‘Mind-boggling’: Harsh Goenka shares video of floating solar panels in China, internet has a lot to say

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‘Mind-boggling’: Harsh Goenka shares video of floating solar panels in China, internet has a lot to say​

Jun 06, 2026, 09:45 IST

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Harsh Goenka has shared a video that's making people stop mid-scroll. The industrialist recently posted footage of a floating solar farm in China, and the scale of it genuinely surprised many people online.

The video shows what looks like an endless spread of solar panels sitting on the surface of a water body. From above, it almost resembles a giant pattern drawn across the water.

Sharing the clip on X, Goenka wrote, “Mind boggling! Solar panels on water in China....”And that was enough to kick off a lively discussion.

A lot of people were simply amazed by what they were seeing. Some said that regardless of what people think about China politically,

projects like these are difficult to ignore."Hate it, love it, but we can’t just ignore the amazing stuff that China keeps on doing.

Deserves appreciation and recognition," one user wrote.Others quickly turned the conversation towards India."It takes at least 1000 years for India to reach this level of infrastructure development...." another user commented.Not surprisingly, that opinion got people arguing in the replies.

There were also those who looked beyond the impressive visuals and wondered about the environmental cost.

One user questioned what such a large installation could mean for life beneath the water, saying it could pose a threat to underwater microorganisms.

Still, most comments focused on the sheer size of the project."That's just next level brilliance in infrastructure," one person wrote.Another said, "China is way ahead of its time."

Some users pointed out that floating solar farms solve a practical problem. Instead of occupying huge tracts of land, the panels make use of water surfaces while still producing electricity.

For countries trying to expand renewable energy without sacrificing land, that's a pretty attractive idea.

What made the post interesting wasn't just the video itself. It was the range of reactions it triggered.

One group saw a bold example of innovation. Another worried about possible environmental consequences. Many people seemed caught somewhere in between, impressed by the engineering but curious about the trade-offs.

That's probably why the discussion kept growing long after the video ended.

Because whether you think it's brilliant or have questions about it, seeing an entire water body covered with solar panels isn't something most people come across every day.

 

China built the world’s largest solar farm on a high-altitude Tibetan plateau desert that was 98% sand. Three years later it grew so much grass they had to bring in 20,000 sheep to eat it​

By: Luis Reyes

Published: Jun 6, at 8:30am ET

solar-farm-tibet.jpg


You’d expect a solar megaproject covering a chunk of high-altitude desert to be bad news for the people who graze sheep there. Fence off the land, install a few million panels, ship the locals somewhere else: that is the standard playbook for utility-scale anything. What’s happening at the Talatan complex in Qinghai, on the northeastern lip of the Tibetan Plateau, is the opposite. Three years after the panels went up at industrial scale, herders are running more sheep on more grass than they had before construction started.

The short version: panels block wind, cool the soil, and trap moisture. Grass grows. So much grass, in fact, that the solar operator now needs the sheep to keep it from shading the modules and turning into a winter fire risk. The herders get free pasture, the utility gets free landscaping, and a stretch of Gobi that used to be mostly sand is now a working grassland under glass, not unlike the way other clever renewable projects are repurposing land nobody else wanted.

The plant is bigger than your average city​

Talatan sits in Gonghe County, Hainan Tibetan Autonomous Prefecture, and the scale is genuinely hard to picture. The complex is developed by Huanghe Hydropower, a subsidiary of the State Power Investment Corporation, and treated as a single facility it has been reported as the world’s largest solar plant by both footprint and output.

Installed capacity has climbed fast: Chinese government figures put it around 8,430 megawatts in mid-2024, and by 2026 the complex was reported at roughly 21 gigawatts generating more than 18,000 gigawatt-hours a year. Once construction wraps, the photovoltaic park is slated to cover about 609 square kilometers, close to the size of the city of Chicago, with more than 7 million panels and over 60 separate solar operators inside the same fence line.

One slice of that cluster, the roughly 64-square-kilometer Gonghe Photovoltaic Park, is the part scientists have studied most closely. That is the patch where the strange thing happened.

How a desert grew a lawn​

Before construction, the Talatan area was bad land. Chinese state media report that 98.5% of it was sand, with herders driving flocks long distances every year just to find enough grass to keep them alive. Then came the panels, and with them an accidental greenhouse effect at ground level. Less direct sun on the dirt means less evaporation. Maintenance crews wash the panels periodically, and that runoff drips into the soil. Wind speeds fall because the rows act as windbreaks.

The numbers the operator publishes are aggressive. Its own remote-sensing data, from a joint study with Xi’an University of Technology, claims wind speed dropped about 50%, soil evaporation fell roughly 30%, and vegetation cover hit 80% across three years. Those are utility-published figures, so squint at them. But a peer-reviewed assessment in Scientific Reports, run by researchers at Xi’an University of Technology and Qinghai University, scored conditions inside the Gonghe array clearly better than the surrounding desert on soil moisture, vegetation and microbial life, concluding the buildout had “a positive impact on the ecological environment.” The grass came back hard enough to start shading the modules.

