KONAMI retweeted
🚀 Introducing DeepInfer, our in-house inference framework, now fully open source!
Powering DeepSeek-V4.1-Flash at scale with high throughput and low latency. We’re sharing our production stack to help the community lower compute costs, reduce energy use, and make AI more affordable.
🔗 github.com/deepseek-ai/DeepI…
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Wow
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We are excited to share our new model ARROW 🏹 !
ARROW brings D4RT-style decoding to broader input types, including multi-view videos and unordered collections of images.
📜arXiv: arxiv.org/abs/2610.01314
🌐Project page: vision.rwth-aachen.de/arrow
KONAMI retweeted
Do it, @arsenal. Revenge for Chido.
Exclusive: 15-year-old wonderkid JJ Gabriel tells Manchester United he wants to leave and asks for his registration to be cancelled #mufc
- Plus, a big read on how it ever got to this for a club famed for developing the country's best young talent
telegraph.co.uk/football/202…
Big
We are at the dawn of Superintelligence.
Introducing the Recurrent Looped Transformer (RLT),
We now have Transformers with Infinite Reasoning depth.
From now on, we should pace progress at the Open Frontier of Superintelligence,
Until Safe Superintelligence is achieved.
github.com/yifanzhang-pro/re…
KONAMI retweeted
We are at the dawn of Superintelligence.
Introducing the Recurrent Looped Transformer (RLT),
We now have Transformers with Infinite Reasoning depth.
From now on, we should pace progress at the Open Frontier of Superintelligence,
Until Safe Superintelligence is achieved.
github.com/yifanzhang-pro/re…
KONAMI retweeted
Our group discovered that reasoning models produce fractals when asked to solve hard problems. We can use nonlinear dynamics to probe the thinking processes of recurrent depth models on Sudoku, mathematics, and even ARC-AGI (1/N)
arxiv.org/abs/2609.04963
👏 👏
We have found stable singularity on 3D Euler!
anima-ai.org/2026/09/07/stab…
Our starting point is a physics-informed neural network (PINN) to come up with an approximate answer, and then to argue stability around that to complete the proof.
The challenge so far has been that PINNs have not been successful in discovering singularities on the current problem. A common failure mode is PINNs converging to a trivial solution. We take special care to nudge our PINN to interesting regions through a combination of constraints, and we believe this is a novel way of making PINNs work for such hard optimization problems.
We also carry out a detailed study of the transport field of our approximate profile, and show it has promising properties of local outgoing flow, essential for proving linear damping, which is an important ingredient of overall stability.
We believe that such physics-informed and physics-centric AI are critical ingredients across many areas of research involving physical systems, and LLMs lack such physical grounding.
We have been working on this problem for much of this year, and we just saw the announcement by Tristan on Euler with forcing. In contrast, we consider without forcing and use a PINN formulation. @Caltech
KONAMI retweeted
Replying to @ChaseLochmiller @OpenAI
GPT-6 Astra, trained on ~100K+ NVIDIA Grace Blackwell NVLink72. From ChatGPT to o1 to Astra in 4 years.
AGI has arrived. Congratulations @OpenAI team.
400K GPUs coming online next.
Introducing Z1T:
Our first family of transformer-like models
made for sparse probabilistic hardware like Z1
Achieving up to 140x energy efficiency gains over GPUs
and revealing a new scaling law for sparse transformers
Read the blog:
extropic.ai/writing/z1t
This being the first thing I see opening twitter while doing exactly that 🤣
Heard that some frontier models are basically a 48-layer transformer looped twice (48L x 2).
Now we are introducing DeepLoop: Depth Scaling for Looped Transformers (arxiv.org/abs/2607.13491),
making the loop transformer stable and scalable!
KONAMI retweeted
🐕 🍄 🎻 🚜 ReImageNet is out. 🚜 🎻🍄🐕
We reannotated the whole ImageNet-1k val. set from scratch: 50,000 images, multilabel, 96,051 boxes, new definitions for all 1,000 classes.
You can browse every single annotation:
vrg.fel.cvut.cz/reimagenet
Paper: arxiv.org/abs/2608.13783
KONAMI retweeted
Most latent generative models still follow the same two-stage recipe: train a VAE for reconstruction, freeze it, then force the generative model to learn whatever latent space it gets. But reconstruction-optimal latents are not necessarily generation-friendly — so why not let the generative model shape the latent space directly?
ByteDance Seed presents GenFirst to make stable end-to-end latent learning work.
This work revisit the VAE objective and identify a prior–entropy imbalance as the key cause of latent collapse in naive end-to-end training. After fixing collapse with explicit entropy preservation, they find that generation and reconstruction have strongly asymmetric learning dynamics.
This leads to Generation Before Reconstruction (GenFirst): first let the generative objective shape a generation-friendly latent space, then strengthen reconstruction to recover visual details.
The results are strong. With end-to-end SiT + VAE training, GenFirst achieves 0.97 gFID with CFG / 1.45 without CFG on ImageNet-256, and reaches the final SiT result with at least 70× fewer training steps. This is the first diffusion model to reach FID < 1.0 without an FD loss. On text-to-image generation, it reaches 0.90 GenEval.
More importantly, this end-to-end framework goes beyond image generation: it learn a shared visual latent space that supports generation, representation learning, and reconstruction, and further extend end-to-end latent learning to continuous text latents, enabling unified text-to-image and image-to-text diffusion modeling.
GenFirst: Generation Before Reconstruction for Stable End-to-End Latent Generative Modeling
Paper: arxiv.org/abs/2608.29335
Project: tom-zgt.github.io/GenFirst/
HF Daily Paper: huggingface.co/papers/2608.2…
If This isn’t the greatest thing I’ve seen all year
This odds what I expected genie 3
Two of us filmed this on a couple phones, and we used Atlas to turn it into a short film. This is just a clip from the @theworldlabs tech blog
Atlas is able to generate the parts of the scene that none of the cameras actually filmed.
It can freeze time, allowing you to reframe shots to positions never filmed, then resume.
View events from impossible angles because Atlas knows what was there.


























