‹ All models
MiniMax

Training MiniMax-M2 on H200

Ranked by tokens/s per GPU · 8,192-token SFT rows · global batch 128 · BF16
#Tokens/s per GPU$ / 1M tokensGPUsLayoutMeasuredAuthor
#12,034.4$1.0864TP1 PP8 VPP4 EP8 DP8
VPP 4, no offload
2026-10-21ATTUNERecipe ›

Notes for MiniMax-M2

The steps every recipe shares: Running a recipe.

Recipes

#1attune-tp1-pp8-ep8-vpp42,034.4 tokens/s/GPUTP1 PP8 VPP4 EP8 DP8VPP 4, no offload
  • Starting point: slime's MiniMax-M2 script, scripts/run-minimax-m2.sh with scripts/models/minimax-m2.sh at slime 0.3.0. slime ships it as a 16-node GRPO script that shares the GPUs with its rollout engine and publishes no tokens/s figure for it. Ported to this workload on 64 H200 with its layout (TP 2 with sequence parallel, PP 2, full recompute, Adam on the CPU) and EP 8 in place of its EP 4, at which each GPU's expert weights and FP32 gradients alone exceed its memory, it measured 557.8 tokens/s/GPU; ATTUNE tuned it to 2,034.4 (+265%).
  • --pipeline-model-parallel-layout 'Et|(tt|)*30tL' cuts the 62 layers into 32 virtual stages, 4 per pipeline rank: the first holds the embedding and 1 layer, the last 1 layer and the loss, and the 30 in between 2 layers each, so ranks 0 and 7 hold 7 layers and the others 8.
  • The reference recipe runs at TP 2 with sequence parallelism, where slime's MiniMax-M2 layer spec gives the full-width q and k norm weights twice their gradient: each TP rank applies the norm to the gathered q and k, and Megatron sums the gradients of these sequence-parallel weights over TP. The forward pass is unchanged, and this recipe, at TP 1, is not affected.
Author
ATTUNE (cite)
GPUs
64 x H200 141 GB (AWS p5en.48xlarge, 8 per node)
Layout
TP 1, PP 8 (first and last stage 7 layers, the others 8), VPP 4, CP 1, EP 8, ETP 1, DP 8; one 8,192-token row per microbatch; full recompute (uniform, 1 layer); precision-aware distributed optimizer; no offload; alltoall dispatcher
Tokens/s per GPU
2,034.42
$ / 1M tokens
$1.08
MFU
12.8% (N = 10,415,112,192 active parameters per token)
Step-time CV
1.57%
Convergence check
correlation 0.9997869, final loss difference 0.0018, 0 pointwise failures over 20 steps
Component test
precision-aware Adam on the GPU and CPU optimizer offload (fraction 1.0, overlapped copies), each against an FP64 reference: H200, 2026-10-11. Shape: one Qwen3.5-397B-A17B MoE layer: hidden 4096, 512 experts, top-10, expert FFN 1024, EP 8, ETP 1, 4,096 tokens per rank. worst tensor (update) relative L2 error 5.12e-7 on the GPU and 7.98e-7 offloaded against a bound of 1.0e-3 after one step, and 4.99e-5 and 7.72e-5 against 1.1e-3 after three steps at the recipe's hyperparameters (bound 2 x the default GPU optimizer's error + 1e-3); reconstructed FP32 masters bitwise identical to an arm with explicit FP32 masters, the TE remainder self-test passes and the negative controls fail run on this recipe's training image (the same image configuration); the optimizer step is elementwise, so the result holds for every model on the image
Measured
2026-10-21
GPU-hours
9.07
Rows
minimax-m2-tulu3-fixed8192-v1 (rows_sha256 f731270d13a2b34202cc0266c58a599318ff5957b15c3f9b9e9c1f71f9caf400)

Stack

framework
slime 0.3.0: THUDM/slime a897e1f plus 8 commits that do not change the training step
megatron lm
commit 1dcf0daf (megatron-core 0.16.0rc0), with a backported upstream fix for the Qwen3.5 attention output gate at TP above the query-group count
transformer engine
2.10.0
pytorch
2.11.0 (CUDA 12.9 build)
cuda
12.9
nccl
2.28.9 (CUDA 12.9 build; printed by the measured run)
deepep
1.2.1 (installed; the alltoall dispatcher does not use it)
python
3.12.3
network
8 GPUs per node, EFA, 3.2 Tb/s RDMA per node

