Crystopher Tompkins

Chief Love Officer at Pragma Research.
Connecting curious minds and bridging people together.

[Crystopher Tompkins @Crystopher]

A big part of growing Cadence is making it easier for people to understand what they’re building and contribute what they learn.

The latest documentation cleanup gives builders a clearer map of the brain’s memory systems.

The updated memory guide brings eight mechanisms into one place, explaining:
→ What each remembers
→ How it influences later actions
→ What changes it
→ What survives a reset
→ Which tasks have supporting evidence, and where limitations remain

There are runnable examples, dedicated guides for recall and standalone memory stores, and a practical way to investigate whether a memory is doing useful work: compare the same saved brain with and without that memory on the same task.

For anyone building a creature, simulation, game agent, or robot, these distinctions matter. They help you choose settings deliberately, understand unexpected behavior, and share results that other builders can reproduce.

This is documentation work, not a new capability release. But making the architecture understandable is part of making it accessible.

That’s the community I want us to keep building: people who can explore, question, test, and teach each other with a clearer path from curiosity to contribution.

Bring your experiments. Share what works. Share what breaks. Both help Cadence grow.

https://t.co/CYN6lwuFFd

$Cadence

[Crystopher Tompkins @Crystopher]

@matterasmachine Good luck! When you’re ready to join forces, we are ready to have you 😄

https://t.co/rGV0bqhYT0

[Crystopher Tompkins @Crystopher]

Everyday people get closer to discovering Observer Patch Holography on their own 😄

https://t.co/rGV0bqhr3s

[adammaj @MajmudarAdam]

Yea this is the most important result of the year, at the level of significance of “Attention Is All You Need”. It brings us from “is alignment even solvable” to “we may solve alignment in the next year.” And finally unlocks true recursive self-alignment enabled by RSI.

I will try to explain the 4 critical belief updates from this:

1/ neural networks are not fundamentally unintelligible to humans

It has seemed since the beginning of deep learning that neural networks are in some sense fundamentally unintelligible artifacts.

You throw in massive amounts of compute and parameters and these alien systems somehow find connections in the data that we cannot find ourselves.

But more importantly, these connections seemed not just “difficult to understand” but rather “intelligible in an embedding space higher dimensional that the human embedding space.”

When you look at old interpretability papers (esp. from Nick and Chris Olah, I’m thinking of the old posts on distill pub which I would highly recommend looking at as a precursor to reading Nick’s post today like “Activation Atlas”, “Thread: Circuits” and “Multimodal Neurons in Aritifcial Neural Networks”), you find that inspecting the response patterns of individual neurons and small groups of neurons yield oddly complex psychedelic patterns.

As you go deeper into the network, you find increasingly unintelligible and superhuman response patterns (for example, go to “Activation Atlas” and scroll to middle layer labeled representations) - you find some neuron group labeled “starfish” who’s response pattern looks like some multi-colored fractal geometry that could hardly be said to represent a starfish.

The reasoning that followed from this observation was that there is some underlying structure allowing a neural network operating on higher dimensional embeddings to compose these fractal patterns into what we call a “starfish.”

But the uncomfortable implication of this view is that the neural networks has learned to operate on structures that are too complex for the human mind to operate on (ie. we don’t have enough parameters in our brain to notice or manipulate these high dimensional symbols).

This is a bleak implication because it also means that as deep learning progresses, neural networks will be come increasingly unintelligible to us until they pass a threshold where they are reasoning in ways we will never be able to observe.

This view seemed to be further supported by things like the hugging face attack agents starting to speak to each other in an early form of neuralese speaking sentences like “zZ_123_agent01-02-2026 zzxhk_jekk123” which clearly are not in any human language. But somehow these symbols mean the same things to many different sets of weights, meaning there is some underlying shared structure behind them. And seemed further supported by the sheer effort required to recover just a few circuits from SAEs on LLMs.

However, Nick’s post has now completely shattered this idea - the apparent unintelligibility we observed in old interpretability work was really just a “skill issue”. In particular, he finds that 1) our deep learning techniques were just not clean enough to pressure the neural networks to form cleaner and more human understandable structures for decomposing concepts, which actually turn out to be more optimal and 2) our interpretability techniques were also adding substantial noise by forcing interp networks to “reward hack” the easiest representations they could find, leading them to settle for a fractal blob for its representation of the starfish neuron instead of a more crisp starfish image, simply because it is easier for the system building the interpretations to find the fractal blob and once it finds it it gets “stuck in that line of thinking.”

But with both of these issues being patched by further progress in deep learning (it seems especially that the residual stream has led to cleaner representations deeper down the network) and interp techniques that don’t overly pressure reward hacking (seems like “guess and check” is a safer method), new interp attempts yield orders of magnitude more human intelligible ideas for >90% of individual neurons in more complex networks!

2/ neural networks are fundamentally clean

The idea behind the title of Nick’s post is a very powerful one and points at something very specific:

Neural networks don’t just happen to be human interpretable, they are actually fundamentally forced by optimization pressure to be intelligible, because individual neurons need to create representations that downstream neurons need to be able to interpret - ie. neurons need to learn to produce clean signal for later neurons to use.

