Fever
f z,d
@(70)
{
f3 p = z * nor(2*C.rgb - R.xyy)
p.xy *= mat2(cos(z*.5+f4(,33,11,)))
p.z-=T;
d=2; @(5) d+=d,
p += sin(p.yzx*d+z) / d
z += min(abs(cos(p.y)),d=len(1/tan(p.xz)))/4;
O += f4(1.1+sin(p),)/d
}
O = tanh(O / 2e2)
I love turning basic Math concepts into art.
This is a Riemann sphere driven by a moving rational function
R(z) = ∏(z-aⱼ) / ∏(z-bₖ)
The glowing roots and poles orbit across S² while log|R| and Φ = arg R continuously reshape the surface. The small particles ride the phase gradient ∇Φ.
ARDY: Autoregressive Diffusion with Hybrid Representation for Interactive Human Motion Generation
SIGGRAPH 2026
https://t.co/SaG6OnMwpX
ARDY is an autoregressive diffusion model designed for interactive motion generation, supporting online text prompting and flexible long-horizon kinematic constraints (root paths/waypoints, full-body keyframes, and sparse joint positions/rotations) with real-time responsiveness.
Check out our #ECCV2026 paper "Low-latency Event-based Object Detection with Spatially-Sparse Linear Attention", where we make linear attention sparse in space, recurrent in time, and parallel in training, enabling the first purely-linear-attention-based neural network for asynchronous object detection with #EventCameras, outperforming the previous best asynchronous method with 20x less computation with truly event-by-event inference on CPU! Code released!
Paper: https://t.co/5eLPgR9kWx
Code: https://t.co/3sNKrWJbVw
Video: https://t.co/6HL3mYOpFL
Event cameras promise extremely low-latency vision, but to fully exploit them, the neural network must be low-latency too. We introduce #SpatiallySparseLinearAttention (#SSLA) for asynchronous object detection directly from raw events.
Linear attention is particularly appealing for event cameras: it can be trained efficiently in parallel on long event sequences, while at inference it operates recurrently, updating its prediction every time a new event arrives.
The problem is that conventional linear attention updates its entire state for every event. For object detection, where fine spatial resolution matters, this quickly becomes expensive.
Our key idea is simple: an event only carries information about a small spatial region, so why update the entire spatial state? SSLA updates only the relevant parts of the state, enabling fine-grained spatial representations while keeping per-event computation low.
We achieve:
- >20× lower per-event computation than the strongest prior asynchronous baseline
- State-of-the-art accuracy among asynchronous object detection methods
- Truly event-by-event inference on CPU, designed to preserve the latency advantage of event cameras
Come to our poster on Friday September 11, 2026 from 4-6pm at ExHall #389
Reference:
Haiqing Hao, Zhipeng Sui, Rong Zou, Zijia Dai, Nikola Zubić, Davide Scaramuzza, Wenhui Wang
Low-latency Event-based Object Detection with Spatially-Sparse Linear Attention
ECCV, 2026
@Prophesee_ai@SynSenseNeuro@UZH_en@UZH_Science@ERC_Research@UZH_ai@uzh_ifi@Tesla@BYDCompany
#EventCameras #ComputerVision #Robotics #DeepLearning #NeuromorphicVision #AI
Getting a relightable 3D mesh from photos used to mean messy topology, no UVs, and baked-in shadows. ExMesh++ fixes that: adaptive topology + PBR materials from multi-view images. Clean assets, no ambiguity ⚡
📄 https://t.co/SbG8FTwBQr
LightGlue ONNX
ONNX-compatible LightGlue: Local Feature Matching at Light Speed. Supports TensorRT, OpenVINO
https://t.co/Q1vDiknqVP
Open Neural Network Exchange (ONNX) compatible implementation of LightGlue: Local Feature Matching at Light Speed. The ONNX model format allows for interoperability across different platforms with support for multiple execution providers, and removes Python-specific dependencies such as PyTorch. Supports TensorRT and OpenVINO.