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meta-learning-in-context-decoding-v3

Meta-learning In-Context Enables Training-Free Cross Subject Brain Decoding. Uses meta-learned in-context learning to decode brain signals across subjects without any subject-specific training. Supports visual decoding from fMRI/EEG signals with zero-shot generalization. Activation: meta-learning brain decoding, in-context learning, cross-subject, training-free decoding, zero-shot brain decoding, visual reconstruction, 元学习脑解码, 跨被试解码, 零样本解码

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hiyenwong/ai_collection
最近来源活动
2026年6月4日 13:32
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SKILL.md
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name
meta-learning-in-context-decoding-v3
description
Meta-learning In-Context Enables Training-Free Cross Subject Brain Decoding. Uses meta-learned in-context learning to decode brain signals across subjects without any subject-specific training. Supports visual decoding from fMRI/EEG signals with zero-shot generalization. Activation: meta-learning brain decoding, in-context learning, cross-subject, training-free decoding, zero-shot brain decoding, visual reconstruction, 元学习脑解码, 跨被试解码, 零样本解码
version
1.0.0
metadata
{"hermes":{"source_paper":"Meta-learning In-Context Enables Training-Free Cross Subject Brain Decoding","arxiv_id":"2604.08537","tags":["meta-learning","brain-decoding","cross-subject","in-context","zero-shot"]}}
# Meta-Learning In-Context Brain Decoding ## Overview Enables training-free cross-subject brain decoding through meta-learned in-context learning. The model learns to adapt to new subjects at inference time by conditioning on a small number of reference examples, eliminating the need for per-subject fine-tuning. ## Core Innovation Traditional brain decoders require subject-specific training data. This approach: 1. Meta-learns a general decoding prior across many subjects 2. At inference, adapts to new subjects via in-context examples 3. Achieves competitive accuracy with zero subject-specific training ## Architecture ``` Meta-Training: [Subject A examples] + [Subject B examples] + ... → Learn decoding prior Inference: [New subject context examples] + [Target brain signal] → Decoded output ``` ## In-Context Adaptation ```python class MetaInContextDecoder: def __init__(self, base_model): self.base = base_model def decode(self, brain_signal, context_signals, context_labels): # Concatenate context as "prompt" input_seq = torch.cat([context_signals, brain_signal], dim=1) # Model attends to context to adapt output = self.base(input_seq) # Extract prediction for target position return output[:, -1, :] ``` ## Key Advantages - **Zero-shot generalization**: No training data needed for new subjects - **Few-shot improvement**: Adding more context examples improves accuracy - **Scalable**: Works across different recording modalities - **Practical**: Eliminates per-subject calibration sessions ## Applications - Rapid BCI deployment (no calibration) - Clinical neuroimaging across diverse populations - Multi-subject neuroscience studies - Visual reconstruction from brain activity ## Related Skills - eeg-ieeg-bridge, eeg-foundation-models, brain-foundation-model-batch-effects
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