Fleet TCO and cost per million tokens
Combines accelerator acquisition, host and network cost, facility overhead, energy, utilization, useful life and model throughput.
Lifetime cost composition
Inference performance and SLA envelope
Estimate concurrency, throughput, time-to-first-token and decode latency under simplified prefill/decode assumptions.
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Rack power, campus demand and cooling load
Translate accelerator density into rack-level IT power, facility demand, heat rejection and annual electricity use.
Approximate facility load breakdown
Network bandwidth and switch-count model
Size a simplified leaf-spine fabric using endpoint speed, oversubscription, switch radix and deployment scale.
Switch, optics and cable attachment-rate model
Translate accelerator shipments into attached infrastructure units and market value using editable topology and pricing assumptions.
Attached value by category
Model weights, HBM fit and KV-cache capacity
Estimate memory needed for model weights and concurrent KV cache under common transformer assumptions.
Capacity, demand growth and procurement timing
Estimate accelerators, racks and megawatts required under demand growth, utilization target and deployment buffer.
Demand and capacity ramp
Five-year infrastructure projection
Build a transparent scenario for accelerator deployments, rack density, power demand and attached network value.
Five-year system trajectory
This projection is generated only from the assumptions above and is intentionally not presented as a market forecast.
Every model should end with a question.
Architecture
What topology, memory hierarchy, power chain or cooling loop fits the workload?
Economics
Which variable dominates lifetime cost, and what must be true for the investment to work?
Timing
Which transition is real now, which is emerging, and what needs qualification first?
Supplier strategy
Where does content attach, how sticky is the design win and what displaces it?
Need a decision-grade model?
These public tools are intentionally transparent and directional. Metachips can build workload-specific architecture, cost, supplier and deployment models.