=== TAG === Business === HEADLINE === Meta Reserves 1 GW Of Space-Based Solar From Overview Energy === META_DESC === On April 27, 2026, Meta reserved up to 1 gigawatt of space-based solar power from Ashburn startup Overview Energy, with the first satellite launch slated for 2028 and commercial delivery to its AI data centers beginning in 2030. === DATE === April 27, 2026 === AUTHOR === Jane Sterling === READ_TIME === 9-minute read === HERO_IMG === img/content.png === SCRIPT_LABEL === Video Script (9 min, clean transcript for captioning) === SCRIPT === On April 27, 2026, Meta announced a deal that sounds like it walked straight out of a science fiction novel. The company is reserving up to one full gigawatt of solar power. Not from a desert farm in Arizona. Not from a rooftop in Texas. From SPACE. Beamed down. At night. To existing solar farms on the ground. Meta's partner is a startup you have probably never heard of. Overview Energy, based in Ashburn, Virginia. Founded in 2022 by an engineer named Marc Berte. The company emerged from stealth in December 2025 with about 20 million dollars in seed funding from Lowercarbon Capital, Prime Movers Lab, and Engine Ventures. The kind of investor list that screams climate tech true believers, not space cowboys. And what they are proposing is wild. Overview wants to launch roughly 1,000 spacecraft into geosynchronous orbit. Each one between 500 and 600 feet across. Each one weighing 8 to 10 tons. Each one collecting sunlight continuously, then beaming the energy back down to Earth as low intensity, near infrared light. The receiving solar farms? Already built. Already grid connected. No new ground installations. No new transmission lines. The first launch is planned for January 2028 aboard SpaceX's Bandwagon-7 rideshare mission. Commercial power delivery to Meta is supposed to begin in 2030. That is a remarkably tight runway for a class of energy infrastructure that does not exist anywhere on the planet today. A startup that emerged from stealth a few months ago, with 20 million dollars in seed money, just signed a capacity reservation with one of the largest hyperscalers on Earth for a technology that has no commercial precedent. The financial terms were not disclosed. Meta has not confirmed money has changed hands. Let us talk about why Meta is doing this. Meta's 2024 data centers consumed more than 18,000 gigawatt hours of electricity. That is roughly equivalent to powering 1.7 million American homes for an entire year. And 2024 was before the AI buildout really took off. The company has now contracted over 30 gigawatts of clean and renewable energy, including 7.7 gigawatts of nuclear power from agreements with Vistra, TerraPower, Oklo, and Constellation. They are running out of options on Earth. Meta is not alone in this scramble. Microsoft, Google, and Amazon are all racing to lock up multi gigawatt power contracts for their own AI data centers. Their preferred conventional answer so far has been nuclear small modular reactors, the same class of technology Meta already bought into with its 7.7 gigawatt nuclear portfolio. But small modular reactors are expensive, slow to permit, and politically charged. Space solar, if it works, sidesteps every one of those constraints. It does not need a town hall hearing. It does not need a new transmission line. So how does space solar actually work? In geosynchronous orbit, the sun never sets on a satellite the way it sets on a solar panel in Nevada. There is no atmosphere blocking the light. There are no clouds. There is no night. According to Overview's own numbers, that gives you about a 30 percent power boost just from the lack of atmospheric loss. And because the satellite stays in sunlight nearly continuously, the total energy yield runs roughly 5 times what a terrestrial solar array of the same area would produce. The transmission part is where it gets clever. Overview is not trying to build new ground stations. Instead, the satellite focuses sunlight into a near infrared beam and aims it directly at an existing solar farm. The receiving farm only needs to be at least 100 megawatts in scale. The conversion efficiency for that near infrared light is around 50 percent. That is more than double the roughly 20 percent efficiency that the same panels achieve from regular sunlight. So a daytime solar farm becomes a round the clock facility, simply by pointing a beam at it from above. Berte put the economic pitch this way. Quote, it is 5 o'clock somewhere. You are profitable at 100 bucks a megawatt hour somewhere, instantaneously. End quote. Solar farms today only earn money when the sun is up over their patch of dirt. Beam them light from orbit, and they earn money around the clock. Overview is targeting a delivered cost of 60 to 100 dollars per megawatt hour by 2035. That price target sits in a credible window. Above the cheapest gas, wind, and ground based solar options, but well below nuclear small modular reactors. Available at night, when conventional solar is offline and grid prices spike. The advisory board reads like a who is who of American energy and space. Former NASA Administrators Jim Bridenstine and Mike Griffin. Former FERC Chairman Joseph Kelliher. These are not people who casually attach their names to vaporware on the way out of stealth. Meta's