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electronalytics · 1 year

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Advance Energy Storage Market Research Report Includes Dynamics Demands, Products, Types and Application 2017 – 2032

Overview of the Market:

providing efficient and reliable storage solutions for electricity generated from renewable and conventional sources. These storage systems enable the balancing of supply and demand, integration of intermittent renewable energy, grid stabilization, and optimization of energy usage. The global advanced energy storage systems market is expected to grow at a CAGR of 9% from 2023 to 2032.

Promising Growth and Demand: The advanced energy storage market has experienced significant growth in recent years, driven by several factors. Increasing renewable energy deployment, declining costs of storage technologies, and supportive government policies promoting clean energy and grid modernization have spurred the demand for advanced energy storage solutions. Additionally, the need for energy resilience, demand management, and peak shaving in industries, commercial buildings, and residential applications has further contributed to market growth.

Platform Type: The advanced energy storage market encompasses various platform types for energy storage:

Battery Energy Storage Systems (BESS): Battery-based energy storage systems are one of the most widely used platforms. They employ rechargeable batteries, such as lithium-ion, lead-acid, or flow batteries, to store and discharge electricity as needed.

Pumped Hydro Storage: Pumped hydro storage utilizes the gravitational potential energy of water by pumping it to a higher elevation during times of excess electricity and releasing it through turbines to generate electricity during peak demand periods.

Thermal Energy Storage: Thermal energy storage systems store and release thermal energy using materials such as molten salts or phase change materials. This technology is often utilized for heating, cooling, and industrial processes.

Flywheel Energy Storage: Flywheel systems store rotational energy in a spinning flywheel, which can be converted back into electricity when needed. They provide high-speed, short-duration energy storage.

Technology: Advanced energy storage systems employ various technologies to store and deliver electricity efficiently:

Lithium-ion Batteries: Lithium-ion batteries are the most common technology used in battery energy storage systems. They offer high energy density, long cycle life, and rapid response times.

Flow Batteries: Flow batteries use electrolyte solutions stored in external tanks to store and release energy. They offer scalability and long cycle life, making them suitable for large-scale applications.

Compressed Air Energy Storage (CAES): CAES systems compress air and store it in underground caverns or tanks. The stored air is then expanded through turbines to generate electricity during peak demand.

Thermal Storage Technologies: Thermal energy storage systems utilize materials with high specific heat capacity or phase change materials to store thermal energy for later use in heating or cooling applications.

End User Industry: The advanced energy storage market serves various end user industries, including:

Utilities and Grid Operators: Utilities and grid operators utilize advanced energy storage systems to optimize grid stability, manage peak demand, integrate renewable energy, and enhance grid resilience.

Commercial and Industrial Sectors: Commercial and industrial facilities deploy energy storage solutions to manage electricity costs, reduce peak demand charges, provide backup power, and optimize on-site renewable energy generation.

Residential Sector: Residential applications of advanced energy storage include residential solar systems with battery storage for self-consumption, backup power during outages, and demand management.

Scope:

The advanced energy storage market has a global scope, with increasing deployment in various regions. The market encompasses equipment manufacturers, system integrators, energy storage developers, and utilities. Market statistics, growth projections, and demand may vary across regions due to factors such as energy policies, market maturity, and renewable energy penetration.

The market's scope extends to various aspects, including technology advancements, cost reduction, grid integration, and energy management solutions. With the increasing need for clean energy, grid stability, and energy efficiency, the demand for advanced energy storage solutions is expected to grow, presenting opportunities for industry players.

In conclusion, the advanced energy storage market is experiencing promising growth globally. The adoption of advanced energy storage systems is driven by factors such as renewable energy integration, grid modernization, and the need for energy management and resilience. The market serves utilities, commercial, industrial, and residential sectors, utilizing technologies such as batteries, pumped hydro, thermal storage, and flywheels. As the world transitions towards a more sustainable energy future, the demand for advanced energy storage solutions is expected to increase, providing significant opportunities for industry participants in the global energy sector.

We recommend referring our Stringent datalytics firm, industry publications, and websites that specialize in providing market reports. These sources often offer comprehensive analysis, market trends, growth forecasts, competitive landscape, and other valuable insights into this market.

