Wednesday, July 22, 2026

Little Miss Sunshine [Media Notes 188]

Little Miss Sunshine (2006) is a little strange and quite wonderful. Here’s how Wikipedia opens its plot summary:

Sheryl Hoover is a stressed mother of two living in Albuquerque, New Mexico. Her husband Richard is an aspiring motivational speaker and life coach. Dwayne, Sheryl's Nietzsche-admiring teenage son from her previous marriage, has taken a vow of silence until he accomplishes his dream of becoming a fighter pilot. Sheryl's older brother Frank Ginsburg, a gay scholar of Proust, is living with the family after attempting suicide. Richard's foul-mouthed father Edwin is also living with the family after being evicted from a retirement home for snorting heroin. Olive, Richard and Sheryl's 7-year-old daughter, is an aspiring beauty queen coached by Edwin.

Olive learns she has qualified for the "Little Miss Sunshine" beauty pageant being held in Redondo Beach, California, in two days. Richard, Sheryl, and Edwin want to support her, and Frank and Dwayne cannot be left alone, so the whole family attends. Due to financial constraints, they go on an 800-mile (1,300 km) road trip in their yellow Volkswagen van.

We know that much by, I don’t know, let’s say 10 or 15 minutes in (out of 102 minutes in total). At this point we pretty much know what’s going to happen, if only in broad outline. There will be a happy ending, because that’s how these films go; you knew this much when you bought your ticket, or picked in Netflix, as I did. You also that the trip is going to be, shall we say, stressful, with revelations and perhaps a (big) downer. It’s the details of the stress, revelations, and downer that matter.

As for the ending, obviously that’s going to be Olive’s performance at the “Little Miss Sunshine” pageant. Olive is cheerful and kind; she’s also a bit overweight, chubby but not fat. Somehow she made it to the finals despite being chubby but not fat. We know, because it is in the nature of beauty pageants for little girls, that chubby but not fat does not win the prize, no matter what kind of talent the contestant exhibits.

Here’s what Wikipedia says about that:

The hitherto-unseen dance routine Edwin had taught Olive is revealed to be a striptease performed to the Rocasound remix of Rick James’ “Super Freak”. Olive is oblivious to the subtext of the routine, but it horrifies and angers most of the audience, and the pageant organizer demands she be removed from the stage.

Needless to say, the audience is, shall we say, quite taken aback.

I leave it as an exercise for the reader to figure out how the film turns that sow’s ear into a silk purse. Better yet, watch the film.

Don’t worry, you can listen to the music without having the film spoiled. The visual you see now is the only visual there is for the clip.

Interior space

Robert Wright talks with Connor Leahy about the cult of AI

YouTube:

Robert Wright and Connor Leahy, US executive director of ControlAI, discuss the history of AI culture and the influences that shaped it—from the hippies, to the rationalists, to Marx, to sci-fi stories, and more. Plus: Mythos as “digital nuke," Dario's real motivations, and Connor's case against any and all attempts at building superintelligence.

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0:00 Teaser
0:47 Connor’s place in the AI world
3:16 Mythos: “digital nuke”?
14:12 The milieu that birthed Dario and other AI titans
20:52 Yudkowsky, Marx, and other AI harbingers
35:34 Effective altruism’s effects on big tech
46:22 The "cult" in Silicon Valley culture
59:59 Is the AI race a market failure?
1:05:51 What’s really driving the AI titans?
1:19:04 Connor: ASI is a worse bet than Russian roulette

I've been aware of much of this story for some time, though many details are new. Back in 2023 I published an article in 3 Quarks Daily about the cultish nature of Silicon Valley computer culture, A New Counter Culture: From the Reification of IQ to the AI Apocalypse. Nonetheless, hearing the story once again, in one place, with new details has been interesting. It may shed light on just why the dominant AI culture is an technology monoculture. The cultish nature of the surrounding industrial culture has something to do with it.

Note that both Apple (1976) and Microsoft (1975) date back to the personal computer revolution of the 1970s. Amazon was founded when the web was born (1994), as was Google (Alphabet, 1998). Facebook (Meta) didn't emerge until the social web was well-established, 2004. None of them are pure AI companies. They came later; OpenAI in 2015 and Anthropic in 2021. Those were the products of this ingrown culture. The other companies were founded as business ventures. OpenAI and Anthropic were founded as expressions of a quasi-religious vision.