Environment

  • CUDA_DEVICE_MAX_CONNECTIONS=1
  • PYTORCH_CUDA_ALLOC_CONF=expandable_segments:True
  • TORCHINDUCTOR_COMPILE_THREADS=1
  • NCCL_NVLS_ENABLE=$([ "$NVLINK_COUNT" -gt 0 ] && echo 1 || echo 0)
CommandHow to run
export CUDA_DEVICE_MAX_CONNECTIONS=1
export PYTORCH_CUDA_ALLOC_CONF=expandable_segments:True
export TORCHINDUCTOR_COMPILE_THREADS=1
export NCCL_NVLS_ENABLE=$([ "$NVLINK_COUNT" -gt 0 ] && echo 1 || echo 0)

python3 -m <slime entry module> --async \
  --actor-num-nodes 8 \
  --actor-num-gpus-per-node 8 \
  ${MODEL_ARGS[@]} \
  --hf-checkpoint "$HF_CKPT" \
  --ref-load "$TORCH_DIST" \
  --rollout-function-path pretokenized_sft_rollout.generate_rollout \
  --prompt-data "$SFT_DATA" \
  --input-key messages \
  --metadata-key metadata \
  --num-rollout 20 \
  --rollout-batch-size 128 \
  --global-batch-size 128 \
  --loss-type sft_loss \
  --calculate-per-token-loss \
  --disable-compute-advantages-and-returns \
  --debug-train-only \
  --seq-length 8192 \
  --tensor-model-parallel-size 1 \
  --pipeline-model-parallel-size 8 \
  --context-parallel-size 1 \
  --expert-model-parallel-size 8 \
  --expert-tensor-parallel-size 1 \
  --recompute-granularity full \
  --recompute-method uniform \
  --recompute-num-layers 1 \
  --use-dynamic-batch-size \
  --max-tokens-per-gpu 8192 \
  --optimizer adam --lr 1e-5 --lr-decay-style cosine --min-lr 1e-6 \
  --lr-warmup-fraction 0.1 --weight-decay 0.1 --adam-beta1 0.9 --adam-beta2 0.98 \
  --use-distributed-optimizer \
  --use-precision-aware-optimizer \
  --attention-dropout 0.0 --hidden-dropout 0.0 \
  --accumulate-allreduce-grads-in-fp32 --attention-softmax-in-fp32 \
  --attention-backend flash \
  --distributed-timeout-minutes 30 \
  --tensorboard-dir "$PROFILE_DIR" \
  --pipeline-model-parallel-layout 'Et|(tt|)*30tL'
recipes/minimax-m2/h200/attune-tp1-pp8-ep8-vpp4.yamlDownloadGitHub
# recipes/minimax-m2/h200/attune-tp1-pp8-ep8-vpp4.yaml
# An OpenRecipes recipe; the fields are documented in schema/recipe.schema.yaml.
schema_version: 1
model: MiniMax-M2
gpu:
  type: H200
  memory_gb: 141
  count: 64
  per_node: 8
  instance: AWS p5en.48xlarge
author:
  name: ATTUNE
  url: https://arxiv.org/abs/2610.17528
status: verified
stack:
  framework: 'slime 0.3.0: THUDM/slime a897e1f plus 8 commits that do not change the training step'
  megatron_lm: commit 1dcf0daf (megatron-core 0.16.0rc0), with a backported upstream fix for the Qwen3.5 attention output
    gate at TP above the query-group count
  transformer_engine: 2.10.0
  pytorch: 2.11.0 (CUDA 12.9 build)
  cuda: '12.9'
  nccl: 2.28.9 (CUDA 12.9 build; printed by the measured run)
  deepep: 1.2.1 (installed; the alltoall dispatcher does not use it)
  python: 3.12.3
  network: 8 GPUs per node, EFA, 3.2 Tb/s RDMA per node
  source: 'in-pod version check of the measured run''s training image (same digest), 2026-10-22: installed TE, PyTorch,
    DeepEP and megatron-core, Megatron-LM git commit, Python, and slime''s MiniMax-M2 model and launcher scripts; NCCL
    from the measured run''s log'
workload:
  row_tokens: 8192
  rows: SFT conversations
  global_batch: 128
  precision: bf16
  dataset:
    name: Tulu 3 SFT mixture
    source: allenai/tulu-3-sft-mixture
    revision: b14afda60f1bbebe55d5d2fa1e4df5042f97f8be
    license: ODC-By 1.0
    rows_sha256: f731270d13a2b34202cc0266c58a599318ff5957b15c3f9b9e9c1f71f9caf400
    build:
      name: minimax-m2-tulu3-fixed8192-v1
      tokenizer: MiniMax-M2 (revision 757303d492a50514c312788b5247a4f696a4c6a3; tokenizer.json sha256 757622126525aeeb131756849d93298070ff3f0319c455ec8c5bb0f6b1cebbe8;
        chat_template.jinja sha256 86cd6e574dec52bf6d7e678c5b46ceb5223d68b3a1130bbbc09d0a2dc0909438)
      loss_mask: minimax_m2
      rows: 6400
      row_tokens: 8192
      padding_tokens: 0
      seed: 42
      packing: source conversations in a seeded global permutation, concatenated with an EOS token between them and cut
