AI Infrastructure
Serverless GPU platforms have transformed how teams deploy AI inference workloads. Instead of managing dedicated GPU clusters, provisioning hardware, or wrestling with Kubernetes configurations, developers can deploy models onto platforms that automate scaling and meter active GPU compute. Autoscaling behavior and ancillary charges still vary by provider: Nebius outlined Endpoint autoscaling on its roadmap when it launched Serverless AI, and platforms such as RunPod bill persistent network storage separately from GPU compute. For AI teams shipping production inference, choosing the right serverless GPU platform determines both developer velocity and operational efficiency. This guide examines seven serverless GPU platforms serving AI inference needs in 2026, starting with Modal, a code-first platform engineered for fast cold starts and autoscaling from zero to 1,000+ GPUs.

@remote deployment path in April 2026 while still supporting Docker image definitionsModal delivers AI infrastructure that developers love, with a code-first SDK that makes deploying GPU inference feel as natural as writing local code. The platform powers cloud infrastructure for thousands of customers across generative AI inference, LLM fine-tuning, computational biotech, and media processing.
Modal takes your code, puts it in a container, and executes it in the cloud with automatic scaling. The platform handles capacity decisions across a multi-cloud GPU pool, abstracting cluster provisioning, scheduling, capacity management, and autoscaling.
Core Capabilities:
@app.function) for defining compute and GPU requirements inline, with no YAML-based infrastructure definitions required (client credentials and settings live in a small .modal.toml file)Modal's SDK enables developers to deploy inference endpoints with minimal boilerplate. The platform supports multiple inference patterns:
Modal has successfully completed a SOC 2 Type II audit, with no deviations found. Modal supports HIPAA-compliant workloads on Enterprise plans via a BAA. Compute isolation uses gVisor-based sandboxing, with public Modal APIs protected by TLS 1.3 encryption.
Best For: ML teams that want code-defined infrastructure, serverless GPU autoscaling, and enterprise security features in one substrate that handles inference, training, batch processing, and scheduled jobs.
RunPod Serverless offers on-demand GPU compute with a focus on startup optimization and broad GPU availability across 31+ global regions.
RunPod provides both Community Cloud (marketplace-style) and Secure Cloud (enterprise-grade) deployment options. The Secure Cloud tier includes dedicated infrastructure with published uptime SLAs.
RunPod's FlashBoot supports startup optimization on paths where snapshots hit. As with every platform in this category, snapshot-hit startup and end-to-end model-ready readiness measure different things, with end-to-end readiness shaped by image state, weight loading, and compilation. Keeping active workers warm removes the cold start from the request path entirely.
Best For: Teams prioritizing snapshot-optimized startup and requiring broad GPU selection across multiple global regions with flexible deployment tiers.
Vast.ai operates a GPU marketplace model connecting users to compute capacity from distributed hosts, with a Serverless inference layer that launched in December 2025 across a fleet of more than 17,000 GPUs, 1,400+ providers, and 500+ locations.
@remote deployment path added in April 2026Vast.ai's approach differs from managed platforms by aggregating GPU capacity from independent providers, which gives teams a wide range of hardware options and pricing modes. For higher-assurance workloads, Secure Cloud uses vetted datacenter partners meeting stated security standards, and Vast documented SOC 2 Type II support at its Serverless launch.
The platform's catalog includes everything from consumer RTX cards to enterprise H100s, providing flexibility for teams with specific hardware requirements or budget constraints.
Best For: Teams seeking broad GPU variety and marketplace flexibility across a distributed provider network.
Beam Cloud provides inference infrastructure with an open-source runtime (beta9, AGPL-3.0) and bring-your-own-cloud (BYOC) deployment options, the combination it positions as its core differentiation.
Beam's open-source runtime addresses a specific market need: teams requiring serverless GPU abstractions while maintaining infrastructure control. This enables deployment within existing cloud accounts, addressing data residency and compliance requirements. Self-hosted and VPC-resident inference options are also available from other vendors in this category.
The platform emphasizes inference-specific optimizations, including warm container pooling and cold start management for latency-sensitive workloads.
Best For: Teams requiring self-hosted serverless GPU infrastructure or BYOC deployments while maintaining the developer experience of managed platforms.
Cerebrium positions itself as a production-grade AI deployment platform with enterprise compliance certification and developer-focused tooling.
Cerebrium announced completion of its SOC 2 Type II audit on July 8, 2026, which supports organizations with strict security-review requirements.
The platform emphasizes production deployment controls, autoscaling, and continuous monitoring, features essential for teams operating inference endpoints at scale. Its memory snapshotting work covers restoring CUDA workloads from saved checkpoints rather than reinitializing them on every start.
Best For: Enterprise teams requiring SOC 2 Type II audited infrastructure for AI inference deployments with production-grade monitoring and compliance documentation.
Koyeb delivers a global serverless platform combining PaaS simplicity with GPU compute capabilities, deploying workloads into core regions fronted by a global edge network.
Koyeb's region documentation distinguishes core locations, where applications actually run, from edge locations, which route traffic to the nearest core region. GPU inference therefore executes in core regions, and the edge network reduces network latency to those regions rather than placing GPUs at every PoP.
The platform abstracts infrastructure complexity through a PaaS model, enabling deployments directly from Git repositories or container registries without extensive configuration.
On February 17, 2026, Koyeb announced a definitive agreement to join Mistral AI. Koyeb said its platform would continue operating while gradually transitioning to become a core part of Mistral Compute.
Best For: Teams building globally distributed AI applications that want PaaS-level simplicity with multi-region core deployments and edge routing.
