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What goes into building a high-performance solar panel? It starts with ultra-clear solar glass engineered to maximize light transmission and protect every cell beneath it. Before production even begins, each sheet is automatically inspected and flex-tested to ensure durability on the line and in the field. This is Stage... show more

T1 Energy

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Gigascale Founder and former Meta CTO Mike Schroepfer says new solar startups will go after installation costs rather than compete with China on solar panels. "If you look at a solar farm, you lay down all this steel and put up all this framing for the panels. When that panel was the most expensive thing on the field, then [startups producing solar panels] made sense." "But solar panels are now the cheapest thing in the field. All the rest of the stuff costs more than the panel." "I think what we're going to see is startups saying, 'Let's rethink how we actually deploy solar from a form-factor and automation perspective. And just go after installation costs.'"

Gigascale Founder and former Meta CTO Mike Schroepfer says new solar startups will go after installation costs rather than compete with China on solar panels. "If you look at a solar farm, you lay down all this steel and put up all this framing for the panels. When that panel was the most expensive thing on the field, then [startups producing solar panels] made sense." "But solar panels are now the cheapest thing in the field. All the rest of the stuff costs more than the panel." "I think what we're going to see is startups saying, 'Let's rethink how we actually deploy solar from a form-factor and automation perspective. And just go after installation costs.'"

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American Home Contractors

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Solar power today costs 50% more than it did around 2020, even though solar panels themselves keep getting cheaper. John points out that people often confuse the cost of panels with the cost of power. "A solar panel doesn't get you what you want. You want electrons at the location that load is at." But delivering electricity requires land, labor, transmission, and capital, all of which are inflationary.

Solar power today costs 50% more than it did around 2020, even though solar panels themselves keep getting cheaper. John points out that people often confuse the cost of panels with the cost of power. "A solar panel doesn't get you what you want. You want electrons at the location that load is at." But delivering electricity requires land, labor, transmission, and capital, all of which are inflationary.

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Elon Musk: Eventually, 90%+ of all power on Earth will be solar panels with batteries. “Satellites are just solar panels and a battery. That's how all satellites work. And with the Starlink satellite network, there's 7,000 satellites orbiting the Earth, and all they use is solar panels and a battery. And my prediction is, long term, a majority of power on Earth, in fact, eventually it might be like 90% or more of all power on Earth will be solar panels with batteries. That's my prediction.” Tesla All-Hands, March 20, 2025

Elon Musk: Eventually, 90%+ of all power on Earth will be solar panels with batteries. “Satellites are just solar panels and a battery. That's how all satellites work. And with the Starlink satellite network, there's 7,000 satellites orbiting the Earth, and all they use is solar panels and a battery. And my prediction is, long term, a majority of power on Earth, in fact, eventually it might be like 90% or more of all power on Earth will be solar panels with batteries. That's my prediction.” Tesla All-Hands, March 20, 2025

ELON CLIPS

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I'd never have known this was a solar panel built into these headphones! Powerfoyle is changing the game when it comes to supplying solar tech and integrating it into any product imaginable! #CES2025 CES

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And there it is…. A “Solar Flare” Caused the Nationwide Communications Outage “We’re entering into a solar maximum, where we are going to see MORE solar storms, solar flares…” This is complete and utter horseshit… They are laying the groundwork, the narrative, for now two possible “Black Swan” events.. 1. A Major Solar Flare (Carrington event) 2. Cyber Pandemic

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MJTruthUltra

5,758,633 Aufrufe • vor 2 Jahren

A solar panel's lifespan is just 15 to 20 years. After that, efficiency drops and it needs replacing. Each panel is built from glass, aluminum, silicone, silver, copper and polymers. While glass and aluminum can be recycled, the silicone, silver and polymers (the most mining/energy-intensive components) are rarely recovered due to the cost and difficulty involved. Because of this, the panels simply end up in landfills. By 2050, solar panel waste is estimated to hit 78 million tons, according to the International Renewable Energy Agency. This is the dirty secret of 'clean' energy: short lifespan, heavy mining, and a growing toxic waste crisis.

A solar panel's lifespan is just 15 to 20 years. After that, efficiency drops and it needs replacing. Each panel is built from glass, aluminum, silicone, silver, copper and polymers. While glass and aluminum can be recycled, the silicone, silver and polymers (the most mining/energy-intensive components) are rarely recovered due to the cost and difficulty involved. Because of this, the panels simply end up in landfills. By 2050, solar panel waste is estimated to hit 78 million tons, according to the International Renewable Energy Agency. This is the dirty secret of 'clean' energy: short lifespan, heavy mining, and a growing toxic waste crisis.

Electroverse

58,030 Aufrufe • vor 5 Monaten

A solar panel's lifespan is just 15 to 20 years. After that, efficiency drops and it needs replacing. Each panel is built from glass, aluminum, silicone, silver, copper and polymers. While glass and aluminum can be recycled, the silicone, silver and polymers (the most mining/energy-intensive components) are rarely recovered due to the cost and difficulty involved. Because of this, the panels simply end up in landfills. By 2050, solar panel waste is estimated to hit 78 million tons, according to International Renewable Energy Agency. This is the dirty secret of clean energy: short lifespan, heavy mining and a growing toxic waste crisis.

