#it does have a basic armature!!

[tanzdoesthings]

i got the modeling itch, so here he is in 3D. made in around 30 mins (plus some from cycles crashing LMAO)

challenged myself to make as simple an iterator as possible

[theriverbeyond]

just made some BONES :3 (aka I'm finally starting a Harrow cosplay and obviously the rigcage is first. day 1 progress pics and process under the cut)

I have a PLAN for the ribcage, and we shall see if it can come to fruition. if all else fails, I will still have some sick wall art 👍

Pt. 1 is making the sternum, I'm embedding a wire armature for support and also to integrate secure rings-i-can-attach-other-bones-to directly into the bone, to hopefully minimize future cosplay emergencies and malfunctions. I AM making the sternum 3 different articulating bones, because they are important #TO ME

I'm using paper clay (which i have never used before) because I have a very contentious relationship with foam clay and I dislike baking things in my oven (its a very bad oven. and very small). Trying lots of new things so let's see what happens!

Pt 2 is the vertebrae. I want to make a spine that goes down the back over MY spine, so I'm making basically the entire thoracic section, posterior part only as it is like, on my body. Cutting it at the pedicles if you catch my drift. Using wire again for both structural and rings-to-attach-other-bones reasons.

Fun fact, a good way to remember if you are looking at thoracic vertebrae is "does it look like a giraffe?". (lumbar vertebrae look like moose. meese?)

I'm basically making the connection between vertebrae happen at the junction of the articular facets, aka not sculpting those and keeping that part as wire only. I also has a really fun time making vertebrae that *progressed* from T1 to T12, aka from "looks kimda like cervical" to "looks kinda like lumbar". Definitely not perfect but good enough IMO. Yippee!

definitely should have like, considered rib attachment and such when I was making the armature for the vertebrae BUT i forgot. so we ball. I think I will attach them to the main articulating chain and just like... attempt to space it out with jump rings. we shall see if it works.

Next steps are scapulae, clavicles, and ribs. Still sorta unsure how ribs 1-4 ish are going to work due to my arms being in the way but I will figure that out when I get there 👍

[molagboop]

After referencing numerous diagrams, avian necropsy records, and my own prior knowledge of human musculoskeletal structure, I have devised speculative anatomical structure for Chozo.

We'll start small with my first attempts to properly chart basic skeletal structure from last year (seeing as how that's what I used as a jumping off point), then move on to the research-based stuff. I wanted to walk through the process of solving problems presented by the skeletal structure.

First we have a cursory look at the ribcage. Drafted June 7, 2023. Leaning into the more humanoid appearance.

New addition, May 2024: a first shot at sussing out wing bones. These bones need to be much, much larger to accommodate the full breadth of the limb: this is just a rough outline. The skeleton also needs to bear muscles that are strong enough to carry the Chozo in flight, hence the new protrusion on the chest: a keel. Two variants of this new breast came out of this drawing session: one with a large keel that extends below the sternum and one with a normal keel.

Image credit: Wikipedia

Human ribcages have this ridge along the bottom that the last six ribs are attached to (noted in grey on the image above). We're not doing that with the Chozo ribcage.

The sternum is the structure in the middle, which the ribs are attached to. See those two bones attached to the top of each side of the sternum, stretching away from the center of the ribs and forming sort of a capital "T" silhouette? Those are the clavicles. When you're drawing any humanoid form, the clavicles are an excellent landmark (and as I've been taught, the first place you should start on anatomy after you've laid out your pose, armature, etc).

It's also part of why wings are so difficult to suss out on Chozo skeletons. In birds, a bone that consists of a fusion of the two clavicles is a crucial part of flight: the clavicle bridges the gap between the ribs and the arms, and for birds, the wings are their arms. That's problem number one: effectively consolidating two pairs of arms on one torso.

We have a few bones to add onto the human skeleton in order to make flight possible for Chozo. First, we'll assume all bones are hollow. This makes them lighter, demanding considerably less energy to lift them off the ground in the first place.

I've modified the sternum to add a keel, which the base flight muscles are going to be anchored to.

First pass at revising the skeletal structure. I made a few modifications unrelated to the wings. The pelvis is similar to that of a human, though a little wider to accommodate egg-laying. I may end up reworking the pelvis entirely to make it more bird-like, but I'm more interested in making those wings fit at the moment. Chozo have a human femur/patella, and avian lower legs.

Here's a thing I slapped together in 3 minutes in January of last year to illustrate which bones are where for the layman. Onto different matters.

Skeleton, labeled.

Generally, the wings' humerus is attached to the scapulacoracoid, a bone attached to the keel that's sort of Y-shaped. That's how a real bird's shoulders are structured. Humans posses a scapula (shoulderblade), which has two protrusions: the acromion process and the coracoid process. The acromion process is where our humerus joins the shoulder. The coracoid process in humans is not exactly big enough nor ideally shaped to anchor flight muscles to.

At first, I had three ideas:

Invent a new bone attached to the keel that serves the function of the coracoid.

Modify the scapula to fit a new bone that anchors the flight muscles (the scapulacoracoid is analogous to the human scapula, after all).

Forego the keel and invent a bone on the spine that does the same thing.

To start, I added the furcula, a Y-shaped bone on the sternum, flanking the keel. Fun fact: not all birds have a furcula (better known as the "wishbone" in some parts of the world).

Real quick muscular structure layout sans flight muscles.

First pass at the flight muscles. Not the most accurate wing muscles in the world (neglected to depict the muscles near the tip of the wing, for one).

In this model of the musculature, a good deal of the flight muscles around the breast and torso are hidden by the pectoralis major, much like several non-flying human muscles.

Flesh applied over muscle.

Feathers applied over flesh.

That was my first attempt at constructing the Chozo skeleton. You'll notice the wing bone solution is inelegant. See, wings are analogous to arms. Their metacarpals are finger bones. In order to give Chozo both arms and wings, we'll need to deviate from both avian and human skeletal structures to make the pieces fit together.

I can't make the flight muscles stretch comfortably over the clavicle: that has the potential to impede motion in the arms. My first idea in the second round of flight bone shenanigans was to invent a second bone that fit between the spine and the scapula, like shoulder-bound plate tectonics (working name "scapula trellis"). I wasn't wholly confident that I could configure flight muscles in a logical manner even with this setup.

At one point I consulted Raven Beak's model. Note the patches on the back of the torso on the powersuit: that's where the wings emerge in phase 2. It looks like they're anchored to the scapula or an adjacent structure.