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Market Segmentations:

Global Solar Panel Recycling Management Market: By Company • First Solar • Envaris • REMA PV Systems • Darfon Electronics • Rinovasol • Chaoqiang Silicon Material • Suzhou Shangyunda Electronics • PV Recycling • Silcontel • Cellnex Energy • IG Solar Private Global Solar Panel Recycling Management Market: By Type • Monocrystalline cells • Polycrystalline cells Global Solar Panel Recycling Management Market: By Application • Industrial • Commercial • Utility • Others Global Solar Panel Recycling Management Market: Regional Analysis The regional analysis of the global Solar Panel Recycling Management market provides insights into the market's performance across different regions of the world. The analysis is based on recent and future trends and includes market forecast for the prediction period. The countries covered in the regional analysis of the Solar Panel Recycling Management market report are as follows: North America: The North America region includes the U.S., Canada, and Mexico. The U.S. is the largest market for Solar Panel Recycling Management in this region, followed by Canada and Mexico. The market growth in this region is primarily driven by the presence of key market players and the increasing demand for the product. Europe: The Europe region includes Germany, France, U.K., Russia, Italy, Spain, Turkey, Netherlands, Switzerland, Belgium, and Rest of Europe. Germany is the largest market for Solar Panel Recycling Management in this region, followed by the U.K. and France. The market growth in this region is driven by the increasing demand for the product in the automotive and aerospace sectors. Asia-Pacific: The Asia-Pacific region includes Singapore, Malaysia, Australia, Thailand, Indonesia, Philippines, China, Japan, India, South Korea, and Rest of Asia-Pacific. China is the largest market for Solar Panel Recycling Management in this region, followed by Japan and India. The market growth in this region is driven by the increasing adoption of the product in various end-use industries, such as automotive, aerospace, and construction. Middle East and Africa: The Middle East and Africa region includes Saudi Arabia, U.A.E, South Africa, Egypt, Israel, and Rest of Middle East and Africa. The market growth in this region is driven by the increasing demand for the product in the aerospace and defense sectors. South America: The South America region includes Argentina, Brazil, and Rest of South America. Brazil is the largest market for Solar Panel Recycling Management in this region, followed by Argentina. The market growth in this region is primarily driven by the increasing demand for the product in the automotive sector.

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phoenixphaseconvertersmktg · 2 years

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7.5 HP Washdown Motor - Frame: 213T - RPM: 1800

View the 7.5 HP Washdown Motor - Frame: 213T - RPM: 1800. Phoenix Phase Converters offers reliable phase converters and electrical transformers.

#electric motors #motors #electrical #electric #electricity #power surge #power supply #power #power grid #voltage converter #voltage stabilizer #voltage #equipment #industrial engineering #industrial #engineering

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simply-ivanka · 2 months

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Biden-Harris Admin Said a $1B Program Would Bring Thousands of Solar Panels to Puerto Rico. Years Later, Only a Few Have Been Installed.

#Biden #Obama #kamala harris #walz #failure #Democrats #vote for #trump #trump 2024 #president trump #ivanka #repost #america first #americans first #america #donald trump #democrats

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anonymousewrites · 3 months

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Logos and Pathos (AOS Edition) Chapter Eighteen

AOS! Spock x Empath! Reader

Chapter Eighteen: Broken Promise

Summary: Khan and the Vengeance take on the Enterprise and its crew with great cost.

(Y/N) materialized next to Kirk and Carol in a cell on the Enterprise. Panicked, Scotty was kicked the barrier to get the attention of the security officer. Kirk was trying to get Carol to her feet, her leg badly broken.

“(L/N)!” said Kirk in surprise and relief as they appeared.

“Hello, Captain!” said (Y/N), adrenaline rushing through them. “We need to move, now, Khan is going to fire—”

Boom!

The Vengeance fired on the Enterprise, and they were thrown to the side. The security officer stumbled but opened the cell, and the group began racing out. In a few seconds later, the shots stopped, but they didn’t waste time wondering what had happened. Spock’s plan to detonate the torpedoes, which no longer contained people, had succeeded, and the Vengeance had been badly damaged.

The first matter of business was getting Carol to the Medbay. While Scotty and Kirk carried her in, (Y/N) turned to the communicator.

“Good to see you,” said Bones, nodding to the three. He smiled at (Y/N). “Your boyfriend played a good trick on Khan.”

“I’ll tell him I’m proud,” said (Y/N), opening a channel to the bridge. “Spock?”

The answer was instantaneous. “(Y/N), you have returned to the Enterprise.” He was immensely glad, even if his words didn’t particularly reflect that to anyone but (Y/N), who knew him.

“I did,” said (Y/N), smiling. “I told you I’d get back.”

“Spock, did you kill Khan’s crew?!” cut in Kirk, bewildered and worried.

Bones scoffed. “Spock’s cold, but he’s not that cold.”

“Thank you, Doctor,” said Spock.

“That is not a compliment,” said Bones.

“What happened, then?” said Kirk, confused.

“The Doctor is monitoring Khan’s crew,” said Spock across the communicator.

Bones proudly gestured to one side of Medbay, and they all looked over. “Seventy-two human popsicles safe and sound in their cryotubes.” Sure enough, all of the people were sleeping peacefully in their cryotubes on cots and on the ground.

“Son of a bitch,” said Kirk in shock.

“Great job, Spock,” said (Y/N), smiling.