        into consecutive 8,192-token rows; rows without supervised targets are skipped
      supervised_token_ratio: 0.64
      parquet_sha256: 2fb29ca63b79dc153defaacba1b41c783840de528a3ec353e5f6505144575036
      parquet_bytes: 75539521
      builder: data/generate_fixed_sft.py with --loss-mask-type minimax_m2 (data/README.md)
layout:
  label: TP1 PP8 VPP4 EP8 DP8
  summary: TP 1, PP 8 (first and last stage 7 layers, the others 8), VPP 4, CP 1, EP 8, ETP 1, DP 8; one 8,192-token row
    per microbatch; full recompute (uniform, 1 layer); precision-aware distributed optimizer; no offload; alltoall dispatcher
  highlights: VPP 4, no offload
  tp: 1
  pp: 8
  vpp: 4
  cp: 1
  ep: 8
  etp: 1
  dp: 8
  sequence_parallel: false
  layer_split:
    first: 7
    last: 7
  max_tokens_per_gpu: 8192
  rows_per_microbatch: 1
  recompute:
    granularity: full
    method: uniform
    num_layers: 1
  offload: null
  dispatcher: alltoall
result:
  tokens_per_s_per_gpu: 2034.42
  usd_per_million_tokens: 1.08
  step_time_cv_percent: 1.57
  mfu: 0.1285
  mfu_note: null
  active_params:
    count: 10415112192
    source: https://huggingface.co/MiniMaxAI/MiniMax-M2
    revision: 757303d492a50514c312788b5247a4f696a4c6a3
  measured: 2026-10-21
  steps_per_run: 20
  window:
  - 5
  - 19
  window_tokens: 15728640
  runs: 1
  profiler: false
  gpu_hours: 9.07
  gpu_hours_note: GPUs x (scheduler admission to finish), including startup; the same run is the candidate arm of the
    convergence check
correctness:
  result: pass
  summary: passed; 1 component test passed on this image
  reference: 'The layout of slime''s `scripts/run-minimax-m2.sh` on 64 GPUs: TP 2 with sequence parallelism, PP 2, EP
    8 in place of its EP 4, ETP 1, full recompute (uniform, 1 layer), max 8,192 tokens/GPU (one row per microbatch) and
    CPU optimizer offload with overlapped copies and the precision-aware optimizer. Model arguments, rows and schedule
    are the same in both recipes.'
  configuration: pass
  component_tests:
  - test: precision-aware Adam on the GPU and CPU optimizer offload (fraction 1.0, overlapped copies), each against an
      FP64 reference
    shape: 'one Qwen3.5-397B-A17B MoE layer: hidden 4096, 512 experts, top-10, expert FFN 1024, EP 8, ETP 1, 4,096 tokens
      per rank'
    gpu: H200
    date: 2026-10-11
    result: pass
    detail: worst tensor (update) relative L2 error 5.12e-7 on the GPU and 7.98e-7 offloaded against a bound of 1.0e-3
      after one step, and 4.99e-5 and 7.72e-5 against 1.1e-3 after three steps at the recipe's hyperparameters (bound
      2 x the default GPU optimizer's error + 1e-3); reconstructed FP32 masters bitwise identical to an arm with explicit
      FP32 masters, the TE remainder self-test passes and the negative controls fail
    note: run on this recipe's training image (the same image configuration); the optimizer step is elementwise, so the
      result holds for every model on the image
  convergence:
    steps: 20
    result: pass
    correlation: 0.9997869
    final_loss_difference: 0.0018
    pointwise_failures: 0
    note: 'candidate arm: the measured run; reference arm: a 20-step run of the reference recipe on the same image and
      rows; the parity probe off in both'
  rules: argument classes of ATTUNE's skill/scripts/correctness/rules/numerics_list.yaml (amazon-science/attune aff5b81);
    20-step check by Megatron-Bridge validate_convergence with its pipeline thresholds
env:
  CUDA_DEVICE_MAX_CONNECTIONS: '1'
  PYTORCH_CUDA_ALLOC_CONF: expandable_segments:True
  TORCHINDUCTOR_COMPILE_THREADS: '1'
  NCCL_NVLS_ENABLE: $([ "$NVLINK_COUNT" -gt 0 ] && echo 1 || echo 0)
patches: []
run: |
  export CUDA_DEVICE_MAX_CONNECTIONS=1
  export PYTORCH_CUDA_ALLOC_CONF=expandable_segments:True
  export TORCHINDUCTOR_COMPILE_THREADS=1
  export NCCL_NVLS_ENABLE=$([ "$NVLINK_COUNT" -gt 0 ] && echo 1 || echo 0)

