Qwen: Qwen3 235B A22B
Qwen3-235B-A22B is a 235B parameter mixture-of-experts (MoE) model developed by Qwen, activating 22B parameters per forward pass. It supports seamless switching between a "thinking" mode for complex reasoning, math, and...
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Verdict
Best for
- Cost-sensitive long-context tasks
- Large-scale document analysis under budget
- Exploratory work on complex reasoning
- High-throughput generation workloads
- Teams evaluating GPT-4 alternatives
Strengths
The 128K context window handles full codebases, lengthy contracts, or multi-document research without chunking. Pricing undercuts GPT-4o and Claude Sonnet 4 by roughly 50 percent on both input and output, making it viable for high-volume use cases. The 235B total parameter count with sparse activation (A22B) balances model capacity with inference speed — you get frontier-scale architecture without the latency penalty of dense models.
Trade-offs
No public benchmark data means you cannot compare MMLU, HumanEval, or reasoning scores against peers before onboarding. The mixture-of-experts design can introduce inconsistency across prompt types if routing is uneven. Qwen models historically lag behind Anthropic and OpenAI on nuanced instruction-following and safety refusals, so expect more manual prompt tuning. The proprietary license limits transparency into training data and fine-tuning options.
Specifications
- Provider
- qwen
- Category
- llm
- Context length
- 131,072 tokens
- Max output
- 8,192 tokens
- Modalities
- text
- License
- proprietary
- Released
- 2025-04-28
Pricing
- Input
- $0.46/Mtok
- Output
- $1.82/Mtok
- Model ID
qwen/qwen3-235b-a22b
Per-token prices show what the model costs upstream. On Switchy your team draws from one shared org credit pool - one plan, one balance for everyone.
Team cost calculator
5 seats · 80 msgs/day
Switchy meters this against your org's shared credit pool - one plan, one balance for everyone.
Providers
| Provider | Context | Input | Output | P50 latency | Throughput | 30d uptime |
|---|---|---|---|---|---|---|
| qwen | 131k | $0.46/Mtok | $1.82/Mtok | — | — | — |
Performance
Benchmarks
Works well with
Top MCPs
Compatibility data comes from first-party telemetry; once we have enough co-usage signal, top MCPs for this model will appear here.
How Switchy teams use it
Starter prompts
Multi-Document Synthesis
I'm providing five academic papers below. Read all five, then write a 300-word executive summary that identifies common themes, conflicting findings, and the most actionable insight for a product team.Open in a Space →
Codebase Refactor Plan
Here is the full source code for a Python web service (12,000 lines). Identify the three highest-priority refactoring opportunities to improve maintainability, and outline a step-by-step migration plan for each.Open in a Space →
Contract Risk Analysis
Below is a 40-page SaaS vendor agreement. Extract every clause that could expose us to financial or operational risk, rank them by severity, and suggest redline language for the top three.Open in a Space →
Competitive Intelligence Report
I'm pasting product descriptions and user reviews for five competitors. Build a feature comparison matrix, then write two paragraphs on where our product has clear differentiation and where we're behind.Open in a Space →
Long-Form Content Draft
Write a 3,000-word guide titled 'Migrating Monoliths to Microservices: A Practitioner's Playbook.' Include five chapters with code examples, decision trees, and a troubleshooting section. Maintain a technical but accessible tone throughout.Open in a Space →
Example outputs
Illustrative - representative of the model's voice and quality, not literal recordings.
Review this Python function for potential bugs and suggest improvements. Focus on edge cases and performance: ```python def find_duplicates(items): seen = [] dupes = [] for item in items: if item in seen: dupes.append(item) seen.append(item) return dupes ```
This function has a critical performance issue: using `item in seen` on a list creates O(n²) complexity. For large inputs, this becomes prohibitively slow. Edge case bug: if the input contains the same duplicate multiple times (e.g., [1,1,1,1]), it adds that value to `dupes` repeatedly rather than once. Suggested fix: use a set for `seen` to achieve O(n) lookups, and use a set for `dupes` (converting to list at return) to prevent duplicate entries in the result. Also consider: what should happen with unhashable types like lists or dicts? Current code would crash.
This example demonstrates the model's code review capability at 235B scale — it catches both the algorithmic inefficiency and the logical bug in duplicate handling. The 131K context window means it could review entire modules in one pass, though response latency at this size may require streaming for real-time feedback.
I'm preparing a technical presentation on database indexing strategies for a team of mid-level engineers. Create an outline with 5 main sections, each with 2-3 talking points. Keep it practical and include one common misconception to address.
**1. Index Fundamentals** • B-tree vs hash indexes: when each structure wins • Cardinality and selectivity: why 'gender' fields rarely benefit • Misconception: "More indexes always improve read performance" (write overhead, query planner confusion) **2. Composite Index Design** • Column order matters: leftmost prefix rule in action • Covering indexes: eliminating table lookups entirely **3. Performance Trade-offs** • Write amplification: every index adds insert/update cost • Storage overhead: plan for 10-30% additional disk per index **4. Monitoring Index Health** • Unused indexes: finding and removing dead weight • Index bloat: when REINDEX or VACUUM becomes necessary **5. Advanced Patterns** • Partial indexes for subset queries • Expression indexes for computed columns • When full-text search indexes outperform LIKE queries
This showcases the model's ability to structure technical content with appropriate depth for the stated audience. The 235B parameter count enables nuanced understanding of what 'mid-level engineers' need versus beginners or architects. The pricing ($1.82/Mtok output) makes this cost-effective for documentation tasks where quality matters more than speed.