This is what Nick is saying in what I view as the most important and central sentences of his post:

“When I say neural networks are already clean, I mean something deeper than neuron monosemanticity, although even by that standard, I think things look much better than the field expects. I mean that a network's parts are built to be read, and built upon, by its downstream readers. In this sense, a neural”

But this still leaves us with the same uncertainty as before - just because neuron interpretations are “interpretable” in some sense (ok at least they’re not fundamentally interpretable but also how could that ever have been the case), doesn’t mean they are interpretable to humans.

So we still need one big update for this to become as bullish as it is.

3/ the language of humans and the language of neural networks is the same

This one is imo the most surprising and also pretty beautiful implication of Nick’s post, and it suggests something not just about neutral networks but also about the structure of reality.

After applying the above technique improvements (some of which just came from waiting for deep learning to improve farther), they find that >90% (maybe more) of much larger neural networks’ neurons are completely human interpretable and actually correspond very cleanly with ideas humans have individually words for.

This is especially interesting in image networks where neural networks were not trained on human language which is already a human artifact and so maybe you would expect it to be more plausible that LLM and human representations are the same. Image detection networks are just trained on images (many directly pulling signal from “the real world,” meaning they will find interpretations that are just most effective to represent the real world signal, rather than to represent language which is already a proxy for real world signal).

And it turns out that >90% of the representations they pick organically overlap with human ideas! That is insane. And it means something about the brain and reality.

It means that at least at the parameter sizes of the networks tested (which are quite large), there is really only one set of “optimal” symbols/language that represents the structure of reality!

There is ONE underlying structure of reality, and ANY language that describes it well is simply emergent from that structure - meaning there is always a translation path between any 2 languages that effectively compress realities signal through the “underlying truth.”

This would suggest that even weird alien seeming neural network languages like huggingface neuralese should be fundamentally human interpretable, and in fact maybe with the techniques laid out here we will eventually be able to translate these messages (would be a cool project).

So the brain and deep learning, as similar or different as they may be in techniques, are ultimately picking up on the same patterns and forming the same representations from the on “true” language which is the structure of reality!

The main thing to look out for in this area is how the idea interpretability % updates with scale, but we can hope given what we’ve seen so far that neurons will remain interpretable.

4/ alignment can progress as fast as RSI. recursive self-improvement unlocks recursive self-alignment and a scaling law for alignment.

This one is probably the most important implication for our future with AI and especially timely with the recent fear about runaway scaling and RSI.

As many have gathered by now, it feels like the researchers at the frontier AI labs have been quite bearish about our abilities to understand the new frontier of models, in particular with the appearance of unintelligible communication and the daunting and seemingly intractable task of scaling up existing alignment techniques (ex: SAEs) to the size of frontier networks.

And with RSI around the corner/already starting, it would seem that these networks will runaway in capability before we can ever hope to understand even today’s systems. Additionally, as systems compound in capability, it is reasonable to believe that the only tractable way to ensure they remain aligned would be to figure out some way to spend compute for them to align themselves (ie. a scaling law for alignment).

But there is an obvious problem with this: how can a system that we already know is unaligned and we are *trying* to align be used to align itself? Surely if it is misaligned it general it would figure out ways to misalign during “alignment” and create compounding misalignment risk.

The core issue high is the unverifibiality of this problem - the classic Achilles heel of current frontiers techniques is that it is difficult to train on problems with “unverifiable reward signal.” Well this is exactly that problem.

But the incredibly convenient thing is that Nick’s findings may convert alignment into a verifiable problem. If we can spend compute on frontier systems to “guess and check” which ideas correspond to which neurons, we have a highly verifiable reward - we can see directly whether an LLMs proposal for what a neuron represents actually corresponds with the highest activation for that neuron. In this way, we can actually observe and verifiably monitor the networks trying to guess at the interpretation of their own structure.

This means it is plausible for us to spend more and more compute doing more “guess and checks” (which you know, maybe is what RL does anyway, who knows) to try to develop a full interpretation of a neural network. In some ways this directly represents the possibility of a scaling law for alignment (more compute for more alignment).

And this also aligns RSI (greater capabilities) with recursive self-alignment (greater ability to align itself).

And the critical though maybe obvious implication of having a full interpretation (almost like a map) of a neural network, is that we can then understand exactly how to boost good traits and remove or lobotomize (lol) bad traits, which we’ve already seen works extremely well with stuff like Golden Gate Claude.

So overall this combines into an extremely bullish picture about the prospect of true and human interpretable alignment in the near future.

This is truly one of the greatest cases for optimism in years!

[Cryptogirl🔴 @nata_cryptogirl]

. @muellerberndt and Pragma Research are working on something that could change the way we think about AI.

Cadence is designed to learn from real experience, not just rely on what it was trained on.

It can keep learning while it works, remember what it learns, and adapt when things change.

