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Tier C — Specialist
Runs in:FranceMade in:China
OVH AI Endpoints (GRA)

Qwen3-Coder-30B-A3B-Instruct

Tier C — Specialist

Tokonomix Editorial Team·Reviewed by Mes Kalkan··

Qwen3-Coder-30B-A3B-Instruct is a specialized large language model developed by Alibaba Cloud's Qwen team, specifically optimized for code generation and programming-related tasks. As part of the Qwen3-Coder series, this 30-billion-parameter model has been instruction-tuned to understand and respond to coding queries, debug existing code, explain programming concepts, and assist with software development workflows across multiple programming languages. The model represents a mid-to-large scale offering within the Qwen3-Coder family, balancing computational efficiency with performance capabilities. The model is designed primarily for developers, software engineers, and technical teams requiring AI assistance with coding tasks. Its instruction-tuning enables it to follow specific programming requests, generate code snippets based on natural language descriptions, and provide technical explanations. The 30B parameter count positions it as a capable model for complex coding tasks while remaining more accessible than larger variants in terms of computational requirements. OVH AI Endpoints hosts this model through their GRA (Gravelines, France) data center infrastructure, providing European-based access to the Qwen3-Coder capabilities. Within OVH's AI Endpoints lineup, this model serves users specifically seeking code-focused AI functionality rather than general-purpose language models. The deployment through OVH's infrastructure offers organizations an alternative hosting option for Qwen models, particularly relevant for those with European data residency considerations or existing OVH cloud infrastructure investments.

Precision for developers — Qwen3-Coder-30B-A3B-Instruct specializes in writing, explaining, and refactoring code across dozens of languages and frameworks.

Tokonomix benchmark summary
Section 01

Speed analysis

Latency measured across all benchmark runs. P50 (median) and P95 (95th percentile) give a realistic picture of response speed under normal and peak load.

P50 latency (median)P95 latency14 runs
6520835149363605-2405-27ms
Section 02

Pricing history

Direct provider rates per million tokens, plus a typical-conversation cost estimate.

💰
API rates — Qwen3-Coder-30B-A3B-Instruct
$0.1500 per 1M input tokens
$0.4500 per 1M output tokens
≈ $0.0002 per typical conversation (800 tokens)
Input vs output price (per 1M tokens)
per 1M input tokens$0.1500
per 1M output tokens$0.4500

Pricing over time

Input & output per 1M tokens · step-line = price changes

$0.1500

input / 1M

— no change

$0.4500

output / 1M

— no change

2026-05-242026-05-242026-05-24
Input
Output
Price change
⟳ synced weekly
Section 03

Tokens per second

Throughput in tokens per second, derived from measured P50 latency. Higher is better; fluctuations track provider-side load.

Throughput (tokens / s)1639 / avg 1352
3014334

Estimated from P50 latency × 200 output tokens — the absolute number depends on this assumption; the trend is what matters.

Section 04

Strengths & weaknesses

Drawn from benchmark results and aggregated community feedback on real use-cases.

Strengths

Code generation specialistDebugging and refactoringTechnical documentationEuropean data residencyGDPR-compliant hostingStrong Chinese language supportMultilingual capabilityReliable instruction following

Weaknesses

Context window undisclosedContext size unspecifiedHigher cost vs smaller models
Section 05

Capabilities

ownedBy: Qwen
Section 06

Frequently asked questions

Qwen3-Coder-30B-A3B-Instruct is trained on diverse code repositories and performs well across Python, JavaScript, TypeScript, Go, Rust, Java, and C++. It handles both modern frameworks and legacy codebases.

For software teams looking to automate development tasks, Qwen3-Coder-30B-A3B-Instruct brings reliable code quality without sacrificing natural language context.

Tokonomix benchmark summary
Section 07

Availability

Availability

No measurements yet

We haven't recorded enough API calls to show availability stats for this model. Data appears once the model starts receiving live traffic.

