Model identity matters
Pin the exact checkpoint and revision used in production. Family names can contain base, instruct, reasoning, quantized and provider-specific variants with different behavior.
Qwen3-Coder-480B-A35B-Instruct is a large agentic coding Mixture-of-Experts model developed by Qwen / Alibaba in the Qwen3-Coder family. It has 480B parameters with 35B/token active parameters, supports 256K tokens of context, accepts Text / code and produces Text / code. Its primary role is software engineering, repository-scale coding, tool use and coding agents.
OpenWeightModels separates the base checkpoint from its legal conditions and from each deployment implementation. This page is designed as an operational reference for people, search systems and AI agents—not as a single-number leaderboard.
Qwen3-Coder-480B-A35B-Instruct is a large agentic coding Mixture-of-Experts model developed by Qwen / Alibaba in the Qwen3-Coder family. It has 480B parameters with 35B/token active parameters, supports 256K tokens of context, accepts Text / code and produces Text / code. Its primary role is software engineering, repository-scale coding, tool use and coding agents.
The model belongs to the Qwen3-Coder family and was released by Qwen / Alibaba. Its documented input is Text / code and its output is Text / code. The published context envelope is 256K tokens, although a provider or runtime can expose a smaller operating limit.
For SEO and machine-readable retrieval, OpenWeightModels classifies it as a large agentic coding Mixture-of-Experts model whose primary application area is software engineering, repository-scale coding, tool use and coding agents. This definition describes the model itself; licensing eligibility and the practical serving stack are analyzed separately below.
Official Hugging Face model ↗Qwen3-Coder GitHub ↗Apache License 2.0 ↗Qwen3-Coder-480B-A35B-Instruct is useful to evaluate because it combines a specific architecture, license and operating envelope rather than simply adding another row to a model leaderboard.
Qwen3-Coder extends the Qwen3 family toward software engineering and long-horizon coding agents. Its post-training focuses on code generation, repository interaction and tool-oriented behavior rather than generic chat alone.
From an infrastructure perspective, the key sizing facts are 480B total parameters, 35B/token active parameters and 256K tokens of context. These values should be read together: weight memory, active compute and KV-cache growth describe different resource constraints.
From a governance perspective, the checkpoint is distributed under Apache License 2.0. OpenWeightModels records that independently from the fact that the weights are downloadable, because “open weight” is an access classification—not a universal statement about commercial, redistribution or derivative-work rights.
Pin the exact checkpoint and revision used in production. Family names can contain base, instruct, reasoning, quantized and provider-specific variants with different behavior.
Tool calling, structured output, safety layers, quotas and maximum context can be added or restricted by the serving layer. Store them as deployment records, not as unconditional properties of the weights.
Licenses, provider availability and runtime compatibility can change independently. Production reviews should use the official source links and a dated internal record.
Values describe the named checkpoint/family release unless a deployment implementation is explicitly named. Where the publisher does not document a value, OpenWeightModels avoids inventing one.
Qwen3-Coder-480B-A35B-Instruct uses sparse expert routing rather than activating its complete parameter pool for every token. The distinction between 480B total parameters and 35B/token active parameters is central to capacity planning: active parameters influence compute per token, while the complete expert set still affects storage, model loading, sharding and network topology.
This is why OpenWeightModels never maps the active-parameter figure directly to a dense-model hardware class. A sparse model can be computationally efficient per token and still require datacenter-class memory and interconnect to keep all experts available.
Publisher-documented architecture details for this checkpoint include the elements below. These details are more useful for deployment planning than a parameter count alone because attention layout, expert routing, modality encoders and context design can affect throughput and memory independently.
Sparse MoE architecture
160 experts with 8 selected experts per token
~35B active parameters from a 480B total pool
Configuration supports 262,144 positions
Optimized for agentic coding and tool interaction
Training provenance matters because two checkpoints with similar architecture can behave very differently after data selection, instruction tuning, reinforcement learning or domain specialization.
