “I was almost out the door when I realized I’d forgotten my shoes—the ones I believed would bring me luck. So, I ran back to get them.”

Your voice falters, and Hyunjin feels a pang of dread, already sensing what comes next.

“When I stepped out of my apartment building, a car came out of nowhere.”

You take a deep breath, your fingers brushing over the edge of the barre. “It wasn’t even going that fast, but the way I fell… My leg took the worst of it. Surgery, physical therapy… the usual.”

Hyunjin swallows hard, unsure what to say. “Do you… regret going back for the shoes?”

A soft, almost bitter laugh escapes you. “Every day.”

The silence that follows feels heavy and fragile, a moment suspended between reflection and grief.

“Can you dance at all now?” Hyunjin asks gently, his voice barely above a whisper, unsure if he wants to hear your answer.

You surprise him by smiling. “Why don’t I show you?”

Standing in the center of the studio, a quiet determination settles over you. The space transforms as you raise your arms, your posture suddenly regal, every movement deliberate and graceful.

“This is the introduction to Black Swan, Act III,” you say, your voice steady. “It’s what I’d prepared for the audition.”

Hyunjin nods, unable to take his eyes off you as you begin to move. You are mesmerizing, every gesture steeped in a passion he can feel even in the silence of the room. But as you transition into the fouettés, he notices the strain in your expression. Your balance falters, your leg wobbles, and before he can call out, you tumble to the floor.

“Are you okay?” Hyunjin rushes to your side, dropping to his knees as you prop yourself up on your elbows.

Instead of answering, you let out a loud, breathless laugh that echoes through the studio. You collapse back onto the polished floor, holding your stomach as the laughter spills out, unstoppable.

Hyunjin blinks, confused at first, but the sound of your laughter pulls him in. A small smile tugs at his lips. “You’re unbelievable,” he mutters, lying down beside you.

The quiet returns, the two of you staring up at the ceiling.

After a moment, you speak, your voice softer now, almost wistful. “Sometimes, I like to think there’s another me out there, one who made it to the audition, who got to live that dream.”

Hyunjin turns his head to look at you. Your expression is calm, tinged with longing but also a quiet acceptance.

“And you know what?” you continue, your voice barely above a whisper. “I’m happy for her and that’s enough for me.”

Hyunjin doesn’t know what to say, so he simply stays beside you, sharing the silence. There’s something achingly beautiful about your acceptance, the way you’ve found peace in the life you have now.

In that moment, he realizes how much strength it takes to smile at what could have been and quietly say, That’s enough.

11:13 p.m.

The studio falls into a comfortable silence, the kind that feels like a warm embrace. After a while, you sit up, brushing your hands over the smooth wood of the floor, and glance at Hyunjin lying beside you. He looks peaceful, almost lost in thought, but you can’t help the smile tugging at your lips as an idea forms.

“I showed you my dancing,” you say, breaking the quiet. “Now I want to see you swim.”

Hyunjin’s head turns toward you, his brows lifting slightly in surprise. “You want to see me swim?” he asks, his voice soft yet curious.

You nod, leaning back on your palms. “It’s only fair. I want to see you doing what you do best.”

For a moment, he studies you, as if trying to gauge whether you’re serious. Then, a small chuckle escapes him, and he pushes himself up to sit beside you. “Alright,” he says, a playful smile spreading across his face. “If you really want to.”

He rises to his feet effortlessly and extends a hand to you, his fingers warm and steady as they wrap around yours. With a strong tug, he pulls you up, but the motion catches you off guard, and your body stumbles forward, colliding with his.

Your breath hitches as you find yourself pressed against him, your hands instinctively landing on his chest for balance. Hyunjin’s hands settle on your waist, steadying you, and for a moment, the world feels still again—but this time, it’s charged with something unspoken.

You glance up at him, and your heart skips a beat when you notice his gaze lingering on your lips. The air feels heavier, your pulse quickening under his touch. His expression is unreadable, his eyes soft yet intense, as if caught in a moment of indecision.

Flustered, you look away quickly, stepping back to put some distance between you. “I should, um, clean out my locker first,” you say, your voice slightly rushed. “Then we can go.”

Hyunjin blinks, the spell broken, and his lips curve into a small, understanding smile. “Alright,” he replies simply, his tone easy and light, as though nothing happened.

You turn toward the studio door, your cheeks warm as you try to steady your racing thoughts. Behind you, Hyunjin’s footsteps follow quietly, his presence a steady comfort in the stillness of the room.

11:49 p.m.

As the taxi pulls up in front of the aquatic center, Hyunjin is the first to step out. The cool night air brushes against his skin as he circles around to your side, offering his hand to help you out of the back seat. You take it with a quiet "thank you," and he smiles softly in response, his fingers lingering for a moment before he lets go.

Inside, the center is quiet, the fluorescent lights casting a pale glow over the sleek, tiled interior. Hyunjin leads the way, his footsteps echoing lightly in the stillness, but after a few steps, he notices you’re no longer beside him.

He turns around, his brows knitting together in concern. “What’s wrong?” he asks.

You hold up your phone, its screen glowing in the dim light, and his eyes fall to the numbers displayed there. It’s past midnight. The date has turned, and the realization hits him like a weight in his chest—this is it. The day has come.

“It’s today,” you say quietly, your voice steady but tinged with sadness.

Hyunjin studies your face, searching for any sign of fear. “Are you scared?” he asks softly.

You don’t answer right away, your lips curving into a sad smile instead. Then, with a steadying breath, you meet his gaze and say, “Promise me something.”

His heart tightens at your tone. “What is it?”

“If my time comes first,” you begin, your voice cracking slightly, “I want you to move on. Keep going. Finish your day, okay?”

Hyunjin’s chest tightens, his head shaking before you can even finish the thought. “No,” he says firmly, stepping closer to you. “I can’t do that. Not unless you promise me the same thing.”

You hesitate, your eyes glistening under the soft glow of the lights. After a moment, you nod, your voice a whisper. “Okay. We’ll both keep going.”

He takes your hand in his, his grip firm but comforting. “We’ll do it together,” he says, his voice steady and resolute.

You smile at him then, soft and bittersweet, and he feels his heart ache at how brave you are in this moment.

Hyunjin squeezes your hand gently and tilts his head. “So,” he says, a small smile playing on his lips, “do you still want to see me swim, or is there something else you’d rather do?”

You shake your head, a quiet laugh escaping you. “I still want to see you swim,” you insist, your determination making his heart feel lighter.

He chuckles softly, releasing your hand and motioning toward the pool. “Alright then,” he says. “Let’s make this count.”

With that, he turns and walks with you into the aquatic center, the weight of the clock pressing on both of you, but your shared promise holding it at bay for just a little longer.

12:07 a.m.

The sharp, unmistakable scent of chlorine stings your nose as you step inside the aquatic center. The lights overhead cast shimmering reflections across the vast, still water, and you pause, taking it all in. The pool is immense, almost intimidating in its size, with the kind of quiet that feels both peaceful and eerie.

You walk to the edge, peering over cautiously. The water glimmers below, deceptively inviting, but as your gaze shifts downward, the sheer depth of the pool sends a chill through you.

“Can you swim?” Hyunjin’s voice cuts through the stillness, pulling your focus to him.

You shake your head, your lips pressing into a tight line. “No,” you admit softly. “I almost drowned once when I was ten. I’ve been afraid of swimming ever since.”

Hyunjin studies you for a moment, his expression thoughtful. Then, with a small smile, he says, “It’s not too late to learn, you know.”