own statement quoted Nat Sahlstrom saying space solar technology represents a transformative step forward by leveraging existing terrestrial infrastructure to deliver new, uninterrupted energy from orbit. Berte added that space is becoming part of America's energy infrastructure, and that the approach enables hyperscalers to secure clean power with reliable siting and speed to power. Hyperscalers are not running out of money. They are running out of grid. The same day, Meta announced a separate deal with Noon Energy. Up to 1 gigawatt and 100 gigawatt hours of ultra long duration storage. With a 25 megawatt pilot expected by 2028. That kind of duration, exceeding 100 hours, is well beyond what lithium ion batteries practically deliver. Two completely different bets, signed the same day. Both pointed at the same problem. Power for AI data centers, around the clock, cleaner than gas, cheaper than nuclear. Now here is where it gets interesting. Because not everyone is buying it. The most pointed pushback came from Caroline Golin, the former global head of energy at Google. She framed deals like this as hyperscalers hedging away from the political work of decarbonizing terrestrial power. Quote, I think the real motivation is less about harnessing the sun's power and avoiding the power crunch on Earth and more about getting out of the politics of completely transitioning this economy. End quote. That is a serious accusation from someone who used to do this exact job at one of Meta's biggest competitors. The argument is that Meta is not actually solving the climate problem. Meta is escaping it. Beaming power from orbit lets a hyperscaler claim clean energy without doing the hard work of building out wind and solar capacity in the actual electricity markets where they operate. It is a kind of sovereign energy. Above politics. Above zoning. Above grid queues. Golin also raised a second concern that almost nobody is talking about. The materials. Quote, I would argue that the one thing we aren't really talking about is the materials that would be needed to do that and how you're going to extract and refine and process those materials. That, to me, is the sleeping Achilles heel. End quote. A fleet of 1,000 spacecraft, each weighing 8 to 10 tons, with operational lifespans of at least 10 years, requires a supply chain that does not yet exist at anything close to the scale Overview is describing. There is also the question of whether the technology actually works at commercial scale. No commercial space solar system exists anywhere in the world today. Caltech's Space Solar Power Project, backed by Northrop Grumman, already demonstrated wireless power beaming from orbit in 2023 via its MAPLE experiment, making Overview the first commercial entrant in a field that has been mostly academic and defense industry until now. The 2030 commercial delivery date is an extremely aggressive timeline for a class of system the IPCC currently excludes from net zero pathways on cost and feasibility grounds. Going from a stealth announcement in late 2025 to a working low Earth orbit demonstration in January 2028 is roughly two years. Going from that demonstration to commercial gigawatt scale delivery in 2030 is another two years on top. That is the entire roadmap, from a 20 million dollar seed round to powering one of the largest data center operators on the planet, in less time than it typically takes to permit and finish building a single new natural gas plant. Then there is the simplest competitor. Batteries. Lithium ion prices have collapsed over the last decade and are still falling. Long duration storage rivals like Noon Energy, which Meta also signed on April 27, and Form Energy compete for the same overnight firming use case that Overview's beam at night pitch is built around. The laws of physics meet the laws of economics, and the question of whether converting electricity to near infrared and back can ever beat a battery sitting next to a solar farm remains open. So why did Meta sign anyway? Because the cost of being wrong is small and the cost of missing is enormous. A capacity reservation is not a check. It is a place in line. If Overview pulls it off, Meta has 1 gigawatt of continuous clean power before any of its rivals do. If Overview fails, Meta loses the cost of an option, not the cost of a portfolio. That is exactly the kind of asymmetric bet that makes hyperscalers sign capacity reservations they barely understand. Watch three things. First, January 2028. The launch of the first transmission satellite on Bandwagon-7. If that demonstration works, every hyperscaler on Earth will line up the next morning. Second, 2030. The first contracted delivery. If beams actually hit terrestrial farms at the promised efficiency, the entire grid economics conversation changes overnight. Third, the materials supply chain. If Overview cannot show a credible path to building 1,000 spacecraft, the whole vision collapses no matter how good the physics looks. What you just heard is the moment a single announcement quietly redefined where the next decade of clean energy might actually come from. Not a desert. Not a wind farm. Not a reactor. The sky. === SCRIPT_HTML === === ANNOTATED_LABEL === Annotated Script (with b-roll & cut cues) === ANNOTATED_HTML === [TALKING HEAD — hook]