Note: As far as I can tell, Leahy seems rather adjacent and Wright seems to take their technological visions more seriously than is intellectually warranted.

It’s getting to the math that’s tricky.

Tuesday, July 21, 2026

LLMs are secretly obsessed with Japan.

Red flowers in a planter on a street corner in Hobken

Beyond Marginalism: What’s Next? [MR #12]

It is time to conclude my series of posts on Tyler Cowen’s monograph, The Marginal Revolution: Rise and Decline, and the Pending AI Revolution (2026). Let’s look at the fourth and final chapter, “Why Marginalism Will Dwindle, and What Will Replace It?” Here’s how Cowen opens it (p. 85):

The underappreciated news is that marginalism is on the way out. Furthermore, this is old news, though the trend is accelerating.

Most of all it is underdiscussed news. As economics continues to evolve, marginalist insights – probably of all different kinds – will lie ever further from the frontiers of research and knowledge.

I find it easy to imagine that – less than 20 years from now – marginalism will be viewed as a historical curiosity rather than a central analytical engine of economics. No one will quite come out and say that, nor will they present marginalism as false or destructive. Rather it will be seen as of limited relevance, much as we might view parts of the earlier classical economists, such as their expositions of the quantity theory of money. New and different analytical frameworks will replace the ones that have dominated neoclassical economics to date.

Think about that, think about it very carefully. When thinking about it remind yourself that Cowen named his blog, his virtual home base for the last two decades, after marginalism.

For a professional academic to say that the world in which they were trained, the structure of ideas within which they have worked, which they have nurtured in students, which they have communicated to the public at large, which they have come to love, to say that that world is slipping away into the past, man, that’s rough. And rare. Not many have been able to do it.

Back in 1946 the great physicist, Max Planck, remarked, “A new scientific truth does not triumph by convincing its opponents and making them see the light, but rather because its opponents eventually die, and a new generation grows up that is familiar with it.” Thomas Kuhn referenced that remark in The Structure of Scientific Revolution, and the economist Paul Samuelson gave a compressed version in a 1975 article in Newsweek. It would appear that Cowen has gotten the message and decided that, rather than dropping dead, he’d give the new ideas a boost.

After that sobering opening, Cowen reviews what happened between the late 19th century and now. He lands on price theory. Price theory? – “the view that the basic intuitive economic concepts, as would be taught in intermediate microeconomics, are highly useful and for advanced problems too” (p. 91). There’s that word, “intuitive.” Cowen explains:

Your hypothesis should be intelligible in terms of microeconomic concepts that you can hold in your mind and understand. In most (maybe not all?) cases, you should be able to explain some version of those principles to a well-educated, non-economist onlooker.

A couple pages later we arrive at something called “Topkis’s Theorem” which is very mathy (p. 94). Two pages after that: “Economic intuition, RIP. And marginalism with it.” Whoops! “I am seeing the traditional, intuitive approach to economic reasoning retreating from one field after another. To give one vivid and also important example, machine learning and neural nets are overturning the world of finance.”

Modeling collective action with 360,000 factors

A couple of pages later Cowen gives us a striking example. It’s from something called Arbitrage Pricing Theory (APT) (pp. 99-100). It’s a model that uses machine learning to develop 360,000 factors and does a better job of predicting than traditional models have only five or six factors. However, the factors in the traditional models are derived from marginalist assumptions and make intuitive sense while none of those 360,000 factors are legible. It’s clear to Cowen that, in the current intellectual marketplace for economics, the unintelligible models with superior performance are out-competing the traditional marginalist models. Bye, bye, marginalism!

