Large Language Models
Run and deploy LLMs at scale
Deploy vLLM, SGLang, TensorRT, or your own stack and autoscale on GPUs globally with millisecond latency and usage-based pricing.
Infrastructure designed for real-world production workloads and reliability at scale.
Why Cerebrium for LLMs?
Features
Why Cerebrium for LLMs?
Built for bursty, unpredictable traffic
Spin up containers globally in 1–2 seconds, even under sudden traffic spikes. Cerebrium scales CPU and GPU workloads on demand without pre-warming or reserved capacity, so you can handle bursts without over-provisioning or idle cost.
NVIDIA H100
Ideal for demanding inference and training tasks
AMD MI300X
High memory bandwidth for large context windows
NVIDIA A100
Optimized for most LLM inference workloads
NVIDIA L4
Efficient choice for low-latency, cost-sensitive tasks
TPU v5e
Google’s scalable TPU for production inference
Cerebrium Flex
Auto-matches hardware to workload needs in real time
Access to the latest GPU hardware
Run workloads on the latest GPU hardware, including B200s, H100s, L40s, and AMD MI300X — without long-term commitments or capacity reservations. Choose the right hardware per workload to balance performance, latency, and cost
Your inference stack optimized
Cerebrium is built for high-performance inference at scale. Use static, dynamic, and continuous batching across any inference engine - vLLM, SGLang, TensorRT, and more - to maximize throughput and efficiency.
Data sovereignty at low latency
Deploy workloads in specific regions to meet data residency, compliance, and latency requirements. Cerebrium lets you control where compute runs and where data is processed - without compromising on scale or reliability.
Examples
Deploy Triton Inference server with TensorRT-LLM
Achieve high throughput with Triton Inference Server and the TensorRT-LLM framework
Deploy a VLM with SGLang
Build an intelligent ad analysis system that evaluates advertisements across multiple dimensions
Serving GPT-OSS with vLLM
Deploy OpenAI’s Latest Open Source Model with vLLM