Asymmetric Looped Transformers: Fixed Global Representations for an Iterative Decoder
We introduce the Asymmetric Looped Transformer (AsymLoop), which separates single-pass context encoding from recurrent state refinement.
ProofPaper ↗
Key points
- Looped Transformers increase effective depth by repeatedly applying shared layers, offering a way to scale computation without increasing parameter count.
- However, full-stack looping places context construction and iterative state refinement within the same recurrent computation, without explicitly distinguishing their roles.
- A single-pass causal encoder produces layer-specific Global key-value (KV) caches that remain fixed across iterations, while a weight-tied recurrent decoder generates Local KV from its evolving state.
- For training, we apply a heavy-tail-guided layerwise learning-rate method to the encoder and decoder.
Sources (1)
- [1]Asymmetric Looped Transformers: Fixed Global Representations for an Iterative DecoderarXiv (AI, ML, NLP, CV, robotics, multi-agent) · Oct 20, 04:36 PM
We introduce the Asymmetric Looped Transformer (AsymLoop), which separates single-pass context encoding from recurrent state refinement.
Looped Transformers increase effective depth by repeatedly applying shared layers, offering a way to scale computation without increasing parameter count.
Extractive summary: sentences quoted from the sources.
Before this
- Oct 20, 2026Gradium Open-Sources Phonon, a 31M-Parameter On-Device TTS Model Under Apache 2.0
- Oct 20, 2026Exa 3.0 Search API Tops Perplexity, Brave and Parallel on 8 Benchmarks
- Oct 20, 2026MPS in PyTorch 2.15
- Oct 19, 2026MiniMax M3.1 Flash shows China's AI price race has no floor in sight
- Oct 19, 2026TokenGate: Adapting LLMs for Fast and Memory-Efficient Prefill with Learned Token Pruning
- Oct 19, 2026TorchNeuron: running HF models on AWS Trainium is easier than ever