I see no need to comment extensively on this particular model as I’ve already given it a great deal of attention, generating two different working papers from it. The first, On Method: Computational Compressibility in Complex Natural and Cultural Phenomena, places it in the context of a half-dozen other investigations in a half-dozen fields in the social and natural sciences. The second, Notes on the Collective Valuation of "Thick" Objects: Financial Assets, Movies, and Novels, compares it with work that Arthur De Vany published in 2004, Hollywood Economics, and a more recent study by Matthew Jockers, Macroanalysis (2013), in which he investigated a corpus of 6000 19th century Anglophone novels. I’ve also written a blog post that complements that second paper: Thick Objects, High-Dimensional Models, and the New Intuitions [MR #11].

In that second paper and in the blog post I argue that those three cases are about a collective process where a population of human actors – traders and analysts in one case, movie goers in another, and novel readers in the third case – make judgements about “thick” objects. Even before I made an explicit argument, I had an intuition, an intuition that, despite the obvious differences, what De Vany was up to with movies was somehow like what Didisheim et al. were up to with stocks. Just where those intuitions came from, I can’t say, but I’ve been thinking about complex systems for a long time. [As an aside, for what it’s worth, Robert De Vany’s work on movies is perhaps where my interests in culture and cultural evolution come into closest contact with Cowen’s interests in economics and, in particular, in the economics of culture.]

As for the idea of thick objects, the term was suggested to me by either ChatGPT or Claude to characterizes complex objects whose characteristics cannot be fully enumerated because of that complexity. Moreover they are under constant scrutiny by a population of people who are interested in them and constantly evaluating them back and forth among themselves and, in that process, revealing further characteristics. It is not difficult to see that movies and novels are the same kind of thing, each is a mode of storytelling, and that they are complex objects. But what do they have to do with stocks? A remark by the pundit, Scott Galloway, made the connection for me in a podcast with Kara Swisher, “Stocks are like brands and that is they’re part promise and part performance.” Performance is assessed by a wide variety of metrics, metrics which go into the models such as the one by Didisheim et al., while promise is subject to endless speculation, some of which inevitably precipitates into those metrics.

Animal spirits, narrative economics, memes, and a Squid Game market

And that leads me to a conjecture that follows from the analysis that ChatGPT and I undertook in the collective valuation paper. Perhaps those 360,000 parameters are picking up traces left by those “animal spirits” that Keynes talked about. Their effect on asset values is too diffuse and indirect to be detected by those classical models with a half-dozen or so factors, each of which is intuitively legible on its own. But those traces show up distributed across those 360,000 parameters and allow the model to produce more accurate predictions. If that is what is going on, then I wouldn’t expect any of those factors to be intuitively legible, any more than one would expect such legibility of individual weights in a large language model. That’s not the nature of this conceptual world.

While we’re speculating, why not continue on? Those animal spirits can’t work their ways on the market by wafting around like odors in a breeze. They need to be embodied in some form, like gossip and stories. That leads us to 2017 Robert Shiller’s 2017 paper on “Narrative Economics” in the American Economic Review. Here’s his abstract:

This address considers the epidemiology of narratives relevant to economic fluctuations. The human brain has always been highly tuned toward narratives, whether factual or not, to justify ongoing actions, even such basic actions as spending and investing. Stories motivate and connect activities to deeply felt values and needs. Narratives “go viral” and spread far, even worldwide, with economic impact. The 1920–1921 Depression, the Great Depression of the 1930s, the so-called Great Recession of 2007–2009, and the contentious political-economic situation of today are considered as the results of the popular narratives of their respective times. Though these narratives are deeply human phenomena that are difficult to study in a scientific manner, quantitative analysis may help us gain a better understanding of these epidemics in the future.

Perhaps those high factor models are picking up the narrative dimension of asset value, which is a product how performance and promise become intertwined in the stories that analysts and traders tell themselves and one another about the assets they’re watching.

That, in turn, leads to the concept of meme stocks, a term that dates back to 2020. Here’s how Wikipedia characterizes them:

...a stock that gains popularity among retail investors through social media. The popularity of meme stocks is generally based on internet memes shared among traders, on platforms such as Reddit's r/wallstreetbets. Investors in such stocks are often young and inexperienced investors. As a result of their popularity, meme stocks often trade at prices that are above their estimated value – as based on fundamental analysis – and are known for being extremely speculative and volatile.