You hesitate, your arms wrapping around yourself. The idea alone sends your pulse racing, the memory of water filling your lungs still too vivid in your mind. “It’s… not that easy,” you mumble, avoiding his gaze.

Hyunjin steps closer, holding out his hand to you. His voice is gentle but insistent. “Come with me. I can teach you how to swim… without the water.”

You glance at his outstretched hand, uncertainty swirling inside you. But the way he looks at you, so patient and reassuring, nudges you forward. Slowly, you nod.

“Alright,” you say, placing your hand in his.

He leads you to a smaller pool, its drained interior revealing its tiled floor. Hyunjin climbs down the ladder first, but the rungs don’t reach all the way to the bottom, and you watch as he drops the last few feet with an easy, practiced grace.

“It’s not so bad,” he calls up to you, extending his arms. “Come on. I’ll guide you down.”

You grip the ladder, your knuckles whitening as you lower yourself carefully. Hyunjin watches you closely, his gaze steady and encouraging. But as you near the bottom, your foot slips on the slick metal.

Your heart lurches as you lose your grip, your body tilting backward into the empty pool.

“Hyunjin!” you cry out, the name leaving your lips instinctively as panic seizes you.

For a split second, the world tilts and blurs, your breath catching in your throat. The feeling of falling stretches out endlessly, your chest tightening with dread. Is this it? Is this the moment everything ends?

The silence in the pool amplifies the rush of your heartbeat, drowning out everything else.

12:15 a.m.

It all happens so fast that Hyunjin doesn’t fully register the moment until you’re lying at the bottom of the drained pool, unmoving. A jolt of fear grips him as he rushes to your side, kneeling beside you.

“Hey,” he calls softly, his voice trembling. His hand hovers over your shoulder, unsure whether to shake you or give you space. Your eyes remain closed, and there’s no reaction. For a second, his breath hitches.

Then, just as his chest tightens with panic, you let out a low whine, your hand reaching for the back of your head. Relief crashes over him so strongly that he nearly laughs out loud.

“You scared me!” he exclaims, leaning closer as he gently brushes his fingers against the back of your head to check for any injury. “Does it hurt here?”

You wince but then immediately chuckle, brushing him off. “That would’ve been such an anticlimactic death,” you joke, trying to sit up.

Hyunjin lets out a shaky laugh, torn between exasperation and amusement. “I don’t think I’d recover from that,” he mutters, helping you up. To make sure you’re okay, he holds up three fingers with a mock-serious expression. “Alright, genius. How many fingers am I holding up?”

Rolling your eyes, you swat his hand away, a grin tugging at your lips. “I’m fine, Hyunjin.”

“You sure?” He narrows his eyes, clearly still worried.

“Yes, I’m sure,” you reply, waving him off. “Now, are you going to teach me how to swim or not?”

He laughs and takes a step back, gesturing for you to follow him to the center of the empty pool. “Alright, since you’re so eager. Do you have a swimming style in mind?”

“Uh… backstroke?”

“Backstroke, huh? Fancy choice.” He teases, listing a few others—freestyle, breaststroke, butterfly—all with a playful grin. Shrugging off his hoodie and tossing it to the side, he positions himself in front of you, standing tall and confident.

“Okay,” he says, holding his arms out in front of him. “Rest your back on my arms. I’ll guide you.”

You hesitate, your brows knitting together. “I don’t know, I might be too heavy—”

“Seriously?” He rolls his eyes and interrupts you. “I’m an athlete. I’m strong enough to hold you. Just trust me.”

Still unsure, you eventually take a deep breath and lean back, letting your weight settle onto his arms. His grip is steady, firm, and reassuring.

“See? No problem,” he says, his voice soft now, coaxing you to relax. “Alright, keep your body straight, like you’re floating on water. Flap your arms back and kick your feet forward, just like this.”

You follow his guidance, mimicking the movements, and he begins to move backward, gently carrying you along. It feels so real that for a moment, you let yourself believe you’re actually swimming.

But then your focus drifts as you glance at him—his sharp features illuminated under the pool’s dim lights, the concentration in his expression, the way he looks at you like you’re the only person in the world.

He catches your gaze and quirks a brow. “What?”

Flustered, you quickly look away, and your hand smacks against the tiled wall at the end of the pool. Startled, you sit up.

“Whoa, swimmer!” Hyunjin teases, his laughter echoing in the empty pool. “If this was real, your head would’ve hit the wall instead of your hand.”

You can’t help but laugh with him, the moment so lighthearted and surreal that it temporarily pushes the looming reality of the day out of your mind.

Hyunjin chuckles as your laughter fades, his hand brushing back his damp hair. The glimmer in his eyes is playful, but there’s an undercurrent of something softer, almost protective, as he watches you sit up fully, still smiling from his teasing.

"Alright," he says, crossing his arms. "You’re not bad for someone who’s never been in the water."

You roll your eyes but can’t help grinning. “Thanks to my amazing teacher, right?”

He bows theatrically. “Obviously. Natural talent helps too, but I’ll let you take some credit.”

You shake your head, standing up as you stretch your arms. “Well,” you say with mock seriousness, “now that I’ve impressed you with my not-so-real swimming skills, it’s your turn to show me what you’ve got.”

Hyunjin straightens, his grin widening. “Oh, you want to see me swim for real?”

“Of course,” you reply, stepping aside and gesturing toward the other end of the pool. “How else am I supposed to judge if you’re actually any good?”

He smirks at your challenge, the competitive spark in his eyes lighting up. “Alright, I’ll show you,” he says confidently, already pulling his hoodie back on. “But don’t blink—you might miss how fast I am.”

You laugh, following him as he leads the way out of the drained pool, anticipation bubbling in the air between you.

12:55 a.m.

The aquatic center feels almost otherworldly in its stillness, the faint scent of chlorine hanging in the air. When Hyunjin finally reappears, dressed in nothing but his swimming trunks, towel, and goggles in hand, it takes you by surprise. His tall, lean frame seems even more striking now, the hoodie he'd worn earlier having hidden the breadth of his shoulders and the defined lines of his physique.

You catch yourself staring, and before you can stop it, an awkward giggle slips out. Hyunjin tilts his head, confused but amused. "What?" he asks.

Shyly, you admit, "Nothing, I just— I was starting to get creeped out being here all alone when you went to change."

He chuckles softly, walking to the edge of the pool. He crouches to scoop water into his hand, splashing it onto the back of his neck before straightening up.

"I need to warm up first," he says casually. You nod, stepping back to give him space.

Hyunjin drops to the ground and starts doing push-ups, his muscles flexing with each movement. You’re mesmerized despite yourself, your gaze tracing the way his body moves with fluid strength. Feeling the heat creep up your face, you force yourself to look away just as he finishes, bouncing lightly on his feet to shake out his wrists and arms.

"Don’t blink," he says, smirking as he heads toward the pool. "I swim so fast, you might miss it."

Rolling your eyes playfully, you respond with a teasing, "I’ll try to keep up."

Hyunjin dives in, his body cutting through the water with ease. The rhythmic splashing fills the air, and you can’t help but admire him. Watching him move with such precision and grace, he looks almost otherworldly—like a god emerging from the sea as he surfaces and climbs out of the pool.

The sight of water beading on his skin makes you avert your gaze, your heart racing. Grabbing the towel he'd left behind, you hand it to him without meeting his eyes.

"What did you think?" he asks, running the towel over his hair.

"Eh, it was alright," you tease with a grin.

Hyunjin raises an eyebrow at your playful jab but chuckles, grabbing a stopwatch from his things. "Alright, critic. Let’s make it official. Time me this time."

