Lower each stream to 200000 ctx (pool 600000) to free KV VRAM for the larger batch. Add --no-mmap so the CPU-resident MoE experts load eagerly into RAM (avoids decode page faults). Keep KV on GPU. Experts already fully on CPU.
29 lines
1.1 KiB
Bash
29 lines
1.1 KiB
Bash
# Tunables for frank-default-small (HauhauCS Q6_K_P + DFlash draft, dankserver)
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# Runtime: llama-server b10108; RTX 3090 24GB; Ryzen 7 7700X; 62GB RAM.
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MODEL_DIR=/home/dank/models
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ALIAS=frank-default-small
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HOST=0.0.0.0
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PORT=7770
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# 3 parallel slots x 200000 ctx each = 600000 total context pool.
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# (Reduced from 262144/stream per operator: allows the larger batch to fit VRAM.)
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CTX_SIZE=600000
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PARALLEL=3
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SPEC_TYPE=draft-dflash
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SPEC_N_MAX=7
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CACHE_TYPE_K=q8_0
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CACHE_TYPE_V=f16
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# All 40 layers keep their MoE expert weights on CPU (targeted expert offload).
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N_CPU_MOE=40
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# Every non-expert tensor (attention, norms, embedding, LM head) goes to GPU.
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N_GPU_LAYERS=all
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# Larger batches for prefill throughput. The bigger physical batch grows GPU
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# activation buffers; ctx-checkpoints parks attention checkpoints in RAM to
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# hold peak GPU memory down so the larger ubatch fits without OOM.
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BATCH_SIZE=3072
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UBATCH_SIZE=1536
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CTX_CHECKPOINTS=4
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# Load the model into RAM rather than lazy-mapping it. The MoE experts live on
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# CPU, so eager RAM load avoids page faults during decode (uses ~31GB RAM).
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NO_MMAP=1
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THREADS=8
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THREADS_HTTP=8 |