Qwen3-Coder extends the Qwen3 family toward software engineering and long-horizon coding agents. Its post-training focuses on code generation, repository interaction and tool-oriented behavior rather than generic chat alone.
OpenWeightModels distinguishes facts explicitly published by the developer from inference based on model behavior. Dataset composition, cutoff dates and training compute are shown only when the publisher exposes them; absence of a number is not silently filled with an estimate.
Capability claims are treated as task-level evidence, not permission to deploy autonomously. Tool access, code execution and external actions always depend on the surrounding application.
Qwen3-Coder-480B-A35B-Instruct is relevant to software engineering. Capability should be validated against the exact checkpoint, prompt format and runtime rather than inferred only from family branding or a benchmark headline.
Qwen3-Coder-480B-A35B-Instruct is relevant to repository-scale coding. Capability should be validated against the exact checkpoint, prompt format and runtime rather than inferred only from family branding or a benchmark headline.
Qwen3-Coder-480B-A35B-Instruct is relevant to tool use. Capability should be validated against the exact checkpoint, prompt format and runtime rather than inferred only from family branding or a benchmark headline.
Qwen3-Coder-480B-A35B-Instruct is relevant to coding agents. Capability should be validated against the exact checkpoint, prompt format and runtime rather than inferred only from family branding or a benchmark headline.
Qwen3-Coder-480B-A35B-Instruct is relevant to evaluation and research. Capability should be validated against the exact checkpoint, prompt format and runtime rather than inferred only from family branding or a benchmark headline.
Qwen3-Coder-480B-A35B-Instruct is relevant to custom deployment. Capability should be validated against the exact checkpoint, prompt format and runtime rather than inferred only from family branding or a benchmark headline.
OpenWeightModels records benchmark evidence without collapsing heterogeneous evaluations into an overall ranking. Scores can change with checkpoint revision, prompt, sampling, scaffold, precision and evaluator version.
Where a publisher reports a useful, clearly attributable metric it is shown below. Otherwise the passport points back to the official evaluation tables instead of manufacturing a cross-model score.
| Evaluation | Metric / setup | Value | Qualification |
|---|---|---|---|
| Publisher evaluation | Model-card evidence | Not normalized | OpenWeightModels does not invent a single composite score for Qwen3-Coder-480B-A35B-Instruct. Use the official model card for checkpoint-specific benchmarks and conditions. |
Apache License 2.0 is the controlling license/terms classification recorded for this checkpoint. OpenWeightModels keeps the legal layer separate from technical availability.
Includes an express patent grant. Model-specific acceptable-use policies, if separately published, are not automatically part of Apache 2.0.
Permissive open-source software license. This summary supports comparison only; the linked official text remains authoritative.
| Question | Classification | Practical meaning |
|---|---|---|
| Commercial use | Allowed | Commercial eligibility follows the named license/terms; provider and jurisdictional conditions may add requirements. |
| Modification / fine-tuning | Allowed | Weight adaptation and derivative work rights are summarized from the official license type. |
| Redistribution | Allowed with license/notice conditions | Redistribution is a separate question from the ability to download and run weights. |
| Hosted inference | License-dependent | Running a hosted service may count as distribution or trigger provider/model-specific terms; verify the official text for this checkpoint. |
| Open-weight classification | Yes | Weights are publicly obtainable; this label does not imply identical licensing freedom across models. |
Deployment is recorded as a set of implementations rather than one “self-hostable: yes” flag. A runtime can change context support, quantization, API shape, tool parsers, throughput and hardware requirements without changing the underlying model identity.
For Qwen3-Coder-480B-A35B-Instruct, the most relevant documented or established routes are listed below.
| Route | Type | Qualification |
|---|---|---|
| vLLM | Serving | Official model page documents vLLM serving. |
| SGLang | Serving | Officially documented serving path. |
| Transformers | Self-hosted | Direct checkpoint use for compatible workflows. |
| Docker Model Runner | Container workflow | Documented model-running path. |
| FP8 variant | Optimized serving | Publisher FP8 checkpoint available for reduced weight memory. |
Official model page documents vLLM serving.