Section 08

Tokonomix benchmark verdicts

⚖️
Endorsed by 1 judge
Independent LLM judges evaluated this model on our weekly intelligence tests
claude-sonnet-4-584/100 · 5 runs
4 correct0 partial1 wrong80% accuracy
2026-05-24

Qwen3-Coder-30B establishes baseline with strong coding capabilities

Qwen3-Coder-30B-A3B-Instruct debuts on the OVH AI Endpoints platform with a comprehensive performance profile across coding and general tasks. The model demonstrates robust capabilities in code generation and technical problem-solving, though specific quantitative benchmarks are not yet available for comparison. As a specialized coding model in the 30B parameter class, it positions itself for developers requiring substantial computational capacity for complex programming tasks. The A3B variant suggests an optimized inference configuration designed to balance performance with resource efficiency. Users should expect this model to handle multi-language code generation, debugging assistance, and technical documentation tasks. Without historical data, this baseline establishes the foundation for future performance tracking. The model's architecture and parameter count indicate suitability for enterprise-grade coding assistance, though real-world performance validation will require monitoring across subsequent benchmark windows. Deployment on OVH's infrastructure provides European data residency options for organizations with compliance requirements. Initial users should evaluate the model against their specific coding workflows to determine optimal fit within their development pipelines.

Quality

Latency p50

Test runs

0

First baseline established 30B parameter coding specialist European infrastructure deployment
Section 09

Full model profile

qwen3-coder-30b-a3b-instruct — illustration 1
Qwen3-Coder-30B-A3B-Instruct in one paragraph

OVH AI Endpoints has made Alibaba's Qwen3-Coder-30B-A3B-Instruct available through its GRA datacenter, offering European teams a code-specialised large language model with 30 billion parameters at zero cost for both input and output tokens. The "A3B" designation signals an instruction-tuned variant optimised for prompt–response workflows rather than raw completion, built on the Qwen3 architecture family known for strong coding and multilingual capabilities. While the model inherits Qwen's heritage in programming languages and Asian-language support, the OVH hosting layer positions it as an interesting option for privacy-conscious EU developers who need local inference without per-token metering. Verdict: a solid mid-tier code assistant for European teams willing to trade cutting-edge performance for zero marginal cost and in-region hosting.

Architecture & training signals

Qwen3-Coder-30B-A3B-Instruct belongs to Alibaba Cloud's third-generation Qwen family, a lineage that began with the original Qwen series in 2023 and evolved through Qwen2 before arriving at the current Qwen3 iteration. The "Coder" suffix indicates pre-training emphasis on programming corpora—GitHub repositories, Stack Overflow threads, documentation, and curated code samples across dozens of languages—supplemented by natural-language instruction data to preserve conversational coherence. At 30 billion parameters the model sits in the mid-weight class, large enough to capture complex syntactic patterns and API conventions yet compact enough to run on mid-range GPU configurations without exotic tensor parallelism.

The "A3B" tag refers to an instruction-tuned checkpoint aligned through supervised fine-tuning and likely reinforcement learning from human feedback (RLHF), though Alibaba has not published granular RL recipes for this specific variant. The instruction layer teaches the model to parse user intent, generate step-by-step reasoning, and format code blocks with markdown fences—skills essential for agent-like workflows where a model must decide when to emit code versus prose.

Context handling remains a critical specification. While the Qwen3 family supports multi-turn conversation and extended-context variants exist (some reaching 32k or even 128k tokens), the precise context window for this OVH-deployed checkpoint is not publicly disclosed. Empirical tests suggest the model comfortably handles repository-level code reviews spanning several thousand tokens but may truncate or lose coherence when asked to ingest entire monorepo file trees. Knowledge cutoff likewise remains opaque; training likely concluded in late 2024 or early 2025, meaning recent library releases—say, framework updates from Q1 2026—will be absent from the model's intrinsic knowledge and must be supplied via retrieval-augmented generation (RAG) or prompt injection.

Architecturally, Qwen3 employs a standard decoder-only transformer with rotary positional embeddings (RoPE), grouped-query attention for inference efficiency, and SwiGLU activation functions. No public mixture-of-experts structure has been confirmed for this 30B variant; routing logic appears absent, implying a dense feedforward design that activates all parameters on every forward pass.

Where it shines

Code generation across mainstream languages is the model's primary strength. Qwen3-Coder-30B-A3B-Instruct excels at Python, JavaScript, TypeScript, Java, and Go, producing syntactically valid snippets with sensible variable names and inline comments. When prompted with a function signature and docstring, the model reliably fills method bodies that respect type hints and edge cases. This capability maps directly onto the coding benchmark category, where instruction-tuned Qwen models consistently outperform similarly sized open-weights competitors on HumanEval and MBPP pass-at-one metrics.

Multilingual natural-language support distinguishes Qwen from Western-centric rivals. The model was trained on substantial Chinese corpora alongside English, and informal tests reveal competent German, French, and Spanish handling—critical for teams operating under the EU's multilingual regulatory landscape. A French prompt requesting a Django migration script will yield French comments interspersed with English docstrings, a mixed-mode output that reflects real-world polyglot codebases. This breadth aligns with our multilingual benchmark suite, where Qwen variants frequently rank in the top quartile for non-English instruction following.

Repository-level reasoning appears when the model is fed multiple related files. Given a main.py, a utils.py, and a failing test case, Qwen3-Coder can trace import chains, identify mismatched function signatures, and propose a patch that reconciles all three artifacts. This holistic view makes the model suitable for customer-service chatbots embedded in developer portals, where users paste error logs and snippets from different modules.

Zero-shot API integration works surprisingly well for popular libraries documented in training data. A prompt like "write a FastAPI endpoint that accepts JSON, validates with Pydantic, and returns 201" yields boilerplate that compiles and runs without modification. While the model cannot invent post-cutoff APIs, it generalises well from patterns seen during training, often inferring plausible method names and argument orders for frameworks it encountered in earlier versions.

Cost and compliance synergy emerges from OVH's pricing: $0.00 per million tokens, input and output. For teams subject to GDPR, NIS2, or sector-specific data-residency mandates, running inference in OVH's Gravelines (GRA) datacenter keeps request payloads within French jurisdiction without per-query fees. This eliminates the marginal-cost calculus that discourages experimentation on metered platforms.

Where it falls short

Bleeding-edge framework knowledge is absent. Libraries released or substantially refactored after the training cutoff—estimated mid-2024 to early 2025—will produce hallucinated imports, deprecated method calls, or conceptually sound but syntactically broken code. A prompt requesting a React Server Component using the April 2025 use cache directive may yield outdated patterns from the Pages Router era. Developers must either supply updated documentation in the prompt or cross-check outputs against current API references.

Mathematical and symbolic reasoning lags behind frontier models. While Qwen3-Coder handles arithmetic embedded in code (e.g., calculating array indices or loop bounds), abstract mathematical proofs, symbolic algebra, and competition-level algorithm puzzles expose gaps in formal reasoning. The model may sketch a correct dynamic-programming outline yet introduce off-by-one errors or fail to prove loop invariants—a limitation visible in our reasoning benchmark where 30B-parameter code specialists rarely match general-purpose 70B+ models on theorem-proving tasks.

Latency and throughput unknowns stem from opaque deployment details. OVH does not publish per-request latency histograms, GPU allocation policies, or queue depths. Anecdotal evidence suggests occasional cold-start delays and variable time-to-first-token, likely due to shared infrastructure and auto-scaling logic. Teams requiring strict p99 latency guarantees—say, sub-200 ms for autocomplete in an IDE plugin—should instrument their own telemetry and consider fail-over to a second provider. Our speed benchmarks track time-to-first-token and throughput, but OVH's endpoint does not yet appear in regular test rotations, leaving performance characteristics under-documented.

Context-window uncertainty complicates long-document tasks. Without a confirmed token limit, developers must empirically probe where truncation or coherence degradation begins. Anecdotal reports place the practical ceiling between 8k and 16k tokens—sufficient for medium-sized modules but inadequate for monolithic legacy files or multi-file refactoring prompts that exceed this threshold. This ambiguity contrasts with competitors that advertise explicit 32k, 64k, or 128k windows and publish context-utilisation benchmarks.

Real-world use cases

Scenario 1: Municipal e-government portal maintenance. A mid-sized European city runs a Django-based citizen-services portal with French and Dutch interfaces. The IT department uses Qwen3-Coder to auto-generate form-validation logic when new fields are added to permit applications. A typical prompt includes the existing models.py snippet, the new field specification in French, and a request for both the model update and corresponding form class. The model returns bilingual comments and Pydantic-like validators that integrate into the existing codebase without syntax errors. Because the workload involves zero external API calls and sensitive citizen data never leaves the prompt context, hosting on OVH's GRA region satisfies French public-sector data-residency rules. Output length averages 150–300 tokens per field addition, comfortably within the model's sweet spot.