A solar panel's lifespan is just 15 to 20 years. After that, efficiency drops and it needs replacing. Each panel is built from glass, aluminum, silicone, silver, copper and polymers. While glass and aluminum can be recycled, the silicone, silver and polymers (the most mining/energy-intensive components) are rarely recovered due to the cost and difficulty involved. Because of this, the panels simply end up in landfills. By 2050, solar panel waste is estimated to hit 78 million tons, according to International Renewable Energy Agency. This is the dirty secret of clean energy: short lifespan, heavy mining and a growing toxic waste crisis.

Electroverse

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To replace global fossil fuel consumption with solar would take 274 billion panels. The energy to mine, manufacture and install those panels translates to 96 billion barrels of oil, 374 trillion cubic feet of natural gas and 23 billion tons of coal. Then there's the fact that solar panels last only 15 to 20 years before needing replacing, meaning the cycle of mining, smelting and building repeats every generation. Even if 274 billion panels were built and installed, solar doesn't deliver 24-7 power. Massive backup systems, batteries, gas plants or other infrastructure would still be required, demanding billions more tons of material. You can't mine and manufacture your way out of the second law of thermodynamics. Solar is not a one-time build. It's an industrial treadmill: endless mining, endless rebuilding, endless waste -- all to chase an illusion of replacing the dense, affordable and reliable energy we already have.

To replace global fossil fuel consumption with solar would take 274 billion panels. The energy to mine, manufacture and install those panels translates to 96 billion barrels of oil, 374 trillion cubic feet of natural gas and 23 billion tons of coal. Then there's the fact that solar panels last only 15 to 20 years before needing replacing, meaning the cycle of mining, smelting and building repeats every generation. Even if 274 billion panels were built and installed, solar doesn't deliver 24-7 power. Massive backup systems, batteries, gas plants or other infrastructure would still be required, demanding billions more tons of material. You can't mine and manufacture your way out of the second law of thermodynamics. Solar is not a one-time build. It's an industrial treadmill: endless mining, endless rebuilding, endless waste -- all to chase an illusion of replacing the dense, affordable and reliable energy we already have.

Electroverse

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Five layers. Seventeen minutes. One structure built to last for decades. This is Stage 4: Lamination. Heat, vacuum pressure, and precision engineering transform glass, EVA, and solar cells into a fully sealed solar module ready for the next phase of production. This is where individual components become energy infrastructure.

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sourcery

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Elon Musk predicts that more than 90% of Earth's power will eventually come from solar with batteries "Satellites are just solar panels and a battery. That’s how all satellites work. With the Starlink satellite network, there’s 7,000 (now ~10K) satellites orbiting the Earth, and all they use is solar panels and a battery My prediction is, long-term, a majority of power on Earth - in fact, eventually it might be like 90% or more- will be solar panels with batteries That's my prediction. My predictions have a pretty good track record" Starlink already proves it works at massive scale in space

Elon Musk predicts that more than 90% of Earth's power will eventually come from solar with batteries "Satellites are just solar panels and a battery. That’s how all satellites work. With the Starlink satellite network, there’s 7,000 (now ~10K) satellites orbiting the Earth, and all they use is solar panels and a battery My prediction is, long-term, a majority of power on Earth - in fact, eventually it might be like 90% or more- will be solar panels with batteries That's my prediction. My predictions have a pretty good track record" Starlink already proves it works at massive scale in space

X Freeze

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CHINA IS TURNING MOUNTAINS INTO SOLAR FARMS - WITH DRONES In a flex of scale and tech, China’s using drones to blanket remote hillsides with millions of solar panels - like a real-life game of renewable Minecraft. The project shown here is likely in Shanxi, part of a nationwide push to turn rugged terrain into clean energy engines. No country installs - or produces - more solar than China. And they’re not slowing down. Source: daily_learningfacts

CHINA IS TURNING MOUNTAINS INTO SOLAR FARMS - WITH DRONES In a flex of scale and tech, China’s using drones to blanket remote hillsides with millions of solar panels - like a real-life game of renewable Minecraft. The project shown here is likely in Shanxi, part of a nationwide push to turn rugged terrain into clean energy engines. No country installs - or produces - more solar than China. And they’re not slowing down. Source: daily_learningfacts

Mario Nawfal

832,476 Aufrufe • vor 1 Jahr

Why did Leopold Aschenbrenner’s fund initiate a new ~$44M position in $TE last quarter? T1 Energy is trying to become a scaled U.S. solar manufacturing platform and already has a 5 GW solar module facility in Dallas called G1 but the bigger opportunity is its planned solar cell facility in Austin called G2. If G2 comes online then T1 could move into domestic cell production right as AI data centers, reshoring and grid demand are pulling on U.S. power supply.