The sheep are doing the mowing​

That’s where the herders re-enter the story. Grass that grows over a meter tall under the panels cuts output and turns into a winter fire hazard. In places it shot up past a meter, tall enough to block the panels and drag down power efficiency, according to a staffer at the local industrial park. Rather than pay crews to cut it or spray herbicide near drinking water, the operator cut deals with neighboring villages: bring your sheep in, eat the grass, don’t pay us.

The engineering got rewritten around the animals. Technicians widened the gap between panel rows from three to five meters and lifted the mounting height from 50 centimeters to between 1.5 and 1.8 meters, so sheep can walk underneath without crouching. The first 2012 arrays were too low; newer ones aren’t.

The grazing arrangement now looks like this:

  • Free grazing runs June through October each year.
  • Roughly 66 square kilometers (about 100,000 mu) of company-owned pasture inside the fence is open to herders.
  • The prefecture has set up 32 photovoltaic eco-pastures and 56 centralized grazing sites.
  • 18 nearby villages run more than 20,000 sheep through the park each year.
  • Annual grass output runs around 110,000 tonnes, with one local official putting it at 118,000 tonnes, enough to feed 200,000 sheep.

What the herders are actually making​

The income side is where the policy theater meets the bank account. Yehdor, a 49-year-old herder profiled repeatedly in Chinese state coverage, told Xinhua his family now pulls in “nearly 100,000 yuan (about 14,000 U.S. dollars) a year from raising sheep,” with his flock growing from 200 head to more than 300. An earlier 2024 account pegged his jump at roughly 20,000 yuan before the park to 70,000 to 80,000 after. State figures put the agrivoltaic setup at over 10,000 yuan per mu, roughly $1,398 per 0.07 hectares, and credit it with lifting 173 nearby villages out of poverty. That is official Chinese government framing, so read it knowing the source, but the broad-stroke trend of more grass, more sheep, more cash shows up in the peer-reviewed work too.

There is also a branding twist. Locals now market the meat as “photovoltaic sheep” and sell mutton nationwide via e-commerce, which sounds invented but apparently isn’t. Each animal carries a QR-coded ear tag storing its age, vaccination history and owner, so a buyer can scan the code and trace the lamb chop back to a specific flock under a specific row of panels.

Don’t yet declare the desert solved​

The Talatan numbers are spectacular. They are also a single site, in a specific microclimate, with a utility that has obvious reasons to publish flattering data. Other researchers have already flagged the catch. A separate study of photovoltaic sites across the wider Qinghai-Tibet Plateau found that about 56% of installations saw vegetation cover improve, while 44% actually lost cover compared with surrounding land. Soil moisture explained roughly 62% of the difference, and more than half of the apparent restoration traced back to the water used to wash the panels. Cut the cleaning budget, or push into drier zones, and the lush patches disappear. Lean on them too hard in a truly arid area and the extra plant growth starts pulling water out of an aquifer that can’t refill it.

For the US solar industry, the Talatan result still matters because the dual-use idea is finally getting a serious case study. The American Solar Grazing Association has been pitching the same model since 2018, mostly to skeptical utilities, and it is the kind of approach the broader US clean-energy build-out keeps circling as it runs into its own cost and land fights. Talatan is what the pitch looks like at gigawatt scale: panels generate the power the grid needs, the soil underneath gets a microclimate it didn’t have, and the farmers who would have been pushed off the land are the ones being paid to maintain it.

The Chinese version comes wrapped in caveats about water budgets, state messaging, and a utility that completely controls the story. But the basic finding, that a properly engineered solar farm can leave the local agricultural economy bigger than it found it, is now a data point instead of a hope.

 
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China is building a 250-mile “great wall” of solar panels along a desert, wide enough to see from space, and one piece is shaped like a galloping horse the size of a small city, a Guinness record visible from orbit​


By: Luis Reyes

Published: Jun 14, at 12:00pm ET

Kubuqi-Desert-solar-panels.jpg


Getting a new power line approved in the US is a multiyear slog of hearings, permitting, and the occasional lawsuit, all before a single steel tower goes up. China is running the opposite playbook, and the results are visible from orbit. Along the northern edge of the Kubuqi Desert in Inner Mongolia, solar panels are filling in a strip that planners want to run 250 miles end to end, part of a build the Chinese press has taken to calling a “solar great wall.” NASA’s Earth Observatory lined up two satellite frames of the same ground, one from December 2017 and one from December 2024, and the change between them barely needs a caption. Where there were bare dunes, there are now grids of panels wide enough to pick out from space.


The full plan, which Chinese officials expect to wrap around 2030, calls for a band roughly 250 miles long and 3 miles wide with a maximum capacity of 100 gigawatts. NASA frames that as enough to power Beijing. As of the most recent official count, late in 2024, about 5.4 gigawatts of it was actually installed. So the wall is real, the satellite evidence is real, and the gap between what is built and what has been promised is real too.

NASA’s two frames, and the giant horse hiding in one of them​

The images come from the Operational Land Imager on Landsat 8 and its successor on Landsat 9, shot over the same band of dunes just south of the Yellow River, between the cities of Baotou and Bayannur. Side by side, December 2017 and December 2024, they show the footprint going from a few scattered blocks to a near-continuous mosaic. It is the rare infrastructure project where the construction timeline is legible from low Earth orbit.