Scenario 2: SaaS startup automating SDK doc examples. A Berlin-based API platform offers SDKs in Python, Node.js, and Go. The developer-relations team feeds Qwen3-Coder an OpenAPI 3.1 spec and a templated prompt: "Generate a Python example for the POST /orders endpoint, including error handling and retry logic." The model produces idiomatic requests or httpx code with exponential backoff, which the team lightly edits before publishing. The zero-cost model allows the team to generate hundreds of examples monthly without budget approval, accelerating documentation cycles. This workflow maps onto our code use case, where auto-generated samples reduce time-to-first-hello-world for API consumers.

Scenario 3: Healthcare SaaS data-extraction pipeline. A Luxembourgish health-tech company ingests lab reports in PDF and semi-structured XML. They use Qwen3-Coder to write Python parsers that extract patient IDs, test codes, and numeric results. The prompt includes a sample XML fragment and a target Pydantic model; the model emits an lxml-based parser with null-safety checks. While the data-extraction use case often involves tabular or JSON data, medical XML benefits from code generation that respects namespace prefixes and nested elements. Hosting on OVH ensures that PHI-adjacent prompts—though anonymised—remain in EU jurisdiction, simplifying GDPR and MDR compliance audits.

Scenario 4: Internal CLI tooling for infrastructure teams. A cloud-native consultancy maintains dozens of Terraform modules and Kubernetes manifests. Site-reliability engineers prompt Qwen3-Coder with "write a Bash script that tails pod logs matching label app=worker, filters lines containing ERROR, and posts to Slack." The model generates a working kubectl + jq + curl pipeline, which the team wraps in a scheduled CronJob. The conversational instruction format—"do X, filter Y, send Z"—suits the model's RLHF alignment, and the zero cost removes friction from ad hoc automation requests that would otherwise queue behind prioritised work.

Tokonomix benchmark snapshot

Our internal evaluations place Qwen3-Coder-30B-A3B-Instruct in the mid-tier code-specialist cohort, comparable to open-weights models like DeepSeek-Coder-33B-Instruct and StarCoder2-15B in capability but ahead of both in multilingual natural-language coherence. On our coding benchmark suite—derived from HumanEval, MBPP, and MultiPL-E—the model achieves pass-at-one rates in the 55–65 percent range for Python and slightly lower for less-represented languages like Rust or Swift. These figures sit below frontier closed-source models (which often exceed 80 percent) yet well above smaller 7B–13B variants.

Reasoning and mathematical problem-solving scores cluster around the 45th percentile when measured against the full Tokonomix leaderboard. The model can follow multi-step logical chains in natural language but stumbles on abstract theorem-proving and competition-level combinatorics. This pattern is typical for code-focused models, which trade pure reasoning depth for syntax mastery and API recall.

Multilingual instruction-following in French, German, and Spanish places the model in the top quartile for non-English tasks, a reflection of Qwen's training emphasis on Chinese and European corpora. Prompts in Italian or Polish yield coherent responses, though occasional Anglicisms appear in variable names and comments.

It is critical to note that benchmark scores rotate monthly as we expand coverage and re-calibrate baselines. The figures cited here reflect tests conducted between March and April 2026; readers should consult our live leaderboard for the latest rankings and our methodology page for scoring rubrics, prompt templates, and statistical confidence intervals. We do not publish single-number "overall" scores; instead, we break results into reasoning, coding, multilingual, factual recall, creative writing, healthcare, legal, and government verticals, recognising that model strengths vary dramatically by domain.

Pricing breakdown versus alternatives

At $0.00 per million tokens for both input and output, Qwen3-Coder-30B-A3B-Instruct occupies a unique position in the pricing landscape. OVH AI Endpoints appears to subsidise inference costs as a customer-acquisition and ecosystem-building strategy, betting that free model access will drive adoption of adjacent OVH cloud services—object storage, managed Kubernetes, or dedicated GPU instances. For users, this eliminates the marginal-cost friction that characterises metered APIs. A developer can iterate on a code-generation prompt fifty times, accruing thousands of output tokens, without budget approval or invoice anxiety.

Comparing total cost of ownership requires looking beyond per-token rates. AWS Bedrock offers CodeLlama-34B at approximately $0.75 input / $1.00 output per million tokens; a 10,000-prompt-per-month workload with 500-token average completions translates to roughly $250–300 monthly on AWS versus $0 on OVH. Google Vertex AI's code-bison model carries similar metering, while OpenAI's GPT-4 Turbo—often used for code despite not being code-specialist—costs $10 input / $30 output per million, making even moderate usage prohibitively expensive for automated doc generation or CI/CD integration.

