Thinking Machines put the Inkling 2 Small weights on Hugging Face on Nov 12, 2026, under Apache 2.0 — and the first question every builder asks is the rental question. The honest answer starts with size: a 594-billion-parameter model whose own card asks for a GPU cluster with at least 500GB of memory. There is no single-card route. What there is: a cheapest verified way in at $14.36 an hour, a more comfortable one for 44 cents an hour more, and a clear set of people who should not rent at all and should use the APIs the maker lists instead. The model facts come from the maker's own card and repos, read on release day; the prices from our verified board, checked Nov 12, 2026.
What Inkling 2 Small is
From the maker's own card, read Nov 12, 2026: a multimodal mixture-of-experts model — text and image in, text out — with 594 billion parameters in total and 17 billion active per token. A 48-layer decoder-only transformer; each token routed to 8 of 384 experts; local and global attention layers; a vision transformer for image input; a context window of 1 million tokens. It launched closed on Thinking Machines' Tinker platform on Nov 5, 2026; the weights landed on Hugging Face on Nov 12, 2026, under Apache 2.0, with day-one integration in SGLang, vLLM, TokenSpeed and Unsloth. Two checkpoints ship: the native NVFP4 build — the precision the model was trained in, and the one the card recommends — and an MXFP8 build. Full record: the model's catalogue entry on this site.
The memory maths
An MoE model carries a trap in its headline numbers. The 17B active figure is not the size of the download, the memory, or the rental. Every one of the 594 billion parameters sits in GPU memory whether a given token uses it or not — the active count shapes the compute per token; the total decides what you rent. Anyone who prices this as a “17B model” is about to be surprised by a cluster bill.
| Checkpoint | On disk (the repo's own file list) | The maker's floor | What the gap is for |
|---|
| NVFP4 — native, recommended | 393.5GB — 24 weight shards (about 390GB) plus the bundled speculator file (3.4GB) | At least 500GB of aggregated VRAM (card's examples: 2× B300 or 4× H200) | About 106GB above the file — working room for KV cache, activations and the framework. The card sets the floor; it does not itemise the gap, and neither do we. |
| MXFP8 — the alternative | 622.8GB — 49 weight shards | At least 800GB of aggregated VRAM (card's examples: 4× B300 or 8× H200) | About 177GB above the file, same job. |
Why the NVFP4 file is bigger than the naive maths (594B × 0.5 bytes ≈ 297GB): it is a mixed build, not a uniform one. The repo's own metadata shows about 248GB of FP4-packed weights alongside about 128GB in FP8 and about 14GB in BF16 — and the vLLM recipe linked from the card explains the split: experts are NVFP4 in layers 0–39 and MXFP8 in layers 40–47. Four-bit is the bulk, not the whole. The context window deserves the same honesty. “1M tokens” is the model's ceiling, not a promise about what a 500GB cluster serves at full length to a crowd. The working, from the model's published config: 8 of its 48 layers attend globally (the other 40 use a 1,024-token sliding window, per the vLLM recipe), and a global layer's KV cache at BF16 costs 2 × 8 KV heads × 128 head-dim × 2 bytes = 4,096 bytes per token — about 32KB per token across the 8 global layers, so one sequence at the full 1M context carries roughly 33GB of KV cache alone (labelled assumptions: BF16 KV cache, per sequence; sliding-window layers excluded — their cache stops growing at the window). Against about 106GB of headroom, that is a handful of full-length sequences, not a crowd — the recipes set the context and batch you actually get. vLLM's verified configurations agree: on GB200 trays it verifies up to 262,144 tokens at TP4 and reserves the full 1,048,576 for TP8.
