OpenAI: o3 Deep Research
o3-deep-research is OpenAI's advanced model for deep research, designed to tackle complex, multi-step research tasks. Note: This model always uses the 'web_search' tool which adds additional cost.
Anyone in the Space can @-mention OpenAI: o3 Deep Research with the team's shared context - pooled credits, one chat, one memory.
Starter is free forever - 1 Space, 100 credits/month, 1 MCP. No card.
Verdict
Best for
- Multi-step technical research tasks
- Competitive landscape analysis
- Academic literature synthesis
- Complex debugging and root cause analysis
- Due diligence on technical proposals
Strengths
Built specifically for extended reasoning chains, o3 Deep Research excels at tasks requiring multiple rounds of hypothesis formation and verification. The model takes time to think through problems systematically rather than rushing to an answer. Its 200K context window accommodates lengthy research materials, technical specifications, or codebases. The architecture prioritizes correctness over speed, making it reliable for high-stakes analysis where a wrong answer is costlier than waiting.
Trade-offs
Latency is the primary constraint—responses can take several minutes as the model works through reasoning steps. At $40/Mtok for output, costs accumulate quickly on verbose research reports. The model isn't publicly benchmarked yet, so performance relative to Claude 3.7 Sonnet or GPT-4o on standard evals remains unclear. For rapid iteration or conversational use cases, the wait time makes it impractical. You're paying a premium for depth, not breadth or speed.
Specifications
- Provider
- openai
- Category
- llm
- Context length
- 200,000 tokens
- Max output
- 100,000 tokens
- Modalities
- image, text, file
- License
- proprietary
- Released
- 2025-10-10
Pricing
- Input
- $10.00/Mtok
- Output
- $40.00/Mtok
- Model ID
openai/o3-deep-research
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 |
|---|---|---|---|---|---|---|
| openai | 200k | $10.00/Mtok | $40.00/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
Technical Root Cause Analysis
I have a production incident where our API gateway started returning 503s intermittently. Attached are the last 2 hours of logs, the gateway configuration, and recent deployment history. Walk me through a systematic root cause analysis, forming hypotheses and checking them against the evidence.Open in a Space →
Competitive Feature Comparison
I need to understand how Stripe, Adyen, and Braintree handle recurring billing edge cases—failed payments, dunning, proration. Review their public documentation and API references, then create a comparison matrix showing how each handles these scenarios and what trade-offs they've made.Open in a Space →
Literature Review Synthesis
I'm attaching five papers on transformer attention mechanisms for long-context modeling. Synthesize their approaches, compare methodologies, identify where findings conflict, and recommend which techniques are most promising for a document Q&A system.Open in a Space →
Architecture Decision Research
We're deciding between Kafka and Pulsar for event streaming. Research the operational complexity, failure modes, performance characteristics, and ecosystem maturity of each. Focus on teams running 50-100 topics with 10TB/day throughput. Give me a recommendation with reasoning.Open in a Space →
Regulatory Compliance Audit
Our SaaS product needs SOC 2 Type II compliance. I'm attaching our current security policies, access control implementation, and audit logging code. Identify gaps against SOC 2 requirements, prioritize them by risk, and suggest specific remediation steps for each.Open in a Space →
Example outputs
Illustrative - representative of the model's voice and quality, not literal recordings.
I need a comprehensive analysis of the regulatory landscape for direct-to-consumer genetic testing in the EU vs US. Include FDA/EMA positions, GDPR implications, and recent case law. Cite primary sources.
This model would produce a structured 8,000+ word research report spanning regulatory frameworks, case precedents, and policy evolution. It begins with a comparative matrix of FDA Class II device requirements versus EU MDR Article 5(5) exemptions, then traces GDPR Article 9 special-category data handling through three landmark rulings (C-184/20, C-252/21, and the 2023 EDPB guidelines). The analysis includes direct quotes from Federal Register notices, EMA scientific opinions, and national transposition laws in Germany and France. Each claim links to primary documentation with retrieval timestamps.
Deep Research mode excels at multi-source synthesis across regulatory domains where accuracy and citation density matter. The 200K context window holds dozens of full policy documents simultaneously. Trade-off: at $40/Mtok output, a thorough report costs $3-5 in generation fees — viable for high-stakes work, prohibitive for exploratory research.
Analyze this 150-page technical specification for our satellite ground station. Identify any conflicts with ITU Radio Regulations Article 5 frequency allocations and flag mechanical tolerances that exceed ISO 2768-mK standards.
The model would ingest the full PDF specification and cross-reference it against the ITU Radio Regulations database and ISO tolerance tables. Output highlights seven frequency allocation conflicts in the 10.7-12.75 GHz band (specifically footnotes 5.441 and 5.484A for Region 1), three antenna pointing budget errors where assumed G/T ratios contradict link budget margins on page 87, and twelve machined components specifying ±0.05mm tolerances that exceed mK grade limits without justification. Each finding includes page numbers, clause references, and suggested corrections with regulatory citations.
File upload plus 200K context means the model can hold an entire technical specification in working memory while reasoning across external standards. This eliminates the summarization loss that breaks most compliance checks. However, the deep reasoning process adds 30-90 seconds of latency — not suitable for interactive document chat.
I'm debugging a Rust async runtime deadlock. The tokio trace shows tasks stuck in `poll_fn` but I can't reproduce it locally. Here's the production flame graph and 50MB of structured logs. What's the root cause?
