Neural Scroll Project: Predicting Brain Scrolls with Swin Transformer
Welcome to the Neural Scroll Project, where cutting-edge neuroscience meets state-of-the-art vision transformers to uncover hidden structures within the brain โ what we call โbrain scrollsโ. These latent spatiotemporal patterns encode deep layers of cognition, memory, and sensory processing.
๐ง What is a Brain Scroll?
A brain scroll is a metaphorical term we use to describe highly structured, multi-dimensional neural activity patterns that emerge over time โ like a scroll being unrolled. These patterns often represent:
- Episodic memory sequences
- Predictive cognition loops
- Neural priors shaped by experience and environment
Our goal is to predict and decode these patterns in real-time using advanced machine learning architectures โ particularly, the Swin Transformer.
๐ Why Swin Transformer?
The Swin Transformer (Shifted Window Transformer) is a hierarchical vision transformer architecture that excels in learning from spatially localized features. Originally designed for computer vision, its properties make it ideal for decoding dynamic brain activity represented as high-dimensional time-series maps (e.g., fMRI slices or MEG signals over time).
Key advantages:
- Local-global context fusion through window shifting
- Hierarchical feature learning like CNNs, but fully attention-driven
- Excellent at temporal prediction when adapted with positional encodings
๐งช Our Experimental Pipeline
- Data Input: Preprocessed fMRI/EEG tensors shaped as 3D arrays (Time ร Channels ร Regions)
- Embedding: Patch-based embedding of time-series slices
- Swin Transformer: Multi-stage encoder layers with shifted attention windows
- Prediction Head: Forecasting latent scroll patterns in future timesteps
Sample Architecture
๐ฅ python
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class BrainScrollPredictor(nn.Module):
def __init__(self):
super().__init__()
self.swin = SwinTransformer3D(...)
self.head = nn.Linear(...)
def forward(self, x):
features = self.swin(x)
return self.head(features)