One feature in the frames is hard to miss once you know to look for it. The 300-megawatt Junma Solar Power Station, built by State Power Investment Corporation and finished in 2019, was laid out in the shape of a galloping horse. It holds a Guinness World Record for the largest image ever made out of solar panels, and it pushes out roughly 2 billion kilowatt-hours a year, enough for the annual needs of 300,000 to 400,000 people. Junma means “fine horse” in Mandarin, which is the kind of detail that sounds like marketing until you see it from space and realize they actually built a horse the size of a small city.

The flagship piece also burns coal​

The single biggest chunk of the wall is the Three Gorges Kubuqi base, near Ordos, developed by state-owned China Three Gorges together with Inner Mongolia’s Mengneng energy group. Ground broke at the end of 2022 on an 80 billion yuan ($11.6 billion) project, and the detail that complicates the “green wall” branding is the fuel mix. As Power magazine reported, the base was designed as a 16-gigawatt hybrid, with 8 gigawatts of solar, 4 gigawatts of wind, and 4 gigawatts of coal-fired generation, plus storage. The sun does the headline work. The coal is there to keep the grid steady when the sun is not cooperating.

Progress on the flagship has been steady rather than instant. The first gigawatt of solar came online at the end of 2023. By 2025, a second 1-gigawatt phase had been connected, which Na Guiting, a deputy president at the Three Gorges Mengneng joint venture, described to Xinhua as turning more than 4,200 hectares of dunes into panels. That puts about 2 gigawatts of the flagship in service today, with reporting from EnergiesMedia putting it on track to reach 7,000 megawatts during 2026 as additional phases switch on. When the whole base is finished, the developer expects it to send roughly 40 billion kilowatt-hours a year east to the Beijing-Tianjin-Hebei region, more than half of that from clean sources.

The panels are doing a second job as a fence​

Power was never the only goal. Mounted a few feet off the ground and lined up in rows, the panels work as windbreaks. They slow the wind that pushes the dunes around, they cut evaporation by throwing shade on the sand, and that combination gives grass and crops a foothold where there was not one before. NASA points to published analysis of Landsat data showing solar projects have contributed to the greening of dry land elsewhere in China, so this is not a one-off claim from a press release.

On the ground, the people nearby put it in plainer terms. One local farmer, Han Rongkuan, told Xinhua that “these projects shield us from wind and sand,” and that his village had cultivated more than 600 hectares (about 1,500 acres) of high-standard farmland in a single year, land that can bring in roughly 900 yuan ($128) per mu if it is leased out. China has run a version of this before, on the Tibetan Plateau, where a solar complex turned near-total sand into working grassland and ended up needing thousands of sheep to keep it in check. That is a different desert and a different story, but the underlying move, generate power up top and restore the land underneath, is the same one being scaled across the Kubuqi.

Why the same idea moves at a different speed in the US​

The scale gap is not subtle. As of mid-2024, China led the world in operating solar capacity with about 386,875 megawatts, roughly 51 percent of the global total, according to Global Energy Monitor’s tracker. The US sat second at 79,364 megawatts, around 11 percent. Between 2017 and 2023, China was adding solar at an average pace of nearly 40,000 megawatts a year. The US averaged about 8,137 megawatts over the same stretch. Those are not numbers that close on their own.

Building the panels is only half the job, though, and arguably the easy half. A gigawatt sitting in a remote stretch of Inner Mongolia does nothing for a city 800 miles away unless you can move it, which is why China has been stringing ultra-high-voltage lines from these bases toward the populated east and south. It is the same bottleneck that has US grid operators and Texas regulators arguing over transmission for years, just with a very different tolerance for how fast steel goes up. And because solar only works when the sun is out, the gigawatts need firming, which is its own engineering problem. China’s answer there runs from batteries to enormous pumped-storage “water batteries” that hold power behind a mountain and let gravity hand it back on demand.

There is also a stranger wrinkle to covering this much ground with dark panels. A field this size can nudge the local environment in ways that go beyond shade and windbreaks. German researchers modeling large arrays have found that a big enough installation could shift rainfall patterns over a desert, and they are now running field tests in the UAE to see whether the atmosphere behaves the way the simulations say. None of that is settled, and none of it is specific to the Kubuqi, but it is a reminder that a wall of panels this size is not a neutral object dropped on empty land.

The satellite images are the part of this story that needs no spin. Two frames, seven years apart, bare dunes turning into a grid you can resolve from orbit. The round numbers are softer. The 100-gigawatt figure is a 2030 target, the 5.4 gigawatts is what was counted as built more than a year ago, and the flagship that anchors the whole thing is a 2-gigawatt machine with a coal plant attached, climbing toward seven. “Enough to power Beijing” is a design spec, not a meter reading. What is already in the ground is a 250-mile test of whether you can generate serious power and hold back a desert with the same hardware, and the early frames suggest the answer is yes on both counts. Getting all those gigawatts to the cities that actually need them is the harder problem, and it is the one nobody bothers to photograph.

 

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