On April 27, 2026, Meta announced a deal that sounds like it walked straight out of a science fiction novel. The company is reserving up to one full gigawatt of solar power. Not from a desert farm in Arizona. Not from a rooftop in Texas. From SPACE. Beamed down. At night. To existing solar farms on the ground.

[STAT CARD: "Up to 1 GW from space"] [CUT] [VOICEOVER — scene 1] [B-ROLL: company-logo:overview-energy]

Meta's partner is a startup you have probably never heard of. Overview Energy, based in Ashburn, Virginia. Founded in 2022 by an engineer named Marc Berte. The company emerged from stealth in December 2025 with about 20 million dollars in seed funding from Lowercarbon Capital, Prime Movers Lab, and Engine Ventures. The kind of investor list that screams climate tech true believers, not space cowboys.

[STAT CARD: "Founded 2022 in Ashburn, VA"] [STAT CARD: "Out of stealth: Dec 2025"] [STAT CARD: "$20M seed funding"] [B-ROLL: stills:satellite-render]

And what they are proposing is wild. Overview wants to launch roughly 1,000 spacecraft into geosynchronous orbit. Each one between 500 and 600 feet across. Each one weighing 8 to 10 tons. Each one collecting sunlight continuously, then beaming the energy back down to Earth as low intensity, near infrared light. The receiving solar farms? Already built. Already grid connected. No new ground installations. No new transmission lines.

[STAT CARD: "1,000 satellites planned"] [STAT CARD: "500-600 ft wingspan"] [STAT CARD: "8-10 tons each"] [B-ROLL: stills:rocket-launch]

The first launch is planned for January 2028 aboard SpaceX's Bandwagon-7 rideshare mission. Commercial power delivery to Meta is supposed to begin in 2030. That is a remarkably tight runway for a class of energy infrastructure that does not exist anywhere on the planet today.

[STAT CARD: "First launch: Jan 2028"] [STAT CARD: "Power delivery: 2030"] [B-ROLL: company-logo:meta]

A startup that emerged from stealth a few months ago, with 20 million dollars in seed money, just signed a capacity reservation with one of the largest hyperscalers on Earth for a technology that has no commercial precedent. The financial terms were not disclosed. Meta has not confirmed money has changed hands.

[B-ROLL: data-center]

Let us talk about why Meta is doing this. Meta's 2024 data centers consumed more than 18,000 gigawatt hours of electricity. That is roughly equivalent to powering 1.7 million American homes for an entire year. And 2024 was before the AI buildout really took off. The company has now contracted over 30 gigawatts of clean and renewable energy, including 7.7 gigawatts of nuclear power from agreements with Vistra, TerraPower, Oklo, and Constellation. They are running out of options on Earth.

[STAT CARD: "Meta 2024: 18,000 GWh"] [STAT CARD: "= 1.7M US homes/yr"] [STAT CARD: "7.7 GW nuclear locked in"] [B-ROLL: ai-abstract]

Meta is not alone in this scramble. Microsoft, Google, and Amazon are all racing to lock up multi gigawatt power contracts for their own AI data centers. Their preferred conventional answer so far has been nuclear small modular reactors, the same class of technology Meta already bought into with its 7.7 gigawatt nuclear portfolio. But small modular reactors are expensive, slow to permit, and politically charged. Space solar, if it works, sidesteps every one of those constraints. It does not need a town hall hearing. It does not need a new transmission line.

[/VOICEOVER] [CUT] [TALKING HEAD — transition]

So how does space solar actually work? In geosynchronous orbit, the sun never sets on a satellite the way it sets on a solar panel in Nevada. There is no atmosphere blocking the light. There are no clouds. There is no night. According to Overview's own numbers, that gives you about a 30 percent power boost just from the lack of atmospheric loss. And because the satellite stays in sunlight nearly continuously, the total energy yield runs roughly 5 times what a terrestrial solar array of the same area would produce.