“Thank you, (Y/N),” replied Spock over the comms.

And then the entire ship powered down. Everyone tensed, and as Spock’s comms broadcasted the Bridge to them, their worry grew. Their power grid was failing. They weren’t out of danger. Now, the Enterprise was beginning to fall towards Earth, pulled in by its gravity. They were out of control.

“Captain, our warp core is offline!” said Chekov to the Bridge.

Scotty began to run out the halls, even as it spun around them. Kirk and (Y/N) were hard on his heels. A broadcast went out telling people to abandon ship, and (Y/N)’s heart thumped. They knew Spock. They knew he’d stay behind to make sure everyone had the power they needed to get into escape pods…(Y/N) knew Spock would sacrifice himself. Again.

They narrowed their eyes. They wouldn’t let that happen. No matter what.

“One day I’ve been off this ship! One bloody day!” cursed Scotty.

(Y/N), Kirk, and Scotty grabbed notches in the wall as the Enterprise tilted and their level corridor became an endless fall to death. They let go for a moment, but they reached a small bridge and grabbed onto the railing, desperate to not fall farther.

“There won’t be time for an evacuation if we don’t get power to stabilize the damn ship!” said Scotty.

“Can we restore it?” asked (Y/N), straining. All around them was fear and worry. Everyone was scared for their lives.

“Only from engineering!” said Scotty.

The gravity began to work again, and (Y/N), Scotty, and Kirk stood up thankfully. Their eyes widened as they saw everyone hanging from rafters and railings, also in danger. (Y/N)’s dedication to saving the ship and everyone they cared about redoubled, and they raced towards Engineering.

Around them, the corridor spun, but (Y/N), Kirk, and Scotty remained light on their feet to keep moving.

“Scotty, (L/N), we have to jump!” said Kirk, gesturing to crossroads that had become a chasm.

“What?!” said Scotty.

“Jump!” said (Y/N), leaping across.

Scotty and Kirk jumped after them. Thankfully, the gravity became correct again for another precious few minutes, and the three arrived on the engineering deck.

Again, gravity spun, and they grabbed onto a railing, letting out cries as pieces of machinery fell past their heads and slammed by them.

“I can’t hold o—!”

Scotty slipped, and (Y/N) and Kirk grabbed his arms instantly, trying to support him between them. But their strength wasn’t perfect, and with only one hand each, now, it was harder to stay up. Kirk’s hand slipped.

“I’ve got you!” said a familiar Russian accent. Chekov held onto Kirk’s arm tightly.

Kirk, Scotty, and (Y/N) let out shots of adrenaline-filled relief. As Chekov pulled them back, the gravity righted, and that fortunately made it easier to help them. None of the four wasted a second catching their breath and raced onwards.

“Even if we get the warp core online, we’ve still got the redirect the power!” said Scotty, leading the charge.

“He’s right, Captain,” said Chekov.

“What do you mean?” asked Kirk.

“Someone has to hit the manual override,” said Scotty. “Uh, laddie, there’s a switch—”

“Behind the deflector disk! I’ll flip the switch!” said Chekov. He ran one direction.

“Let’s go!” said Kirk, and Scotty began to lead in another direction.

They ran past several falling escape shuttles and winced. Their situation was becoming direr by the moment, and the fear in the air increased in reflection of that. Finally, though, they arrived at the warp. Scotty clicked on the computer, and it came up with a flashing red warning and voice.

“Core misaligned. Danger,” read the computer.

“Oh, no, no, no, no!” said Scotty.

“What?” asked (Y/N), heaving for breath.

“The housings are misaligned,” said Scotty, panic filling his aura. “There’s no way we can redirect the power!” He swallowed. “The ship’s dead. She’s gone.”

(Y/N) straightened, and their heart tightened as they made a painful decision. “No. They can be aligned.” They ran off, and Scotty followed in a panic with Kirk on his heels.

“No, you can’t! If we go in there, we’ll die!” said Scotty. “Do you hear me?! The radiation will kill us!”

“(L/N)!” shouted Kirk, but (Y/N) wasn’t listening as they arrived at the compartment to get to the warp core. “Don’t you dare. If someone’s going to do this, it has to be me. I’m the Captain.”

(Y/N) paused and faced him. “I know. That’s why people still need you.”

“Wha—”

(Y/N) touched Kirk’s arm, and a flood of emotions passed through him. He gasped at the intensity and pressure and collapsed. Scotty jumped in shock, but (Y/N) was already on him, sending the same psychic power through him. Scotty fell unconscious.

Quickly, (Y/N) dragged them into seats and activated the belts to keep them secure.

Then, (Y/N) returned to the door of the core and took a deep breath. As soon as they opened it and the next one, they’d be exposed to the radiation. They’d be sealing their own death. (Y/N) straightened. They knew what they had to do.