Barring the fact that his wings are absolutely ridiculous, I wasn't sure I could work with this. Gorgeous structures, but the feathers don't seem big enough to handle flight.

So I was left to brainstorm, and drafted up a few sketches for a second scapula to anchor the wings' shoulder joints to. I was more confident in this than I was the previous design, but I wanted to fish for ideas from other parts of nature.

Enter dinosaurs. Specifically, the Pteranodon with its shoulder girdle.

The addition of a shoulder girdle as an anchor for the yardarm (the term I'm using for the humerus of the wing, applicable only to creatures that have both wings and arms) seemed like a better solution. Positioning it below the scapula allows me to place the wings a little lower on the back, providing minimal interference between the two sets of limbs.

Whether we're rolling with the shoulder girdle or a second scapula, the intended result is the same: the wings have moved down on the back of the torso (personally, I'm digging the girdle, but the second scapula is on the table if anyone else wants to try their hand at this).

Muscles from the back, illustrated. Note the distance between the deltoid (shoulder muscle) and the wings. The shoulder girdle is situated in the lower-middle of the back of the ribcage.

A few notes: the acromioecstasia exists because the muscle that usually connects between the body and the patagialis longus on real birds is located on the pectoralis major. If I emulated that, we'd have flesh crossing over the deltoid to reach the front of the body, which would obstruct movement of the arms. We don't want that, so I moved that section of the wing to the back. We're compensating by adding additional musculature up front.

Wing muscles from the front. All three pectoral muscles are attached to the keel. The pectoralis medius is an extension of the pectoralis major, running beneath it and several other muscles. The pectoralis minor (also known as the supracoracoideus) lies beneath both the major and the medius. The pectoralis medius and major are responsible for the downstroke, while the supracoracoideus raises the wing between flaps.

Flight is very taxing on the individual. Power suit wearers actually have an easier time flying than non-wearers because the suit passively offsets the metabolic demands of flight with its own Energy.

It's important to note that these sizes are not necessarily "to scale". Chozo wings should actually be much bigger than my canvas permitted me to show. I had to keep increasing the size of the canvas on one of my files to accommodate a reasonable wingspan, but even that's not broad enough! I had to stop expanding the canvas for the sake of my CPU. If any muscles look too dinky or the scale seems off on some bones, that's why: I just needed to swiftly illustrate where things are.

A Chozo's total wingspan should at least be twice the individual's standing height. Any smaller and there's no lift.

I still don't necessarily consider the wings "solved": if any speculative biology enthusiasts want to weigh in further on the subject, feel free!

After laying out the bulk of the skeleton (and before solving the wing problem), I decided to go a little further in my studies. Thus, we have organs.

First, the digestive system.

The esophagus is self-explanatory. Food goes in through the beak, traveling into the body through the esophagus.

The crop is used to store food: this is where digestion begins. Many parents regurgitate mushy, enzymatic food for their children from the crop. Very nutritious and promotes growth.

The proventriculus is the first half of the stomach: protein bonds begin to break down here. Gastric fluid produced here aids the gizzard in mushing things.

The gizzard is where the bulk of food-crushing occurs. Breaks larger matter down through transfer between areas within the organ.

The liver and gallbladder are crucial in digesting fats. Real bird livers have two lobes: the left is smaller than the right. Two bile ducts from the liver connect to the distal duodenum: the right duct is connected to the gallbladder. Chozo only need one.

The duodenum is the start of the small intestine, running in tandem with the pancreas. Pancreatic enzymes created by the latter assist in completing digestion, processing sugars, etc.

Digestion is finished in the other sections of the small intestine, where nutrients are absorbed.

Chozo kidneys largely resemble their human counterparts. Connected to the lower half of the gastrointestinal system. Urate is disposed of through the cloaca, transferred from point A to point B by the thin ureters bridging the kidneys to the large intestine.

Bacterial fermentation in the ceca extracts nutrients from plant material that can't be digested through enzymatic breakdown. The ceca and large intestine also reabsorb moisture, forming the solid portion of indigestible waste. The ceca are larger in tribes that eat more fruit and other plant products. Mawkin ceca are fairly small: they live quite an active lifestyle, and plant matter supplements their all-rounder diet with meat as the foremost staple.

The large intestine is the end of the line. Renal and intestinal waste is ejected here. The end of the reproductive tract forks to the distal segment to facilitate egg laying. Mammals have considerably larger large intestines than Chozo to dry out waste before expulsion.

Next we have the respiratory system. The trachea takes in air and delivers it to the lungs. Unlike mammalian lungs, Chozo lungs are inelastic: they don't expand and contract. The air sacs do all the expanding and contracting: they're connected to the lungs through a network of bronchii.

The high metabolic rate required for flight demands a ton of oxygen, and Chozo respiratory organs are designed to do just that. The mechanics are fascinating but I won't take up too much of your time explaining the finer points. Wikipedia's write-up on the circulatory system of birds is a good place to start if you want to dive deeper.

The short version is thus: air enters through the nostrils, traveling into the bronchi through the trachea and syrinx (the syrinx helps Chozo vocalize). The bronchi deliver air to the lungs. When Chozo inhale, the posterior and anterior sacs expand: the posterior sacs take in fresh air while the anterior sacs fill with air that has already passed through the lungs. Air is constantly circulating through the lungs, and it's a one-way flow.

Parabronchii are microscopic tubes that run perpendicular to the blood capillaries. Parabronchii efficiently diffuse oxygen from the air into the blood.

The next image set deals with a few extraneous vital organs. I'm not going to illustrate the nervous system nor arterial network, just as I neglected to illustrate all the bronchi in the respiratory system. That's a lot of tubes!

The circulatory system is pretty standard, but it pulls largely from Dread. Here's the thing: in the pre-boss fight cutscene for Raven Beak (aptly named 0086_comanderorbital_video_artwork_01.webm in the files), we see him contributing to Samus' biological makeup. His heart is set firmly in the center of his chest.

This is anatomically accurate to real birds! Bird hearts are placed similarly in the center of the chest, flanked by the left and right lobes of the liver (linked image is a labeled black and white illustration of a dissected pigeon, showing most of the major organs).

The brain is exactly what you think it is. No, the most interesting part of this last image set is the harus.

The harus is an accessory to the lymphatic system. You'll notice its proximity to the respiratory system. Lymphatic capillaries accompanying the parabronchi network filter more harmful atmospheric molecules into the harus, which makes use of specialized cells to recycle these molecules in a process that synthesizes ATP. In addition to this, the harus helps maintain the body's proper pH levels in hostile environments. This organ is what allows the Thoha to breathe in Zebes' toxic atmosphere.