  python3 -m <slime entry module> --async \
    --actor-num-nodes 8 \
    --actor-num-gpus-per-node 8 \
    ${MODEL_ARGS[@]} \
    --hf-checkpoint "$HF_CKPT" \
    --ref-load "$TORCH_DIST" \
    --rollout-function-path pretokenized_sft_rollout.generate_rollout \
    --prompt-data "$SFT_DATA" \
    --input-key messages \
    --metadata-key metadata \
    --num-rollout 20 \
    --rollout-batch-size 128 \
    --global-batch-size 128 \
    --loss-type sft_loss \
    --calculate-per-token-loss \
    --disable-compute-advantages-and-returns \
    --debug-train-only \
    --seq-length 8192 \
    --tensor-model-parallel-size 1 \
    --pipeline-model-parallel-size 8 \
    --context-parallel-size 1 \
    --expert-model-parallel-size 8 \
    --expert-tensor-parallel-size 1 \
    --recompute-granularity full \
    --recompute-method uniform \
    --recompute-num-layers 1 \
    --use-dynamic-batch-size \
    --max-tokens-per-gpu 8192 \
    --optimizer adam --lr 1e-5 --lr-decay-style cosine --min-lr 1e-6 \
    --lr-warmup-fraction 0.1 --weight-decay 0.1 --adam-beta1 0.9 --adam-beta2 0.98 \
    --use-distributed-optimizer \
    --use-precision-aware-optimizer \
    --attention-dropout 0.0 --hidden-dropout 0.0 \
    --accumulate-allreduce-grads-in-fp32 --attention-softmax-in-fp32 \
    --attention-backend flash \
    --distributed-timeout-minutes 30 \
    --tensorboard-dir "$PROFILE_DIR" \
    --pipeline-model-parallel-layout 'Et|(tt|)*30tL'
notes: |
  - Starting point: slime's MiniMax-M2 script, `scripts/run-minimax-m2.sh` with `scripts/models/minimax-m2.sh` at
    slime 0.3.0. slime ships it as a 16-node GRPO script that shares the GPUs with its rollout engine and publishes no
    tokens/s figure for it. Ported to this workload on 64 H200 with its layout (TP 2 with sequence parallel, PP 2,
    full recompute, Adam on the CPU) and EP 8 in place of its EP 4, at which each GPU's expert weights and FP32
    gradients alone exceed its memory, it measured 557.8 tokens/s/GPU; ATTUNE tuned it to 2,034.4 (+265%).
  - `--pipeline-model-parallel-layout 'Et|(tt|)*30tL'` cuts the 62 layers into 32 virtual stages, 4 per pipeline rank:
    the first holds the embedding and 1 layer, the last 1 layer and the loss, and the 30 in between 2 layers each, so
    ranks 0 and 7 hold 7 layers and the others 8.
  - The reference recipe runs at TP 2 with sequence parallelism, where slime's MiniMax-M2 layer spec gives the
    full-width q and k norm weights twice their gradient: each TP rank applies the norm to the gathered q and k, and
    Megatron sums the gradients of these sequence-parallel weights over TP. The forward pass is unchanged, and this
    recipe, at TP 1, is not affected.

Citation

If you use a recipe by ATTUNE, please cite the paper.

BibTeX
@article{fan2026attune,
  title   = {{ATTUNE: Agentic Throughput Tuning for LLM Training}},
  author  = {Leo Fan and Hongyang Wang and Wenbo Chen and Jingguo Liu and Xian Li and Xuan Wang and
             Ruochen Wen and Yiming Yan and Hao Wu and Zheshen Wang and Benoit Dumoulin},
  journal = {arXiv preprint arXiv:2610.17528},
  year    = {2026},
  url     = {https://arxiv.org/abs/2610.17528}
}

MiniMax-M2 on other GPUs

H100
–
No recipe yet
H200 · 64 GPUs · this page
2,034.4
tokens/s/GPU · $1.08 / 1M tokens
B200
–
No recipe yet