After ingesting the flame graph SVG and log archive, the model would trace the deadlock to a subtle interaction between tokio's cooperative task yielding and a custom `Semaphore` implementation in the codebase. It identifies that three worker tasks acquire permits in a specific order during high load, but the semaphore's internal `Waker` queue doesn't respect FIFO semantics when tasks yield cooperatively via `task::yield_now()`. The analysis includes a minimal reproduction case (40 lines of Rust), explains why local testing missed it (requires 8+ CPU contention), and suggests either switching to `tokio::sync::Semaphore` or adding explicit fairness to the custom implementation.
The combination of image understanding (flame graphs), large file ingestion (logs), and deep reasoning across async runtime internals makes this model uniquely suited for production debugging. The $10 input cost means uploading 50MB of logs runs ~$0.50 — reasonable for critical incidents, but you wouldn't use this for routine log analysis.
Use-case deep-dives
When o3 Deep Research justifies the $40/Mtok output cost for financial diligence
A 4-person venture fund evaluating 12 Series A targets per quarter needs to synthesize SEC filings, patent databases, news archives, and competitor financials into coherent investment memos. o3 Deep Research handles the 200k token context window to ingest full 10-Ks alongside supplementary documents, then produces structured analysis that references specific line items and cross-document patterns. The $10 input / $40 output pricing means a 50k-token memo costs roughly $2 in input and $2 in output—acceptable when each memo informs a $2M check. The model's reasoning depth (implied by the 'Deep Research' positioning) reduces the manual verification loop that cheaper models require. If your memos are under 10k tokens or you're processing more than 100 documents per week, the output cost becomes prohibitive and you should batch with a cheaper reasoning model instead. For high-stakes, low-frequency research where thoroughness beats speed, this is the call.
Using o3 Deep Research to map policy changes across 50-state legal frameworks
A 9-person healthcare SaaS company needs to audit product features against updated HIPAA guidance and 50 state privacy laws after a regulatory shift. o3 Deep Research ingests the federal register, state statutes, and internal feature specs (totaling 180k tokens) to produce a compliance gap matrix with cited statute references. The 200k context window means the entire legal corpus stays in-context, avoiding the hallucinated citations that plague smaller models. At $10 input, analyzing the full corpus costs $1.80; the resulting 30k-token report costs $1.20 output. This is cheaper than 6 billable hours from outside counsel and faster than manual cross-referencing. The trade-off: if you need this analysis monthly instead of quarterly, the output cost stacks up and you're better off fine-tuning a cheaper model on your compliance taxonomy. For infrequent, high-stakes regulatory reads, o3 Deep Research delivers the citation accuracy that makes the premium worthwhile.
When o3 Deep Research beats manual synthesis for PhD-level literature surveys
A 3-person biotech research team preparing a grant application needs to synthesize 80 papers on CRISPR delivery mechanisms into a 15-page literature review with methodology comparisons. o3 Deep Research processes PDFs totaling 150k tokens (abstracts, methods, results sections) and produces a structured narrative that groups studies by delivery vector, cites specific efficacy percentages, and flags contradictory findings. The $10 input cost is $1.50 for the corpus; the 20k-token output costs $0.80. This replaces 12 hours of manual reading and note-taking, and the 200k context window means the model sees all studies simultaneously rather than losing thread across multiple prompts. The limitation: if your team runs more than 10 reviews per month, the output cost ($8/review at scale) adds up and you should consider a cheaper model with RAG instead. For one-off, high-stakes grant or publication prep where synthesis quality determines funding, o3 Deep Research is the right trade-off.
Frequently asked
Is o3 Deep Research good for complex research tasks?
Yes, if you need multi-step reasoning over large document sets. The 200k context window handles entire research papers or codebases in one pass. At $10 input/$40 output per Mtok, it's expensive for simple queries but justified when you need thorough analysis that would otherwise require multiple model calls or manual synthesis.
Is o3 Deep Research cheaper than using GPT-4 Turbo multiple times?
Depends on your workflow. A single o3 call at $40/Mtok output costs more than GPT-4 Turbo's $30/Mtok, but if you'd otherwise chain 3-4 GPT-4 calls to synthesize research, o3 saves money. For straightforward tasks under 10k tokens, GPT-4 Turbo is cheaper. The break-even point is around 25k tokens of output with complex reasoning.
Can it process PDFs and images directly in research workflows?
Yes. It accepts image and file inputs alongside text, so you can feed it scanned papers, charts, or multi-format datasets without preprocessing. The 200k window means you can include dozens of documents in a single prompt. This matters for literature reviews or technical due diligence where you're comparing visual data across sources.
How does o3 Deep Research compare to o1 for reasoning?
No public benchmarks exist yet, but the 'Deep Research' designation suggests longer chain-of-thought than o1. Expect it to spend more tokens thinking through problems, which explains the higher output cost. If o1 gives you shallow answers on multi-step problems, o3 Deep Research likely goes deeper—but you pay 33% more per output token for that depth.
Should I use this for real-time chat or customer support?
No. The $40/Mtok output pricing and research-oriented design make it wrong for chat. Use GPT-4 Turbo or Claude Sonnet for conversational interfaces. Reserve o3 Deep Research for batch jobs where you need one thorough answer—legal analysis, technical audits, competitive research—not rapid back-and-forth with users expecting sub-second responses.