The configs, priced
The card names exactly two example configurations for NVFP4. Everything below that goes beyond them is labelled as what it is — memory arithmetic against the card's floor, not a maker's promise — and the serving recipes are the final arbiter of what runs well.
| NVFP4 route (floor: 500GB aggregated) | Memory | Rate (Nov 12, 2026) | Total |
|---|
| 4× H200 — RunPod Community (card's example) | 4 × 141GB = 564GB | $3.59/GPU/hr | $14.36/hr |
| 2× B300 — Hyperstack (card's example) | 2 × 288GB = 576GB | $7.40/GPU/hr | $14.80/hr |
| 4× H200 — Hyperstack (card's example) | 564GB | $3.99/GPU/hr | $15.96/hr |
| 2× B300 — RunPod Secure (card's example) | 576GB | $8.99/GPU/hr | $17.98/hr |
| 3× B200 — RunPod Community (memory arithmetic — the card does not name the B200) | 3 × 192GB = 576GB | $5.98/GPU/hr | $17.94/hr |
| 4× H200 — RunPod Secure (card's example, Secure tier) | 564GB | $5.29/GPU/hr | $21.16/hr |
| 4× H200 — Nebius (card's example; rate excludes VAT, as Nebius states) | 564GB | $5.40/GPU/hr | $21.60/hr |
Two lessons in that table. First, the card's two examples land within 44 cents an hour of each other by different shapes — four mid cards against two big ones — so the choice is about headroom, not price: the B300 pair leaves about 91GB per card after the checkpoint loads, the H200 four about 43GB, and that difference is your room for KV cache and batch. Second, the cheap B200 rescues nobody: at $5.98 it is the board's best B200 rate, but clearing the floor takes three, and three cost more than either card example. A cheaper card you need more of is not a cheaper cluster. The minimums that bite. Some per-GPU rates on the board are divisions of whole machines. Oracle OCI's H200 ($10.00/GPU/hr) is an 8-GPU node at $80.00 an hour, take all eight or none; Azure's H200 ($10.60/GPU/hr) is an 8-GPU VM at $84.80 an hour; CoreWeave's ($6.31/GPU/hr) is an 8-GPU node at $50.44 an hour — a real route (1,128GB clears either checkpoint's floor), but priced as a node, because that is what you rent. Compare these node totals against the $14–18/hr shapes above, not the divided rates. The rest of the board, honestly. GB300 is listed per GPU-hour (Verda, $14.00), so two would cost $28.00/hr — double the B300 route, for a rack-scale part the card does not name; Oracle sells it only as a 4-GPU node at $72.00 an hour. The GH200 goes the other way: CoreWeave lists it at $6.50 as a 1-GPU instance with 96GB, so the floor takes six separate instances ($39.00/hr) before interconnect questions start. And no H100 configuration appears in this guide: the card's hardware story starts at the H200 and the B300, and we do not invent routes the maker has not documented. MXFP8's table is shorter still — 8× H200 at RunPod Community ($28.72/hr) or 4× B300 at Hyperstack ($29.60/hr) — because its honest use in a cost guide is as the priced warning in the watch-outs below.
The serving route, as documented
The software story is unusually well documented for a day-one release, because the maker shipped the integrations with the weights. The card names four local inference routes, each with its own recipe — SGLang, vLLM, TokenSpeed and Unsloth — plus Hugging Face's own stack, and three post-training routes: Miles, SkyRL and Snowflake Cortex Training. What the documentation also says, before your first invoice:
| Point | What the documentation says |
|---|
| vLLM support is a special build for now | The recipe's runtime note: use the dedicated vllm/vllm-openai:inkling-2-small image until support lands in a vLLM release — a pinned image, not the stock install. |
| The parallelism is expert-parallel | Per the recipe, the MoE runs expert-parallel across the tensor-parallel group (TP4 = TP4 attention with EP4 experts) — which is why the card speaks of clusters, not cards. |
| A speculator ships in the checkpoint | The 3.4GB extra file is a DSpark speculative-decoding head, and the recipe is candid that its acceptance depends on your prompts and sampling settings. What it earns on your traffic is yours to measure — we publish no speed figure for it. |
| Fine-tuning has a shape limit here | LoRA adapters are supported on attention projections and routed experts, but expert adapters need BF16 expert weights — with this checkpoint's NVFP4/MXFP8 experts, that means attention-only adapters. If your plan is expert LoRA, that sentence is your budget's most important line. |
What it costs over real stretches of time
Assumptions, stated plainly: on-demand rates checked Nov 12, 2026; GPU-hours only — storage, downloads, egress and your own serving work excluded, because they vary by provider and are not part of the card rate. We publish no throughput figures for this model, so nothing here is priced per token; these are the costs of holding the cluster, which is the decision a renter actually signs.