They pressed the button, and the first door opened. It shut, and (Y/N) punched in the code to open the next one. (Y/N) winced as they felt the buzz of energy in the energy, the radiation already seeping into them. But they didn’t stop.

(Y/N) crawled through the tunnel towards the warp core. The chamber was larger, and (Y/N) stared at the misaligned housings. It would take all their strength to get them in line. But (Y/N) would do it to save their friends and their love.

(Y/N) would do anything for them.

Climbing upwards, (Y/N) hauled themself over tubes and railings. They used cording to drag themself further and felt the strain in their muscles, but even as their own exhaustion and radiation poising settled in, (Y/N) kept moving.

Finally, (Y/N) was on the platform with the bottom housing. Jumping, they grabbed the railing above and swung back. As they swung forward, (Y/N) slammed their legs into the misaligning housing. It sparked but barely moved.

Nearly cursing, (Y/N) swung again. Nothing but a spark one more

Bam! Bam! Bam!

�� The housing jerked slightly, but it wasn’t properly in line, and (Y/N) panted. Taking a deep breath, (Y/N) stamped as hard as they could.

Thunk!

The housing aligned, and a blast of energy erupted between the two housings. The spark exploded through the room, and (Y/N) was thrown into the wall and fell to the ground. They groaned, lying there in exhaustion.

But they had done it. The warp core was online.

Shakily, (Y/N) tried to stand, and their legs gave out. They collapsed to their knees, and their heart thumped painfully against their chest. Trying to push back thoughts of what was happening, (Y/N) dragged themself towards the tunnel back to engineering. They weren’t dying in the chamber of the warp core. No. They’d do it where at least they could see the people they saved.

“Mr. Spock, altitude stabilizing,” said Sulu, shocked at his own words as the Enterprise hovered above Earth. “It’s a miracle.”

Spock removed his seatbelts and furrowed his brow. “There are no such things.”

His communicator beeped. “Engineering to Bridge,” said Scotty’s voice, subdued and quieter than it had ever been. “Mr. Spock!”

“Mr. Scott,” said Spock.

“Sir, you’d better get down here,” said Scotty.

“Spock.” Kirk’s voice cut in, and Spock tensed at the tone of voice. “It’s (L/N).”

Spock jumped from his chair and ran. He didn’t care at all about the stares of shock he got or how unbecoming his actions were for a Vulcan. He needed to get to (Y/N).

He slowed only once he arrived in Engineering and saw Scotty and Kirk.

“Spock—” said Kirk, trying to stop Spock and give him a moment to explain, but Spock’s eyes snapped to the compartment leading to the war core.

He ran to the door and stared in. Spock’s heart clenched as he saw (Y/N) lying, barely conscious, on the ground. He stared at Kirk, chest heaving as he tried to keep control of himself, but it wasn’t working. He was losing his love. Spock’s heart was dying with them.

“Open it,” he said, looking at Kirk.

“We can’t, Spock,” said Kirk softly, sadly.

“The decontamination process is not complete,” said Scotty. “You’d flood the whole compartment. The door’s locked, sir.”

“I’m sorry, Spock,” said Kirk. He and Scotty were already mourning, too, tears forming in their eyes. (Y/N) was a close friend of them all. Their loss…was unspeakable.

Spock faced the awful sight again and crouched to face (Y/N). How he wished to reach through the door and hold them tightly. To promise them they’d be alright. To tell them he loved but. But Spock couldn’t do any of that. He couldn’t lie, he couldn’t open the door, and he couldn’t be with them.

Within, (Y/N) groaned as they forced themself to close the other and finally settled back against the wall, thoroughly exhausted. Blearily, they opened their eyes, and a soft smile appeared as they saw Spock.

“Spock…” they said.

“T’hy’la,” said Spock, his voice threatening to break.

“Is the ship…alright?” asked (Y/N).

Spock let out a breath. (Y/N) was of course focusing on others. Even as they— “It’s out of danger.”

“And out friends?” said (Y/N), pushing the words out.

“They’re safe,” said Spock. “You saved them, T’hy’la.”

(Y/N) smiled. “You did…too. You didn’t…give in to Khan.”

“It is what you would have done,” said Spock quietly, gently. There were so many words in his heart.

(Y/N) let out a soft chuckle. “And I…This is what you would have done.” They smiled. “Sacrificing yourself to save everyone else.”

Spock tried to take a measured breath, but the hitch in his breath was audible as he suppressed his desire to sob. His brow creased as he desperately stared at his love through the door.

“Don’t worry…Spock,” said (Y/N). “I’m not…scared. I am a little, but…I’m happy. I saved the ship. I saved our friends. I saved you. I’m happy.”

“I…I am not,” said Spock, gazing at them with all the love and grief in the world.