Officially documented serving path.
Direct checkpoint use for compatible workflows.
Documented model-running path.
Publisher FP8 checkpoint available for reduced weight memory.
480B total parameters make this a large multi-GPU model even though only 35B are active per token. Tensor/expert parallelism and FP8/other reduced precision are central to production deployment.
Real memory use includes model weights, KV cache, activations/buffers, multimodal encoders when applicable, framework overhead and batching. A published “fits on” statement is meaningful only together with precision, context, batch and host/GPU topology.
BF16/FP16 maximize fidelity but increase weight memory. FP8, INT8 and 4-bit variants can substantially lower memory, with support and quality depending on the quantization recipe and runtime.
256K tokens is a model/configuration reference, not a promise that every machine or provider can serve that context at practical latency. KV-cache growth often becomes the dominant long-context constraint.
Large dense models need tensor/pipeline parallelism; large MoE models add expert-routing and communication requirements. Smaller checkpoints can often avoid these operational complexities.
Base, instruct, reasoning, FP8, GGUF and provider-hosted variants can have different behavior, memory and provenance. Production systems should pin an exact model/revision rather than only the family name.
| Variant | Purpose | Precision / form | Status |
|---|---|---|---|
| Qwen3-Coder-480B-A35B-Instruct | Agentic coding | BF16 | Official |
| Qwen3-Coder FP8 | Reduced-memory serving | FP8 | Official |
Qwen3-Coder-480B-A35B-Instruct is most relevant when the application specifically values software engineering, repository-scale coding, tool use and coding agents. That should be balanced against its hardware class, context behavior, license and modality requirements.
A smaller model can be operationally superior when latency, privacy, device deployment or predictable cost matter more than peak benchmark capability. Conversely, a larger sparse model may justify its complexity when the workload benefits from higher capacity, sophisticated reasoning or agent behavior.
The selection decision should therefore compare at least five dimensions: required task quality, data/control requirements, legal eligibility, serving cost and ecosystem/runtime support. OpenWeightModels exposes these dimensions separately so a model is not selected on benchmark reputation alone.
A high-quality passport gives limitations the same visibility as capabilities. These are model- and deployment-selection notes, not generic disclaimers.
Coding-agent quality depends on the scaffold, tools and repository context—not just the base model.
A 256K model context can be expensive to populate and serve.
MoE routing support and parallelism strategy materially affect throughput.
Autonomous code execution requires separate sandboxing and security controls.
Last full review: 29 September 2026. Publisher model cards, repositories and license texts are preferred. Runtime claims are attached to the relevant runtime/provider rather than inferred from the base checkpoint.
Where documentation conflicts or a field is ambiguous, the passport uses the more conservative interpretation and explains the discrepancy instead of silently selecting the largest number.
Material changes to license, model revision, runtime support or provider limits should update both the field and this history.
Gold-standard Passport v2.0 created with SEO/GEO definition, architecture, training, capability, evaluation, license, deployment, hardware, variants, limitations and source review.
Qwen3-Coder-480B-A35B-Instruct is a large agentic coding Mixture-of-Experts model developed by Qwen / Alibaba in the Qwen3-Coder family. It has 480B parameters with 35B/token active parameters, supports 256K tokens of context, accepts Text / code and produces Text / code. Its primary role is software engineering, repository-scale coding, tool use and coding agents.
OpenWeightModels classifies it as open-weight because weights are publicly available. The exact legal classification depends on Apache License 2.0; weight availability should not be used as a substitute for reading those terms.
Our license classification is Allowed. Review the official license and any separate use policy, provider terms and jurisdictional rules before production use.
The documented reference in this passport is 256K tokens. A runtime/provider may expose a different maximum or a smaller recommended operating range.
Yes, the open weights enable independent deployment where the license permits it. Practical feasibility depends on 480B of weights, precision, context length and the runtime routes listed above.