A PyTorch Library for Photonic AI Computing Model Training and Co-Design (NeurIPS'21)
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Updated
Jan 13, 2026 - Python
A PyTorch Library for Photonic AI Computing Model Training and Co-Design (NeurIPS'21)
optical attention via wave interference in holographic crystals verified to float precision. the math is done. contribute to build the hardware.star it, fork it, break it.
Official pytorch implementation of the paper: "Coherence Awareness in Diffractive Neural Networks"
This repository contains the supplementary package accompanying the manuscript: Photonic Mixture-of-Experts for scalable on-chip multi-task optical neural networks
Flyiscomputing (FIC) Architecture — A Complete Non-Von Neumann Infrastructure Unleashing the Full Physical Dimensions of Light in Motion. Founded by Xifeng Si (思希峰).
Et eksperimentelt, dybdegående instruktionssæt og simulator til ultrahurtig datalagring med flere bølgelængder i smeltede silicakrystaller.
Official pytorch implementation of the paper: "Illumination Angular Spectrum Encoding for Controlling the Functionality of Diffractive Networks"
Experimental simulator for programmable hexagonal MZI photonic meshes with on-chip-style backpropagation and realistic noise models
Simulation-only validation ladder for mapping neural weight matrices to HRM-style photonic transfer functions.
Public research archive for programmable photonic computing, mixed-signal survivability, and resident sparse-decision processing.
This repository accompanies “Free-Space Coherent Optical Dot-Product Multiplier with Lensless Fan-In” (Duque et al., 2026). It provides simulation code for a coherent free-space optical dot-product system using DMD/SLM-style modulation and camera-like readout.
A theoretical hardware architecture framework for the post-silicon era based on on radiation-evacuated lithium niobate on sapphire (LNOS)
Dual-DMD control and camera-sync tooling for DLPC900-based optical computing experiments.
Simulation of Spectral Atlas photonic processor with InAs/InGaAs QD and Hamming(7,4) soft-decision FEC pipeline
用光做计算,用热控制光。一份诚实的工程验证——28 个脚本,6 个核心问题,所有不确定性均已标注。
Official pytorch implementation of the paper: "Can the Success of Digital Super-Resolution Networks Be Transferred to Passive All-Optical Systems?" and for "All-optical uncertainty visualization for ill-posed image restoration tasks"
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