Lepton AI
Build and deploy high-performance AI applications at scale with zero infrastructure management.

The open-source standard for high-performance AI model interoperability and cross-platform deployment.
ONNX (Open Neural Network Exchange) is a rigorous technical standard providing an extensible computation graph model, built-in operators, and standard data types for AI models. In the 2026 landscape, ONNX serves as the essential 'universal translator' between high-level training frameworks like PyTorch or TensorFlow and hardware-specific execution environments. By decoupling model training from inference, ONNX allows developers to optimize performance across diverse silicon architectures—including CPUs, GPUs, and NPUs—without rewriting core logic. Its architecture utilizes a serialized format (Protobuf) that defines a consistent set of operators (Opsets), ensuring that a model trained in 2024 remains executable and performant on 2026 hardware. The ecosystem's strength lies in the ONNX Runtime (ORT), a cross-platform accelerator that integrates with provider-specific libraries such as NVIDIA TensorRT, Intel OpenVINO, and Qualcomm SNPE. This makes it the industry standard for enterprise-grade AI production pipelines, specifically for organizations requiring low-latency, cross-cloud, or edge-native execution.
Performs constant folding, redundant node elimination, and node fusion (e.g., Conv + Relu) during the export or load phase.
Build and deploy high-performance AI applications at scale with zero infrastructure management.
The search foundation for multimodal AI and RAG applications.
Accelerating the journey from frontier AI research to hardware-optimized production scale.
The Enterprise-Grade RAG Pipeline for Seamless Unstructured Data Synchronization.
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A pluggable interface that allows the ONNX Runtime to leverage hardware-specific accelerators like NVIDIA TensorRT or Intel OpenVINO.
Supports converting 32-bit floating-point weights to 8-bit integers (INT8) or 16-bit floats (FP16).
Maintains backwards compatibility through defined Operator Sets, ensuring older models work on newer runtimes.
Enables high-performance model execution directly in the browser via WASM or WebGL.
Allows developers to register domain-specific mathematical operations not covered in the standard Opset.
Automatically calculates the output shapes for all nodes in the graph based on the input dimensions.
A developer needs to deploy a PyTorch-trained image classifier to both iOS and Android with hardware acceleration.
Registry Updated:2/7/2026
Running BERT models on standard CPUs is too slow and costly for a high-traffic startup.
An enterprise has models in deprecated frameworks (e.g., Caffe2) that need to run on modern cloud infrastructure.