"I don’t know if I’ll get it right," you protest, but he waves your concerns off.

"It doesn’t have to be perfect," he reassures you, securing his swimming cap and goggles. Once he’s ready, he asks, "You ready?"

You move closer to the pool’s edge, holding up the stopwatch. "Ready when you are."

Hyunjin steps onto the starting block, his form taut and focused. You start the countdown, your voice echoing slightly in the vast space. "Three... two... one!"

At the sound of "one," he dives in, and the water comes alive with his movement. Squatting down, you watch intently as he powers through the length of the pool and then back again, his speed almost unbelievable. The closer he gets to the edge, the tighter your grip on the stopwatch becomes.

When his hand finally slaps the wall, you hit the button, exhaling in relief.

Hyunjin surfaces, wiping his face. "What’s the time?"

You glance at the stopwatch, still catching your breath. "Forty-six point six-five," you announce, your voice tinged with excitement.

For a moment, Hyunjin looks puzzled, then his expression lights up. Dropping his towel, he strides over and lifts you effortlessly by the waist, spinning you around.

"Wait—did you break your record?" you ask, half-laughing and half-stunned.

He nods, grinning, but the elation fades quickly. As he sets you back down, his smile dims, his joy giving way to something more subdued.

"Hyunjin, what’s wrong?" you ask, concerned.

He shakes his head, forcing a small smile. "It’s nothing," he murmurs. Without another word, he excuses himself to wash up, leaving you alone with the faint ripples in the pool and a lingering sense that something deeper is on his mind.

01:08 a.m.

The hot shower does little to clear Hyunjin’s mind, the cloud of thoughts stubbornly lingering as he dries off and dresses. He sighs, running a towel halfheartedly through his damp hair before giving up and heading out.

The sound of his footsteps echoes softly as he exits the changing room, and he sees you standing by the bulletin board, seemingly engrossed in its contents. At the sound of his approach, you turn, your face lighting up with a soft smile. Hyunjin feels something warm unfurl in his chest—a comfort he hadn’t expected.

“You didn’t dry your hair properly,” you tease gently, pointing to the still-dripping strands clinging to his neck.

He rubs the back of his head sheepishly, and you tilt yours thoughtfully. “How about some hot drinks after this?”

Hyunjin arches a brow, a teasing grin spreading across his face. “Hot drinks, huh? I’ve got just the thing.”

The short walk to his apartment is quiet but companionable, and when Hyunjin opens the door, he apologizes for the small, bare setup. His apartment is modest and practical—one room with everything visible at a glance—but he doesn’t seem embarrassed, just matter-of-fact.

He heads straight for the kitchen, pulling out a bottle of whiskey from a cabinet. “This is what I mean by hot drinks,” he says, smirking as he pours two glasses.

You both take a sip, and the burn of the alcohol draws simultaneous gasps. Laughing, Hyunjin suggests snacks to enjoy the drinks with and disappears back into the kitchen.

While he’s gone, your attention is drawn to a shelf lined with photos, medals, and trophies. You step closer, taking in the collection of memories. There’s Hyunjin on a podium, his face glowing with pride as he holds up a medal; Hyunjin mid-dive, captured in perfect form; Hyunjin smiling so brightly that the photo seems to radiate his joy.

When he returns, balancing a plate of snacks, he pauses beside you, his gaze falling on the same shelf. For a moment, there’s silence, just the two of you standing there, and then Hyunjin lets out a soft sigh.

Hyunjin sets everything down on the small table, but his eyes linger on the shelf filled with memorabilia. The once-vivid memories of his accomplishments now feel distant, like faded photographs of a life that no longer feels like his own.

He steps closer, his gaze tracing over the medals hanging neatly on hooks, the trophies gleaming faintly under the dim light, and the framed photos of him on various winner's podiums. He can almost hear the echo of applause, the feel of a medal being draped around his neck, the weight of victory sitting proud on his shoulders.

But the applause has long since faded, and what hangs over him now is a heavier truth: it will all become nothing.

Hyunjin swallows hard, the realization pressing against his chest like a stone. Every record he broke, every trophy he held high—soon, none of it will matter. No one will remember him or the things he did. The glory, the pride, the recognition—it will all vanish as if it never existed.

He lets out a shaky breath, his voice barely above a whisper. “All of this... it’s meaningless now. Everything I’ve done—it’s nothing. Soon, it’ll all be forgotten.”

The weight of his words fills the room, thick and suffocating. His shoulders slump as he drops his gaze, unable to meet your eyes. For a moment, he feels like the water he’s so accustomed to—a surface rippling with movement, but underneath, a deep void pulling him down.

You stand beside him, quietly taking in his anguish. Finally, you turn to him, your voice steady, a soft but unyielding anchor against the tide of his despair. “I disagree with you, Hyunjin.”

Hyunjin looks at you, surprised by your tone.

“This is... your whole life and it shows that you achieved a lot of great, wonderful things. You can see how far you've become, your triumphs and failures, everything that makes you who you are now,” you say, your eyes locking with his. “And just because the whole world doesn't know how great you are this doesn't mean it's nothing. This is not nothing, this is everything.”

He watches you intently, your words weaving through the storm of his thoughts like threads of light. For a moment, he feels the weight on his chest lift, just enough for him to draw a deeper breath.

It's true that his dream is to make a mark in the world, he wants to be remembered by the world but as he looks at you, Hyunjin realizes that it only takes one person to know what he capable of. He doesn't need the whole world to know that he's great, he only needs one that fully acknowledges him as one.

01:22 a.m.

Hyunjin's words linger in the air, heavy with vulnerability, and for the first time since meeting him, you realize just how deeply he craves to make a mark on this world. It isn’t just about the trophies on his shelf or the accolades he’s earned—it’s about the story he wants to leave behind, the proof that he existed, that he mattered.

You see it in the way his fingers hover over the medals, in the wistful look in his eyes as they trace the photos on the shelf. For all his confidence and charisma, there’s a quiet fear beneath it all—a fear of being forgotten, of fading into obscurity when his time is up.

“Hyunjin…” you say softly, stepping closer to him. He doesn’t look at you right away, his gaze fixed on a photo of him on a podium, his smile bright but distant, like a memory that no longer feels real.

You hesitate for a moment, unsure of what to say. But then, the words spill out. “You are something and you're a fool for thinking otherwise.”

That catches his attention. He turns to look at you, his expression unreadable, and for a second, you worry you’ve said too much. But then his lips part, as if he’s about to say something, and he stops himself.

Instead, he just looks at you. Really looks at you. And in his eyes, you see something shift—a softening, a quiet acknowledgment of your words sinking in.

You feel your pulse quicken, the air between you charged with something unspoken. “And I know that we'll go into oblivion soon,” you continue, your voice steady but quiet, “but I'm still here and I know, I know how remarkable you are.”

Hyunjin’s gaze doesn’t waver, and for the first time, you see him without the walls he’s so carefully built around himself. He takes a step closer, his hand reaching out as if to steady himself—or maybe you.

“I don’t know if I can believe that yet,” he murmurs, his voice so soft it’s almost a whisper. “But… thank you.”

The way he’s looking at you now feels different—like he’s searching for something, something only you can give him. And as the silence stretches between you, you feel the weight of it shift into something warmer, something that pulls you closer to him without either of you realizing it.

When Hyunjin leans in, it isn’t sudden. It’s slow, deliberate, as if he’s giving you every chance to step back. But you don’t. You hold your ground, your breath catching as his face inches closer to yours.