More recently, Owen A. Lamont, a senior analyst at Arcadian, has speculated that we’re in what he calls a “Squid Game market”:

Something’s happening in the U.S. stock market. We see cult stocks and crypto stocks. We see money pouring into leveraged single-stock ETFs and crypto ETFs. And we see dramatic price moves, for example in quantum computing stocks in December 2024. What’s going on?

Here’s one theory: these phenomena partly reflect an influx of Korean retail investors into the U.S. stock market. Last year, I wrote that “the U.S. stock market is Koreafying,” meaning that the U.S. market was starting to behave like the retail-dominated Korean market. What I didn’t realize was that this Koreafying process involves actual Korean retail investors.

He then goes on to develop the parallel between the Korean streaming series, Squid Game, and the U.S. retail market over the last few years.

If those high parameter models are picking up the effects of animal spirits embodied in gossip and narratives, then we’d expect their advantage over classical models (based on a handful of fundamentals) to be larger in the case of these meme stocks. So, if we compare the results of a classical model with those of a high-parameter machine learning model, are the assets with the greatest divergence also those otherwise identified as meme stocks? Perhaps some intellectual fishing expeditions are in order. Perhaps we can develop some new intuitions by comparing the results of classical models with machine learning models.

Whoops! Alphabet, Microsoft, Amazon, Meta, and Oracle have $1.65 trillion in debt that doesn't appear on their balance sheets

Some birches in Liberty State Park [2016]

Agentic AI for science – Yippie!

Monday, July 20, 2026

America and China in the World, a quick note

Is that where we’re headed, to a bipolar world dominated by America and China? I just asked Google Search: “Is China the largest economy in the world?” Its reply:

China is the world's largest economy when measured by Purchasing Power Parity (PPP), but the United States is the largest in terms of nominal Gross Domestic Product (GDP).

  • By Purchasing Power Parity (PPP): China is the world's largest economy, with an estimated output exceeding $44 trillion. This metric adjusts for the cost of living and the price of local goods, reflecting a higher real volume of economic activity.
  • By Nominal GDP: The United States holds the top spot. In current market exchange rates, the U.S. economy is valued at approximately $32 trillion, while China's nominal GDP is roughly $20 trillion.

So that’s one thing. The other is AI. America and China are in a race for dominance in AI. America has a technical lead, but with respect to Frontier LLMs, that lead is measured in months, not years. And China is making its models open weight while the most advanced American models (Anthropic, OpenAI, Google) and not open. It’s not at all clear how that will shake out.

With the Trump administration authoritarianism is on the rise in America. While the Democrats may well win the next presidential election, it’s not at all clear what that means for America’s already precarious democracy. The problem is that a great deal of power is concentrated in the hands of political and business elites, so much that America’s democracy looks like a chess game played by oligarchs where ordinary Americans are the pawns.

Is that what the world will become in 2040, a competition between American and Chinese oligarchs in which everyone else is a pawn, with Homo economicus triumphant over all?

A case of visual aesthetics: Why is the monochrome image superior to the color image?

Last Saturday (July 18, 2026) I posted, Some notes on AI and “fine art” imagery, which included these two images, remarking that the first seemed superior to the second:

But I didn’t ask why it is superior. Now I’m asking: Why?

FWIW, ChatGPT produced the first image based on my prompt. I forget the exact working of the prompt, but it was simple. After uploaded a long document about virtual reading I directed it to create an image for the cover of that document. That color image is what it gave me. I liked the form, but found the color distracting, so I asked it to render the image as a Renaissance engraving, resulting in the first image.

To investigate the question I used Photoshop to alter the color version. For this one I reduced the level of saturation:

Here I rendered the image in monochrome blue:

Finally, monochrome grayscale:

All three strike me as being superior to the original color image. The de-saturated version still has color in it, but the color is not so prominent. The monochrome blue has color information, obviously, but only one hue, so there is no contrast between hues. Finally, the grayscale image has no color information at all. Of the two monochrome images, is one better than the other? At the moment I like the blue better than the grayscale, but I’m not sure it matters much.

But I like the engraving rendition better than either of those. Why? It has a much richer texture. Without bothering to has things out, let’s posit that as part of the reason for the superiority of that version over the original color version.

