Weight approximation
FP16/BF16 is about 2 bytes per parameter, INT8 about 1 byte and 4-bit about 0.5 byte.
Platform · Private AI Core
Run validated 8B–32B models on practical single-GPU or resilient on-premises configurations, sized to context, concurrency, latency and availability.
These profiles are planning guidance. Capacity and response time require testing on the exact model, engine, hardware and workload.
Design-partner roadmap This build contains no model runtime and calls no model — every model-shaped capability reports an explicit “model not configured” state. The architecture, model classes and hardware figures on this page are intended design and sizing targets: not measured results, and not a supported production specification.
Model, quantization, context length, concurrent agents and response-time target determine the real capacity envelope.
Practical inference infrastructure—not a hyperscale training cluster
7–9B · 16–24 GB VRAM · 64 GB RAM · 1–2 TB NVMe
Pilot, small team, low concurrency12–14B · 24–32 GB VRAM · 128 GB RAM · 2 TB NVMe
Recommended normal deployment24–32B · 48 GB ECC · 128–256 GB RAM · 2–4 TB NVMe
Stronger reasoning, moderate concurrency14–32B · two 48 GB GPUs or two nodes · 256 GB RAM · 4 TB+
Redundancy, separation or higher concurrencyMemory planning
Raw weights are only one part of a working inference service, and advertised context limits are not free.
FP16/BF16 is about 2 bytes per parameter, INT8 about 1 byte and 4-bit about 0.5 byte.
Quantization metadata, buffers, CUDA graphs, embedding and reranking models, adapters and services consume memory.
KV cache grows with evidence length and simultaneous sessions. Practical limits must be benchmarked.
Four-bit weights may occupy roughly 7–8 GB, but that does not make 8 GB VRAM a safe system requirement.
Deployment options
The whole system—airflow, power, drivers, runtime, monitoring, warranty and replacement path—must be qualified.
A value-oriented option for pilots, small teams and departmental deployments.
A centralized enterprise option for professional GPUs, redundant storage and datacenter controls.
GPU virtualization, containers or Kubernetes may be used after passthrough, licensing, driver and runtime qualification.
Availability
High availability is optional because it materially changes cost and operations.
The standard path where queued assistance and planned maintenance are acceptable.
A second approved node shortens recovery without requiring active-active complexity.
Inference and retrieval can be isolated or multiple approved workers placed behind a controlled gateway.
Continuity
The GPU service is not allowed to become a single point of authority for the security platform.
Scanners, collectors and policy controls keep running independently of model inference.
Requests may queue, use a smaller approved model or require manual review according to policy.
Queue limits, timeouts, health checks, fallback, recovery objectives and user notices are defined during deployment.
Responsibilities
Infrastructure ownership does not remove the need for coordinated lifecycle and security decisions.
Model qualification, crew integration, prompt and retrieval configuration, evaluation, upgrades, rollback packages and product support.
Infrastructure, network and identity integration, backup, retention, access approval, power, cooling and license acceptance.
Capacity planning, security monitoring, change approval, incident handling and model lifecycle decisions.
Platform · Private AI Core
The assessment defines the deployment class, model class, tested capacity envelope, availability design and implementation scope before hardware is committed.