Trained transformer-based chess models to play like humans (including thinking time) [P]
Summary
Trained transformer-based chess models for rating buckets from 800 to 2500+, predicting moves, thinking time, and outcome. Achieves strong accuracy with only 9M parameters, and includes a novel thinking-time prediction component.
Similar Articles
Transformers Learn the Mestre-Nagao Heuristic
This paper trains a two-layer transformer encoder to classify rational elliptic curves by rank from Frobenius traces, achieving >99% accuracy. Mechanistic interpretability reveals the model learns the Mestre-Nagao heuristic and concentrates attention on prime positions, demonstrating that transformers can learn number-theoretic algorithms.
Transformers Linearly Represent Highly Structured World Models
This paper demonstrates that transformers trained on Sudoku solving traces build structured world models organized by domain constraints, and identifies a sparse, monosemantic circuit responsible for the naked-single decision rule. The work provides a fully interpretable algorithmic account of transformer reasoning on a combinatorial task.
Transformer Math Explorer [P]
This interactive tool visualizes the mathematical underpinnings of transformer models through dataflow graphs, covering architectures from GPT-2 to Qwen 3.6 and various attention mechanisms.
@NFTCPS: You keep talking about AI, but can't even explain what a Transformer is? There's a repo that goes all out — builds a GPT from scratch without using any high-level libraries. It lays out exactly how Attention, Multi-Head, Feed-Forward, Embedding, Residual connections, and Layer Norm are pieced together. And it's not just the model; the entire pipeline is covered…
A GitHub open-source project that implements the complete GPT training pipeline from scratch, including data preprocessing, pretraining, SFT, and RLHF post-training, all based on native PyTorch. Ideal for developers who want to deeply understand the Transformer architecture.
@qinzytech: https://x.com/qinzytech/status/2066585405479371092
A technical analysis of two approaches to building self-evolving AI agents: model-based (via architecture like SSMs or transformer with fast-weight updates, and training methods) and harness-based (via memory or meta harness that can rewrite itself). The author provides practical recommendations for different audiences.