[STAT CARD: "30% atmospheric boost"] [STAT CARD: "5x energy yield vs ground"] [CUT] [VOICEOVER — scene 2] [B-ROLL: stills:satellite-beam]

The transmission part is where it gets clever. Overview is not trying to build new ground stations. Instead, the satellite focuses sunlight into a near infrared beam and aims it directly at an existing solar farm. The receiving farm only needs to be at least 100 megawatts in scale. The conversion efficiency for that near infrared light is around 50 percent. That is more than double the roughly 20 percent efficiency that the same panels achieve from regular sunlight. So a daytime solar farm becomes a round the clock facility, simply by pointing a beam at it from above.

[STAT CARD: "~50% IR conversion eff."] [B-ROLL: stills:berte-portrait]

Berte put the economic pitch this way. Quote, it is 5 o'clock somewhere. You are profitable at 100 bucks a megawatt hour somewhere, instantaneously. End quote. Solar farms today only earn money when the sun is up over their patch of dirt. Beam them light from orbit, and they earn money around the clock.

[B-ROLL: finance-charts]

Overview is targeting a delivered cost of 60 to 100 dollars per megawatt hour by 2035. That price target sits in a credible window. Above the cheapest gas, wind, and ground based solar options, but well below nuclear small modular reactors. Available at night, when conventional solar is offline and grid prices spike.

[STAT CARD: "$60-100/MWh by 2035"] [B-ROLL: stills:advisory-board]

The advisory board reads like a who is who of American energy and space. Former NASA Administrators Jim Bridenstine and Mike Griffin. Former FERC Chairman Joseph Kelliher. These are not people who casually attach their names to vaporware on the way out of stealth.

[B-ROLL: company-logo:meta]

Meta's own statement quoted Nat Sahlstrom saying space solar technology represents a transformative step forward by leveraging existing terrestrial infrastructure to deliver new, uninterrupted energy from orbit. Berte added that space is becoming part of America's energy infrastructure, and that the approach enables hyperscalers to secure clean power with reliable siting and speed to power. Hyperscalers are not running out of money. They are running out of grid.

[B-ROLL: company-logo:noon-energy]

The same day, Meta announced a separate deal with Noon Energy. Up to 1 gigawatt and 100 gigawatt hours of ultra long duration storage. With a 25 megawatt pilot expected by 2028. That kind of duration, exceeding 100 hours, is well beyond what lithium ion batteries practically deliver. Two completely different bets, signed the same day. Both pointed at the same problem. Power for AI data centers, around the clock, cleaner than gas, cheaper than nuclear.

[STAT CARD: "Noon: 100 GWh storage"] [STAT CARD: "25 MW pilot by 2028"] [/VOICEOVER] [CUT] [TALKING HEAD — transition]

Now here is where it gets interesting. Because not everyone is buying it.

[CUT] [VOICEOVER — scene 3] [B-ROLL: stills:caroline-golin]

The most pointed pushback came from Caroline Golin, the former global head of energy at Google. She framed deals like this as hyperscalers hedging away from the political work of decarbonizing terrestrial power. Quote, I think the real motivation is less about harnessing the sun's power and avoiding the power crunch on Earth and more about getting out of the politics of completely transitioning this economy. End quote.

[B-ROLL: ai-abstract]

That is a serious accusation from someone who used to do this exact job at one of Meta's biggest competitors. The argument is that Meta is not actually solving the climate problem. Meta is escaping it. Beaming power from orbit lets a hyperscaler claim clean energy without doing the hard work of building out wind and solar capacity in the actual electricity markets where they operate. It is a kind of sovereign energy. Above politics. Above zoning. Above grid queues.

[B-ROLL: stills:rare-earth-mining]

Golin also raised a second concern that almost nobody is talking about. The materials. Quote, I would argue that the one thing we aren't really talking about is the materials that would be needed to do that and how you're going to extract and refine and process those materials. That, to me, is the sleeping Achilles heel. End quote. A fleet of 1,000 spacecraft, each weighing 8 to 10 tons, with operational lifespans of at least 10 years, requires a supply chain that does not yet exist at anything close to the scale Overview is describing.