Headcanon time: the majority of non-powersuit related genetic alteration done to Samus Aran in her youth is related to this organ: her respiratory system was altered with the proper instructions to produce specialized harus cells on their own without needing to transplant the organ. Samus can breathe on Zebes because her lungs can perform the function of the harus while she breathes.

Full-size pngs for everything are available on Ko-fi and Patreon. The canvas for this project was pretty big because I wanted to be able to capture the scale of the wings somewhat.

ADDENDUM, May 16, 2024: Chozo should have a modified pelvic bone that more closely resembles a synsacrum, not a humanoid ilium: I am a fool and completely forgot to make alterations in that department.

[witchofthesouls]

What’s some behaviours that seeker Lennox do that unnerve the humans or other bots that don’t fly?

The new Seekers/ex-humans sleep a lot compared to the Autobots to the point that mechs were concerned over the newbuilds. It's just the remnants of the human circadian rhythm, Cybertronians function on a far longer time clock, so they'll eventually adjust to it.

The humans think that the lovebirds are too into each other since Will and Sarah are basically wrapped up with each other in spare time. Freaks out some humans when they meld their frames partially together. Meanwhile, the Cybertronians are going, "Yep. That makes sense. Those are newly wedded and bedded newbuild Seekers." It's really intense, somewhat uncomfortable on how aggressive affectionate they are, but still understandable. Some mechs are making secret bets on when and where a poor squishy will see the natural sight of two Seekers going down and dirty.

It took a while for the human personnel to understand why the Seeker pair shower together or have someone else with them. It's a natural extension of their new frame sociality matrix since grooming a wingspan needs an extra pair of hands and it's a pleasant bonding activity. Ironhide is their usual go-to, but they had taken Optimus and Ratchet into their shower sessions.

Some of the Autobots think that Sarah is highly territorial and standoffish since she constantly wraps Will up with her own field and likes a certain degree of space. The Arcee sisters are careful not to stand too close to Will for that reason as they don't want to be seen as issuing a potential Challenge. Will doesn't understand it, but his frame does and likes it since it's a low-key awareness of where his wife and child are. Ironhide is trying to wrangle it back into more neutral feel, but Sarah isn't having it.

Sarah enjoys rising with the sun as she did her early morning yoga routine. It freaked out the Cybertronians how flexible her frame was, especially with her armor density.

None of the Cybertronians are ready to see how blase the Lennoxes are with doing things unarmored, especially when the Autobots caught up with the pair when Sarah managed to locate another vein and she was taking a dip in a geyser. Just her bared legs. Or whenever they shower together since humans take off their clothes, but Cybertronians are able to shower with their armature on.

Oh, and here's a little snippet:

“So besides the wings and chicken legs, what else you got?” Epps asked.

“I can literally smell everything half a mile away,” Lennox took in another deep vent, his mouth parted open similar to an insect’s mandibles, playing it up as his frame shifted to accommodate the air and his tongue flicked out. Epps looked up in wide-eyed, horrified fascination, at the long, segmented appendage coiling in the air.

“Man, you’re just fucking with me at this point.”

“Well, it was chili night.”

“Foyer’s?”

“Yep.” Both mech and human stared at the distant mess hall.

“I can already smell the barracks tonight. Thor will be blowing thunder all night long."

[a-spawn-on-my-lawn]

Quick tip for my fellow (Asti) artists for the perfect reference :D

You don't need to know Blender for this except for some tiny basics that you can learn in less than 30 min!

Download Blender. It's free and amazing.

Download this Astarion model as .blend file.

Unpack the ZIP and open the .blend file with double click. It should open in Blender automatically when you have installed the software. (I probably renamed the file so don't worry.)

4. Once opened in Blender, look for the globe symbols on the top right of the window and click the middle globe "Viewport Shading".

5. You should now have something like this:

Don't get distracted by the camera, the lights or the shlong, you won't need any of it (probably)

6. Go to the top left of the window and make sure "Object mode" ist activated.

7. Pick the "Modeling" tab.

8. Click on the Asti. You can zoom in and out with mouse wheel. You can navigate by pressing the mouse wheel alone and move the mouse or pressing mouse wheel + shift.

9. On the very right, there should be an area that is called "Scene collection".

Navigate to this window and click on the eye symbol next to "Astarion Armature" to make sure it is visible if it isn't yet.

10. Make sure you still have object mode activated. Click on the "Astarion armature". Now you should see a lot of orange fancy thingamabobs around Asti.

11. Now it is important that you navigate to the "Object Mode" tab and pick "Pose Mode".

You will now see that the thingamabobs (his rig) will become colourful. Perfect, almost done :D

Now it is time for Asti to strike some Poses!

Click on any of the colourful lines (Some are not able to be moved, but you will figure out which one does what).

In this example, I picked the rig for this arm/wrist:

On the left side of the window, you should see a toolbar that looks like this:

If the toolbar is not there, simply press "T". All we basically need are these two:

If you pick one of these an click on the parts of Asti's rig that you want to move, you can move them up or down with the arrow option ("Move") or rotate them in any direction with the option below the arrow. ("Rotate").

Let's rotate Asti's hand:

I click + hold the red line and move it upwards.

EASY GOING! this is honestly basically it. Play around with it a bit and you will get the gist :)

You can really get him into any pose you like, it may be a bit fiddly to find out if you are new to Blender, but it is totally worth it :)

This is not only a great ref tool for Asti artists, generally he makes a remarkable ref for studying the male anatomy, facial structure, hand poses and so much more :)

I hope my little tutorial was helpful to you, I usually don't make tutorials so I hope I was able to make it somewhat comprehensible 😅

I just really wanted to share this because it was a real game changer to me. :)

If you have any questions, feel free to ask in the comments/DMs etc.