“I know,” said (Y/N), their own eyes filling with sadness. “I’m sorry…I never wanted to hurt you. I wanted to come back to you.” They swallowed. “I broke my promise. I’m sorry.”

Spock gazed at them as grief burned tears into his eyes and anger burned a hole in his heart. He now understood (Y/N)’s feelings at the volcano—to see someone you love sacrifice themself hurt more than words could express.

“T’hy’la…” said Spock, unable to voice all the thoughts in his head.

“I know, Spock,” said (Y/N). They saw all of his feelings in his eyes. “I know.” They lifted their hand and pressed it to the door in a Vulcan salute. “I love you, Spock. I love you.” The last memories they wanted him to have was knowing that he was loved.

“I love you, too,” said Spock, honesty spilling from him as his voice spoke with heavy emotion. “I love you, T’hy’la.” He put his hand over theirs, but the door kept them from touching. A tear fell down his cheek as he gazed at (Y/N) and they smiled softly back, trying to remain strong.

And then, their eyes fluttered. (Y/N) tried to take another breath, but exhaustion and radiation had found their homes too deep in them. Their eyelids refused to open again, and their head fell against the door.

At least if those were the last words they heard, they’d be content.

“T’hy’la,” said Spock. “T’hy’la, keep your eyes open. Stay with me…Please…” His voice croaked with his grief.

(Y/N)’s hand fell from the door. They lay unmoving. (Y/N) was dead.

Scotty swallowed as tears began to fall from his cheek, and Kirk looked down, grieving already. Spock stared at (Y/N)’s body as his heart died with them. They were gone. His t’hy’la was gone. Grief was the only emotion he could feel.

No. Anger was there, too.

(Y/N) wouldn’t be gone if Khan hadn’t appeared, if he hadn’t hurt them all. Khan had caused (Y/N)’s death. If he wasn’t there, (Y/N) would still be alive. They’d be in Spock’s arms.

Rage coursed through his veins, and Spock’s Vulcan stoicism broke. Fury poured out of him a scream of pure rage.

“Khan!”

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talonabraxas · 3 months

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🔹The Sirians🔹 Talon Abraxas

Uncovering Your Cosmic Origins: Traits, Gifts & Soul Mission of Sirian Starseeds on Earth

The Sirius Star System: Home of Sirian Starseeds

Sirius binary star system located approximately 8.7 light years from Earth in the Canis Major constellation. Comprises Sirius A, the brightest star visible in the night sky, and a smaller white dwarf Sirius B orbiting Sirius A. Sirius B was once a larger, brighter star than Sirius A in the distant past before evolving into a white dwarf.

Sirius is known by many names in ancient Earth cultures including “Dog Star” and “Nile Star.” Egyptians based the calendar on Sirius helical rising coinciding with the Nile annual flooding. Marked winter season for Polynesians and chronicled in ancient Vedic scriptures.

Sirius A believed inhabited by highly advanced spiritual beings focused on overseeing the ascension of the Sirius system itself. Sirius B original home of Sirian starseeds before the system underwent cosmic evolution. Sirians from advanced water planets were forced to evacuate when Sirius B transformed from a gaseous state into a white dwarf star. Although the home world forever changed, spiritual wisdom and technologies survived to pass down ensuing generations.

The Soul Mission of Sirian Starseeds on Earth

What drives Sirians to voluntarily incarnate on Earth again and again even when the planet is still so chaotic and dense? Each starseed has an overarching mission guiding its incarnations, though the specifics will vary. Here are some of the core objectives behind the Sirian Starseed soul contracts:

Activate higher dimensional portals and light grids on Earth’s power points and sacred sites. Sirians are encoded with advanced sacred geometrical information and wisdom from Atlantis which can energize and stabilize the crystalline grid now rising.

Anchor light and frequency through their energy field and presence. By simply existing in a high vibration of love, gratitude, and inner peace, they raise the resonance of their environment and touch all souls they contact.

Awaken humanity to its true origins, unlimited potential, and purpose for being here now. Sirians remind us of our divine nature and push us to expand our limited beliefs.

Prepare humanity for open contact with the galactic community of benevolent interstellar civilizations. Sirians educate people on ETs and bridge the gap between human and cosmic perspectives.

Teach advanced technology and innovation to be responsibly integrated for the planet’s greater good. As technically skilled as they are spiritually adept, Sirians guide how humanity can evolve through technology without misusing it.

Be spiritual teachers, healers, and leaders who reveal higher truths and inspire people to live in harmony, peace, and unity. Their wisdom and grace touch people’s hearts.

Protect and speak up for the vulnerable, oppressed, excluded, or environment. Sirians act from a place of selfless compassion that honors all life.

Help shift humanity out of duality consciousness, fear-based programming, and rigid belief systems by embodying Unconditional Love and unity consciousness.

