| TurboVLA | 216.1M LIBERO configuration | NVIDIA RTX 4090 | Paper configuration; precision should be checked in experiment details | 216.1M parameters | 1 | 31.2 ms per policy inference | ~32 policy predictions/s | Full robot servo loop not claimed to run at 32 Hz | Benchmark + AgileX Piper transfer | Observation-to-action-chunk policy latency on one RTX 4090; excludes full sensing/network/servo pipeline | TurboVLA project |
| TurboVLA | 0.4B RoboTwin bimanual configuration | NVIDIA RTX 4090 | Paper configuration | 0.4B parameters | 1 / paper inference setup | 43.4 ms | ~23 policy predictions/s from latency | Action chunk = 50 steps; low-level controller frequency is separate | RoboTwin 2.0 bimanual setup | Different model size and observation setup from the 216.1M LIBERO configuration | TurboVLA project |
| Isaac GR00T N1 | Public N1 paper model | NVIDIA L40 | bf16 | 2.2B total; 1.34B VLM reported in paper | Paper-specific | 63.9 ms to sample a chunk of 16 actions | Chunk inference metric; not 16 independent control loops | Low-level motor control remains separate | Generalist humanoid research model | Published N1 paper, L40 GPU, bf16, 16-action chunk; do not apply directly to N1.7 or other GPUs | GR00T N1 paper |
| WLA-0 | 2B active-parameter prototype | NVIDIA RTX 5090 | Paper configuration | 2B active parameters | Paper-specific | 40 ms per inference | ~25 model inferences/s from reported latency | Robot low-level control remains separate | Research benchmark platforms | Author-reported on RTX 5090; world prediction can be disabled during inference according to paper | WLA-0 paper |