And when his lips finally meet yours, it’s soft, almost hesitant, like he’s asking a question he’s too afraid to voice aloud. But as you kiss him back, the answer becomes clear. For this moment, at least, he isn’t alone.

Hyunjin pulls back slightly, his forehead resting against yours, his breath warm and uneven against your skin. His eyes flutter open, and for a moment, you both stay there, caught in the stillness of the moment. His gaze searches yours, hesitant but vulnerable, like he’s waiting for something—validation, reassurance, or maybe just the courage to believe in himself.

Before he can say anything, you lean in again, capturing his lips with yours. This kiss is different, deeper, more intentional. You pour everything you want him to know into it—all the words he needs to hear, the things you can’t quite say aloud.

You are something. You are remarkable. You are a wonder, both in the water and outside of it.

Hyunjin responds immediately, his hands sliding to your waist, holding you like you’re the anchor he didn’t realize he needed. You can feel the way his lips tremble slightly against yours, the way his touch tightens just enough to keep you close but not trap you.

Through the kisses, you try to tell him everything you feel. That his achievements aren’t meaningless. That his existence isn’t something that will fade into nothingness. That even in the face of the inevitable, he has already left a mark—on you, on the world, on everyone lucky enough to know him.

His hands move to cradle your face, his thumbs brushing against your cheeks as if grounding himself in this moment, in you. His lips press harder against yours, the kiss turning fervent, desperate, as though he’s trying to absorb every ounce of comfort and affirmation you’re giving him.

You can feel the tension in his body begin to melt away, replaced by something softer, something more vulnerable. The world outside fades, leaving only the two of you in this small, quiet space.

When you finally pull back, it’s not far—just enough to catch your breath. Hyunjin’s eyes remain closed for a moment, his expression unreadable, but when they open, they’re shining with something you can’t quite name. Gratitude, maybe. Hope.

“You’re…” he begins, his voice barely above a whisper. But he doesn’t finish. Instead, he leans in again, his lips finding yours once more, and this time, it feels like a promise.

The two of you melt into each other, the kisses growing slower but no less intense. You lose track of time, caught in the warmth and closeness, as if the weight of the world has lifted, if only for a little while. For this moment, at least, you’re both enough—just as you are.

01:52 a.m.

Hyunjin's forehead still resting against yours, his breath warm against your lips. His fingers trail softly down your arms, and his gaze locks onto yours with an intensity that makes your heart race. There’s no hesitation now, no doubt in the way he looks at you, like he’s trying to memorize every detail, every curve, every moment.

Without a word, he cups your face, his touch both gentle and steady, as if grounding himself in you. His thumbs trace slow circles over your cheeks, and you feel your breath hitch as his lips find yours again, softer this time, yet filled with a quiet yearning.

The world around you feels muted, distant, as he leads you toward the bed. The dim light casts soft shadows, and the room seems to shrink until it holds only the two of you.

“You're breathtaking,” Hyunjin murmurs with a low, sultry voice.

"Wait, wait. I'm..." you protest in breathless sighs, your hips arching, lifting off the bed.

He rushes a kiss on your open mouth, his lips graze yours as he says, "Let go. I've got you."

Your abdomen flexes under his arm as you clench around his fingers so hard it nearly pushes him out of you. His cock has never been so jealous than when you begin to come. Your eyes grow big, and your mouth drops open on a silent scream, and your wall clutches around his long, dainty fingers harder with each pulse.

Unreal. Hyunjin says in his head as he looks at you with a pair of big, lustful eyes.

"Look how gorgeous you are, coming on my fingers." He coos, his eyes traveling down your naked body that feels small in his arms. You moan louder in response and he knows he hits his mark.

Eventually, looking is not enough for him so he uses his free hand to touch you. "Look at your eyes, your mouth, your breasts. This soft, soft skin..."

Hyunjin softly smiles at your beauty as you fall apart around him. "So beautiful..."

You're still climaxing and you need this more than he realized. Which means you haven't had it in a while, at least not this good.

"Hyunjin!" You shriek, almost in a panic.

He presses his plush lips to your ear, his breath hot and tickling. "You look perfect like this."

Low moans are spilling out of you, still coming and struggling to breathe through it. Hyunjin curls his fingers and taps you right in the spot in a quick rhythm, and your eyes roll back a little.

"Good girl, keep coming for me. You're doing so well. That's it, be my greedy girl."

When you collapse onto the bed, he ushers you onto his lap, then cradles your spent body in his arms. As soon as he pulls his fingers out, your thighs press together.

"Don't close your legs." Hyunjin rests a hand on your inner thigh, wanting to see every spasm as he tastes your lips. "You're done hiding from me."

You lie side by side, and Hyunjin hesitates for a moment, his hand brushing a strand of hair from your face. His gaze searches yours, as if silently asking for permission, for reassurance. You respond with a small nod, your fingers reaching to trace the curve of his jaw.

When he leans in again, it’s slow, deliberate. His lips move with yours in a rhythm that feels like a conversation, one that needs no words. His hand finds yours, fingers interlacing as he presses you closer, as if trying to erase the space between you.

“At least, we don't have to worry about condoms,” Hyunjin makes a funny remark as he settles himself between you.

A chuckle escapes your mouth in response, your head falls back onto the pillow. “That’s one way to see it!”

Hyunjin lowers his mouth on you, his trail of kisses begin from your ribcage, he goes lower and sideways, placing kisses on your abdomen that tenses as his lips get closer to where you want him the most. He flashes you a sly smile before placing the gentlest of kiss on your clit. As if that isn't enough to make you wet, he lands a few licks between your folds and drags his tongue upward only to swirls it around your clit and finishes it with another kiss on your clit, briefly sucking at it before letting go.

“I'm going in, yeah?”

You nod in consent, opening your legs wider for him and trying not to stare too much as Hyunjin will only stare back at you, and you'll likely crumble under his intense gaze.

“Oh...” you bite back a gasp the second you feel him entering you, just the tip but you can already feel that his size is above average.

Hyunjin props his hands on each side of you, deciding to hover above you as he pushes the rest of his length by motioning his hips. In this proximity, you can see the way his pupils gradually dilated and his eyelids fluttering the more of him being inside you. Overwhelmed, Hyunjin throws his head back and pushes the rest of his cock until he's fully sheathed in your warm, velvety walls.

“Argh...” his moan raw and broken as if something wounded him.

The world feels suspended, reduced to just the two of you and the quiet rhythm of your breaths. His bare skin glows in the dim of the light, the contours of his body sculpted with an almost otherworldly beauty.

As he thrusts into you at a slow, steady pace, you reach up, your fingers tracing the elegant lines of his collarbone, the smooth expanse of his chest. Every touch feels like discovering him for the first time, each detail making your heart ache with something too profound to name.

“You’re staring,” Hyunjin murmurs, his voice soft, almost teasing, though a faint blush colors his cheeks.

“Can you blame me?” you whisper, your voice filled with awe as your fingers trail over the curve of his shoulder. “You’re so beautiful, Hyunjin.”

His lips twitch into a small, shy smile, but his eyes stay locked on yours, filled with an intensity that makes your breath catch. “You make me feel like I’m more than I am,” he says quietly, the vulnerability in his voice wrapping around you.

You shake your head, your hand sliding to the slope of his waist, marveling at how perfectly he fits into the moment, into you. “No,” you whisper. “You’re exactly as you are. And that’s perfect.”

He lowers himself slightly, his long hair brushing against your skin as his lips hover near yours. Your hands continue their exploration, tracing the ridges of his ribs, the softness of his hips, and the strength of his arms as they're now propped in each side of your head.