As multidimensional light beings, Sirians work on many levels and domains to uplift humanity’s understanding and play a pivotal role at this incredible time in our planet’s ascension process.

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seas-storyarchive · 10 months

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Crazy au

Back when Danny and Jazz were little, Alicia's farm burns down, a forest fire that spread to her farm during the night - she got out okay. Her pride wasn't really as alright.

She moves in with Jack and Maddie, basically becoming nanny to Jazz and Danny. Look, it took her a bit to adjust. Taking care of kids, and her sister and her brother-in-law (Jack). Like, she just doesn't leave but the family is fine with it because it's family.

Breakfast, lunch and family dinners are mandatory. Alicia has shut off the power grid more than once, it's going into the high double digits, sometimes multiple times in the same day. Who let her be in charge of the house? She just took over so the kids had stability with their parents working and so Jack and Maddie didn't have to worry about their kids running wild.

Alicia put up a sturdy fence around the small yard of Fenton Works and turned some of it into a patch of garden to have tomatoes, potatoes and other plants (some on hooks, some in a greenhouse that no one put up a fuss about her having). Danny in particular, back then and to present day, helps his aunt in the garden. Jazz was more of the "wash the veggies" type of kid so that was fine

Gives the kids extra money with a wink ("hey, $20 extra for you to go pick me up some small," Jack/Maddie leaves the room "cheap chocolate, you keep the change.")

the years pass, and Jazz and Danny listen to Alicia moreso than their parents because it's always been that way - they still love and listen to their parents, don't worry, it's mainly when the parents are working

Jazz knows her home situation isn't normal, but loves and appreciates her aunt for the stability she's attempted to give her

Danny loves his aunt, she's the best! She's helped him fix his room over the years to match his interests and recently she gave him space wall-clings for his room (guys, is it manly to hang space themed wall clings on your walls? no? oh well, onto the wall it goes)

Alicia singlehandedly prevents the whole Phantom situation - Danny is given the options: be grounded for (attempting, at the time) taking people down there without hazmat suits and breaching the containment zone for doing that, or take his friends to the movies with some extra cash and curfew being extended 15 minutes (for Jazz too)

they guys all just hang out at the mall instead

Alicia likes Tucker the most out of Danny's friends. She has had many a problem with Sam - from her snide comments about her wearing overalls all the time, to her pitching a fit the first times she ate dinner there because she didn't know Sam was an ultra-recyclo-vegetarian but doesn't ban Danny from hanging out with her because aside from the comments made by a 14 year old being annoying, she's harmless and she'll grow out of it, right? Tucker's parents are at first confused when they meet Alicia ("wasn't she the aunt?" "I'm sure it's nothing too strange.") but they adjust to her and they like her company. Sam's parents HATE her (mutual, honestly)

and then Alicia met Vlad. It's a strange meeting between the two, with them being awkward around each other

but the meetings kept happening, and the Fentons began to see Vlad take an interest in Alicia - maybe he'd truly given up on chasing Maddie?? - and then it started to be reciprocated by Alicia after a bit

So yeah, Alicia/Vlad becomes a long-distance thing for a while with them going to visit each other (Alicia coming back with gifts for the family - Vlad bringing some too when he visits)

#dp au #danny phantom #dp #alicia/vlad au

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riacte · 2 years

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I think one of Aqua29's (H, Dave, False, Cub) best qualities is that they were an extremely forgiving and consistent team

(I know the MCC just happened, but my brain is going crazy right now and all the details are flying past my head but I hope you'll get the general idea.)

MCC's nature is that it is unpredictable. That's what makes it fun! The chickens, the weird lag (sometimes 💀), luck, sudden clutches, etc etc. But this unpredictability can sometimes mess up teams on a really good trajectory. One "bad" or "unwanted" game would kill a team's morale- I've seen that before.

In the midst of the MCC chaos, Aqua29 is very solid. They were steadily climbing up the ranks and kept their morale high. Even when they won one round of Dodgebolt, they convinced themselves to act like they "were losing". I forgot the English word for it but their mental states / attitudes were very consistent throughout the entire MCC. This helps them power through the unpredictability. Especially for MCC29, which is a well-balanced MCC and pretty difficult to predict (and the stats don't do False and Cub justice in this particular situation).

As I said before, Aqua29 is very forgiving. This allows them space to make mistakes and to bounce back. Dave felt pretty guilty over dying to speedbridging in Sky Battle and said he really usually doesn't do that, and while the loss of the team's best PvPer might be fatal in some other situations, Aqua honestly did fine. Their morale wasn't affected.

In Rocket Spleef Rush, sometimes a teammate would die "early", leaving two teammates behind, and it felt like they took turns dying early, which showed how balanced they were. Same with TGTTOS. Sometimes an individual teammate might get unlucky in a round of TGTTOS, but overall they all worked hard, and they could pull it back.

