AI Security
Threat modeling, security architecture, and adversarial testing for AI systems — designed in from week one, not reviewed at the end.
AI SecurityProduction AI systems that run entirely inside your infrastructure. No third-party data processor. No inference traffic leaving your network boundary.
Most enterprise AI programs stall at the same place: the moment someone asks where the data goes. For organizations under HIPAA, GLBA, CMMC, ITAR, or attorney-client privilege, "it goes to a vendor API" ends the conversation — correctly.
Private AI removes the question from the architecture. Models run on hardware you control, in a network you define, under access controls you already operate. There is no external processor to assess, no data processing agreement to negotiate, and no egress path to defend in an audit.
Open-weight models have reached the point where this is a genuine engineering choice rather than a compromise. For retrieval, extraction, classification, summarization, and most agentic workflows, a well-served open model on your own hardware is competitive with a frontier API — and it is the only option that clears your review.
The hard part was never the model. It is GPU infrastructure, model serving, retrieval architecture, identity-aware access control, evaluation, and operations. That is the work we do.
Vendors use the word loosely. Four boundaries have to hold.
Inference executes on compute inside your perimeter. No outbound connection is required for the system to function.
Embeddings, indexes, caches, and logs persist in your storage, under your encryption and retention policy.
Retrieval and tool access run under the requesting user's existing entitlements, enforced at query time.
Observability data stays internal. No usage, prompt, or content telemetry is emitted to a third party.
A deployment that satisfies three of four is not private. We design to all four and document which controls enforce each.
| Model | Where inference runs | Connectivity | Typical driver |
|---|---|---|---|
| Private cloud | Your VPC or dedicated tenant | Controlled egress | Most enterprise workloads; fastest path to approval |
| On-premise | Your datacenter | Internal only | Sustained volume, data gravity, cloud prohibited |
| Edge | Facility, device, or plant floor | Intermittent | Latency, bandwidth, or disconnected operation |
| Air-gapped | Isolated enclave | None | Classified or controlled data; no external path permitted |
Air-gapped deployment changes model update logistics, monitoring, and dependency management substantially. These are solvable engineering problems, but they must be designed for from the start rather than retrofitted.
Private AI carries real cost: capital or reserved compute, GPU capacity planning, model lifecycle ownership, and operational staffing.
It is the wrong choice when your data is not sensitive, your volume is low or highly variable, you need frontier-model capability that open weights do not yet match, or you have no team to operate it and no appetite for managed operations.
We will tell you when a managed API is the better architecture, and we have.
For retrieval, extraction, classification, summarization, and most agentic workflows, yes. For the hardest reasoning tasks, frontier models still lead.
We evaluate against your actual workload rather than against public benchmarks, because benchmark rank rarely predicts performance on a specific enterprise task.
Not necessarily. Options include reserved cloud GPU capacity inside your tenant, colocated hardware, or existing on-premise capacity. We model the options — purchase is one outcome, not the assumption.
Per token, almost always. At sustained volume, frequently not — and for a large share of our clients the comparison is moot, because the API was never an approvable option.
We model both before recommending either.
No. On a private deployment there is no third party with access to train on. Where a managed API is used for a non-sensitive workload, we configure and verify no-retention and no-training terms and document them.
Yes. Air-gapped deployment changes model update logistics, monitoring, and dependency management significantly. Those are engineering problems with known solutions, and they need to be designed for from the start.
Threat modeling, security architecture, and adversarial testing for AI systems — designed in from week one, not reviewed at the end.
AI SecurityFive phases from assessment to operations, each with defined artifacts and a gate before anything reaches production.
The frameworkWe assess your data, infrastructure, and regulatory position, then tell you which deployment model your constraints actually permit — and what it costs to build and to run.
Direct response from an engineer. Typically within one business day.