“You’re not real,” you murmur, your fingertips brushing along his jaw, marveling at how soft yet strong he feels. “You can’t be.”

Hyunjin laughs softly, the sound vibrating through both of you. “I’m real,” he assures you, lowering his lips to brush against yours in a kiss that feels as light as air. “But if I’m not,” he whispers against your mouth, “then I’m glad I get to exist in this moment with you.”

Your hand finds his face, cupping his cheek as you pull him down into a deeper kiss, your body pressing against his as if to anchor him to the earth, to you. And in this moment, as you touch and hold and feel him, you believe in the magic of him, in the impossibility made real, and in the fleeting beauty of this shared, perfect moment.

The rest of the night unfolds in whispers and warmth, every touch and movement filled with quiet intimacy. There’s no rush, no urgency, just the two of you discovering and rediscovering each other, as if this fleeting moment is all that matters.

Eventually, the room falls into a soft silence, broken only by the sound of your breathing. Hyunjin’s arm wraps around you, pulling you into the curve of his body. His hand rests lightly against your waist, his thumb drawing lazy patterns on your skin.

In the stillness, he presses a lingering kiss to the crown of your head. “You’re remarkable too,” he murmurs, his voice low and laced with sincerity.

A small smile tugs at your lips, and you nestle closer to him, your fingers brushing against his. For the first time, the weight of the day seems to lift, leaving only this shared moment, this connection, that feels infinite despite the inevitable.

02:59 a.m.

The early dawn filters softly through the curtains, casting a bluish glow over the room as you lay next to Hyunjin, your head resting on his arm while his other hand lazily traces small patterns along your back. His warmth surrounds you, and for a moment, the world feels still and quiet.

With a curious smile, you tilt your head to look up at him. “Hyunjin?” you call softly, your voice breaking the comfortable silence.

Hyunjin turns his head to the side and softly gazes into your eyes. “Yeah?”

“What would your perfect day look like?”

Hyunjin grins, a playful gleam in his eyes. “This,” he says, gesturing to the two of you tangled together under the covers. “Right here, right now. Best way to be found dead.”

You laugh and gently swat at his chest, shaking your head. “Stop saying things like that,” you scold, though the smile on your face betrays your amusement. “I want a serious answer.”

Hyunjin hums thoughtfully, his gaze drifting toward the ceiling as he considers. “Okay,” he finally says. “I’d start the day early, maybe before sunrise. I’d drive to this lake I used to visit when I was younger. It’s peaceful, surrounded by trees, and the water’s always so calm in the morning.” His voice softens as he speaks, a hint of nostalgia coloring his words. “It must be beautiful this time of year.”

You shift slightly, propping yourself up on your elbow to get a better look at him. “Is it far?”

“Not too far,” Hyunjin replies, turning his head to meet your gaze. “About two hours by car.”

A spark of determination lights up in your eyes, and you sit up, pulling the blanket with you. “Then let’s go,” you declare, your voice filled with excitement. “Let’s create a perfect day. It’s the last chance we have, so why not make it count?”

Hyunjin looks up at you, his expression softening as his lips curve into a tender smile. For a moment, he says nothing, just gazes at you like you’ve just handed him the world.

“No, let’s just stay here. It's perfect like this,” Hyunjin says with a sly grin.

You gently slap his chest and whine, hoping to put some senses into him.

Slowly, he sits up, leaning closer until his lips brush against yours in a kiss so gentle it feels like a promise. When he pulls back, his face lingers close to yours, his breath warm against your skin. “Okay. Let’s do it,” he murmurs, his voice low but steady. “Let’s go.”

03:25 a.m.

Hyunjin is scribbling something on a piece of paper when you return, holding two bags of snacks and drinks from the convenience store. The way his brow furrows slightly in concentration catches your attention, and you pause for a moment, noticing he's using your red hairtie to tie his hair into a low ponytail and engrossed on writing something on a piece of paper.

You step closer and knock on the windshield, grinning as his head snaps up, startled. His wide eyes make you laugh, the sound light and teasing as you shake your head. He rolls his eyes in mock annoyance but leans over to push the car door open for you.

“Need help with those?” he asks, already reaching for the bags in your hands.

“Thanks,” you say, handing them over as he places them neatly in the backseat.

“Did you get everything?” he asks, glancing at the bags.

You nod. “Yep, all set.” Then, reaching into your pocket, you pull out something small and hold it up. “Oh, and this,” you add with a smile.

Hyunjin tilts his head, curious. “What’s that?”

“For you,” you say, showing him the little star-shaped pin in your hand. “Your reward for breaking your time record today.”

His expression shifts, his gaze softening as he looks at the pin. A smile spreads slowly across his face, and for a moment, he doesn’t say anything.

Without waiting, you lean in and carefully attach the pin to the lapel of his jacket. “There,” you say, stepping back slightly to admire your work. “Congratulations, Hyunjin.”

He looks down at the pin, his smile widening, and when his gaze lifts to meet yours, there’s a playful glint in his eyes. “You're not going to kiss me?” he asks, his voice teasing yet warm.

You let out a soft laugh and lean in, brushing a quick kiss against his lips. But before you can fully pull away, Hyunjin’s hand comes up to the back of your neck, and he pulls you in for another kiss—deeper, slower.

You giggle against his lips, your laughter muffled between you, and he smiles into the kiss before finally pulling back. The warmth in his gaze lingers, leaving you breathless and smiling.

“Alright,” he says, settling back into his seat and starting the car. “Shall we?”

You buckle your seatbelt, excitement bubbling up as you nod. “Ready when you are.”

Hyunjin glances at you, his own excitement mirrored in his expression. “Alright, here we go,” he says, pulling out of the parking lot, the perfect day waiting just ahead.

04:11 a.m.

The hum of the car fills the air as you and Hyunjin drive down the winding road, the sun rising higher with each passing mile. You’re both relaxed, trading stories and laughing as a small mountain of snack wrappers begins to pile up between you. Hyunjin occasionally glances your way, his smile soft but constant, as if the moment itself feels too perfect to break.

Reaching into the bag beside you, you pull out a can of soda and hand it to him. “Here,” you say, passing it over without thinking.

Hyunjin takes it with one hand, his other still loosely gripping the steering wheel. As he shifts his attention to crack the tab open, the can slips from his fingers. The drink spills across the front of his t-shirt in an instant, cold liquid spreading like a stain across the fabric.

“Ah, shit!” Hyunjin exclaims, pulling the car slightly to the side as you grab a handful of tissues.

“Hold still,” you say, leaning over to help dab at the spill.

Hyunjin laughs, the sound tinged with embarrassment as he attempts to help, both of your hands awkwardly brushing against each other. “You’re worse at this than me,” he teases.

“Hey, it’s your fault for spilling in the first place!” you counter, trying to keep your tone light as you both focus on cleaning up the mess.

But then it happens—Hyunjin’s attention strays too long from the road, and neither of you notice the dog suddenly darting into the street.

“Hyunjin!” you scream, your voice sharp with panic as your hand instinctively shoots out to grab his arm.

His eyes snap forward, and his body reacts instantly. The tires screech against the asphalt as he slams on the brakes, the force jerking both of you against your seatbelts. The world feels as though it’s spinning for a second, the weight of the abrupt stop pressing hard against your chest.

The car comes to a halt just inches away from the small, trembling dog, its wide eyes staring at you through the windshield.

Your heart is racing, your breaths shallow and shaky as you sit frozen, staring out at the still figure on the road. Hyunjin grips the steering wheel tightly, his knuckles white as he exhales a shaky breath.

