mamba_skill

This skill helps you deploy and experiment with Mamba selective state-space models for efficient linear-time sequence processing on GPUs.
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Readme & install

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Installation

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npx veilstrat add skill orchestra-research/ai-research-skills --skill mamba

  • SKILL.md7.2 KB

Overview

This skill packages the Mamba selective state-space models for linear-time sequence modeling and fast generation. It provides Mamba-1 (small state) and Mamba-2 (multi-head, larger state) implementations and ready-to-use LM wrappers with pretrained checkpoints. Expect O(n) complexity, no KV cache, and hardware-aware kernels for long sequences and low-latency inference.

How this skill works

The skill implements selective state-space models (SSMs) that replace quadratic attention with linear-time state updates, using compact state vectors and optimized CUDA kernels. Mamba-1 uses a small d_state for lightweight layers while Mamba-2 uses multi-head SSMs (larger d_state, RMSNorm, tensor parallelism) for higher capacity. The library includes LM head models, generation utilities, and HuggingFace-compatible checkpoints for straightforward loading and inference.

When to use it

  • You need to model very long sequences (100k+ tokens) or streaming data.
  • You want faster inference and lower latency than transformers for generation.
  • Memory is constrained and you want to avoid KV cache overhead.
  • You need linear scaling with sequence length for production or research workloads.
  • You plan to benchmark or prototype alternative sequence architectures to attention-based models.

Best practices

  • Match model size to available GPU VRAM (guidance included for 130M–2.8B models).
  • Use FP16 and device placement to reduce memory and improve throughput on NVIDIA GPUs.
  • Enable gradient checkpointing for training large models to reduce peak memory.
  • Install optional causal-conv1d for better efficiency on conv kernels.
  • Prefer the provided MambaLMHeadModel.from_pretrained loader for HuggingFace checkpoints to avoid compatibility issues.

Example use cases

  • Low-latency text generation services that require high throughput and long context windows.
  • Streaming transcription or dialog systems that must maintain constant memory per token.
  • Research experiments comparing SSM-based and attention-based sequence models on long-context tasks.
  • Deploying language models in memory-constrained environments where KV cache is infeasible.
  • Benchmarks to compare inference speed and memory between Mamba and transformer baselines.

FAQ

NVIDIA GPU with CUDA 11.6+ and PyTorch 1.12+ is recommended; performance and provided VRAM guidance assume CUDA-enabled GPUs.

How much faster is Mamba versus transformers?

Typical generation is around 5× faster in benchmarks, with linear scaling and no KV cache lowering memory usage.

Which Mamba version should I pick?

Use Mamba-1 (d_state≈16) for lightweight, lower-cost setups and Mamba-2 (d_state≈128, multi-head) for higher capacity and distributed training.

How do I load pretrained models?

Use the supplied MambaLMHeadModel loader and matching tokenizer; several checkpoints are available for direct loading and generation.

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mamba skill by orchestra-research/ai-research-skills | VeilStrat