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Co-authored-by: Jojii <15957865+JojiiOfficial@users.noreply.github.com>
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@@ -42,7 +42,7 @@ Qdrant's implementation of TurboQuant extends the original algorithm to close th
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#### TurboQuant vs Scalar Quantization
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The following table shows recall@10 for 4-bit TurboQuant (TQ4) compared to uncompressed vectors (F32) and scalar quantization (SQ) across four benchmarked datasets. Benchmarks were run with HNSW configured with `m=16` and `ef_construct=128`.
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The following table shows recall for 4-bit TurboQuant (TQ4) compared to uncompressed vectors (F32) and scalar quantization (SQ) across four benchmarked datasets. Benchmarks were run with HNSW configured with `m=16` and `ef_construct=128`.
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| Dataset | F32 | SQ | TQ4 |
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@@ -55,7 +55,7 @@ Compared to scalar quantization, TurboQuant delivers similar recall **at double
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#### TurboQuant vs Binary Quantization
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The following table shows recall@10 for 1-bit TurboQuant (TQ1) compared to uncompressed vectors (F32) and 1-bit binary quantization (BQ1) across four benchmarked datasets. Benchmarks were run with HNSW configured with `m=16` and `ef_construct=128`.
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The following table shows recall for 1-bit TurboQuant (TQ1) compared to uncompressed vectors (F32) and 1-bit binary quantization (BQ1) across four benchmarked datasets. Benchmarks were run with HNSW configured with `m=16` and `ef_construct=128`.
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| Dataset | F32 | BQ1 | TQ1 |
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