“Are you okay?” he asks, his voice low and thick with concern.

You nod numbly, your voice catching in your throat as you try to answer. “Y-yeah. Are you?”

He glances at you, his expression softening when he sees your trembling hands. “I’m fine,” he assures you, though his voice is quieter now, more careful.

The two of you sit in silence for a long moment, the sound of your racing hearts almost audible in the stillness. Then, Hyunjin glances at the dog, who scampers away unscathed, disappearing into the brush.

“I’m so sorry,” he says, his voice cracking slightly as he turns to face you fully.

You shake your head quickly, trying to reassure him. “It’s okay. It’s not your fault,” you say, though the adrenaline coursing through your veins makes your words waver.

Hyunjin’s hand hesitates for a moment before it finds yours, his fingers squeezing gently. “We’re okay,” he whispers, almost as if convincing himself.

You nod again, letting out a shaky laugh. “Yeah, we are.”

As the car slowly starts moving again, the tension lingers, but there’s a quiet understanding between you—a shared moment that feels heavier than words, as if both of you silently acknowledge how fragile this perfect day could have been.

05:22 a.m.

The car ride is quiet now, the earlier tension still lingering in the air. Neither of you speak for a while, each lost in your thoughts as the road stretches ahead. The sun begins to crest over the horizon, its warm light spilling across the landscape, painting the morning in hues of gold and soft pink.

You reach for the window switch and roll it down, letting the cool morning breeze rush into the car. It sweeps through your hair, refreshing and light, and you close your eyes for a moment, letting the sensation calm your nerves.

When you glance over at Hyunjin, he’s already looking at you, a small smile tugging at the corners of his lips. You can’t help but smile back, warmth blooming in your chest despite the chill of the breeze.

“Look at the sky,” you say softly, nodding toward the view. “It’s beautiful.”

Hyunjin tears his gaze from you, his eyes following your gesture. The sky is breathtaking, streaked with the first slivers of sunlight that break through the faint morning mist.

“Yeah,” he murmurs, his voice low and reflective. “It is.”

His hand leaves the steering wheel, searching for yours. When he finds it, he laces his fingers with yours and rests them gently on his lap. His touch is warm and grounding, a silent reassurance that everything is okay now.

Hyunjin keeps his eyes on the horizon, the soft glow of the sun reflecting in his gaze. “It’s beautiful,” he repeats, but this time, his voice is heavier, almost wistful, as if he’s savoring the moment in a way he never has before.

You tighten your hold on his hand, the simple gesture conveying what words can’t. Together, you sit in the quiet, watching the morning unfold, the world outside feeling peaceful and endless as the car moves forward.

05:40 a.m.

The car comes to a halt, and you step out into the crisp morning air. Hyunjin joins you, stretching his arms over his head with a satisfied sigh. You glance around, the scent of pine and damp earth filling your lungs as you take in the scenery.

After a short walk, the lake comes into view, and you gasp, unable to contain your amazement. The water is perfectly still, a mirror reflecting the sky and the towering trees surrounding it. The faint golden light of the morning casts everything in a dreamy glow. The trees, just beginning to turn with the season, stand like silent sentinels guarding this little piece of paradise.

“Wow,” you whisper, your voice barely audible over the soft rustling of leaves.

Hyunjin looks at you, his smile growing at your reaction. He reaches for your hand and takes it, his fingers warm and steady against yours. “Come on,” he says, leading you toward the water’s edge.

The two of you stop just where the land kisses the lake. You peer down at the water, its surface so calm it feels like stepping into a painting.

“It must be freezing,” you say, giving Hyunjin a wary glance.

He narrows his eyes playfully. “That’s what makes it perfect for a morning swim.”

You shake your head firmly, taking a step back. “No way.”

Hyunjin laughs, undeterred. “Trust me. Once you’re in, it’s not that bad.”

You laugh nervously, shaking your head again. “Hyunjin, I still can’t swim, remember?”

His expression softens, and he takes both of your hands in his. “And I told you— No worries, I’ll hold you.” His tone is earnest, his dark eyes unwavering.

Despite your protests, he’s relentless, coaxing you closer to the edge until you’re standing there, shivering slightly in your underwear. You grip his hand tightly, trying one last time to dissuade him.

“Hyunjin, I’m serious—”

Before you can finish, he sweeps you off your feet, his arms locking around your waist. You let out a startled squeal, clinging to him instinctively.

“Hyunjin, don’t you dare—”

But it’s too late. He steps into the water, pulling you with him. The cold shocks your body the second you make contact, and you scream, the sound piercing through the stillness of the lake.

Hyunjin doesn’t stop until the two of you are submerged waist-deep. You’re clinging to him for dear life, your arms wrapped tightly around his neck, your legs curling up to avoid the icy water.

“See? It’s not as bad as you think,” he says, his voice light with amusement as he looks down at you.

Your teeth are chattering, and you tighten your hold on him. “You’re right,” you say through gritted teeth. “It’s worse than I thought it would be.”

Hyunjin throws his head back and laughs, his warm breath misting in the cool air. The sound is infectious, and soon you’re laughing too, your voices echoing across the serene lake.

He then adjusts your arms around his shoulders and gives you an encouraging look. “Hold on tight,” he says, his voice warm with reassurance. You do as he says, gripping him as he begins to move through the water with ease.

The cold from earlier feels less harsh now, your body gradually adapting to the temperature. As Hyunjin swims farther from the shore, you cling to him, feeling the strength in his movements as he effortlessly cuts through the water.

“Not so bad now, huh?” he teases, glancing over his shoulder.

You roll your eyes but can’t help a small smile. “I’m still debating.”

When he slows down, you notice just how far you’ve come from the shore. The lake stretches around you, a perfect circle of serenity framed by towering trees. Hyunjin turns to face you, still holding you securely as you float together.

“Relax,” he says, his voice softer now. His hands guide you gently, helping you stay afloat. You take a deep breath and allow yourself to loosen your grip, trusting him.

The stillness of the moment washes over you as you look around. The world seems to fade away, leaving only the two of you suspended in the calm water under the open sky. The reflection of the trees and clouds ripples gently with every movement.

“Still as bad as you think?” Hyunjin asks, a playful glint in his eyes.

You shrug, pretending to be unimpressed. “It’s... alright, I guess.”

Hyunjin bursts out laughing, his joy infectious as it echoes across the lake. He leans in slightly, his arms finding their way around your waist. Before you can react, he pulls you down with him, both of you plunging beneath the surface.

The cold water shocks you as it rushes over your head, and you instinctively hold your breath. A moment later, you break the surface, gasping for air.

“Hyunjin!” you sputter, wiping water from your face. “What was that for?”

He’s already laughing, his wet hair plastered to his forehead. “You should’ve seen your face!”

You glare at him, about to launch into a scolding, but he interrupts by cupping your face in his hands and pulling you into a kiss.

Your protest dies on your lips, muffled by his. You try to hold on to your indignation, muttering complaints against his mouth, but his kiss is too warm, too insistent. Eventually, you give in, melting against him as his laughter hums through the connection.

When you finally pull away, Hyunjin grins at you, water dripping from his face. “Still want to complain?”

You shake your head, a smile tugging at your lips despite yourself. “You’re lucky I can’t swim away from you right now.”

“Exactly,” he says, leaning his forehead against yours. “That’s why I had to bring you out here.”

The water is cold, but in this moment, surrounded by the beauty of the lake and the warmth of Hyunjin’s arms, you’ve never felt more alive.