Battle Box would be another good example, in which they lost the first two rounds, adjusted their strategy, and then did better. Dave also apologised for missing the comms during the round against Purple, but like SkB, they progressed normally.

In Grid Runners, sometimes they placed bottom half in some rooms, but they steadily improved and cleared them faster- ending up in the last room in which H bossed everyone around and they got through it the quickest. There is a narrative: they learned from earlier "mistakes", had the room to afford making mistakes, and improved. Therefore, they rose up.

And Dodgebolt. Dodgebolt! All four of them are good at it. Of course, we have HBomb, king of Dodgebolt. Then Dave, confident PvPer. The two hermits, both great shots, have grown more confident in their skills. They all trusted themselves to the point they didn't need H to nudge the arrow in their direction- they just picked up the arrow if they felt like it. Cub did that, and he got his kills. Even if half of the team was taken out, or heck, even if it was a 1v3, they had enough skill to power through. All four of them were in good shape, felt great, and meshed well together.

In a way, Aqua29 are each other's safety nets. No one got top 10. Their placements were: 12th, 13th, 20th, 21st. Which honestly wasn't too far from each other. You won't really expect a team with those individual rankings to get second in coins, but they did. Even if False ended up losing the 1v3, her valiant efforts would motivate the team even more and I'm sure they would've won (even though a Cyan reverse sweep would be cool).

And it's this kind of stability and mutual support that powered them through MCC. They didn't get the finale they wanted (Survival Games), that was out of their control, but they squeezed themselves into Dodgebolt anyway. I won't deny that they were lucky- MCC is unpredictable, so luck is often a factor, but I feel they could weather a storm.

Aqua29 is a nice team to watch live. They always bring it back, and I'm not just talking about placements or coins, it's also their morale. This team is going up with Blue9 and Purple15 as one of the competitive hermit teams with best overall team synergy. They were very stable and encouraging of each other <3

#mcc #mcc29 #aqua29 #krtzyy #hbomb94 #cubfan135 #falsesymmetry #ria.txt #long post

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velocijupiter · 1 month

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Kintype Anatomical Diagram - 2024 Revamp!

Thought the old schematic was outdated enough, so here's a new one! Probably not realistically feasible in some parts, so take it more as a fun creative exercise :] More systems have been laid out due to a different style for showing everything.

Text transcript under the cut:

Jupiter DromaeOS - Rough Schematic

Height - 6'1/2" / 198cm

Tail Length - 4'8" / 142cm

Weight - 215lb / 97.5kg

Composition is largely of carbon, with smaller amounts of silicon, gold, iron, water, and other trace elements.

Skeletal System

Compacted carbon for support and structural integrity

Braced in certain areas

Ribs divided to allow movement of storage compartments

Electric System

Provides energy for most bodily functions

A. Power Supply Unit - Allows charging from an external energy grid. Requires power cable

B. Solar Panels - Carbon-perovskite photovoltaics for use when away from an energy grid. Usually hidden under feathers

C. Battery - Lithium-sulfur solid state battery that provides ~48 hours of waketime when fully charged

D. Solid State Drive - Extra storage capacity for important memories and information

E. Graphics Processing Unit - Renders AR and holo-displays, as well as internal simulations and dreams

Circulatory System

Circulates around the body a kind of “blood” made of nanites and liquid coolant. Waste heat ejected through fans on the back of the body

F. Nanite Hub - Pumps nanite blood throughout the body. Also houses a nanite fabricator and programmer

Nervous System

Houses most processing power, tactile sense, and consciousness. Comprised of artificial neurons that require a constant supply of electricity

G. Central Processing Unit - Standard issue synthetic humanoid brain. Structure indicates a nontrivial level of neurodivergence

Digestive System

Processes traditional food and certain kinds of inorganic matter. Essential for self-repair and can have a positive effect on mental state

H. Crusher - For chewing both organic and inorganic matter. Soundproofed by skeletal structure in snout

I. Pseudostomach - Dissolves consumed material with nanites rather than acid

J. Graphene Production Chambers - Produces graphene for use in repairs via flash joule heating. Leftover material deposited in lowest storage compartments for use as printer feedstock

Storage Compartments

Built-in drawers for storing goods and materials. Can be refrigerated via circulatory system

Sensory and Communication Devices

K. Microphones - Ear equivalent, input volume can be adjusted or muted

L. Speaker - Vocal output device, can produce a wide array of sounds and can be modulated

M. Eyes - Light passes through display screens used for visual communication

N. AR lens - Projects private-use visual overlays

O. Retinas - Collects modified light signal and sends to CPU and GPU

P. Wireless Internet Receiver - Fully-controlled access to decentralized internet. Uses secondary displays rather than direct input into CPU