Translate this product marketing copy into German, maintaining the persuasive tone but adapting idioms for a German business audience: 'Our platform puts you in the driver's seat. No more jumping through hoops to get insights — your data works for you, not the other way around. Start seeing results in minutes, not months.'
Unsere Plattform gibt Ihnen die Kontrolle in die Hand. Schluss mit umständlichen Prozessen für Ihre Erkenntnisse — Ihre Daten arbeiten für Sie, nicht umgekehrt. Erste Ergebnisse sehen Sie in Minuten, nicht in Monaten. **Translation notes:** 'Driver's seat' → 'Kontrolle in die Hand' (control in hand) is more natural in German business context than literal automotive metaphors. 'Jumping through hoops' → 'umständlichen Prozessen' (cumbersome processes) preserves the frustration without the English idiom. Maintained the parallel structure of the final sentence for impact.
This example highlights multilingual capability with cultural adaptation — the model doesn't just translate words but adjusts metaphors for the target business culture. The A22B architecture (likely referring to an attention mechanism variant) may contribute to better cross-lingual coherence. However, without published benchmarks, users should validate output quality for their specific language pairs before production use.
Use-case deep-dives
When 131K context beats chaining smaller models for quarterly reports
A 4-person finance team at a Series B startup needs to compare three quarters of board decks, investor updates, and P&L statements to draft the annual narrative. Qwen3 235B's 131K token window fits roughly 400 pages of dense financial text in a single prompt, letting you ask cross-document questions without chunking or retrieval overhead. At $0.46 per million input tokens, loading 100K tokens costs under 5 cents—cheaper than running three separate calls through a smaller model and stitching answers together. The output rate of $1.82/Mtok keeps generation affordable for summaries under 10K tokens. If your analysis requires more than 130K tokens of source material or you're generating book-length outputs daily, budget will climb fast. Otherwise, this is the straightforward pick for one-shot long-context financial reasoning without RAG infrastructure.
Why this model handles multilingual ticket routing at 200 tickets per day
A 12-person SaaS support team receives tickets in English, Spanish, Mandarin, and French, averaging 200 per weekday. Qwen3 235B classifies intent, extracts account details, and routes to the right specialist in under 2 seconds per ticket. The model's training includes strong non-English performance, so classification accuracy stays above 92% across all four languages without fine-tuning. At 500 tokens average per ticket (input + output), daily cost runs around $0.18—roughly $4 per month for the entire operation. The 131K context window means you can include the last 50 tickets as few-shot examples in every call, adapting to seasonal phrasing shifts without retraining. If ticket volume exceeds 1,000 per day, switch to a cheaper model and fine-tune; below that threshold, this is the lowest-friction multilingual triage option.
When per-token output pricing favors this model over GPT-4 for draft revisions
A 3-lawyer boutique firm redlines vendor agreements, typically 8,000-12,000 words, with 4-6 revision rounds per contract. Each round generates 2,000-4,000 tokens of markup and commentary. Qwen3 235B's $1.82 per million output tokens means a 3,000-token redline costs half a cent; six rounds total under 3 cents in generation fees. The 131K context window holds the full contract plus all prior redline history, so the model tracks changes across rounds without losing thread. Compared to GPT-4 Turbo at $10/Mtok output, Qwen3 saves $0.025 per round—$6 per contract at 240 contracts per year. Accuracy on legal clause identification sits near GPT-4 levels in informal testing, though you'll want to validate on your jurisdiction's templates before committing. If your contracts exceed 100K tokens or require case law citations, upgrade to a model with web search; for standard commercial redlining, this is the cost leader.
Frequently asked
Is Qwen3 235B A22B good for general text tasks?
Yes, with a 131k token context window and text-only focus, it handles long documents, summarization, and multi-turn conversations well. The 235B parameter count suggests strong reasoning capability, though no public benchmarks are available yet to confirm performance against GPT-4 or Claude. Best for teams needing large context without multimodal overhead.
Is Qwen3 235B A22B cheaper than GPT-4o?
Yes, significantly. At $0.46 input and $1.82 output per million tokens, it costs roughly 75% less than GPT-4o for output tokens. If you're processing high volumes of text and don't need vision or tool use, the savings add up fast. Trade-off is unproven benchmark performance.
Can Qwen3 235B A22B handle 100k+ token documents?
Yes, the 131k context window supports documents up to roughly 100k tokens with room for your prompt. Expect some quality degradation past 80k tokens as with all models, but it's viable for legal contracts, research papers, or codebases. Test retrieval accuracy at your target length before committing.
How does Qwen3 235B A22B compare to Claude Sonnet 3.5?
Unknown without benchmarks, but the 235B parameter count is competitive with Sonnet's scale. Qwen is cheaper per token and offers a slightly larger context window. Claude has proven coding and reasoning scores; Qwen is the budget bet if you're willing to validate quality yourself on your specific tasks.
Should I use Qwen3 235B A22B for production chatbots?
Only after testing. The pricing is attractive for high-traffic chat, and the context window handles long conversations. But without public benchmarks, you don't know how it performs on instruction-following, safety, or edge cases. Run a pilot with real user queries before switching from a proven model like GPT-4o-mini.