06:21 a.m.

The sun climbs higher into the sky, warming your skin as you sit on the smooth rocks by the shore, your clothes drying slowly in the gentle breeze. Hyunjin’s jacket is draped over your shoulders, a welcome layer against the cool air still lingering from your swim. You glance at him and murmur your thanks, to which he responds with a small, warm smile.

Opening a can of soda, you take a sip, the drink now lukewarm but refreshing nonetheless. You tilt your head toward Hyunjin. “So, what’s next on your perfect day itinerary?”

Hyunjin sets his can down and grins, his eyes lighting up with boyish excitement. “There’s this diner I used to go to. It’s not too far from here. They make the best waffles.”

“Waffles, huh?” you ask, raising a brow, though his enthusiasm already has you smiling.

“They’re amazing,” he insists, his hands gesturing animatedly. “Crispy on the outside, fluffy on the inside, with this maple syrup that’s just—” He sighs in exaggerated bliss, making you laugh.

“Alright, alright,” you say, holding up your hands. “I’m sold. Waffles it is.”

Hyunjin chuckles and shifts closer, his hand reaching up to brush a damp strand of hair from your face. His touch is gentle, his fingers lingering for a moment before he tucks the strand behind your ear. Without a word, he leans in, his lips meeting yours in a kiss that’s soft and slow, like the morning sun warming your skin.

When he pulls back, his smile is tender, and it makes your heart ache. “I'm glad I met you.”

“Me too,” you say back while placing your hand on his and hold it tightly.

The sunlight hits right on Hyunjin’s eyes, making them shine as he stares at you. You know you've only known him for barely a day but Hyunjin knows things most people doesn't know about you. He knows your prefers your flowers to be red than blue, he knows your dreams you never say out loud but you secretly wish to come true and that makes you feel significant to him as he is significant to you. You believe that is how Hyunjin going to make a mark on you.

“I’m going to take one more lap around the lake before we go,” he says, his voice quiet yet certain.

You nod, but before he can move, you catch his wrist, pulling him back toward you. This time, it’s you who closes the distance, pressing a kiss to his lips. It lingers, a silent plea that feels like it’s carrying the weight of everything you can’t say aloud. You wish for more time—just one more day, one more perfect morning.

Hyunjin seems to sense it, his fingers brushing softly against your cheek as he gazes at you, a bittersweet smile tugging at his lips. He leans in to press a featherlight kiss to your lips before pulling away completely.

“Don’t worry,” he says with a wink, his voice lighter now. “I won’t take too long.”

As you watch him dive back into the water, the sunlight catching on the ripples he leaves behind, you feel a fleeting, impossible sense of forever. For this moment, at least, Hyunjin makes you believe that forever is within grasp.

06:51 a.m.

The warmth of the morning sun wraps around you, its gentle rays brushing against your damp skin. The sky is alive with soft hues of gold and blue, a masterpiece unfolding before your eyes. Overhead, a flock of birds glides effortlessly, their formation cutting gracefully through the stillness. For the first time in what feels like forever, you allow yourself to marvel at it all—the simplicity, the beauty, the life you’ve taken for granted.

But the moment fractures.

You glance toward the lake, expecting to find Hyunjin slicing through the water, to hear the rhythmic splashes that have become so familiar. Instead, there is only silence. The lake mirrors the sky, undisturbed, serene, and empty.

A flicker of unease takes root in your chest. You scan the shoreline, your gaze darting to every shadow, every ripple. The stillness feels wrong now.

“Hyunjin?” you call out, your voice tentative, breaking the quiet.

No answer.

You step closer to the edge, the cool rocks pressing into your bare feet, your heart beginning to pound against your ribcage. “Hyunjin,” you try again, louder this time, but the name hangs in the air unanswered.

The warmth of the morning sun seems to mock you now, its gentle rays brushing against your damp skin as the sky stretches overhead, a canvas of soft gold and endless blue. The flock of birds that once felt like a sign of life now drifts aimlessly, their formation a cruel reminder of how fragile everything truly is.

You glance toward the lake, expecting to find him slicing through the water, his laughter echoing in the stillness. Instead, there is only silence. The lake reflects the sky perfectly, undisturbed, as if it had swallowed him whole and left no trace.

Your chest tightens. “Hyunjin?” you call out, your voice soft at first, hesitant to break the quiet.

No answer.

You step closer to the edge, the rocks digging into your bare feet as your pulse quickens. “Hyunjin,” you try again, louder this time, your voice trembling. But the name dissipates into the air, unanswered.

A flicker of unease blooms into full-blown panic. You scan the water frantically, your eyes darting across every ripple, every shadow. “This isn’t funny!” you yell, your voice rising with desperation. “If you’re hiding, just stop it and come out!”

Still nothing.

Fear grips you like a vice, and before you can stop yourself, you wade into the water. The cold seeps through your skin, biting and relentless, but you don’t care. You splash forward, the ripples spreading around you, as though trying to reach him through sheer force of will.

“Hyunjin!” you scream, your voice cracking under the weight of your fear. “Answer me!”

The water clings to you, dragging you down as if conspiring with your helplessness. You tread forward a little more, but you can’t go far. Your feet leave the ground, and you freeze, paralyzed by the sudden depth. You try to push forward, but your body resists—muscles locking up with the knowledge that you can’t swim.

Frustration and panic mix into a volatile cocktail in your chest. You slap the water with your hands, gasping for breath, tears streaming as you scream his name again.

“I can’t do this! Hyunjin!” you cry out, the words breaking apart into sobs. The lake offers no comfort, its silence an unbearable void. You flail for a moment, trying to search the surface, but every movement feels futile.

You cling to the thought of him, to his smile, his laughter, the warmth he carried with him like a shield against the world. But now, that warmth feels so far away, unreachable in the depths of the water.

“Hyunjin!” you cry again, weaker this time, the weight of your helplessness pressing down on you. You force yourself back toward the shore, stumbling onto the rocks as you collapse to your knees, breathless and shaking. “Please, don't— don't leave me...”

The water stills behind you, its surface reflecting the endless morning sky. You look out at it, broken and trembling, your heart refusing to accept what your mind is beginning to believe. It can’t be over. Not like this.

“Hyunjin...”

08:01 a.m.

The rocks beneath you feel sharp, unforgiving, but you barely notice. You sit there, knees pulled tight to your chest, your damp clothes clinging to your skin as you watch the rescue team comb through the lake. Every moment stretches painfully, the weight of silence crushing you with each passing second.

Your fingers dig into your arms as if grounding yourself can keep you from unraveling completely. Then, a shout echoes from the water. You see them—a group of rescuers—working together to pull a body from the depths.

Your breath catches in your throat.

They move with careful precision, carrying the body to shore in a black bag. You feel your body trembling uncontrollably as they approach. One of them steps forward, their expression solemn, as they lower the bag in front of you.

"Is this him?" they ask, their voice heavy with the weight of what they know must be unbearable.

You freeze, staring at the zipper of the bag, your entire being screaming to look and yet refusing at the same time. You can’t do it. You can’t see him like that.

But then your eyes catch something—a flash of red against the black. It’s your hair tie, wrapped around his wrist. You had given it to him, smiling at how absurdly adorable he’d looked wearing it. And now, it’s the confirmation you never wanted.

Your breath hitches as tears flood your vision. "It’s him," you whisper, the words breaking apart as they leave your lips.

Slowly, you reach out, your trembling hand finding his through the body bag.