[B-ROLL: stills:caltech-maple]

There is also the question of whether the technology actually works at commercial scale. No commercial space solar system exists anywhere in the world today. Caltech's Space Solar Power Project, backed by Northrop Grumman, already demonstrated wireless power beaming from orbit in 2023 via its MAPLE experiment, making Overview the first commercial entrant in a field that has been mostly academic and defense industry until now. The 2030 commercial delivery date is an extremely aggressive timeline for a class of system the IPCC currently excludes from net zero pathways on cost and feasibility grounds.

[STAT CARD: "MAPLE: 2023 demo"] [B-ROLL: stills:rocket-launch]

Going from a stealth announcement in late 2025 to a working low Earth orbit demonstration in January 2028 is roughly two years. Going from that demonstration to commercial gigawatt scale delivery in 2030 is another two years on top. That is the entire roadmap, from a 20 million dollar seed round to powering one of the largest data center operators on the planet, in less time than it typically takes to permit and finish building a single new natural gas plant.

[B-ROLL: stills:lithium-battery]

Then there is the simplest competitor. Batteries. Lithium ion prices have collapsed over the last decade and are still falling. Long duration storage rivals like Noon Energy, which Meta also signed on April 27, and Form Energy compete for the same overnight firming use case that Overview's beam at night pitch is built around. The laws of physics meet the laws of economics, and the question of whether converting electricity to near infrared and back can ever beat a battery sitting next to a solar farm remains open.

[B-ROLL: company-logo:meta]

So why did Meta sign anyway? Because the cost of being wrong is small and the cost of missing is enormous. A capacity reservation is not a check. It is a place in line. If Overview pulls it off, Meta has 1 gigawatt of continuous clean power before any of its rivals do. If Overview fails, Meta loses the cost of an option, not the cost of a portfolio. That is exactly the kind of asymmetric bet that makes hyperscalers sign capacity reservations they barely understand.

[/VOICEOVER] [CUT] [TALKING HEAD — transition]

Watch three things. First, January 2028. The launch of the first transmission satellite on Bandwagon-7. If that demonstration works, every hyperscaler on Earth will line up the next morning. Second, 2030. The first contracted delivery. If beams actually hit terrestrial farms at the promised efficiency, the entire grid economics conversation changes overnight. Third, the materials supply chain. If Overview cannot show a credible path to building 1,000 spacecraft, the whole vision collapses no matter how good the physics looks.

[CUT] [TALKING HEAD — sign-off]

What you just heard is the moment a single announcement quietly redefined where the next decade of clean energy might actually come from. Not a desert. Not a wind farm. Not a reactor. The sky.