Also here's a dope Blender beginner tutorial:

Happy painting/modeling!! ♥

[hinamie]

hello user hinamie ik it's a cliche question and idk if you've already answered that but how do you learnt to draw people??? im struggling very much and i want to learn and everybody says practice but idk how? your style seems so effortless and i also love the way you draw clothes very much. thanks already for answering, have a good day :)

hello anonymous tumblr user im very flattered you like my art !! gna let u in on a lil secret, it is the farthest thing from effortless and has in fact taken years and years of work. honestly i feel a bit unfit 2 offer advice a lot of the time because i’ve never been classically trained so i don’t really . have a good frame of reference fr how to approach art from a beginner’s perspective anymore,,,when youve been drawing fr 2 decades u kind of forget what it feels like to be starting out and what advice would be helpful

to start i guess i cn recommend that u start with armature gestures n build up from there? once you’re comfortable with how 2 position a body maybe then start saving a bunch of pictures of the human body or of models in different poses and practice tracing over them to break them down into their basic shapes, like this or this. stripped down 2 the fundamentals, the human body is a bunch of boxes, prisms, n spheres. pay attention to proportions and perspective and the more comfortable you get with the basics, the easier it will be to move onto the details

thing is tho, i really Can’t tell you how to practice, you have to stumble around a bit before u find what works for you. we’re lucky 2 live in a time where art advice from professionals and tutorials are easily accessible but at the end of the day u can only get so much based off of what other people tell you ; improvement comes from Doing. it’s intimidating starting out and ik it’s hard to let yourself be a beginner n suck a little but it genuinely does get easier . i can’t say how quickly bc everyone learns n improves at different rates but trust me, as long as you stick with it you /will/ improve 

[woodsdyke]

ok does ANYONE have any info/guides on 3d freehand embroidery? I don't mean raised stuff on fabric, im trying to make a full moth with articulated wings that can be held in my gay little hands. i have ideas but it'd be cool to see what other people are up to, but i can't find basically anything

i know this is ambitious but im confident in my embroidering at this point so 👍 the plan is to stitch all four wings separately onto felt with armature on the back, and then the body that ill then sew closed with some fiberfill so it has volume. and then put everything together and whip stitch the edges. but that's so so so scary

[arcticwanderer]

I have spent the last few weeks overhauling my ProtoBear VRC avatar, which also included all the public versions I had made.

But I also decided that it was finally good enough for me to make into a base and release into the wild. It is very basic, since it was only the 2nd avatar I ever made, I just cleaned it up a lot, re-did the UV's, fixed up some weights, adjusted the armature, then had to re-make the materials and physbone setups in Unity.

But I'm very happy with how it came out.

[Drive folder link here]

Currently it does not have a Quest version, I need to re-visit that as well at some point, but in the meantime you can always generate impostors yourself. :)

Happy beeping!

[sushiwt]

website update blog #12 (May 22nd, 2022)

hello! i'm back with some actual changes to the site now!

i apologize if the last website update blog was like...

hold on lemme check my tumblr-

wait a minute...

ALMOST 1 MONTH???

damn. well, i got some changes to show yall anyway sooo lets start!

last time i discussed my website, i told yall that i will remake the whole thing over, and THAT, is going to be my main focus.

so i moved the old files to a new folder called /legacy and made a new html file and css file.

i then thought of how im going to go about organizing this thing. i thought about it for an absurdly long time, and then i had an idea.

what if we organized it as such where the style of an html element can be changed just by using the "class" attribute?

its hard to explain so ill just show you what im talking about: (if you dont want to read this part just scroll down until you see the word SKIP HERE!)

ill give you a div element:

but i want to change how it looks, since its just bland text on the preview shown.

that's where these classes come in!

these classes are basically just there to change how any html's look! (with the help of the class attribute)

turning the div into a black rectangle with a shadow

turning the div into a white rectangle with shadow

turning a div into a white rectangle (no shadow needed (although it looks like the rectangle isnt there anymore, but trust me, it still does)

and more! you can do a whole lot with these combinations, and theres even more classes i havent told you yet, like the button and flex classes, but to put it simply, button adds a transition where the rectangle changes color from white to black and and animation that makes the rectangle slightly go up and flex is to arrange the rectangles in rows and columns.

SKIP HERE!

anyway back to the website...

this was the breakthrough idea that made recreating the website SO MUCH EASIER.

aaand after only 10 days, i finally finished!

i will now explain the changes i have made with the website (compared to my website before i recreated it)! it should be obvious but i will do it anyway.

- i added a github button!

this button serves two purposes:

its a button to redirect you to the github repository of the website!

its to get the /section buttons to actually look like they are centered. the main problem of the old navbar was that it did not look centered AT ALL, so i couldnt really center the thing without looking off and weird...

and now, with the github button, everything looks decent!

- changed the footer to look like a simple (rounded) rectangle at the bottom of the page.

this was to "solve" the problem which i had with the footer thingy which was that:

if i wanted the footer to fix on the bottom of the textbox,

but when i zoom out theres so much visibe dead space at the bottom.

and another thing, if i want the footer to stay at the bottom of the screen, it doesnt look like theres dead space, buttttt

the damn footer takes up 10% of the total screen space

so i had an idea...

what if we just contain it in a small rectangle instead of looking like the navbar?

it clearly does not solve the dead space at the bottom problem, but atleast it looks nicer than before and it doesnt look like the navbar anymore :D

oh and also

- I FINALLY FINISHED THE SLOOSHI PHOTO IN THE SIDE OF THE TEXTBOX AFTER LIKE 1 MONTH

YOU CAN SEE THE CHARACTER ON THE IMAGE I JUST SHOWED YOU IF YOU HAVENT NOTICED YET

THIS SHIT TOOK ME SO LONG TO ADD ARMATURES AND POSES AND I FINALLY FINISHED ITHBHRDJ FNJKCKXLM<

i just hope yall like it :>

aaaaaaand thats all that i have changed while recreating the thingy!!!

now the new stuff (theres only one):

- I added a new section on my website called sushiwt/lite!

based on @pagerorgy's sc36.net (and by based i mean i downloaded the html file of the website and edited it), this WAS a temporary home while i was remaking it, but now its just a place where you can see EVERYTHING the site has to offer (in only 1 table)!

i apologize of the fact that this blog is so long, so heres a tl;dr

i remade the website with a convenient way to change the look of an element

i changed the footer's look, added big slooshi, and

added sushiwt/lite, everything in my site in one table

ok goobai :D

- sushiwt <3

[weaselmcdiesel]

hello! me once more how hard would you say it is to get into needle felting !! coming from someone who would love to try it out, is there any good tutorials out there or smth !! - <3 (also love ur work the zedaph is so cute ..)

Howdy! I don't think it's too hard to get into needlefelting! especially if you take it slow, and dont expect very much from yourself at first ^^ the very first thing i tried to needlefelt was a ball it and it came out like shit somehow XD but i think as long as you keep making small projects as practice, I think progress will start to show quickly! :) these are some videos i watched early on below the cut ^^

(ALSO FOR THE RECORD CRAFT STORES SELL WOOL FOR SO MUCH MORE THAN WHAT YOU CAN ORDER ONLINE. UM. JUST SOMETHING TO KEEP IN MIND)

^^ she covers a lot of info and i believe her style is very easygoing (which is good for me bc crafts tend to get me stressed, like to make it perfect, but needle felting isnt really that way for me!! woo!)