| Stretch | Cheapest — 4× H200, RunPod Community ($14.36/hr) | Comfortable — 2× B300, Hyperstack ($14.80/hr) | MXFP8 — 8× H200, RunPod Community ($28.72/hr) |
|---|
| 24 hours — an evaluation day | $344.64 | $355.20 | $689.28 |
| 48 hours — a weekend of testing | $689.28 | $710.40 | $1,378.56 |
| One week (168 hours) | $2,412.48 | $2,486.40 | $4,824.96 |
| Around the clock, a month (730 hours) | $10,482.80 | $10,804.00 | $20,965.60 |
Read the shape, not just the numbers. A serious evaluation — a day, a weekend — costs a few hundred dollars and is a perfectly sane rental. The commitment gets heavy only when the cluster never sleeps: five figures a month, every month, whether or not anyone is asking it questions. That asymmetry decides the next section.
Who should not self-host
Anyone whose usage is occasional, bursty, or still being figured out. The rental floor is about $345 a day before your first token, and it runs while you sleep. The same weights are served by API at NVIDIA, Fireworks, Together, Baseten, Nebius, Modal and Cloudflare, and the maker runs them on its own Tinker platform and playground — all named on the card itself. We hold no verified per-token API price for this model as of Nov 12, 2026, so we print no break-even and invent none: price your expected token volume at those APIs against roughly $10,500 a month for an always-on cluster, and notice how much round-the-clock traffic it takes before renting wins.
| If this is you | The honest route |
|---|
| Occasional, bursty, or still evaluating the model | The hosted APIs or the maker's playground — renting a cluster to find out whether you like the model is the most expensive evaluation method on this page; the playground and the APIs exist for exactly that. |
| You need the weights themselves | Self-host: post-training on your own data (the card names Miles, SkyRL and Snowflake Cortex Training), data that cannot leave your machines, or volume that genuinely never sleeps. |
Watch-outs
| The trap | Why it costs you |
|---|
| The licence is Apache 2.0 — with a policy attached | Both repos carry apache-2.0, and the card also links the maker's Model Acceptable Use Policy, which states that by downloading or using the weights you agree to be bound by it: use restrictions, responsibility for your end users' compliance if you serve them the model, and a disclosure duty. Read it before a commercial launch — “Apache 2.0” is not the whole legal picture. |
| The MoE trap | 17B active is the compute story; 594B total is the memory story, the download story and the rental story. Every sizing decision in this guide runs off the total. So should yours. |
| The MXFP8 trap | The alternative checkpoint doubles the memory floor (800GB against 500GB), roughly doubles the file (622.8GB against 393.5GB) and doubles the cheapest rental ($28.72/hr against $14.36/hr) — for a 1–2-point evaluation gain the maker itself calls not meaningful, in a checkpoint that is not the model's native precision. The card recommends NVFP4 for all use cases. So do the prices. |
| The 1M-context trap | The ceiling is real; the served context is set by memory and the recipes' verified configurations, not the headline — plan context and batch from the recipes, not the spec sheet. |
| The rate that is really a node | OCI's and Azure's H200 figures are 8-GPU machines ($80.00 and $84.80 an hour); CoreWeave's is an 8-GPU node ($50.44 an hour). Compare totals with totals. |
| Day-one software | The recipes exist and are linked from the card — and the vLLM route is a pinned special image, expert LoRA is attention-only on this checkpoint, and the ecosystem finished its support the week the weights dropped. Budget setup time as part of the rental; your first day is installation, not serving. |
How we know
