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BenchmarkCOMPARISONFEB 2026

Colocation vs Neocloud vs Hyperscaler GPU: The Three-Way Infrastructure Decision for AI Companies

Existing guides compare two options. The three-way framework comparing colocation, neocloud, and hyperscaler for AI workloads.

01

The Three-Way Decision Framework

AI infrastructure decisions have traditionally been framed as cloud vs on-premise. This binary is obsolete in 2026. The actual decision is three-way: hyperscaler (AWS, GCP, Azure), neocloud (CoreWeave, Lambda, TensorDock, Nebius, Akash), and colocation (placing your own hardware in a data center). Each category has fundamentally different cost structures, operational models, and scaling characteristics. The right choice depends on GPU count, workload predictability, operational capability, and timeline.

DimensionHyperscalerNeocloudColocation
Capex requiredNone (pay-as-you-go)None (rental)Full hardware cost
Contract termOn-demand to 3-yearMonthly to 3-year1-5 year colo + hardware
GPU availabilityQuota-limited, variableHigh, expanding fastMust procure yourself
Interconnect optionsInstance-dependentCustom topologiesFull control
Software flexibilityLimited (AMI + managed)Full (custom stacks)Full (everything)
Operations burdenMinimalModerateSignificant
ScalabilityElastic (minutes)Fast (hours-days)Slow (weeks-months)
02

Colocation Economics at Scale

Colocation becomes economically attractive at approximately 64+ GPUs, with the break-even point against cloud rental occurring at 12-18 months of continuous utilization. For a 128-GPU H100 deployment, colocation costs approximately $1.2-1.5M for hardware (one-time) plus $15,000-25,000/month for colo space, power, and cooling (60-80kW at $0.12-0.15/kWh). The total 3-year cost is $1.7-2.4M versus $3.5-5.0M for equivalent hyperscaler capacity, representing 30-50% savings.

The colocation advantage depends critically on utilization. At 100% utilization, the 3-year savings reach 50%. At 50% utilization (a common reality for AI infrastructure), savings drop to 25-35%. Below 30% utilization, colocation is more expensive than on-demand cloud due to the fixed hardware cost. Colocation works best for stable, predictable workloads (production inference, sustained training runs) and worst for variable, experimental, or bursty workloads (research, development, prototyping).

New colocation providers like Colo+ and GPU Colo offer hybrid colocation with GPU rental options, lowering the entry barrier to 8-16 GPUs.

03

Neocloud Advantages

Neocloud providers occupy the middle ground with several unique advantages. They offer GPU rental with 1:1 GPU-to-customer ratios (no instances are shared), custom network topologies (NVLink, InfiniBand, and custom Ethernet fabrics), and significantly lower prices than hyperscalers (30-50% less for equivalent GPU capacity). CoreWeave, the largest neocloud, has grown to 100,000+ GPUs and offers H100 at $2.50-3.00/hr versus AWS p5 at $4.50-5.50/hr for on-demand.

The neocloud advantage goes beyond price. These providers are built exclusively for AI workloads, meaning they do not burden customers with general-purpose cloud complexity. Provisioning a GPU cluster on CoreWeave or Lambda takes minutes, not hours. Custom topologies (NVLink across 8 GPUs, InfiniBand across nodes) are standard configurations, not special-request premium options. However, neocloud providers have limited geographic presence (primarily US and Europe) and do not offer the full ecosystem of services (object storage, databases, serverless) that hyperscalers provide. Teams must either accept a multi-cloud architecture or build missing services themselves.

04

Hyperscaler Reliability and Ecosystem

Hyperscalers remain the default choice for most AI teams, and for good reason. The ecosystem integration is unmatched: AWS SageMaker + Bedrock, GCP Vertex AI + Cloud Run, Azure Machine Learning + AI Studio. Data pipelines, storage, networking, IAM, monitoring, and compliance are all available natively. For enterprises with existing cloud commitments (many have 3-5 year AWS/GCP agreements), the operational simplicity of adding GPU instances to an existing account is compelling.

The premium cost of hyperscalers is partially offset by ecosystem savings. A team running on AWS uses S3 for data storage ($0.023/GB/mo), EFS for shared filesystem, CloudWatch for monitoring, IAM for access control, and VPC for networking. Building equivalent infrastructure on neocloud or colocation requires either integrating with external services or building internal capabilities. For teams without dedicated infrastructure engineering, the hyperscaler premium effectively buys an operational abstraction layer that should be valued at $1-2/GPU/hr. The break-even analysis must subtract this ecosystem value from the raw GPU cost comparison.

05

Scale-Based Guidance

The decision framework simplifies to a scale-based recommendation. For 1-8 GPUs (development, small-scale inference): hyperscaler on-demand is optimal. The operational simplicity outweighs the 30-40% cost premium. For 8-32 GPUs (production inference, fine-tuning): neocloud offers the best balance of cost and flexibility. Lambda and TensorDock provide near-hyperscaler convenience at 30-50% lower cost. For 32-128 GPUs (production training, high-volume inference): neocloud with multi-month reservations or colocation both work, with colocation offering 15-25% savings over neocloud at 80%+ utilization.

For 128-512 GPUs (dedicated training clusters): colocation is the clear winner, offering 30-50% savings over cloud with full hardware control. The operational investment (hiring 1-2 infrastructure engineers) is justified by savings exceeding $500,000/year. For 512+ GPUs: a hybrid approach combining colocation for base capacity and neocloud for burst capacity provides the optimal cost structure. Companies operating at this scale should negotiate direct GPU pricing with NVIDIA and consider multi-year colocation agreements with power price locks.

06

Implementation Strategy

The recommended implementation strategy is phased migration. Phase 1 (months 1-2): deploy on hyperscaler to establish baseline performance, cost, and operational requirements. Phase 2 (months 3-4): move stable production workloads to neocloud, maintaining hyperscaler capacity for burst and development. Phase 3 (months 5-8): evaluate colocation economics based on utilization data from phases 1-2, with hardware procurement beginning if utilization consistently exceeds 60%.

Critical success factors for the three-way strategy: maintain workload portability (use Docker containers, avoid hyperscaler-specific services for GPU workloads), negotiate simultaneous discounts (hyperscaler committed use discounts for remaining capacity, neocloud reservations for stable workloads), and invest in a multi-provider orchestration layer (Kubernetes with cluster-api or Run:ai) that abstracts the provider layer.

The AI infrastructure market is evolving rapidly, with convergence expected by 2027-2028 as neoclouds add ecosystem services and hyperscalers lower GPU pricing. The optimal 2026 strategy maximizes flexibility to capture falling GPU prices and emerging options while minimizing provider lock-in.

Deployment ScalePrimarySecondaryBurst/Temp
1-8 GPUsHyperscalerNeocloudN/A
8-32 GPUsNeocloudHyperscalerHyperscaler
32-128 GPUsNeocloud (reserved)ColocationNeocloud (on-demand)
128-512 GPUsColocationNeocloud (reserved)Hyperscaler + Neocloud
512+ GPUsColocation + NeocloudHyperscaler (legacy)All providers
Filed under
Colocation GPUNeocloudHyperscalerGPU DecisionInfrastructureBare MetalCloud GPU