Here's a number worth sitting with: Meta pulled in $15.85 billion in net income in just the second quarter of 2026. A New Mexico judge just ordered the company to hand over $567 million to clean up a youth mental health crisis the court says Meta helped manufacture. That's roughly what Meta earns in about two and a half days.
The $567 million ruling landed this week from Santa Fe County Judge Bryan Biedscheid, who found that Meta's platforms constitute a public nuisance under New Mexico law. It comes on top of $375 million in civil penalties a jury already awarded earlier this year, bringing the state's total haul against the company to nearly $942 million. For a company Meta's size, that still stings more symbolically than financially — but the precedent it sets is hard to overstate.
The case, filed by New Mexico Attorney General Raul Torrez back in 2023, moved through two distinct phases. The first involved a jury trial focused on whether Meta misled parents about the safety of its apps and violated state consumer protection laws. The jury said yes. Phase two, a bench trial, asked a different question: did Meta create a public nuisance, and if so, should it be forced to pay to fix it? Judge Biedscheid answered yes to both.
His ruling didn't mince words. He wrote that New Mexico is experiencing a genuine youth mental health crisis — one marked by rising rates of suicide and eating disorders — and that Meta's platforms are a significant contributing cause. The judge pointed specifically to features designed to maximize user engagement and time-on-app, arguing these mechanisms were deployed with full knowledge that they affected teenagers differently than adults.
The $567 million fund is broken down with surgical specificity: $420 million for treatment services, $90 million for screening and assessment, $33 million for awareness and prevention, and $24 million in other associated costs. Biedscheid declined to follow an expert's recommendation to build new community health centers, and trimmed the funding window from 15 years to five. Whether five years is enough to meaningfully reverse a mental health crisis is a question the ruling doesn't fully answer.
What makes this ruling particularly significant isn't just the dollar figure — it's the legal architecture. Courts have historically struggled to hold platforms liable for harms caused by their design choices, partly because federal law has provided significant shelter. A state court finding that a social media company created a public nuisance and must fund its remediation is a different legal beast entirely, and one that attorneys general in other states will be watching closely.
Meta has not indicated whether it will appeal, though given the financial and reputational stakes, it would be surprising if it didn't. What's less surprising is that this won't be the last courtroom it finds itself in over the same set of allegations.
SCIENCE
Sharpest sun image ever captured reveals century-old predicted phenomenon
Scientists spent more than a hundred years predicting that the surface of the sun should be covered in tiny swirling plasma vortices. This week, a telescope in Hawaii finally proved them right — and the image it captured looks less like a star and more like the surface of a flower.
The Daniel K. Inouye Solar Telescope, perched at the summit of Haleakala volcano in Maui, has produced the highest-resolution visible-light image of the sun ever taken. Shared by NASA, the photograph confirms the existence of what physicists call the Kelvin-Helmholtz instability — a phenomenon that occurs when two fluids moving at different speeds create friction at their shared boundary, generating ripples and rolling vortices. You've seen the same physics at work when wind skips across a lake or when certain cloud formations develop that distinctive wave-like curl.
On the sun, the fluids in question are streams of plasma — gas so superheated that its atoms shed their electrons entirely. Scientists had long theorized that these plasma streams, moving at different velocities across different regions of the solar surface, should behave the same way wind and water do on Earth. The math said the vortices had to be there. The technology to see them just didn't exist yet.
Until now, even powerful telescopes rendered the sun's surface as relatively smooth in visible light. The Inouye telescope's imaging techniques changed that. The vortices it captured are small — only a few dozen kilometers across — and they form and dissipate constantly. The section of the sun shown in the image spans roughly the radius of Earth, which gives a sense of just how fine-grained the detail actually is.
It's worth noting what makes this image different from the dramatic solar photographs most people are used to seeing. Those vivid images in electric blue or deep orange are captured using ultraviolet or X-ray wavelengths — light the human eye can't process. The Inouye image is visible light, the same spectrum our eyes use. The result is a more muted, textured view that looks almost organic, with petal-like folds and swirling patterns across the surface.
The scientific payoff here goes beyond the visual. Understanding how these plasma vortices behave helps researchers figure out how energy moves from the sun's surface outward into its corona — the outermost layer of the solar atmosphere. That matters enormously because the corona is where coronal mass ejections originate, the massive bursts of charged particles that, when aimed at Earth, can disrupt power grids, satellite systems, and GPS infrastructure.
In other words, the prettier our pictures of the sun get, the better we understand a phenomenon that could, on a bad day, knock out a meaningful chunk of the world's electronic systems. Basic science with very practical stakes.
Source: WIRED
The Daniel K. Inouye Solar Telescope, perched at the summit of Haleakala volcano in Maui, has produced the highest-resolution visible-light image of the sun ever taken. Shared by NASA, the photograph confirms the existence of what physicists call the Kelvin-Helmholtz instability — a phenomenon that occurs when two fluids moving at different speeds create friction at their shared boundary, generating ripples and rolling vortices. You've seen the same physics at work when wind skips across a lake or when certain cloud formations develop that distinctive wave-like curl.
On the sun, the fluids in question are streams of plasma — gas so superheated that its atoms shed their electrons entirely. Scientists had long theorized that these plasma streams, moving at different velocities across different regions of the solar surface, should behave the same way wind and water do on Earth. The math said the vortices had to be there. The technology to see them just didn't exist yet.
Until now, even powerful telescopes rendered the sun's surface as relatively smooth in visible light. The Inouye telescope's imaging techniques changed that. The vortices it captured are small — only a few dozen kilometers across — and they form and dissipate constantly. The section of the sun shown in the image spans roughly the radius of Earth, which gives a sense of just how fine-grained the detail actually is.
It's worth noting what makes this image different from the dramatic solar photographs most people are used to seeing. Those vivid images in electric blue or deep orange are captured using ultraviolet or X-ray wavelengths — light the human eye can't process. The Inouye image is visible light, the same spectrum our eyes use. The result is a more muted, textured view that looks almost organic, with petal-like folds and swirling patterns across the surface.
The scientific payoff here goes beyond the visual. Understanding how these plasma vortices behave helps researchers figure out how energy moves from the sun's surface outward into its corona — the outermost layer of the solar atmosphere. That matters enormously because the corona is where coronal mass ejections originate, the massive bursts of charged particles that, when aimed at Earth, can disrupt power grids, satellite systems, and GPS infrastructure.
In other words, the prettier our pictures of the sun get, the better we understand a phenomenon that could, on a bad day, knock out a meaningful chunk of the world's electronic systems. Basic science with very practical stakes.
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