Model facts read first-hand on Nov 12, 2026 from Thinking Machines' own sources: the Hugging Face card for thinkingmachines/Inkling-2-Small (594B total / 17B active; 48 layers; 8 of 384 experts; 1M context; Apache 2.0; the 500GB NVFP4 floor with 2× B300 or 4× H200 examples and the 800GB MXFP8 floor with 4× B300 or 8× H200; NVFP4 recommended and MXFP8's gain “not meaningful”; the API providers and serving frameworks named); both repos' file lists (NVFP4: 24 shards, 393.5GB total including the 3.4GB speculator file, dtype split about 248GB FP4-packed / 128GB FP8 / 14GB BF16; MXFP8: 49 shards, 622.8GB; both licence fields apache-2.0); the published config.json (48 layers, 8 KV heads, 128 head-dim, 1,048,576 maximum length — basis of the KV arithmetic, assumptions labelled where it appears); the maker's Model Acceptable Use Policy (binding on download or use; last updated Jul 15, 2026, as the page states); and the vLLM recipe the card links to (40 sliding-window + 8 full-attention layers; experts NVFP4 in layers 0–39, MXFP8 in 40–47; the pinned inkling-2-small image; expert-parallel serving; DSpark speculator; GB200 TP4/TP8 context configurations; attention-only LoRA on this checkpoint). Prices are GPUJournal's verified board, checked Nov 12, 2026 on providers' own pages and banked the same day: H200 — RunPod Community $3.59, Hyperstack $3.99, RunPod Secure $5.29, Nebius $5.40 excluding VAT, CoreWeave $6.31 (8-GPU node, $50.44/node/hr), Oracle OCI $10.00 (8-GPU node, $80.00/node/hr), Azure $10.60 (8-GPU VM, $84.80/VM/hr), all per GPU per hour; B300 — Hyperstack $7.40, RunPod Secure $8.99; B200 — RunPod Community $5.98; GB300 — Verda $14.00, OCI 4-GPU node $72.00/node/hr; GH200 — CoreWeave $6.50, 1-GPU instance. GPU memory figures are the board's own (H200 141GB, B200 192GB, B300 288GB, GH200 96GB). Two honesty notes: no per-token API price for this model exists in our checked records as of Nov 12, 2026, so this guide prints no API break-even; and configurations beyond the card's two named examples are labelled in the text as memory arithmetic, not maker-verified routes. Live board: Compare prices. The model: Inkling 2 Small in our catalogue. The release: Inkling 2 Small weights are out.
Model Deployment · 2026-10-30 · 12 min
The weights are out. Moonshot published Kimi K3.1 Pro on Hugging Face on Nov 4, 2026 — 96 safetensors shards summing to 1,561,293,160,568 bytes (about 1.56TB) in native MXFP4 — under its own Kimi K3.1-Pro License, with vLLM, SGLang and TokenSpeed named on the model card as the serving engines. This guide, first published Oct 30, 2026 as pre-release maths, was refreshed on Nov 6, 2026 with the real file sizes, the real licence and the official recipes: the smallest honest setup is one 8-GPU B300 node, the cheapest node-shaped setup on the current board is 16× H200 at $57.44/hr — and Moonshot’s own API, at $2.00 in / $10.00 out per 1M tokens, still beats self-hosting on price at ordinary volumes.
Model Deployment · 2026-10-29 · 10 min
Mistral’s Large 4 — “Le Chonk” — landed on Hugging Face on Oct 29, 2026: about a trillion parameters, free to download, and far too big for any single graphics card. This page does the deployment maths in the open: how much memory each version needs, the smallest rental setups that honestly hold it, what those setups cost per hour, per day and per month — and the point where renting GPUs beats paying per token, and where it doesn’t.
Model Deployment · 2026-10-23 · 9 min
For teams eyeing the weights that landed on Hugging Face on 23 October 2026 and asking a simple question: can we run this ourselves, and what would it actually take? MiniMax M3.1 Flash is a 428B mixture-of-experts model (~23B active per token) that handles text, images and video, with a context window of up to 1 million tokens. It is big, it is capable, and it does not fit on one card. This guide shows the memory maths plainly, the smallest node that honestly works, and what that node costs today.