^^ i also was following her armature tutorial when i was felting mumbo, but i wouldn't recommend jumping into an armature project before testing out basic techniques ^^

and this^^ is a really long series of livestreams, i sorta jumped through it to find portions that helped with whatever project i was working on, she does have some pretty useful techniques^^

also looking at inspirational creators helps me mooore than anything :D! heres some people I follow on tumblr, i tend to just scroll the felting tag as opposed to following people tho :1

@/whimsical-fiber @/yidishuiwater @/shyshyru

[raziakhatoon]

 Data Engineering Concepts, Tools, and Projects

All the associations in the world have large amounts of data. If not worked upon and anatomized, this data does not amount to anything. Data masterminds are the ones. who make this data pure for consideration. Data Engineering can nominate the process of developing, operating, and maintaining software systems that collect, dissect, and store the association’s data. In modern data analytics, data masterminds produce data channels, which are the structure armature.

How to become a data engineer:

 While there is no specific degree requirement for data engineering, a bachelor's or master's degree in computer science, software engineering, information systems, or a related field can provide a solid foundation. Courses in databases, programming, data structures, algorithms, and statistics are particularly beneficial. Data engineers should have strong programming skills. Focus on languages commonly used in data engineering, such as Python, SQL, and Scala. Learn the basics of data manipulation, scripting, and querying databases.

 Familiarize yourself with various database systems like MySQL, PostgreSQL, and NoSQL databases such as MongoDB or Apache Cassandra.Knowledge of data warehousing concepts, including schema design, indexing, and optimization techniques.

Data engineering tools recommendations:

    Data Engineering makes sure to use a variety of languages and tools to negotiate its objects. These tools allow data masterminds to apply tasks like creating channels and algorithms in a much easier as well as effective manner.

1. Amazon Redshift: A widely used cloud data warehouse built by Amazon, Redshift is the go-to choice for many teams and businesses. It is a comprehensive tool that enables the setup and scaling of data warehouses, making it incredibly easy to use.

One of the most popular tools used for businesses purpose is Amazon Redshift, which provides a powerful platform for managing large amounts of data. It allows users to quickly analyze complex datasets, build models that can be used for predictive analytics, and create visualizations that make it easier to interpret results. With its scalability and flexibility, Amazon Redshift has become one of the go-to solutions when it comes to data engineering tasks.

2. Big Query: Just like Redshift, Big Query is a cloud data warehouse fully managed by Google. It's especially favored by companies that have experience with the Google Cloud Platform. BigQuery not only can scale but also has robust machine learning features that make data analysis much easier. 3. Tableau: A powerful BI tool, Tableau is the second most popular one from our survey. It helps extract and gather data stored in multiple locations and comes with an intuitive drag-and-drop interface. Tableau makes data across departments readily available for data engineers and managers to create useful dashboards. 4. Looker:  An essential BI software, Looker helps visualize data more effectively. Unlike traditional BI tools, Looker has developed a LookML layer, which is a language for explaining data, aggregates, calculations, and relationships in a SQL database. A spectacle is a newly-released tool that assists in deploying the LookML layer, ensuring non-technical personnel have a much simpler time when utilizing company data.

5. Apache Spark: An open-source unified analytics engine, Apache Spark is excellent for processing large data sets. It also offers great distribution and runs easily alongside other distributed computing programs, making it essential for data mining and machine learning. 6. Airflow: With Airflow, programming, and scheduling can be done quickly and accurately, and users can keep an eye on it through the built-in UI. It is the most used workflow solution, as 25% of data teams reported using it. 7. Apache Hive: Another data warehouse project on Apache Hadoop, Hive simplifies data queries and analysis with its SQL-like interface. This language enables MapReduce tasks to be executed on Hadoop and is mainly used for data summarization, analysis, and query. 8. Segment: An efficient and comprehensive tool, Segment assists in collecting and using data from digital properties. It transforms, sends, and archives customer data, and also makes the entire process much more manageable. 9. Snowflake: This cloud data warehouse has become very popular lately due to its capabilities in storing and computing data. Snowflake’s unique shared data architecture allows for a wide range of applications, making it an ideal choice for large-scale data storage, data engineering, and data science. 10. DBT: A command-line tool that uses SQL to transform data, DBT is the perfect choice for data engineers and analysts. DBT streamlines the entire transformation process and is highly praised by many data engineers.

Data Engineering  Projects:

Data engineering is an important process for businesses to understand and utilize to gain insights from their data. It involves designing, constructing, maintaining, and troubleshooting databases to ensure they are running optimally. There are many tools available for data engineers to use in their work such as My SQL, SQL server, oracle RDBMS, Open Refine, TRIFACTA, Data Ladder, Keras, Watson, TensorFlow, etc. Each tool has its strengths and weaknesses so it’s important to research each one thoroughly before making recommendations about which ones should be used for specific tasks or projects.

  Smart IoT Infrastructure:

As the IoT continues to develop, the measure of data consumed with high haste is growing at an intimidating rate. It creates challenges for companies regarding storehouses, analysis, and visualization. 

  Data Ingestion:

Data ingestion is moving data from one or further sources to a target point for further preparation and analysis. This target point is generally a data storehouse, a unique database designed for effective reporting.

 Data Quality and Testing: 

Understand the importance of data quality and testing in data engineering projects. Learn about techniques and tools to ensure data accuracy and consistency.

 Streaming Data:

Familiarize yourself with real-time data processing and streaming frameworks like Apache Kafka and Apache Flink. Develop your problem-solving skills through practical exercises and challenges.

Conclusion:

Data engineers are using these tools for building data systems. My SQL, SQL server and Oracle RDBMS involve collecting, storing, managing, transforming, and analyzing large amounts of data to gain insights. Data engineers are responsible for designing efficient solutions that can handle high volumes of data while ensuring accuracy and reliability. They use a variety of technologies including databases, programming languages, machine learning algorithms, and more to create powerful applications that help businesses make better decisions based on their collected data.