Why did Leopold Aschenbrenner’s fund initiate a new ~$44M position in $TE last quarter? T1 Energy is trying to become a scaled U.S. solar manufacturing platform and already has a 5 GW solar module facility in Dallas called G1 but the bigger opportunity is its planned solar cell facility in Austin called G2. If G2 comes online then T1 could move into domestic cell production right as AI data centers, reshoring and grid demand are pulling on U.S. power supply.

Shay Boloor

791,867 Aufrufe • vor 3 Monaten

Is solar Activity linked to comets? Sure seems so after the last month of activity (plus many past examples). If you really examine this composite animation I created, it becomes clear how the biggest solar flares and CMEs aligned either with 3I/ATLAS, A6 Lemmon, or T1 ATLAS.

Is solar Activity linked to comets? Sure seems so after the last month of activity (plus many past examples). If you really examine this composite animation I created, it becomes clear how the biggest solar flares and CMEs aligned either with 3I/ATLAS, A6 Lemmon, or T1 ATLAS.

Stefan Burns

30,266 Aufrufe • vor 9 Monaten

The Kampala Entebbe Expressway is now illuminated, with the Northern Bypass set to follow suit. Given its cost-effectiveness and low maintenance, some may wonder why solar lighting wasn't utilized. The first challenge is solar energy, which faces intermittent generation and varying sun hours in different regions. In Kampala, the average sun hours generating light is 3.5 to 4 lux, compared to 6 in Northern Uganda. Seasonal variations further impact consistency, making maintaining the recommended 40-70 lux lighting for expressways throughout the night challenging. This inconsistency poses safety concerns on high-speed roads. Second challenge Vandalism is another issue, as batteries used in solar lighting can be targeted for resale at 12Volts /24Volts. Despite efforts to deter vandalism, the challenge persists. Telecom towers, which also use solar, avoid this issue due to continuous monitoring, which can't be done for a road with 180 lights and less marketable 48Volt inverters. These things are hard to sell. The final Challenge is maintenance and durability. Uganda is a country of pollen, dust and grime. Regular checks on battery efficiency, cleaning of solar panels, and monitoring darkness sensors are essential in our dusty environment. Standard lighting may be simpler to maintain, focusing mainly on the bulb. While solar may be unavoidable in remote and hard-to-reach areas, the initial installation cost, inconsistent light output and maintenance challenges currently make grid power a more practical choice. While there have been successful solar implementations on a global scale, the widespread adoption of solar technology is still in its nascent stages. Notable examples include the A14 in England, where a section incorporates solar lighting, a 24km expressway in Chile that utilizes solar panels, and a segment of Interstate 10 in Arizona dedicated to illuminating wildlife crossings using solar power. These cases illustrate promising strides in integrating solar solutions, yet comprehensive deployment is yet to reach maturity. The transition to renewable energy is seen as inevitable, but for now, standard roads are better suited for solar lighting with manageable lux and duration requirements, e.g. Kira Matugga KCCA roads.

The Kampala Entebbe Expressway is now illuminated, with the Northern Bypass set to follow suit. Given its cost-effectiveness and low maintenance, some may wonder why solar lighting wasn't utilized. The first challenge is solar energy, which faces intermittent generation and varying sun hours in different regions. In Kampala, the average sun hours generating light is 3.5 to 4 lux, compared to 6 in Northern Uganda. Seasonal variations further impact consistency, making maintaining the recommended 40-70 lux lighting for expressways throughout the night challenging. This inconsistency poses safety concerns on high-speed roads. Second challenge Vandalism is another issue, as batteries used in solar lighting can be targeted for resale at 12Volts /24Volts. Despite efforts to deter vandalism, the challenge persists. Telecom towers, which also use solar, avoid this issue due to continuous monitoring, which can't be done for a road with 180 lights and less marketable 48Volt inverters. These things are hard to sell. The final Challenge is maintenance and durability. Uganda is a country of pollen, dust and grime. Regular checks on battery efficiency, cleaning of solar panels, and monitoring darkness sensors are essential in our dusty environment. Standard lighting may be simpler to maintain, focusing mainly on the bulb. While solar may be unavoidable in remote and hard-to-reach areas, the initial installation cost, inconsistent light output and maintenance challenges currently make grid power a more practical choice. While there have been successful solar implementations on a global scale, the widespread adoption of solar technology is still in its nascent stages. Notable examples include the A14 in England, where a section incorporates solar lighting, a 24km expressway in Chile that utilizes solar panels, and a segment of Interstate 10 in Arizona dedicated to illuminating wildlife crossings using solar power. These cases illustrate promising strides in integrating solar solutions, yet comprehensive deployment is yet to reach maturity. The transition to renewable energy is seen as inevitable, but for now, standard roads are better suited for solar lighting with manageable lux and duration requirements, e.g. Kira Matugga KCCA roads.

Kiyaga Edwin Raymond

45,808 Aufrufe • vor 2 Jahren