Daily Requests
This is how many complete requests the system receives daily. Higher request volume means higher inference costs and concurrent capacity pressure.
After a model goes live, the questions shift from "can it answer?" to "how much does this answer cost, how long does it take, and how much traffic can it handle?". In real products, quality, cost, and latency are often in tension. Caching, routing, model layering, and context control are the key engineering tools to balance these objectives.
Choose a model tier, then adjust request volume, average input/output tokens, and cache hit rate. The page will estimate your daily cost, monthly cost, average latency, and peak throughput pressure.
Tasks like classification, rewriting, simple extraction, and routing decisions can often be handled by cheaper, faster models first.
Once inputs grow long, costs scale quickly. Summarization, chunking, caching, and retrieval filtering become critical.
Even with higher quality, if wait times double, many real-time products may not justify the trade-off.
Caching, routing, batching, output control, async processing, and degradation strategies often improve cost structure more effectively than simply swapping models.
Use cheaper models for screening, classification, or simple requests first, then escalate complex requests to stronger models.
Highly repetitive questions, fixed-format reports, and common Q&A are ideal for caching, directly reducing actual inference calls.
More content isn't always better. Smart truncation, summarization, and retrieval filtering can significantly reduce token costs.
Non-real-time tasks can be generated asynchronously. During peak times, temporarily downgrade models or shorten outputs to ensure overall service stability.