Red Hat helps organizations across industries—including finance, healthcare, and manufacturing—to use their existing hybrid IT infrastructure for edge AI deployment.
Our robust hybrid cloud platform, based on Red Hat® Enterprise Linux® and Red Hat OpenShift®, provides the foundation needed to confidently manage AI workloads across diverse environments.
Red Hat streamlines operationalizing machine learning (ML) at scale through integrated machine learning operations (MLOps), automating model management and accelerating time-to-value.
Open, modular architecture helps organizations avoid vendor lock-in, using community-driven innovation and supporting various hardware and cloud environments. This collaborative, flexible approach improves operational efficiency, reduces complexity, and bridges skill gaps, helping data scientists, IT teams, and developers to jointly accelerate AI implementation and continuously enhance model accuracy across all edge locations.
Red Hat’s platform for AI at the edge is not a standalone solution, but a portfolio of Red Hat technologies designed to support AI workloads across cloud, on-premise, near edge, and far edge environments. Red Hat’s approach allows AI models to be trained centrally and deployed efficiently at the edge (or the reverse), helping organizations to process data in real time, optimize operations, and maintain a security focus and regulatory compliance.
AI in constrained environments: Red Hat Device Edge and MicroShift
AI at the edge must often run on limited hardware in remote locations that lack the computing power of a traditional datacenter. Many industries require AI inferencing on small form factor devices, such as industrial sensors, security cameras, and IoT gateways. To support these needs, Red Hat offers Red Hat Device Edge and MicroShift, 2 technologies that bring Kubernetes-based AI inferencing to resource-constrained environments.
The Red Hat build of MicroShift is a lightweight, optimized derivative of Red Hat OpenShift, a leading container platform based on Kubernetes, designed specifically for edge computing. It allows organizations to deploy and manage AI models close to where data is generated, reducing latency and enabling real-time decision-making. The primary reason for using MicroShift with AI model serving is embedding the model into a complex solution that requires orchestrating multiple components, such as front-end interfaces, backend systems, data processing pipelines, and the AI model itself—all delivered as containerized microservices. This localized orchestration not only speeds up interactions between components, but also reduces the complexity and costs associated with managing distributed solutions.
For environments that do not require full Kubernetes orchestration, Red Hat Device Edge provides a more streamlined alternative. It allows AI workloads to be deployed as standalone containerized applications on single-board computers, industrial controllers, and other low-power devices. This flexibility makes it ideal for deployments in retail, logistics, and energy infrastructure, where AI models can analyze video feeds, optimize energy consumption, or detect security threats—all while operating independently from the cloud.
Managing AI across the full lifecycle: Red Hat OpenShift AI
AI at the edge is not just about deploying models; it requires a continuous lifecycle of training, deployment, monitoring, and retraining. Red Hat OpenShift AI provides a scalable platform that integrates AI into DevOps pipelines, helping organizations to manage their AI models efficiently across cloud, on-premise, and edge environments. When AI/ML lifecycle management is integrated into DevOps principles, it is called MLOps.
With OpenShift AI, companies can train or tune AI models centrally in a core datacenter or cloud environment and then deploy them to edge locations for inferencing. This approach is particularly useful for industries that require constant model updates, such as retail loss prevention systems that must adapt to evolving theft tactics or predictive maintenance systems that learn from new sensor data in industrial equipment.
A key advantage of OpenShift AI is its model serving capabilities, which allow organizations to automate the deployment of AI models at the edge. For example, a smart grid system can use AI to balance energy distribution in real time, processing inputs from thousands of sensors and making adjustments dynamically. OpenShift AI allows for newly trained models to be quickly deployed to edge locations, improving accuracy and adaptability.
MLOps is a set of workflow practices, inspired by DevOps and GitOps, that aims to streamline the process of deploying and maintaining ML models. By integrating MLOps principles, OpenShift AI also helps automate model monitoring and retraining. Organizations can track model performance, detect drift in AI predictions, and update models without manual intervention. This is critical in industries such as healthcare, where personalized medicine AI applications must continuously refine their recommendations based on new patient data, all while maintaining compliance with strict data privacy regulations.