Automation Platform
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Overview Get started
Features
- Automation coding assistant
- Automation intelligent assistant
- Ansible plug-ins for Red Hat Developer Hub
- Event-Driven Ansible
- Self-service automation portal
- Automation execution environments
- Automation controller
- Automation mesh
- Ansible Content Collections
- Ansible automation hub
- Automation dashboard and automation analytics
- Ansible development tools
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All features
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Use cases -
Integrations Extend your use of Ansible Automation Platform with partner offerings, including certified collections and resources.
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Deployment options - Documentation
Use case
AIOps automation with Red Hat Ansible Automation Platform
Turn AI-driven intelligence into governed, automated action
AIOps—or AI for IT operations—combines machine learning and artificial intelligence to automate IT tasks and processes. It offers organizations the potential to break the cycle of alert overload, tool sprawl, slow remediation, and manual governance.
AI-powered observability tools excel at detecting anomalies, predicting failures, and correlating events. But without a trusted automation layer to act on these insights, organizations remain stuck in reactive, manual operations that can’t close the gap between detection and resolution at the speed or scale their business demands.
Red Hat® Ansible® Automation Platform can help you:
Resolve issues faster with event-driven remediation
Produce consistent automation with pre-tested workflows
Control AI actions with role-based access control and audit trails
What you can do
Enrich incidents and tickets
Automatically attach operational context such as system state, logs, dependencies, recent changes, and historical patterns to incidents the moment they're created.
When an alert fires, automation collects diagnostic data and context from across your IT stack. AI models then use this data to correlate signals and generate insights. This analysis is attached directly to the IT service management (ITSM) ticket, with AI summarizing unstructured information into actionable context.
This provides engineers with answers instead of raw alerts across different systems, reducing time to diagnosis, lowering mean time to resolution (MTTR), and eliminating the manual context-gathering that delays every incident.
Optimize costs and resources
Collect and correlate utilization and performance data across cloud, edge, and on-premise environments to surface hidden inefficiencies and capacity imbalances.
AI analyzes system behavior to identify underutilized resources, misaligned capacity, and optimization opportunities. Adjustments are executed through governed automation workflows.
You can make infrastructure decisions based on real utilization data—rather than assumptions—and deliver leaner, more resilient environments with lower operational cost.
Orchestrate system-level capacity
Manage capacity across interconnected systems as a whole rather than individual components, to prevent hidden imbalances and cascading failures.
AI interprets utilization trends and emerging pressure points before thresholds are breached—and then triggers coordinated capacity changes through deterministic automation workflows.
This shifts capacity management from reactive threshold responses to predictable, proactive orchestration, reducing instability and mitigating operational risk before users are impacted.
Curate your automated remediation
Replace ad-hoc fixes with a curated library of proven, reusable remediation workflows that execute consistently across environments and operators.
AI analyzes incident patterns to select the appropriate remediation from a pre-approved automation library. Every action runs through approval workflows, role-based access control (RBAC), and auditable execution trails.
Resolve recurring issues faster and safer using automation that teams already trust, without introducing autonomous execution that bypasses governance.
Detect drift and enforce policies across systems
Continuously monitor for behavioral drift across applications, infrastructure, and platforms. Evaluate drift against operational, security, and compliance baselines.
Observability signals detect when system behavior diverges from defined policies. Governed automation workflows apply corrective action automatically, replacing manual audits and reactive intervention.
Enforce policies continuously and consistently, catching drift as it emerges, rather than discovering it in the next audit cycle.
Build self-healing infrastructure
Close the loop between detection, remediation, and validation so that known issues are resolved automatically, before an engineer is paged.
Continuous observability signals detect system-level failures and trigger remediation through approved event-driven automation that’s been scoped by RBAC permissions and target controls. AI interprets unknown issues while policy frameworks retain human oversight.
Infrastructure heals itself within established guardrails, reducing downtime, freeing engineering capacity, and ensuring only authorized actions ever reach production.