Nebius offers container-based serverless AI compute within a broader AI cloud, introduced on March 26, 2026 as Serverless AI Jobs and Endpoints in public preview.
Nebius Serverless AI runs user-supplied public or custom container images, so teams can deploy the same artifacts they already build for other GPU environments. Nebius operates AI Cloud infrastructure in both Europe and the US, and its Token Factory Dedicated Endpoints announcement describes dedicated infrastructure spanning Europe and the US as a separate product line from Serverless AI.
Nebius describes Serverless AI Jobs and Endpoints as public preview and says Endpoints are particularly suited to pre-production deployments and testing, with Endpoint autoscaling, optimized startup latency, and multi-region scheduling placed on a Q4 2026 and later roadmap.
Best For: Teams already invested in the Nebius AI cloud that want to evaluate container-based serverless GPU endpoints for pre-production and testing workloads.
Modal's approach starts from a different foundation: the team built custom infrastructure specifically for AI workloads rather than adapting general-purpose cloud primitives. This includes a custom file system, container runtime, scheduler, and container image builder, each optimized for the demands of model inference and training.
Modal's SDKs are the strongest fit for ML teams shipping production inference, and the underlying differentiators are concrete. Modal supports code-defined infrastructure through SDKs in Python, TypeScript, and Go, and the containers themselves can run whatever runtime or language a workload requires. The decorator-based model (@app.function) lets developers define compute and GPU requirements directly in code, without YAML-based infrastructure definitions, and common container environments can be built in Python rather than requiring a Dockerfile.
The platform's tooling, including secrets management, persistent volumes, scheduled jobs, and web endpoints, reduces integration overhead. Modal provides a unified substrate in place of separately assembled tooling.
Modal combines enterprise security and governance features with usage-based serverless infrastructure and marketplace procurement. The platform has successfully completed a SOC 2 Type II audit, providing audit-ready security documentation. Modal supports HIPAA-compliant workloads on Enterprise plans via a BAA, enabling healthcare deployments.
Security architecture includes gVisor-based compute isolation, TLS 1.3 for public API communications, and encryption for data in transit and at rest. On Team and Enterprise plans, Modal provides role-based access control at both the Workspace and Environment levels.
Modal supports the full spectrum of inference deployment patterns:
Beyond inference, Modal provides a unified platform for training, batch processing, secure sandboxes, and GPU-backed notebooks, spanning compute resources across CPUs and GPUs. Teams avoid context-switching between platforms and reduce integration complexity by standardizing on a single infrastructure substrate.
Modal powers infrastructure for thousands of customers spanning generative AI inference, computational biotech, and media processing, and manages over 20,000 concurrent GPUs across its globally distributed fleet. The platform's AWS and Google Cloud Marketplace availability enables Enterprise procurement using committed cloud spend.
For teams evaluating serverless GPU platforms, Modal's combination of code-defined infrastructure, enterprise compliance, and comprehensive tooling makes it our top recommendation for organizations shipping production AI inference.
Serverless GPU platforms abstract most infrastructure management, enabling teams to focus on model development rather than GPU provisioning, cluster maintenance, and capacity planning. Metering active compute optimizes costs for variable inference traffic, while autoscaling handles demand spikes without manual intervention. Economics still depend on utilization and workload shape: Cerebrium's 2026 buyer's guide notes that GPU-second price alone excludes idle behavior, startup time, platform fees, and infrastructure-management differences.
It depends entirely on which cold start is being measured. Infrastructure startup, snapshot restore, and end-to-end model-ready cold starts are three different quantities, and end-to-end readiness depends on image state, weight loading, compilation, GPU capacity, and cache hits. Modal is engineered for fast cold starts and faster feedback loops, with an optimized filesystem that helps containers come online quickly without letting large images slow startup down, plus Memory Snapshots available to reduce initialization overhead. Warm workers avoid cold starts altogether; snapshot restore latency depends on platform, workload, snapshot locality, and whether the cache path hits.
Modal has successfully completed a SOC 2 Type II audit; Cerebrium announced its SOC 2 Type II audit in July 2026; and Vast.ai documented SOC 2 Type II support at its December 2025 Serverless launch. Modal additionally supports HIPAA-compliant workloads on Enterprise plans via a BAA, and its security architecture includes gVisor-based compute isolation, TLS 1.3 encryption, and role-based access controls at workspace and environment levels on Team and Enterprise plans. Compliance certificates are necessary but not sufficient on their own: enterprise readiness also reflects SLA scope, tenancy and isolation, residency, support, networking, and auditability.
The reviewed platforms support containerized or custom workloads, so teams can generally bring existing models built with PyTorch, TensorFlow, JAX, and similar frameworks. Portability is still bounded by GPU architecture, CUDA and driver versions, and serving-runtime compatibility. Modal's Image builder simplifies container creation in code, without requiring a Dockerfile, while also supporting existing Docker images, and the platform includes examples for common inference patterns including vLLM, TensorRT-LLM, and SGLang deployments.
Key evaluation criteria include developer experience (SDK quality, deployment complexity), model-ready cold start behavior and warm-capacity controls, compliance posture (SOC 2, HIPAA for regulated industries), GPU availability across types and regions, per-request economics, and platform comprehensiveness. Product maturity and platform trajectory also matter: Nebius Serverless AI Endpoints are in public preview with autoscaling on a later roadmap, and Koyeb announced in February 2026 that it had entered a definitive agreement to join Mistral AI while transitioning toward Mistral Compute. Teams prioritizing code-first developer experience alongside enterprise controls will find Modal a particularly strong fit, while teams with specific requirements around self-hosting (Beam) or marketplace pricing dynamics (Vast.ai) may prioritize those differentiators.