AI Security

Griffin AI vs OpenAI Pricing: Security Workloads

Per-token pricing on the OpenAI API looks cheap on a single call and expensive on a year-long security workload. Griffin AI's pricing reflects the architecture.

Shadab Khan
Security Engineer
2 min read

OpenAI's per-token API pricing is transparent and competitive on individual calls. For security workloads at enterprise scale, the total spend looks different than the per-token table suggests — every scan is dozens of calls, every finding is more calls, every incident spike multiplies the rate. Griffin AI's pricing model reflects the engine-plus-LLM architecture that gates LLM calls to high-leverage points. The difference is not in the raw token price but in how many tokens the workload actually consumes.

Where pure-LLM security workloads burn tokens

Three high-volume patterns:

  • Per-finding analysis. Every finding sent to the model for triage. A codebase with 1,200 findings consumes 1,200 calls minimum.
  • Conversation iteration. Multi-turn triage conversations multiply call counts.
  • Incident spike amplification. During IR, every query is a call. Spike ratios of 5-10x are common.

Per-token pricing at fractions of a cent adds up quickly at this volume.

Where Griffin AI's architecture keeps cost bounded

Three structural gates:

  • Reachability filtering. The 1,200 findings shrink to ~150 reachable ones before any LLM call.
  • Cached reasoning. Similar finding shapes reuse prior analysis rather than re-querying.
  • Model tiering. Routine analysis uses smaller, cheaper models; only exploit-hypothesis work runs on Opus-class.

Workload-level token spend is an order of magnitude lower than naive per-finding analysis.

A concrete number

A 300-engineer organisation running raw GPT-5 for security triage: approximately $5,000-$15,000 monthly in token spend, depending on workload.

The same organisation on Griffin AI: approximately $500-$2,000 monthly in token spend (included in platform pricing).

The difference comes from the gating architecture. Neither is doing the other's work incorrectly; the architectures simply call the model at different frequencies.

What to evaluate

Three questions:

  1. How many model calls per scan? How does that scale with codebase size?
  2. How does token spend change during incident response spikes?
  3. What caching is in place? Is similar analysis reused?

How Safeguard Helps

Safeguard's pricing reflects the engine-plus-LLM architecture: bounded token spend, predictable scale-up behaviour, incident spike containment. For security workloads at enterprise scale, the architecture choice shows up directly in the monthly invoice.

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