[adultswim2021]

Moral Orel #26: “School Pageant” | June 9, 2007 - 12:15AM | S02E16

This one’s wonderful. There’s a school pageant at Orel’s school about the life of Jesus. Orel assumes he’s a shoe-in for the lead (as does everyone else). But the part of Jesus goes to one of the Jews-for-Jesus clan after the writer/director finds out he’s the nephew of a famous Broadway producer. The writer/director of this play, by the way, is Dale Armature, a former member of the Crucifolks. They’re a famous christian folk band that have been previously seen in the series on posters and stuff around Moralton. He was basically forced out by the other two, a youthful couple who broke up the band and reformed as a solo duo. Dale is desperate to find success again, and it’s shown that he pined after the young woman in the group, holding out hope that one day she would be his. The stakes could not be higher for this poor sap.

Orel gets wrapped up in all of this because, although he’s the favorite to be cast as Jesus, he winds up playing Judas. After receiving a pep talk from Dale (which drives home the idea that Judas is a very important figure in Christianity, perhaps even part of God’s plan?), Orel learns to love playing Judas. In fact his genuinely delightful song “God, I hate you, Jesus” easily steals the show, and becomes the only memorable bit from the play.

Things don’t end up going Dale’s way. The play is recognized as a flop, and he makes a fool out of himself in front of his former partners, as well as the famous Broadway producer. Then there’s a montage of various townspeople, weeks into the future, all cheerily singing Orel’s “God, I hate you, Jesus” song. The final scene is an entire church congregation singing along to it. The camera pushes in on Orel’s face. He chuckles to himself: “wow, everybody sure hates Jesus! …whoops.” 

This one’s just really fast-paced and well-made, and it’s centered around a very fun song that is actually quite catchy. It’s nearly a self-contained episode, though there are certain things about Moralton that might puzzle first-time viewers. Example: there’s one moment that references a previous episode where reverend putty is trying to pitch the concept of an “omelet face mask” to Dale. This is a reference to the episode “Loyal” where the reverend first thinks this idea up and really falls in love with it, and he takes time to derail his sermon just to write it down and pat himself on the back. It’s one of the more pathetic things he’s done; attempt to home this extremely tepid joke into a play because he lacks any other creative talent. I can relate. Whoops.

[witchofthesouls]

Hey Soul! Have you read the ‘Project Regen Files’ by Quiet_Shadow on AO3? I’d think you’d love it. It’s basically a ‘what if’ series about if the TFA Decepticons had won and conquered cybertron, the twist being that they regressed the Autobots back to their ‘proper’ spark age (the younger ones like OP, Bee, and Bulkhead mostly being turned into sparklings while the older ones like Prowl, Ratchet, and Ultra Magnus were turned back into younglings/young adults.) and are adopted by Decepticons and are given ‘proper’ childhoods by them.

A question if mine would be; how would TFA Megatron’s human kid react to all this? One minute their fighting with their friends team prime to save Earth and Cybertron from their recently discovered bastard tyrant of a biological father and than the next thing they know, they’re waking up on Cybertron - a Deception ruled one at that! - and from the news they’ve gathered, their friends had been turned (back?) into babies! Now they’re wondering and on the brink of a panic attack about what Megatron and his thugs have done and will continue to do. A main question that keeps their great pounding and their mind spinning is; what is he going to do to/with me?

Oh, yeah, I read it. I got hope they'll update it since they're still active in the fandom. I actually had a draft of a continuation with TFA!Ratchet and his Cybertronian SO where they're dealing with a Decepticons!win scenario where that happened. Now Ratchet is a young man with a young sweetspark (they were worried about their spark-bond since they've been together that long) under new management, and suitors at their door since he's a medic and the SO has a lineage that intrigues some Decepticons.

Slight deviation here: Sari is Megatron's kid. Because, c'mon, it fits so well~!

All Megatron's are territorial, TFA is no exception with his bougie aft. He would definitely fetch his wayward daughter, and he isn't above using threats to coerce her.

Sari has a Cybertronian alt-mode, but her father...

In exchange for going with him, Dr. Sumdac gets to live with his ill-gotten company and Earth will be left alone since Cybertron is the jewel of his achievements

To sweeten the deal, Megaton even dangled a few newsparks of her friends. He ensured that they'd be well-cared for with those trusted.

Optimus becomes her new brother since Megatron isn't letting the Prime that almost bested him go out of his sight. A little maintenance bot with far more courage and ball-bearings bestowed by Unicron nearly got the Slag-maker himself! He's curious to see what will happen with proper guidance.

Megatron has his work cut out for him. There's no way he can simply unwind and relax. Oh no, now the real work begins with reconstruction, subduing rebellious forces within the population, and transporting Decepticons back to their homeworld. Made more stressing now he has young bitties with him.

He can appreciate how spirited Sari is, especially as she digs her blunt digits into his seams as he takes her for a proper check-up. He'll eventually teach her how to access her talons.

Not happy about the state of health, but not surprised either. Dr. Sumdac was only a human and merely addressed her humanity.

Sari is critically low in essential metals and minerals, especially as a war-frame sparkling. Megatron has no idea where the yellow comes from, but her armature is supposed to be thicker, her frame larger with more coverage.

He severely dislikes the blue disc upon her chassis. She doesn't have the skill nor the experience to taunt her opponents like that.

Her weapons systems are far more advanced in development...

Due to the lack of so much, her growth prioritized a more slender, speedier frame and jacked-up her weaponry for defense since she didn't have any half-decent caretaker.

Optimus is at least in decent health. A surprise, considering the reports coming in about the remaining adult Autobot population. He does quite a set of vents on him.

The Decepticons don't regress every single 'bot. There's too much critical infrastructure they don't understand or need hands-on to maintain.

The warlord will make a creator-bond with them. It's only a matter of time. Their frames will fall to their biology.

Newsparks seek out creators to soothe their immature sparks and basic emotional needs. They need an adult to lull it back to parameters. Optimus is no different now. Blind, confused, and terrified. Unlike the 'bots that were reversed to their young adult or mechling phase, newsparks are too underdeveloped to retain their adult memories. Their bodies are ruled by instinct.

Optimus had initially fussed and wailed, but with time, care, and close contact had soothed him to burble happily in Megatron's arms.

Sari, however, is a war of attrition between her sparkling frame's needs and her fostered human independence.

If anyone were to see meal times in the newly created High Lord Protector's household, there's a patient Megatron spoonfeeding Optimus and a Sari mullishly picking at her own plate. It becomes a common conversation that it isn't poisoned. Enhanced with nutritional boosters and supplements, but nothing designed to kill.

Megatron is deeply unamused over the argument of maturity. He doesn't care that she's a teenager on Earth. Sari, by Decepticon laws, is a sparkling that's not even close to a mechling (adolescent).

Even accounting her techno-organic status and her "upgrades," the basic readings of her spark energy clearly puts her as a young child of his species.

