
RoPE encodes relative position by applying rotation matrices to input features
Image: Microsoft Copilot, Public domain, via Wikimedia Commons
RoPE encodes relative position by applying rotation matrices to input features
RoPE encodes position: multiply Q,K by rotation matrix R(θ_i) at each position
RoPE encodes position by multiplying Q,K by R(θ_i) at each position
RoPE's advantage is: supports length extrapolation beyond training context length
RoPE (Relative Position Encoding) advantage: supports length extrapolation beyond training context length
ALiBi allows length extrapolation better than learned position embeddings
ALiBi uses relative positional encoding, avoiding fixed-size embeddings, enabling better handling of variable-length sequences
sinusoidal position encoding works: each dimension has a different frequency
Sinusoidal position encoding assigns unique frequencies to each dimension, enabling the model to distinguish positions effectively
weight tying does in language models: shares embedding and output projection matrices
Tying reduces the number of parameters by sharing embedding and output projection matrices
List of algorithms
Cosine similarity measures the angle between vectors, not their magnitude
One email a day: 5 concepts + the 5 stories that matter →
Swipe through 100 ML concepts daily
Open TickerNews