Q. Nostrils & Tongue - Detect presence of chemicals in air and food, output converted into signals directed towards CPU

Rockets

Provide mobility within aerospace

R. Microthrusters - Small ion thrusters for stabilization in microgravity

S. Liquid Fuel/Oxidizer Storage - Frozen when not in use to reduce balance issues

T. Pumps - Carry fuel and oxidizer into combustion chamber

U. Combustion Chamber - Mixes and burns fuel and oxidizer

V. Nozzle - Rocket exhaust exits through soles to create thrust

#furry art #furry sfw #clean furry #anthro #worldbuilding #original character #my oc art #kintype #oc: jupiter #raptor #dromaeosaur #robot oc #robot dinosaur #diagram #small art blog #small artist

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sw5w · 7 months

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Nikto Mechanics

STAR WARS EPISODE I: The Phantom Menace - Deleted Scene: Complete Podrace Grid Sequence 04:46

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nepalenergyforum · 11 months

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Nepal's Lithium Ion Battery Revolution: A Clean and Sustainable Path Forward

Nepal, a nation known for its stunning natural beauty, rich culture, and resilient people, is also a country that faces a unique set of energy challenges. With a significant portion of its population residing in remote and hilly regions, ensuring reliable and sustainable energy sources is a pressing concern. Traditionally, lead-acid batteries have been the go-to choice for energy storage in…

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#eco-friendly #efficient energy storage solutions #energy storage systems #EV #Grid Stability #lead-acid batteries #lithium-ion batteries #off-grid solar power systems #renewable energy

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electronalytics · 1 year

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Induction Generators Market Overview and Regional Outlook Study 2017 – 2032

Market Overview:

The induction generators market refers to the industry involved in the production, distribution, and sales of induction generators. Induction generators are a type of electrical generator that operates based on the principle of electromagnetic induction. They are commonly used in various applications, including wind turbines, hydroelectric power plants, and standalone power systems.

Induction Generators Market is projected to be worth USD 44.8 billion by 2032, registering a CAGR of 9.50% during the forecast period (2023-2032)

Here are some key points about the induction generators market:

Growing Renewable Energy Sector: The increasing focus on renewable energy sources, such as wind and hydro power, has driven the demand for induction generators. These generators are widely used in wind turbines to convert the kinetic energy of the wind into electrical energy.

High Efficiency and Reliability: Induction generators are known for their high efficiency and reliability. They have simple construction, require minimal maintenance, and offer good performance in various operating conditions. These factors contribute to their popularity in power generation applications.

Varied Power Output Range: Induction generators are available in a wide range of power outputs, ranging from a few kilowatts to several megawatts. This flexibility makes them suitable for both small-scale and large-scale power generation projects.

Technological Advancements: Ongoing technological advancements have led to the development of more efficient and advanced induction generators. These advancements aim to enhance power generation efficiency, reduce costs, and improve overall performance.

Environmental Considerations: With increasing concerns about climate change and the need to reduce greenhouse gas emissions, the adoption of renewable energy sources like wind and hydro power is gaining momentum. Induction generators play a significant role in supporting this transition by providing clean and sustainable power generation solutions.

Government Policies and Incentives: Government initiatives, regulations, and incentives supporting renewable energy projects can significantly impact the induction generators market. Subsidies, feed-in tariffs, and tax benefits provided by governments encourage the adoption of renewable energy technologies, thereby driving the demand for induction generators.

Future Outlook: The induction generators market is expected to witness continued growth in the coming years due to the increasing demand for renewable energy and the transition towards a low-carbon economy. Technological advancements, cost reductions, and supportive government policies are likely to further boost market expansion.

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Global Induction Generators Market: By Company • ABB • GE • Brush HMA • Techtop • Victron Energy • SycoTec • Sicme Motori • Robert Bosch • TRUMPF • VEM Group Global Induction Generators Market: By Type • High Voltage Induction Generators • Medium Voltage Induction Generators • Low Voltage Induction Generators Global Induction Generators Market: By Application • Wind Turbines • Micro Hydro Installations • Other Global Induction Generators Market: Regional Analysis All the regional segmentation has been studied based on recent and future trends, and the market is forecasted throughout the prediction period. The countries covered in the regional analysis of the Global Induction Generators market report are U.S., Canada, and Mexico in North America, Germany, France, U.K., Russia, Italy, Spain, Turkey, Netherlands, Switzerland, Belgium, and Rest of Europe in Europe, Singapore, Malaysia, Australia, Thailand, Indonesia, Philippines, China, Japan, India, South Korea, Rest of Asia-Pacific (APAC) in the Asia-Pacific (APAC), Saudi Arabia, U.A.E, South Africa, Egypt, Israel, Rest of Middle East and Africa (MEA) as a part of Middle East and Africa (MEA), and Argentina, Brazil, and Rest of South America as part of South America.

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