
Faculty @ELLISInst_tue and @MPI_IS leading the Computational Applied Mathematics & AI Lab (CAMAIL) + Scientific Advisor @liquidai || Prev. @MIT_CSAIL + @ETH_en
Cambridge, MA
Joined May 2020
- Tweets272
- Following301
- Followers1.1K
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Konstantin Rusch retweeted
I learned a lot from this paper, thanks to the authors! 😍Building on FPRM’s fixed-point approach, QRR introduces rotational symmetry to recognize convergence even while the hidden state keeps moving ---> it stops in fewer iterations!
This is by far the coolest visualization I’ve seen on here in a while!! 🔥👇
Today we release 𝚍𝟷-𝚞𝚕𝚝𝚛𝚊, our most powerful decision model.
> built for hard decision problems.
> d1-ultra is multimodal
> supports 44 languages
> #1 on the @ArtificialAnlys Decision Index (65)
> leads all eight categories of our 112-evaluation suite
1/
Konstantin Rusch retweeted
Can reasoning finish while latent states keep moving?
Happy to share Quotient Recurrent Reasoner (QRR)!
We let symmetry-generated rotations persist while task-relevant dynamics converge faster in quotient space, reaching 97.9% on Sudoku-Extreme with 78% fewer loops than FPRM.
Konstantin Rusch retweeted
Our paper, Looped Reasoning Finishes Earlier Than You Think, is now on arXiv, with code available below!
Paper: arxiv.org/abs/2610.18174
Code: github.com/camail-official/Q…
With my advisor T. Konstantin Rusch (@tk_rusch).
We'd love to hear your thoughts!
6/🧵
Konstantin Rusch retweeted
QRR combines faster convergence with stable reasoning performance.
With 7M parameters, QRR reaches:
97.9% on Sudoku-Extreme
85.8% on Maze-Hard / 97.0% on Maze-Unique
62.4% Pass@1 on Mini-ARC
5/🧵
Konstantin Rusch retweeted
On Sudoku-Extreme, QRR reaches solution roots much sooner than FPRM (median 122 vs 234 lfwd).
It also halts the reasoning loop earlier (27 vs 122 recurrent steps), with only 0.1% false halts, compared with 8.9% for FPRM.
4/🧵
Konstantin Rusch retweeted
FPRM and HRM often develop a dominant slow oscillatory mode that delays convergence.
QRR's learned quotient dynamics, in contrast, settle earlier without a leading slow-mode bottleneck. Removing the leading mode provides only a small further gain in QRR unlike others.
3/🧵
Konstantin Rusch retweeted
A dominant oscillatory mode can impose its slow decay rate on coupled latent dynamics.
We predict its coupling effect from local Jacobian analysis, then attenuate that mode once in FPRM and HRM.
The measured responses and settling-time gain match our predictions.
2/🧵
Konstantin Rusch retweeted
FPRM shows alternating flips while HRM follows spirals near solution roots.
QRR's raw state can also rotate while its quotient trajectory contracts.
The key distinction is whether these oscillations affect the remaining computation, even as raw motion continues.
1/🧵
Introducing Quotient Recurrent Reasoners (QRR) 🚀
Looped reasoning models (e.g., TRM, FPRM) spend a large amount of loops on oscillatory dynamics that don't contribute to reasoning, wasting a lot of computation before converging. Turns out gauge equivariance helps tremendously by defining convergence in a quotient space instead of state-space, where these oscillations are part of the same equivalence class.
Super strong performance on reasoning benchmarks: Sudoku-extreme: 97.9% 🤯
Incredibly work done by my student Sumin Park @psmiziz
Check out the fascinating thread below. Also such a cool visualization! 🧵👇
@ELLISInst_Tue @MPI_IS @liquidai
fixed-size matrix-valued memory is all the rage!
code: github.com/davidgonmar/depth…
Paper: arxiv.org/pdf/2610.18809
Replying to @_davidgonmar
Joint work with @philna00 (co-first author), @tk_rusch and @Shiwei_Liu66.
Paper: arxiv.org/abs/2610.18809
Code: github.com/davidgonmar/depth…
Checkpoints: huggingface.co/collections/d…
Konstantin Rusch retweeted
MesaNet rotated 90 degree?
mHC and AttnRes demonstrate that richer depth mixing improves model performance at scale. Is there a unifying perspective? 🤔
Meet our Depth Memory framework: each layer reads from a set of streams to form its input, then writes back its output.
Linear Depth Memory (LDM) equips models with a matrix-valued memory.
Konstantin Rusch retweeted
Very interesting work!
Seems closely related to Deep Delta Learning.
arxiv.org/abs/2601.00417
mHC and AttnRes demonstrate that richer depth mixing improves model performance at scale. Is there a unifying perspective? 🤔
Meet our Depth Memory framework: each layer reads from a set of streams to form its input, then writes back its output.
Linear Depth Memory (LDM) equips models with a matrix-valued memory.
Konstantin Rusch retweeted
Super interesting work applying test-time regression along the depth axis
mHC and AttnRes demonstrate that richer depth mixing improves model performance at scale. Is there a unifying perspective? 🤔
Meet our Depth Memory framework: each layer reads from a set of streams to form its input, then writes back its output.
Linear Depth Memory (LDM) equips models with a matrix-valued memory.
Konstantin Rusch retweeted
Replying to @_davidgonmar
🚀Also make sure to check out our blog post! phnazari.github.io/blog/2026…
Konstantin Rusch retweeted
Continuous Diffusion LMs went from niche to contender this year, but the recipe is shaky: why self-conditioning? How to embed tokens? 🤨
Our new work takes your one-hot flow from 4% to 50% on TinyGSM without self-conditioning, and explores the design space of CDLMs. 🔥🚀 (1/6)
Konstantin Rusch retweeted
delta rule rotated by 90°
mHC and AttnRes demonstrate that richer depth mixing improves model performance at scale. Is there a unifying perspective? 🤔
Meet our Depth Memory framework: each layer reads from a set of streams to form its input, then writes back its output.
Linear Depth Memory (LDM) equips models with a matrix-valued memory.
Konstantin Rusch retweeted
Replying to @yzhang_cs
Significant work. And I think the memory stream may have potential on controlling the recurrent depth of the model.
Konstantin Rusch retweeted
Our new preprint Depth Memory is finally live!
We propose a framework that unifies residual methods such as mHC and AttnRes and propose Linear Depth Memory, a novel depth mixer. Check it out!
Interactive blog post: phnazari.github.io/blog/2026…
mHC and AttnRes demonstrate that richer depth mixing improves model performance at scale. Is there a unifying perspective? 🤔
Meet our Depth Memory framework: each layer reads from a set of streams to form its input, then writes back its output.
Linear Depth Memory (LDM) equips models with a matrix-valued memory.




















