AWQ selectively retains weights crucial for model performance, unlike traditional quantization
Image: O'Connor P, Neil D, Liu S, Delbruck T, Pfeiffer M, CC BY 3.0, via Wikimedia Commons
AWQ selectively retains weights crucial for model performance, unlike traditional quantization
GPTQ vs AWQ: GPTQ uses Hessian-based quantization, AWQ preserves activation-important weights
GPTQ applies Hessian-based quantization, AWQ retains weights crucial for activations
GPTQ quantization does
Post-training quantization using second-order information for model compression
quantization to INT8 doubles throughput
Quantization to INT8 doubles throughput because tensor cores process INT8 2x faster
weight tying does in language models: shares embedding and output projection matrices
Ever wonder how machines understand the sequence of words in a sentence?
MoE models have more parameters but similar compute cost
MoE models distribute parameters across k experts, reducing active experts' compute cost
batch size affects generalization: larger batches find sharper minima
Larger batch sizes lead to sharper minima, enhancing generalization by providing more accurate gradient estimates
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