Healthcare organizations already use many methods to protect data when it is stored or sent over networks. But one of the weakest points is when data is being used—that means when it is in memory during AI work or processes. Normal security tools often cannot fully protect data at this time. This leaves it open to unauthorized access, especially in cloud or mixed environments that many healthcare providers use today.
Confidential containers help fix this problem. They use a technology called confidential computing, which protects data while it is being used. This works by running AI tasks inside trusted execution environments (TEEs). These are secure areas inside servers that encrypt and isolate sensitive information and AI code while running.
This makes sure no unauthorized person, not even cloud providers, system admins, or Kubernetes cluster admins, can see the data when it is not encrypted.
In healthcare AI in the United States, this method provides technical assurance that protected health information (PHI) stays private even when processed on shared cloud setups. It helps healthcare follow rules like HIPAA and other privacy laws such as GDPR by lowering risks of insider threats and unauthorized data leaks.
Many healthcare IT systems use platforms like Kubernetes to manage AI tasks because they are flexible and can grow easily. But normal Kubernetes systems that control access (called RBAC) cannot fully separate what different admin roles can do. This creates security problems. For example, cluster admins often can access secrets or sensitive data, which goes against zero-trust security and rules compliance.
Confidential containers use a three-way split admin model to solve this:
This system reduces risks from attacks and insider threats by limiting access. It matches HIPAA’s rules for data privacy and safety in healthcare.
Healthcare providers in the United States must follow strict laws like HIPAA. These rules require protecting any health information that can identify patients. AI tools that handle this data must work safely and follow these regulations.
Confidential containers help meet these rules by:
IBM and Red Hat’s work on confidential containers shows how secure collaboration is possible without sharing raw patient data or AI algorithms. This keeps models safe along with protected health information.
AI is used more and more in healthcare front office work like scheduling appointments, handling patient questions, and billing help. AI systems work in phone answering services and virtual helpers. Companies like Simbo AI focus on making these phone systems faster without breaking privacy rules.
Using confidential containers in these AI systems ensures:
Tech like OpenShift AI and NVIDIA NIM help provide fast and reliable AI for telehealth and patient support platforms. This is important for handling many calls and complex questions well.
Big companies like Microsoft, Red Hat, NVIDIA, and IBM have worked together to build confidential computing solutions for healthcare. Groups like the Confidential Computing Consortium (CCC) provide support and resources for secure AI that follows healthcare rules in the United States.
Microsoft Azure’s confidential computing services let healthcare providers:
Experts like Mike Bursell, director at CCC, say confidential computing is key to protecting sensitive AI data and promoting private AI in regulated fields. Pradipta Banerjee, who leads the CNCF confidential containers project, explains how these tools reduce insider threats in cloud systems used by healthcare.
Even with benefits, using confidential containers and computing needs good planning, especially in complex healthcare setups. Some challenges are:
Medical practice leaders and IT managers in the US should work with trusted providers who know how to run secure AI and container systems. Platforms like Red Hat OpenShift with confidential computing can make daily work easier and keep compliance.
Confidential containers offer an important security layer for AI in healthcare in the United States. They protect data while it is being used, filling a gap that traditional security methods leave open. This lets healthcare deploy AI safely across clouds and mixed environments.
Healthcare providers using AI tools for office automation, like Simbo AI’s phone systems, can use these containers to keep data safe.
Major tech companies working together and growing use of confidential computing help healthcare groups benefit from AI while following privacy and legal rules.
As AI becomes more common in patient care and office tasks, confidential containers will play a bigger role in protecting healthcare data from new security and compliance problems.
Red Hat OpenShift AI is a flexible, scalable AI and ML platform that enables enterprises to create, train, and deliver AI applications at scale across hybrid cloud environments. It offers trusted, operationally consistent capabilities to develop, serve, and manage AI models, leveraging infrastructure automation and container orchestration to streamline AI workloads deployment and foster collaboration among data scientists, developers, and IT teams.
NVIDIA NIM is a cloud-native microservices inference engine optimized for generative AI, deployed as containerized microservices on Kubernetes clusters. Integrated with OpenShift AI, it provides a scalable, low-latency platform for deploying multiple AI models seamlessly, simplifying AI functionality integration into applications with minimal code changes, autoscaling, security updates, and unified monitoring across hybrid cloud infrastructures.
Confidential containers are isolated hardware enclave-based containers that protect data and code from privileged users including administrators by running workloads within trusted execution environments (TEEs). Built on Kata Containers and CNCF Confidential Containers standards, they secure data in use by preventing unauthorized access or modification during runtime, crucial for regulated industries handling sensitive data.
Confidential computing uses hardware-based TEEs to isolate and encrypt data and code during processing, protecting against unauthorized access, tampering, and data leakage. In OpenShift AI with NVIDIA NIM, this strengthens AI inference security by preventing prompt injection, sensitive information disclosure, data/model poisoning, and other top OWASP LLM security risks, enhancing trust in AI deployments for sensitive sectors like healthcare.
Attestation verifies the trustworthiness of the TEE hosting the workload, ensuring that both CPU and GPU environments are secure and unaltered. It is performed by the Trustee project in CoCo deployment, which validates the integrity of the confidential environment and delivers secrets securely only after successful verification, reinforcing the security of data and AI models in execution.
NVIDIA H100 GPUs with confidential computing capabilities run inside confidential virtual machines (CVMs) within the TEE. Confidential containers orchestrate workloads to ensure GPU resources are isolated and protected from unauthorized access. Attestation confirms GPU environment integrity, ensuring secure AI inferencing while maintaining high performance for computationally intensive tasks.
The deployment includes Azure public cloud with confidential VMs supporting NVIDIA H100 GPUs, OpenShift clusters for workload orchestration, OpenShift AI for AI workload lifecycle management, NVIDIA NIM for inference microservices, confidential containers for TEE isolation, and a separate attestation operator cluster running Trustee for environment verification and secret management.
By using confidential containers and attested TEEs, the platform mitigates prompt injection attacks, protects sensitive information during processing, prevents data and model poisoning, counters supply chain tampering through integrity checks, secures model intellectual property, enforces strict trusted execution policies to limit excessive agency, and controls resource consumption to prevent denial-of-service attacks.
This unified platform offers enhanced data security and privacy compliance by protecting PHI data during AI inferencing. It enables scalable deployment of AI models with trusted environments, thus facilitating sensitive healthcare AI applications. The platform reduces regulatory risks, improves operational consistency, and supports collaboration between healthcare data scientists and IT teams, advancing innovative AI-driven services securely.
Separating the attestation operator to a trusted, private OpenShift cluster ensures that the environment performing verification and secret management remains out of reach of cloud providers and potential adversaries, thereby maintaining a higher security level. This segregation strengthens the trustworthiness of TEEs running confidential workloads on public cloud infrastructure by isolating critical attestation functions.