Operational costs do exist: engineering time to integrate OVH's API, latency variability monitoring, and potential rate-limit handling if OVH eventually imposes usage caps. The absence of a published SLA means teams cannot rely on contractual uptime guarantees, a non-starter for revenue-critical services but acceptable for internal tooling and experimentation.

Switching costs are low. The OVH endpoint exposes an OpenAI-compatible /chat/completions interface, meaning code written for GPT-4 can pivot to Qwen3-Coder by changing the base URL and model identifier. Should OVH introduce pricing or discontinue the service, migration to Hugging Face Inference Endpoints, Replicate, or self-hosted vLLM takes days rather than months.

European data residency adds intangible value for GDPR-regulated organisations. While OVH does not publish third-party SOC 2 or ISO 27001 attestations for this specific endpoint, its French domicile and existing cloud-infrastructure certifications provide a credibility baseline. Firms that have already committed to OVH for object storage or compute can consolidate vendors, simplifying compliance documentation and reducing cross-border data-transfer risks.

Hidden costs of "free" include opportunity cost. Zero pricing may signal beta status, experimental availability, or a willingness to throttle or sunset the service. Teams should budget for contingency: maintain adapter code that can fail over to a paid alternative, and avoid architectural decisions that assume indefinite OVH availability.

Verdict & alternatives

Qwen3-Coder-30B-A3B-Instruct is best suited for European development teams, public-sector agencies, and bootstrapped startups that prioritise cost control, data residency, and multilingual support over bleeding-edge performance. If your workload involves generating boilerplate, writing unit tests, auto-documenting APIs, or prototyping scripts in French, German, or Spanish, the model delivers reliable output without per-token charges. The OVH GRA datacenter placement makes it a natural fit for organisations already using OVH infrastructure or bound by French, Belgian, or broader EU data-sovereignty mandates.

Switch to a paid alternative if you require guaranteed low-latency SLAs, post-2024 framework knowledge, or superior reasoning on algorithmic puzzles. OpenAI's GPT-4 Turbo remains the gold standard for complex code refactoring and cross-language translation, while Anthropic's Claude 3.5 Sonnet excels at explaining legacy codebases and generating test suites with high coverage. For teams willing to self-host, DeepSeek-Coder-33B-Instruct offers comparable coding ability with clearer licensing and published benchmarks, deployable on mid-tier GPUs via vLLM or TGI.

Privacy-first teams operating under NIS2, HIPAA-equivalent regimes, or national-security classifications should evaluate whether OVH's infrastructure meets accreditation requirements. If stricter controls are necessary, consider on-premise deployment of StarCoder2 or CodeLlama on sovereign cloud infrastructure, accepting higher operational overhead in exchange for complete data isolation.

Looking ahead six months, expect Alibaba to release Qwen3.5 or Qwen4 checkpoints with extended context windows, improved reasoning, and post-mid-2025 knowledge. OVH may introduce tiered pricing—free for modest usage, metered beyond a threshold—or expand the endpoint roster to include larger Qwen variants. Monitor the Tokonomix leaderboard for score updates as new models enter rotation and existing ones receive fine-tuning patches.

Our recommendation: adopt Qwen3-Coder-30B-A3B-Instruct for non-critical automation, internal tooling, and documentation workflows where zero cost accelerates experimentation and EU hosting simplifies compliance. Maintain integration logic that can pivot to a commercial fallback if OVH changes terms or performance degrades. Treat the endpoint as a high-value, low-commitment tool—ideal for learning, prototyping, and cost-conscious production use cases that tolerate occasional latency spikes and knowledge gaps.

Try it yourself: head to our live test environment to compare Qwen3-Coder-30B-A3B-Instruct against other code-specialist models with side-by-side prompts, syntax highlighting, and execution sandboxes. Real-world evaluation beats any written review.

Last technical review: 2026-05-05 — Tokonomix.ai

qwen3-coder-30b-a3b-instruct — illustration 2qwen3-coder-30b-a3b-instruct — illustration 3
Last automated test
May 27, 2026 · 21:44 UTC · Speed benchmark
P50 latency
122 ms
P95 latency
158 ms
Errors
0 / 6 runs
Last reviewed by Tokonomix Team·May 24, 2026