Because of the sheer range of her abilities, Sari has a power inhibitor on her. The last thing anyone needs is for her to disappear in the middle of the upheaval and restructuring, especially with newsparks she has no knowledge to care for.

Sari didn't even know Cybertronians could have the equivalent of babies. She still remembers Optimus' confused distress over her blunt explanation.

It was one of the major points that drove Cybertron to war before the schism as the Senate tried to impose "sticter frame-schematics regulations to ensure greater workforce efficiency."

There seems to be a great discrepancy between the Autobots and Decepticons beyond size and flight capabilities. Megatron wasn't imagining things: the little cretins aren't as durable as before.

Many of his generals (and himself) had assumed that the Autobot military were attempting to mimic their civilian-frames over the eons. The fools didn't even realize they severely compromised the core-programs by all the extensive modifications of their own frame-schematics.

The compact size allowed Autobot High Command to throw all the available resources into their research, but impacted their life expectancies and immensely increased health complications.

When the extent of the damage was realized, Megatron swore in his office and had to order a new desk. New plans and interventions needed to be made...

Sari spends a lot more time in Optimus' nursery. Between a choice of Megatron or a baby, she rather have spit-up down her armor.

Maybe it's hope, no matter how vain it is, that Optimus remembers because he seems to blindly reach for her.

But it's different. The adult-Optimus always had a field that curled carefully around hers whenever she used her bot-mode. A steady, warm presence like a friendly hand on her back. Baby-Optimus spikes against hers. He tugs and yanks until he's fully buried in her, blanketing deep into her field as he nuzzles her neck.

Sari has to admit, he's a pretty baby with his bright colors and chubby face. It's super cute when Optimus' antennae flicks.

She whispers to him updates on the rest of the team. How Bumblebee and Bulkhead are a pair in Lugnut's and Strika's huge hands, that Prowl is under the care of a mech called Barricade, the twins went to Shockwave, and now Ratchet is a young mech with a chipped chevron that's still as grouchy as ever.

[penandswords]

Headcanon / Rimas Gym

About Rima and The Gym

Rima does not attend a NORMAL Gym, The Gym she goes to is specifically a parkour gym.

She visits this gym Frequently. (At least 2 or more times a week) It's easy to tell when she is making plans to visit or has visited, because she will wear sneakers instead of her usual heels. Rima can get about Mid-way Up "The Tower" Before she starts to struggle, and becomes a fall risk. Vee and Rima try to push one another off of things often. (They'll even antagonize eachother) Normally, Rima will take "The Tower" with a leisurely cautious pace. But when she has a specific goal in mind, Her speed and sense of caution changes dramatically. - With a goal in place she can move between twice and in rare cases triple her usual speed. - And she'll make risky movements depending on how bad she wants whatever the goal might be. For Rima Her visits to this gym are more about socializing and enjoying herself than it is about the training / the work out. (but that's a bonus she gets) ---------------

About the Gym

The Gym Owner go's by the name of Drax, he has a gravity quirk that allows him to lighten gravity in an area he can visually see.

His office is located at the very top of "The Tower"

----- There are 2 rooms related to workouts. The Warm Up room- This has a series of small obstacles specifically to get gym members and armatures warmed up for "The Tower."

Obstacles in this room cover the basic skills someone might need to navigate the larger / more advanced course.

-----

"The Tower" - is the 2nd room It involves a more in depth parkour course that goes all the way up to the top floor of the building (several stories up)

The further a gym user go's up the more challenging the obstacles become. Scattered in various sections of this course are rest points, that can be reached either by going through the course, Or alternatively. The stairwell which is considered "the back entrance"

Drax will sometimes change up the obstacles in order to keep frequent visitors from getting bored.

Drax's office is located at the very TOP of "The Tower." His office does have a balcony outside of it (in the building) That is treated as a hangout space for anyone who manages to get that far.

(WHEN someone does reach it, Via "The tower course" A small chime will sound off to alert people someone managed to make it all the way up)

The floor of "The Tower" Is mostly a giant Foam pit. the only walkable space is at the front end of the room near the door. Along with a small sitting area for people who just want to observe.

____________

Outside of workout rooms, There is a locker room for both genders, equipped with showers. A front entry way with a front desk and vending machines.

------------

[e-controldevice]

Simplify PCB Power Relays: How Does a PCB Relay Work?

 Introduction to PCB Power Relays

As an electronics enthusiast, you may have come across the term “PCB power relay" in your projects or research. But what exactly is a PCB power relay, and how does it work? In this article, we will delve into the world of PCB power relays, exploring their components, design, and most importantly, their function and purpose.

What is a PCB Power Relay?

A PCB power relay, also known as a printed circuit board power relay, is an electromechanical device that allows the control of high-power electrical circuits through low-power signals. It is an essential component in many electronic devices and systems, providing an interface between the control circuit and the load circuit.

The Function and Purpose of a PCB Power Relay

The main function of a PCB power relay is to control the flow of electrical current in a circuit. When a low-power signal, such as a voltage or current, is applied to the relay's coil, it generates a magnetic field that attracts or releases a set of contacts. These contacts, in turn, open or close the circuit, allowing or interrupting the flow of electricity to the load.

The purpose of a PCB power relay varies depending on the application. In some cases, it is used for power switching, where it controls the flow of electricity to devices such as motors, lamps, or heaters. In others, it acts as a protective device, safeguarding the circuit from overloads or short circuits. Power relays are also commonly employed in automation systems, industrial control panels, and telecommunications equipment.

Components and Design of a PCB Power Relay

To understand how a PCB power relay works, it is crucial to familiarize yourself with its components and design. The main elements of a typical PCB power relay include the coil, contacts, and the magnetic system.

The Coil

The coil is the primary component of a PCB power relay responsible for generating the magnetic field. It is usually made of copper wire wound around a bobbin or a magnetic core. The number of turns and the gauge of the wire determine the coil's resistance and the amount of current required to energize the relay.

The Contacts

The contacts of a PCB power relay are the crucial link between the control circuit and the load circuit. They are made of conductive materials, such as silver or gold-plated alloys, to ensure efficient electrical conduction and minimize contact resistance. PCB power relays can have various contact configurations, including single-pole, single-throw (SPST), single-pole, double-throw (SPDT), and double-pole, double-throw (DPDT).

The Magnetic System

The magnetic system of a PCB power relay consists of a ferromagnetic core and an armature. When the coil is energized, the magnetic field created by the coil attracts the armature, which is mechanically linked to the contacts. This attraction causes the contacts to move, either opening or closing the circuit, depending on the relay's design and specifications.

