1. Maximum-compute o-series model

• Uses significantly more compute per query compared to o1.
• Produces deeper, more reliable reasoning chains.
• Best suited for high-stakes tasks that need correctness over speed.

2. Trained with reinforcement learning for deliberate thinking

• Explicit "think-before-answer" architecture.
• Excels at complex reasoning requiring multi-step analysis.

3. Very strong at math, science, coding, and technical proofs

• Handles long derivations, algorithm design, and difficult logic problems.
• Produces structured and explainable reasoning trails.

4. Great for multi-turn reasoning workflows

• Responses API optimized: can think over multiple internal turns before responding.
• Ideal for agentic reasoning pipelines.

5. Large context window

• 200,000-token context for large documents, multi-file review, and long reasoning traces.

6. Multimodal input (text + image)

• Can analyze images for mathematical diagrams, charts, handwritten content, UI layouts, etc.
• Output is text only.

7. Consistency, reliability, and depth

• Designed for situations where accuracy matters more than latency or cost.
• Strong error-checking and self-correction abilities.

1. Exceptional at large-scale data analysis

• Designed to handle massive datasets.
• Identifies trends, correlations, and anomalies.

2. High performance in predictive analytics

• Useful for forecasting, modeling, and probabilistic predictions.
• Popular in finance, medical research, and market trend analysis.

3. Optimized for structured, data-heavy workloads

• Stronger at analytical and statistical tasks than general text generation.

4. Enterprise-oriented capabilities

• Built for businesses needing deep insights from continuous data streams.