But that doesn’t explain why the other three are superior to the original. What they have in common is less color information. There’s no color information in the grayscale image and the range of color information in the other two is reduced, drastically so in the blue image.

Why should that matter? Let me speculate. The vision system handles brightness differently than it does hue. Luminance is picked up by so-called rods in the retina while color is picked up by cones. To my eye the color information is just there in the color image. It forms no interesting pattern one its own and it doesn’t seem to be interacting with brightness in any way. It adds nothing but color itself.

Let’s speculate a bit farther. Some years ago Mark Changizi published The Vision Revolution (2009). He argued that the biological purpose of color vision is to allow us to read one another’s emotions more accurately based on gradations in skin color. I find his arguments persuasive. Now, while that may be the primary function of color vision, color vision obviously is not confined to how we see other humans. We use it generally in the world.

Now, let’s look at that image. The only recognizable object in it is that book, and it has very little color in it. The rest of it is just spots, lines and swirls that doesn’t look like anything. But maybe it looks a little like veins beneath the skin, not much, but perhaps enough to “invite” the color system to look for emotional resonance, and fail. It’s that invitation-and-failure that makes the color information, not simply irrelevant, but actively distracting.

Do I believe this? Yes and no. It’s speculation. I just made it up. To move from there to belief I’ve have to come up with a way of actually investigating the question, which is more than I’m in a position to do at the moment.

Johns Hopkins imagines 2076

Johns Hopkins University (“America’s First Research University”), my alma mater, was founded in 1876. In the current issue of Johns Hopkins Magzine and number of professors imagine the world in 2076: Ben Whitford, What Happens Next?

Getting old:

When Disneyland unveiled its House of the Future attraction in the 1950s, visitors lined up to wander through the MIT-designed plastic shell and gawp at wonders—including a microwave and a wall-mounted TV—designed with young families in mind. Back then, just 8% of Americans were 65 or older, but today this group makes up nearly 20% of the population; by 2076, the proportion is expected to climb to over 27%. To manage that transition, we’ll need a new approach to domestic environments, says Najim Dehak, director of engineering in JHU’s Geriatrics Engineering hub. “Older adults have different needs and different wants,” he explains. “We need to design future houses that can let older adults live safer, longer, and healthier lives.”

On the Bayview campus, Dehak’s team is building a new generation of “houses of the future”: model apartments packed with sensors and AI tools to help older residents. Fifty years from now, Dehak predicts, people will stay independent far longer, using self-driving cars to run errands or meet friends. Arriving home, they won’t fiddle with keys; their homes will recognize them, log their safe return, and automatically open the door. Inside, sensors—from motion detectors to cameras scanning the contents of the fridge—will monitor each resident’s wellbeing, ensuring they eat well, stay hydrated, and keep active. If we aren’t taking care of ourselves, voice-operated artificial intelligence assistants—Dehak’s specialty— will encourage us to grab a snack, call a loved one, or pop on virtual reality goggles for immersive group activities.

Space exploration:

Each new probe builds on insights from previous missions, but the intervening period is determined by planetary alignment. Missions to Saturn, for instance, can be sent only about every 30 years, so by 2076 researchers will likely be digesting data from a hypothetical “Son of Dragonfly” mission in the mid-2060s and deciding what to focus on next. One thing’s for sure: Titan won’t have given up all its secrets by then. Researchers will still be exploring what its complex chemistry and weather reveal about the origins of life on Earth or the likelihood of finding life elsewhere.

“Those are the kinds of questions we’re aiming toward making progress on,” Hörst says.

In coming decades, other flagship probes could include the Europa Clipper, arriving at the Jovian moon in 2030; a mission to Uranus, arriving around mid-century; and the Enceladus Orbilander, which could reach the Saturnian moon in the 2050s. Many of Hörst’s biggest questions— such as whether there’s life in Europa’s buried oceans or what Venus’ surface is really like—will almost certainly take longer to answer, requiring major breakthroughs in robotics and materials science. “I personally would be surprised if we accessed Europa’s ocean or sent a rover to the surface of Venus by 2076,” she says.