With shaking fingers, you reach at the lapel of his jacket you're wearing and take off the star-shaped pin, the one you had given him just hours ago. It glints faintly in the sunlight, a small reminder of the joy he carried with him. Carefully, you place it in his palm and fold his fingers around it.

"Keep it," you say softly, tears dripping onto the bag. "It’s yours."

It’s cold—his hand is so cold it sends a shiver through you. But you hold it tight, pressing his lifeless hand to your lips. "Wait for me," you murmur, your voice cracking as the tears spill over. "I’ll see you soon, Hyunjin."

You step back as they zip the bag closed, sealing him away from you forever. The sound cuts through the air like a blade, leaving you raw and hollow.

The ambulance arrives, and they load his body inside. You stand there, watching, your hands shoved deep into the pockets of his jacket. As the vehicle pulls away, your fingers brush against something—a folded piece of paper.

Curious and aching, you pull it out and unfold it with trembling hands. It’s his handwriting, messy but unmistakably his. A list of things he wanted to do today.

Swim in the lake.

Watch the sunrise.

Have waffles for breakfast.

Visit the art gallery.

Hot cocoa at the park.

The last line reads, Buy roses for...

Your lips tremble as you remember the promise you’d made to each other—the promise to keep moving forward, no matter who went first. The memory feels like a cruel joke now, but as you stare at his words, something inside you hardens.

You swallow the lump in your throat, your voice barely above a whisper as you say to the empty air, "I’m keeping my promise, Hyunjin."

The ambulance disappears down the road, and you stand there, the morning sun casting long shadows around you. Still, you refuse to believe that Hyunjin’s gone. He is not, he just goes to sleep to live a new dream.

09:14 a.m.

You sit in the corner booth of the diner, the same one Hyunjin had gushed about just hours ago. The waffles arrive, golden and drenched in syrup, the butter melting into small pools on the plate. You take a bite, the sweetness coating your tongue, but it tastes hollow. Your chest tightens as you remember how Hyunjin’s eyes had sparkled when he described them to you, as though they were a treasure worth crossing the world for.

Now, it feels like swallowing shards of glass.

The drive back to the city is quiet, the hum of the engine filling the void Hyunjin once occupied. His note sits folded on the passenger seat, a reminder of the day you’re piecing together without him. You glance at it at every stoplight, as if his handwriting might come alive and guide you forward.

Your next stop is the art gallery. You find his favorite painting almost instinctively, a swirling masterpiece of color and emotion. Sitting on the bench before it, you let your mind wander. You picture Hyunjin here, standing with his hands clasped behind his back, his head tilted slightly as he studied the strokes.

"Do you see how the colors bleed into each other?" he would say. "It’s chaotic but still… perfect."

The memory slices through you, and you blink away the tears that threaten to spill.

From the gallery, you walk to a nearby café, the warmth of the cup of hot cocoa in your hands doing little to soothe the chill in your heart. You sit on a bench overlooking the river, the city split in two by its calm flow. The world moves on around you—people walking their dogs, children laughing in the distance—but you’re trapped in stillness.

You think of Hyunjin, of how he was alive and laughing mere hours ago. You think of his voice, his touch, the way he could make the ordinary feel extraordinary.

And now he’s gone.

For the first time, anger stirs beneath your grief. It rises like a storm, raw and uncontrollable. You clench the cup tightly, your knuckles whitening. How could death be so cruel? How could it take someone so vibrant and leave you tethered to feelings that have nowhere to go?

Death is so unfair. It takes the person, but not the love.

04:02 p.m.

The world has grown quiet around you, the buzz of the city dimmed to a distant hum as you sit alone on a park bench overlooking the river. The sun dips low in the sky, painting the water with hues of gold and amber. You clutch Hyunjin's jacket tighter around your shoulders, the scent of him still lingering faintly, a bittersweet reminder of everything you've lost—and everything you're about to gain.

The list he left behind is tucked into your pocket, crumpled and worn from your grip throughout the day. You pull it out, scanning the list. There’s only one thing left, unfinished: “Buys roses for…”

He hadn’t finished the sentence. You remember startling him as he jotted it down, and now the incomplete thought feels like a cruel echo. But you know what to do.

You find the nearest florist and step inside, the smell of flowers overwhelming you. "Roses," you tell the florist, your voice quiet but firm. "A bouquet of red roses."

They hand you the bouquet, the petals deep and vibrant, reminiscent of Hyunjin’s flushed cheeks and his soft lips. You trace a fingertip over the delicate blooms before asking for a card.

Sitting at a small table in the corner of the shop, you stare at the blank card. The weight of all you want to say crushes you, an endless stream of emotions that can’t possibly fit onto a single piece of paper.

Still, you write:

For what it’s worth, you showed me that there is such a thing as a perfect day. You made a mark on me, Hyunjin.

Your hand shakes as you finish the words. You close your eyes, taking a deep breath to steady yourself, willing the tears to stay at bay. When you’re ready, you fold the card and slip it into the bouquet.

You stand at the corner of the street, clutching the bouquet of roses close to your chest as you wait for the light to turn. The city hums around you, alive and indifferent, the world moving on as it always does. But your mind drifts elsewhere, carried away by memories.

This was the place you met Hyunjin for the first time. You can almost see him standing there, smiling like the world belonged to him. It feels like a lifetime ago, yet so vivid it could have been yesterday. You replay the moment in your mind, the way he held himself with an effortless grace, the way his eyes met yours and lingered, as if he'd been waiting for you his entire life.

The light changes, and the crowd around you begins to move. Lost in your thoughts, you follow them, stepping onto the street.

A distant sound reaches your ears—a horn blaring, tires screeching—but it feels far away, as if it belongs to another world. By the time you register the rushing car, it’s too late. There’s no time to scream, no time to run.

This is it.

06:11 p.m.

The world comes back to you in fragments: the cool roughness of asphalt beneath your body, the distant murmur of voices, the sharp tang of blood in the air. Your vision swims, but when it clears, the twilight sky is the first thing you see.

It’s beautiful, painted in hues of lavender and gold, with the faintest blush of pink at the edges. The sight feels distant yet oddly comforting, like a gentle reminder of where you are—and where you’re going.

Your body is heavy, the pain a dull throb that seems to ebb and flow, fading as the seconds stretch on. You’re dimly aware of the rose petals scattered around you, spinning lazily in the air with every gust of wind. They look like they’re floating, as if gravity itself has softened its grip.

You close your eyes briefly and feel something shift inside you—a strange sense of clarity. This is it. You know it, feel it in your very bones. This is your ending.

But there’s no fear. Instead, a deep, resounding calm washes over you, carrying with it the promise of reunion. Hyunjin’s face fills your mind, vivid and bright, his laughter echoing in your ears, his touch still lingering on your skin.

You force your eyes open again, taking in the petals that now rest lightly against your arm, the faint scent of roses mingling with the cool evening air. A soft smile tugs at your lips, even as your breaths come slower, shallower.

Death is not an end, you think. It’s a reunion. It’s a promise kept. It’s my happy ending.

Somewhere in the distance, you hear sirens, but they feel like they belong to another world entirely. You’re beyond that now. Your heart slows, the pain dulls, and in its place is an overwhelming sense of peace.

The light in the sky begins to blur, stars flickering faintly above as if welcoming you home. You can almost feel him, his hand in yours, his voice calling your name like a melody you’ve always known.

Tears slip down your cheeks, but they’re not from sorrow. They’re from relief, from the quiet joy of knowing you’ll see him again, touch him again, love him again.

As the world fades, you exhale one last time, your voice barely a whisper in the wind. “I’m coming, Hyunjin.”

And then there’s nothing but light.

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