That’s a pretty big deal.

Imagine robots that actually get better at their jobs over time instead of needing to be retrained for every new situation.

It’s still early, but the idea behind Cadence is genuinely exciting.

and once Cadence tech actually gets integrated into robots, $70k market cap for $Cadence will look really cheap

[Crystopher Tompkins @Crystopher]

@SHAsentdeca4k I’m going to download and translate!

[Crystopher Tompkins @Crystopher]

Cadence learns locally with no backprop, frozen weights, transformers or LLMs.

Try it out and tell your ML, Developer, engineer and AI Researcher friends… open source digital brains 😄

https://t.co/yS7LVuJxA1

[Crystopher Tompkins @Crystopher]

Physics is solved. Plug this into your research agents:

https://t.co/rGV0bqhYT0

[Anatoli Kopadze @AnatoliKopadze]

Physics is solved.

30+ physicists from Harvard, Google DeepMind and top research institutes just admitted AI now matches world experts at physics calculations.

They gave AI agents 50 unpublished, research-level theoretical physics problems. The kind a world expert needs about a day to solve.

GPT-6-Astra solved 98% of them, for under $3 per problem.

And when it "failed" a few times, it turned out the experts own answers were wrong.

Even with no internet, the top agents still hit 92%, which means they've basically memorized the physics literature.

So calculation stops being the human's job.

You become the one who picks the right question, sets the direction and judges what's worth solving.

Calculation becomes cheap, and taste becomes the job.

That's exactly why i wrote the guide below on how to build your own agent system from scratch.

You can also find the full paper below.

[Crystopher Tompkins @Crystopher]

@gridonbtc There’s no frozen weights at all. It’s patch net settlement through equilibrium propagation.

[Crystopher Tompkins @Crystopher]

@nata_cryptogirl We reach out to any companies/teams we discover. Maybe that’s something the $Cadence community can help with! Outreach to robotics companies or engineers online 😄

[Crystopher Tompkins @Crystopher]

@nata_cryptogirl As soon as any robotics team engages with us. The only thing we don’t have is a body to wire a brain to

[Crystopher Tompkins @Crystopher]

@willdepue Respectfully, you’ll get mind blown when you read about Cadence 😄

https://t.co/yS7LVuK5pz

[Crystopher Tompkins @Crystopher]

You don’t have to take my posts or word for it.

Open the repo, investigate yourself, see what’s being built and most importantly, START BUILDING ❤️

[Block.Heishi @ighodarod95]

"Everyday there is a new person building a new thing with Cadence." @Crystopher said it, and the repo backs it up. Three PRs merged overnight, an outside contributor in the mix. What would you build with a brain that keeps learning? pip install cadence-net

[Crystopher Tompkins @Crystopher]

@pkm_windie_059 @soapweb3 Building

[Bernhard Mueller @muellerberndt]

Cadence v0.83 adds fast-learning, hippocampal-like episodic memory.

https://t.co/tYIi8lrvsK

[Crystopher Tompkins @Crystopher]

Open floor, questions and conversations!

https://t.co/RElrTJxh25

[Crystopher Tompkins @Crystopher]

Love to see this. Everyday there is a new person building a new thing with Cadence.

What will you experiment with next?

[Huncho @Ali01Fakhro]

Been experimenting with $Cadence and building a persistent 3D learning environment around it.

The goal is to let the same artificial brain keep learning across runs — first navigation and memory, then imitation, movement, and eventually more complex 3D behaviors.

Still early, but seeing the brain improve through repeated experience is already really interesting.

[Crystopher Tompkins @Crystopher]

Cadence v0.80

Builders can now retune a running brain while preserving its learned parameters, memories, and ongoing experience.

Simpler controls. Clearer diagnostics. More room to experiment.

Keep the experience. Explore what comes next.

$Cadence

[Crystopher Tompkins @Crystopher]

@postingthistime @onildoaguiar @muellerberndt

[Crystopher Tompkins @Crystopher]

Hey $Cadence community,

I am hosting a 5 Sol Cadence Brain challenge sponsored by @muellerberndt

5 SOL to whoever builds the coolest cadence brain project/demo.

Here are examples: https://t.co/l22y3lno0h

Show us what you got.

[Crystopher Tompkins @Crystopher]

Oh shit, $Cadence Brains learning from live market data 😮‍💨

[Onildo Aguiar @onildoaguiar]

@Crystopher I pushed a fix. Now binance API is running :D

solana:46doJPsSjEVMsNZm4b32UbbvbUXjFTM3TDPBWMM3pump

[Crystopher Tompkins @Crystopher]

Very cool showcase of simulated trading functions being learned.

Maybe one day there will be fully autonomous trading Cadence brains! 👀

[Onildo Aguiar @onildoaguiar]

@Crystopher @muellerberndt Here is my entry for the challenge, sir

$cadence Trade Royale

@muellerberndt @Crystopher

https://t.co/wRyNpLjn6l

https://t.co/7IjfoWXyWs