How Does a PCB Power Relay Work?

Now that we have a basic understanding of the components, let's explore how a PCB power relay works in practice. The operation of a PCB power relay can be divided into three main stages: the resting state, the activation state, and the switched state.

Resting State

In the resting state, the relay is not energized, and the contacts are in their default position. Depending on the relay's design, this default position can be either open or closed. For example, in a normally open (NO) relay, the contacts are open in the resting state, while in a normally closed (NC) relay, the contacts are closed.

Activation State

When a voltage or current is applied to the coil, it creates a magnetic field that attracts the armature. This attraction causes the armature to move, which, in turn, moves the contacts. If the relay is normally open, the contacts will close, completing the circuit and allowing the flow of current to the load. Conversely, if the relay is normally closed, the contacts will open, interrupting the circuit.

Switched State

Once the coil is de-energized, the magnetic field dissipates, and the armature returns to its original position due to factors such as spring tension. As a result, the contacts also return to their default position, either open or closed, depending on the design of the relay. This completes the switching action, and the relay is ready for the next cycle.

Advantages and Applications of PCB Power Relays

PCB power relays offer several advantages that make them a popular choice in various applications. One of the key advantages is their ability to handle high-power loads while being controlled by low-power signals. This feature allows for efficient and reliable control of electrical circuits, making PCB power relays indispensable in industries such as manufacturing, automotive, and telecommunications.

Another advantage of PCB power relays is their compact size. Since they are designed to be mounted directly onto printed circuit boards, they occupy minimal space, making them suitable for applications where size constraints are a concern. Additionally, they are relatively easy to install and replace, reducing downtime and maintenance costs in case of failure.

The applications of PCB power relays are wide-ranging. They are commonly used in automotive systems, such as power windows, central locking, and fuel pumps. In industrial settings, they play a vital role in controlling motors, pumps, and solenoids. In the field of telecommunications, PCB power relays are utilized in devices like switches, routers, and modems. These relays also find their place in renewable energy systems, home appliances, and medical equipment.

Understanding Different Types of PCB Power Relays

PCB power relays come in a variety of types, each suitable for specific applications and requirements. The most common types include general-purpose relays, latching relays, solid-state relays, and automotive relays.

General-purpose relays are versatile and can be used in a wide range of applications. They are available in different configurations, contact ratings, and coil voltages, making them suitable for both low-power and high-power switching.

Latching relays, also known as bistable relays, have the ability to maintain their contact position even after the coil is de-energized. They are commonly used in applications where power consumption and heat generation need to be minimized.

Solid-state relays (SSRs) differ from traditional electromechanical relays as they use semiconductor devices and optocouplers to control the switching action. SSRs offer advantages such as silent operation, long lifespan, and fast switching speeds. They are often used in applications where high switching frequency and low power consumption are critical.

Automotive relays are specifically designed to withstand the harsh conditions and high electrical demands of automotive systems. They are frequently used in vehicle lighting, wiper control, and ignition systems.

Choosing the Right PCB Power Relay for Your Application

Selecting the right PCB power relay for your application is crucial to ensure optimal performance and reliability. Several factors should be considered, including contact ratings, coil voltage, switching speed, and environmental conditions.

Firstly, determine the required contact rating, which specifies the maximum current and voltage that the relay can handle. This rating should be compatible with the load circuit's electrical characteristics to prevent damage or failure.

The coil voltage is also an essential parameter to consider. Ensure that the relay's coil voltage matches the voltage available in your control circuit. Operating the relay with a higher or lower coil voltage than specified can lead to improper functioning or complete failure.

The switching speed of a PCB power relay is another critical factor, especially in applications where fast response times are required. Consider the relay's datasheet or technical specifications to determine its switching speed and choose accordingly.

Lastly, take into account the environmental conditions in which the relay will operate. Factors such as temperature, humidity, vibration, and shock can significantly impact the relay's performance and lifespan. Choose a relay that is specifically designed to withstand the environmental conditions of your application.

Leading Manufacturers of PCB Power Relays

When it comes to choosing a reliable PCB power relay, it is essential to consider reputable manufacturers known for their quality and performance. Some of the leading manufacturers in the industry include Omron, TE Connectivity, Panasonic, Siemens, and Schneider Electric.

Omron, for instance, is a renowned manufacturer offering a wide range of PCB power relays suitable for various applications. Their relays are known for their high-quality construction, excellent performance, and long lifespan.

TE Connectivity is another trusted name in the field of PCB power relays. They provide a comprehensive selection of relays, catering to different industries and requirements. Their relays are known for their durability, versatility, and advanced features.

Other notable manufacturers like Panasonic, Siemens, and Schneider Electric also offer a diverse range of high-quality PCB power relays, ensuring reliability and performance in demanding applications.

Conclusion: The Importance of PCB Power Relays in Electronics

In conclusion, PCB power relays play a vital role in the world of electronics, enabling the control of high-power circuits through low-power signals. Understanding their components, design, and operation is essential for anyone working with electronic devices or systems.

By demystifying PCB power relays, we have gained insight into their function, purpose, advantages, and applications. We have explored different types of relays and discussed the factors to consider when choosing the right one for your application. Additionally, we have highlighted leading manufacturers known for their quality and reliability.

Next time you encounter a PCB power relay in your projects, remember its significance in providing efficient and reliable control of electrical circuits. Whether you're working on an industrial automation system, a telecommunications device, or a home appliance, PCB power relays are the unsung heroes ensuring seamless operation and protection of your electronics.

[shade-of-vermillion]

okay now how does raven's exoskeleton look

His exoskeleton looks pretty similar to contemporary medical devices like leg braces.

Just replace the Velcro with horrifyingly painful bolts and metal armatures and add hydraulics and you’re right there. Basically a stripped down version of Isaac’s engineering rig from Dead Space. No paneling because it’s not really meant to come off and if he was actually a corporate warehouse worker forced into the thing, they’d need to check regularly to make sure he didn’t die of gangrene before he worked of his debt.

The exoskeleton he used before gallows humor had more solid arms and legs rather than just armatures. Though being an industrial device they were fairly simple and blocky. Trying to do anything with his hands before he had practice was like trying to hold an eggshell with welding gloves on.

Cameras are part of the armature that surrounds and protects his head (gotta have a hard hat). They run on a circular track around his forehead, allowing them to move behind his head for an easier time backing up. Though since they’re positioned slightly higher than a person’s eyes actually would be on their face, they can be disorienting to look through for someone who isn’t used to them.