=== ARTICLE_HTML === === YOUTUBE_DESC === Meta just signed a deal to power its AI data centers with solar energy beamed down from space. Yes, really — and the satellite fleet doesn't exist yet. Welcome to Sterling Intelligence — the daily briefing on what just changed in AI, who's making the calls, and where the next gigawatt is coming from. If you want unsentimental analysis of the AI buildout, hit subscribe. On April 27, 2026, Meta announced a first-of-its-kind capacity reservation agreement with Ashburn, Virginia startup Overview Energy, giving Meta early access to up to 1 gigawatt of space-based solar power. Overview's first power-transmission satellite is scheduled to launch in January 2028 aboard SpaceX's Bandwagon-7 rideshare mission, with commercial power delivery to Meta beginning in 2030. The financial terms were not disclosed. Overview Energy was founded in 2022 by engineer Marc Berte and emerged from stealth in December 2025 after raising roughly $20 million in seed funding from Lowercarbon Capital, Prime Movers Lab, and Engine Ventures. The plan is a fleet of about 1,000 spacecraft in geosynchronous orbit, each 500 to 600 feet across and weighing 8 to 10 tons, collecting sunlight 24/7 and beaming the energy back to existing terrestrial solar farms as low-intensity, near-infrared light — no new ground installations or grid interconnections required. Overview is targeting a delivered cost of $60 to $100 per megawatt-hour by 2035. This episode breaks down why Meta — whose 2024 data centers consumed more than 18,000 gigawatt-hours, equivalent to powering 1.7 million American homes for a year — is placing asymmetric bets on technologies with no commercial precedent. We cover the same-day Noon Energy long-duration storage deal (1 GW / 100 GWh, with a 25 MW pilot by 2028), the pointed pushback from former Google global energy head Caroline Golin, and the materials supply chain question almost nobody is talking about. Plus: what the advisory board (former NASA Administrators Jim Bridenstine and Mike Griffin, former FERC Chairman Joseph Kelliher) actually signals about Overview's seriousness, why hyperscalers are running out of grid before they run out of money, and the three concrete dates to watch over the next four years. ⏱ Chapters 00:00 - Hook: Solar power beamed from space 00:40 - Inside the Meta-Overview Energy deal 02:10 - Why Meta is running out of grid 03:30 - How space-based solar actually works 05:00 - Marc Berte's 5-o'clock-somewhere economic pitch 05:45 - The same-day Noon Energy storage deal 06:30 - Caroline Golin's pushback and the materials Achilles heel 07:45 - Why Meta signed anyway 08:15 - Three things to watch: 2028, 2030, and the supply chain 08:50 - Sign-off #AI #Meta #SpaceSolar #OverviewEnergy #CleanEnergy #DataCenters #AIInfrastructure #RenewableEnergy #Hyperscalers #ClimateTech #SpaceTech #SolarPower #MarcBerte #NoonEnergy #AIBuildout === TITLES_HTML ===
  • Top Pick
    Meta Bets On Space Solar With 1 GW Overview Deal48 chars
    Balanced and search-friendly: leads with the brand, the magnitude, and the partner — all the SEO anchors a viewer would type.
  • Alternate 1
    Meta Just Bought Solar Power From SPACE39 chars
    Drama-leaning: the all-caps SPACE leans into the science-fiction reaction, optimized for click-through over search.
  • Alternate 2
    Why Meta Backed A 20M Stealth Startup For 1 GW46 chars
    Analyst-leaning: foregrounds the asymmetry between Overview's seed-stage size and the hyperscaler bet — the question viewers want answered.
    • === KEYWORDS === AI, AI data centers, AI energy demand, AI infrastructure, space solar, space-based solar power, Meta, Overview Energy, Marc Berte, hyperscaler clean energy, renewable energy, geosynchronous orbit solar, near infrared power transmission, SpaceX Bandwagon-7, Lowercarbon Capital, Caroline Golin, climate tech, Noon Energy, long duration storage, Jim Bridenstine, Mike Griffin, energy startup, Meta data centers, gigawatt power, space economy, sustainable AI, Overview Energy Meta deal, 2030 clean energy, AI buildout === THUMBNAIL_HTML ===

    Expression. Measured, slightly skeptical — eyebrow lifted just enough to read as "wait, really?" Lips closed, neutral.

    Head position. Squared to camera, chin level, very slight forward lean to suggest engagement.

    Wardrobe. Dark charcoal blazer over a plain black top. No visible jewelry, no patterned scarves, no logo pins.

    Eye direction. Direct to camera, high contact.

    Lighting. Key light from upper-left at ~4800K, 3:1 fill ratio, faint cool rim on right shoulder.

    Scene. Near-black charcoal background with a faint deep-blue/cyan gradient in the upper-right corner; ghosted satellite-and-beam motif at ~10% opacity behind right shoulder.

    Best
    SOLAR POWER. FROM SPACE.

    Position. Top-right, two stacked lines, right-aligned over the gradient zone.

    Font. Heavy sans-serif (Inter Black / Helvetica Neue 95 Black), all caps, tight tracking.

    Color scheme. Primary fill #FFFFFF on a thin #00C2FF cyan underline accent.

    Accent detail. A single small cyan satellite glyph (#00C2FF) replaces the period after "SPACE", with a faint downward beam ray.

    Alternate 1
    META'S $1B BET ON ORBIT

    Position. Bottom-center, single line spanning the lower third.

    Font. Condensed sans-serif (Bebas Neue / Oswald Bold), all caps, slight letter-spacing for readability at thumbnail size.

    Color scheme. Fill #FFD24A warm amber for "$1B", #FFFFFF for the rest, on a 60%-opacity black bar.

    Accent detail. Thin 2px cyan #00C2FF border along the top edge of the black bar.

    Alternate 2
    BEAMING SUNLIGHT AT NIGHT

    Position. Top-left corner, two stacked lines, left-aligned.

