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Training and inference efficiency
The computational cost of training and serving large language models grows faster than hardware improvements can offset. Scaling laws suggest diminishing returns without architectural innovation. Mixture-of-experts, state-space models, linear attention variants, and speculative decoding offer paths to efficiency, but each introduces new trade-offs in quality, memory, or engineering complexity. Achieving compute-optimal scaling while maintaining capability across diverse tasks is critical for sustainable AI development.
Research Domains
systemsfoundations
Keywords
scaling lawmixture of expertsMoEstate-space modelMambalinear attentionquantizationspeculative decodingKV cachedistillationefficient trainingcompute optimal
Last updated: April 8, 2026
Recent Papers(Artificial Intelligence)
DETECTING RARE CORTICAL CONNECTIVITY AROUND THE HUMAN CENTRAL SULCUS: A DEEP LEARNING ANALYSIS OF 37,000+ TRACTOGRAPHIES
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Diffusion-Based Fourier Domain Deconvolution with Application to Ultrasound Image Restoration
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