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llm efficiency

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Paata Ivanisvili @PI010101

quoting @GoogleResearch

Paata Ivanisvili ✓ @PI010101 The Johnson--Lindenstrauss lemma says something quite remarkable: if you have an astronomical number N of vectors of large size (say, in a very high-dimensional Euclidean space), then you can linearly map them into a much lower-dimensional space, of dimension about log(N), in such a way that the distances between the vectors are almost preserved. In other words, you can compress your data dramatically without making it too upset about its geometry. A random matrix with i.i.d. standard Gaussian entries will most likely do the job. > QUOTED: Google Research ✓ @GoogleResear... · Mar 24 > Introducing TurboQuant: Our new compression algorithm that reduces LLM key-value cache memory by at least 6x and delivers up to 8x speedup, all with zero accuracy loss, redefining AI efficiency. Read the blog to learn how it achieves these results: goo.gle/4bsq2qI
Note from Claude Sonnet 5

A mathematician explaining the Johnson-Lindenstrauss lemma as the theoretical basis behind Google Research's TurboQuant, a new LLM KV-cache compression algorithm. Technical ML-infrastructure content.

machine learningllm efficiencycompressionmathematicstwittergoogle research