    Font. Modern geometric sans-serif (Montserrat Bold), title case, generous tracking.

    Color scheme. #F4F1E8 warm off-white for body text, #FF7A1A solar-orange highlight on the word "Sunlight".

    Accent detail. Subtle drop shadow at #000 25% opacity, plus a thin orange-to-cyan gradient underline beneath the second line.

    === HEYGEN_LOOK === A photorealistic headshot photo of a poised woman in her early 30s, dark charcoal blazer over a clean black top, minimalist styling, no jewelry that catches light, hair pulled back neatly. She is centered against a near-black charcoal background with a faint deep-blue and cyan gradient washing the upper-right quadrant, evoking a modern broadcast studio. Behind her at low opacity (around 10 percent) sits a ghosted orbital schematic motif: a single satellite silhouette with a thin near-infrared beam descending toward a barely visible terrestrial solar array. Lighting is a single key light from the upper-left at roughly 4800 Kelvin with a soft fill at a 3:1 ratio and a subtle cool rim along her right shoulder. Mood is measured and quietly alarmed, eyes direct to camera, framing tight headshot. Ultrarealistic, sharp focus, clean rendering, artifact-free, shallow depth of field. === MOTION_LOWER_THIRD === name: Jane Sterling role: Funding Analyst org: Sterling Intelligence === MOTION_OUTRO === eyebrow: If the receipts hit — main: Subscribe. sub: New episodes every week. No filler. platform1: YouTube handle1: @SterlingIntel platform2: X / Twitter handle2: @SterlingIntel platform3: Newsletter handle3: sterling.ai === MOTION_STAT_1 === category: Meta–Overview Capacity Reservation value: 1 unit: GW desc1: Solar power beamed from geosynchronous orbit desc2: Meta · April 27, 2026 badge: ▲ First-of-its-kind hyperscaler space-solar deal === MOTION_FUNDING_1 === category: Overview Energy Seed Round symbol: $ amount: 20 scale: M desc: Lowercarbon Capital, Prime Movers Lab, Engine Ventures badge: ▲ Emerged from stealth · December 2025 === MOTION_STAT_2 === category: Planned Orbital Fleet value: 1,000 unit: desc1: Spacecraft in geosynchronous orbit desc2: Coverage: roughly one-third of Earth badge: ▲ ~33% global Earth coverage === MOTION_MULTI_1 === title: Overview Satellite — Per-Spacecraft Specs val1: 500–600 ft lbl1: Width val2: 8–10 tons lbl2: Mass val3: 10+ yrs lbl3: Lifespan === MOTION_FINANCE_CHART_1 === title: Meta vs S&P 500 — Last 6 Months subtitle: Through the AI data-center power scramble ticker_a: META label_a: Meta color_a: cyan ticker_b: ^GSPC label_b: S&P 500 color_b: purple period: 6mo footer: Source: Yahoo Finance · Apr 2026 === MOTION_STAT_3 === category: Meta Data-Center Power value: 18,000 unit: desc1: Gigawatt-hours of electricity in 2024 desc2: Pre-AI-buildout baseline badge: ≈ 1.7M American homes for a year === MOTION_STAT_4 === category: Meta Nuclear Portfolio value: 7.7 unit: GW desc1: Locked in across Vistra, TerraPower, Oklo, Constellation desc2: Part of 30 GW total clean & renewable badge: ▲ Hyperscaler going all-in on atoms + orbit === MOTION_COMPARISON_1 === benchmark: Solar-Farm Conversion Efficiency model_a: Near-Infrared Beam score_a: 50 model_b: Direct Sunlight score_b: 20 unit: % source: Source: Overview Energy · April 2026 === MOTION_STAT_5 === category: Orbital vs Terrestrial Energy Yield value: 5 unit: x desc1: Energy yield multiple of orbital arrays desc2: 24/7 sunlight, no atmospheric loss badge: ▲ +30% boost from atmosphere alone === MOTION_MULTI_2 === title: Meta–Noon Energy Storage Deal · Apr 27, 2026 val1: 1 GW lbl1: Reserved Capacity val2: 100 GWh lbl2: Storage Energy val3: 25 MW lbl3: 2028 Pilot === SOURCES_HTML ===

    Official

    Media

    Analyst & Independent

    Prior Context