Further afield, the study of exoplanets will yield new insights: While thousands of planets have been discovered, there’s an enormous amount still to learn.

Solar panels:

Today, virtually all solar panels are made from silicon, which is cheap, durable, abundant—and only capable, even in theory, of absorbing one third of the energy in any given sunbeam. In practice, most current photovoltaic panels convert barely one-quarter of incoming solar energy into electricity, limiting their usefulness and driving up the cost of clean energy.

By 2076, that could change dramatically, says Susanna Thon, associate professor of electrical and computer engineering. Using nanomanufacturing, layered semiconductors, and other innovative techniques—some of which Thon is testing in her lab—it will soon be possible to harvest energy from a wider range of high- and lowenergy photons, potentially tripling the efficiency of panels. “We have a bunch of strategies, so it’s a technical challenge now,” Thon says.

Beyond AI

If Joshua T. Vogelstein—a polymath whose research spans biomedical engineering, computer science, mathematics, and neuroscience— had a time machine, he’d head to 2076 and ask family and friends their take on artificial intelligence.

“I’ll know we’ve made real progress when the general population—people who aren’t involved in creating AI—are no longer afraid of it,” he says.

Right now, Vogelstein says, we’re in an unsettling place: AI is evolving fast, but we don’t know where it’s heading. Some expect progress to snowball, leading to the “singularity”—a turning point in which machine intelligence leaves humans in the dust. Others believe computers will never achieve humanlike intelligence. “And there’s good support for both claims,” Vogelstein says.

Demystifying AI will require a fuller understanding of intelligence itself, Vogelstein argues. [...] we’ll need to fuse interdisciplinary research spanning neuroscience, human and animal cognition, and neural networks into something akin to the Standard Model used by physicists. “I’d like to think that by 2076 there will be a unified set of theories to explain intelligence writ large,” Vogelstein says.

Notice, however, there's no mention of superintelligence, much less world-wide dominance by our robot overlords.

Quantum weirdness:

Quantum mechanics has been around for a century but continues to challenge researchers, says physics professor Peter Armitage. The field’s core insight—that at the tiniest microscopic levels, the universe is choppy and pixelated, rather than smooth and continuous—quickly leads to mindbending conclusions, with quantum objects teleporting around, influencing one another instantaneously across vast distances, or existing simultaneously as both waves and particles.

The core equations governing quantum mechanics are now well-understood, but new technologies and theoretical advances mean the field’s practical implications are still being explored. “I don’t see any indication we’re at the bottom of this well,” Armitage says. “We’re so busy that it’s like drinking from the fire hose.”

Microrobots investigating your body:

In the 1966 film Fantastic Voyage, scientists shrink to microscopic size to explore the body and treat a patient’s blood clot. We won’t achieve that in the next half-century—but the next best thing, says biomolecular engineer David Gracias, would be intelligent micro-robots that could be swallowed like a pill, allowing them to examine and treat patients from within. “We can send probes into space but don’t have a system to navigate our own body. That’s the big challenge that motivates me,” he says.

Gracias has already developed starfish-like contraptions, each the size of a grain of sand, that pinch onto the intestinal lining to deliver medications more slowly and precisely. Next, Gracias hopes to develop swallowable robots that can take photos or video before selectively performing a biopsy on tissue, enabling noninvasive colonoscopies and ureteroscopies.

Sensation revealed:

When you reach out and feel something—rough or smooth, wet or dry, hard or soft—you’re touching on a mystery that still baffles researchers, says Jeremy D. Brown, associate professor in mechanical engineering. “We still don’t fully understand how haptic sensing really works,” Brown says. “Over the next 50 years, I suspect, scientists will get better at understanding how the touch system orchestrates disparate stimuli to form a percept of the physical world.” That would unlock new ways for humans to interact with machinery and digital tools. [...]

Better haptic technologies could also upgrade medical tools, allowing surgeons using laparoscopic robots to feel what’s happening deep inside the body and maneuver robots as dexterously as their own hands. “Having access to that sensory information naturally changes how you physically interact with tissue in a surgical environment,” Brown says.

There’s more at the link.

Quilts

CitySim: Using LLMs to model 1M virtual residents in a virtual city