Sizing, cluster design, on-prem vs cloud economics, utilization engineering — so AI compute is a number you set, not a runaway cost. We treat GPU infrastructure as an engineering and economics problem, then prove the spend against your real workload.
GPU compute is usually the biggest line item in an enterprise AI program — and the one teams understand least. The failure modes are predictable: an overprovisioned cloud account burning money on instances that sit at single-digit utilization; reserved capacity bought in a panic and then left idle; or, the opposite, an undersized cluster that throttles production the moment real traffic arrives. In every case the spend is disconnected from the work being done.
We treat GPU infrastructure as what it is — an engineering and economics problem with a right answer. The right answer comes from the workload, not the vendor roadmap: how much memory the models need, how much throughput the traffic demands, how steady that demand is, and what each unit of compute genuinely costs across buy, rent, reserve, and spot. We size to that, design the cluster around it, drive utilization up, and model the cost so the bill becomes a number you control.
Every layer is sized, designed, and measured against your real workload — not bought to a brochure spec.
GPU strategy pays off wherever compute spend has drifted away from the work it is doing — too much idle, too little headroom, or the wrong deployment model entirely:
Fixed scope, fixed price, twelve weeks from briefing to a cost-modeled deployment.
It depends on your utilization. Cloud is right for spiky, exploratory, or early-stage workloads where you cannot keep hardware busy. Owning or colocating hardware wins once you run steady, predictable load — beyond roughly 50-60% sustained utilization the cloud premium usually exceeds the cost of owning. We build a total-cost-of-ownership model across buy, rent, reserved, and spot, find the break-even point for your real load curve, and often land on a hybrid: owned baseline for steady demand, cloud burst for peaks.
We size from the workload, not the brochure. The model's memory footprint sets the minimum GPU class and whether you need multi-GPU sharding; required throughput and latency targets set the count. We profile your real models and traffic, account for peak versus steady-state demand, and right-size — including quantization and partitioning so a smaller, cheaper footprint can carry the same load. The output is a specific, justified configuration rather than an over-cautious overprovision.
Most GPU spend is wasted on idle capacity, not on serving requests. We attack utilization first — batching, smarter scheduling, MIG/partitioning, and autoscaling so one GPU does the work of several — then right-size the fleet and apply quantization to shrink the per-request footprint. Combined with reserved and spot pricing where it fits, this routinely cuts the bill substantially while protecting latency SLAs. The serving side of this is covered in inference management.
How cost-controlled GPU strategy maps to the realities of each regulated vertical we serve.
Bring your models, your traffic, and your current compute bill. In thirty minutes we will show where the spend is leaking, what a right-sized cluster looks like, and whether you should own or rent it. Response inside 24 hours.
As an enterprise AI agency, eeko systems delivers production AI systems remote-first across the United States and internationally — including these markets: