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Datadog | The Monitor blog

Introducing our open source AI-native SAST Instrument and monitor Boomi integration flows with OpenTelemetry and Datadog Not all index scans are equal: How we cut query latency by over 99% Platform engineering metrics: What to measure and what to ignore Integrate Recorded Future threat intelligence with Datadog Cloud SIEM CI/CD security: threat modeling using a MITRE-style threat matrix CI/CD security: How to secure your GitHub ecosystem Ingress NGINX is EOL: A practical guide for migrating to Kubernetes Gateway API Operating agentic AI with Amazon Bedrock AgentCore and Datadog LLM Observability: Lessons from NTT DATA Introducing the Datadog Code Security MCP Capture and analyze custom heatmaps in Session Replay Understand session replays faster with AI summaries and smart chapters Monitor ClickHouse query performance with Datadog Database Monitoring How we designed empathetic alert sounds for on-call engineers Search and act across Datadog to resolve issues faster with Bits Assistant Measure the business impact of every product change with Datadog Experiments Analyzing round trip query latency Configuring JavaScript caches for better performance Introducing Bits AI Dev Agent for Code Security Datadog achieves ISO 42001 certification for responsible AI Monitor Nutanix clusters, hosts, and VMs with Datadog Monitor Juniper Mist in Datadog A new Host Map for modern infrastructure Annotate traces to improve LLM quality with Datadog LLM Observability What’s new in Cloud SIEM: AI-powered investigations, enhanced threat intelligence, and scalable security operations Explore Kubernetes with native OpenTelemetry data Monitor Oracle Fusion Cloud Applications with Datadog Announcing the Datadog Terraform provider v4.0.0 Scaling Kubernetes workloads on custom metrics How to design cloud environments for AI-powered threat analysis Monitor Aruba Central in Datadog How we centralize and remediate risks with Datadog Case Management Accelerate incident response with Datadog and ServiceNow Monitor your application and network load balancer logs Understanding Karpenter architecture for Kubernetes autoscaling Tools for collecting metrics and logs from Karpenter Monitor Karpenter with Datadog What your product data is actually saying Key metrics for monitoring Karpenter Securing Datadog’s platform in the AI age: The role of observability data Four ways engineering teams use the Datadog MCP Server to power AI agents Approaching your observability migration with the right mindset Meet the new Bits AI SRE: Deeper reasoning, twice as fast Key learnings from the 2026 State of DevSecOps study Use plain English to query your multi-cloud infrastructure in Resource Catalog Simplifying troubleshooting across the user journey with Datadog Synthetic Monitoring Protect your OCI resources with Datadog Cloud Security This Month in Datadog - February 2026 Amazon EC2 security: How misconfigured and public AMIs expand your cloud attack surface Enable end-to-end visibility into your Java apps with a single command Measure and improve mobile app startup performance with Datadog RUM Evaluating our AI Guard application to improve quality and control cost Identify untested code across every level of your codebase Make use of guardrail metrics and stop babysitting your releases Monitor Versa Networks SD-WAN performance in Datadog Improve performance and reliability with APM Recommendations Remediate transitive vulnerabilities faster with Datadog Software Composition Analysis Generate audit-ready vulnerability and compliance reports with Datadog Sheets Monitor Fortinet FortiManager performance in Datadog Improve test coverage across codebases with Datadog Code Coverage Move fast, don’t break things: Consistent testing standards at scale Enrich logs with ServiceNow CMDB context before routing to any SIEM or logging tool Monitor Lustre with Datadog Make faster, better product decisions with Datadog Product Analytics Surface and remediate runtime posture issues with Workload Protection Findings Protect agentic AI applications with Datadog AI Guard How to optimize JavaScript code with CSS Trace Google Pub/Sub workloads in Cloud Run with Datadog Detect human names in logs with ML in Sensitive Data Scanner How we cut our NLQ agent debugging time from hours to minutes with LLM Observability Debug PostgreSQL query latency faster with EXPLAIN ANALYZE in Datadog Database Monitoring Datadog acquires Propolis Unify and correlate frontend and backend data with retention filters Scale compliance across global frameworks with Datadog Cloud Security Monitor Arista VeloCloud SD-WAN performance with Datadog Building reliable dashboard agents with Datadog LLM Observability Simplify log collection and aggregation for MSSPs with Datadog Observability Pipelines Mitigation for Node.js denial-of-service vulnerability affecting Datadog APM Automate flaky test fixes with the Bits AI Dev Agent and Test Optimization How we built an AI SRE agent that investigates like a team of engineers Datadog integrations 2025 recap: Observability for AI, security, and hybrid cloud Design effective executive dashboards with Datadog Implement dbt data quality checks with dbt-expectations Bring faster visibility into AWS Lambda functions with remote instrumentation Troubleshoot faster with the GitLab Source Code integration in Datadog How Cambia Health Solutions saved $30,000 monthly with Cloud Cost Management and the Datadog Resource Catalog Normalize any logs for Cloud SIEM with Datadog's OCSF processor Optimizing Datadog at scale: Cost-efficient observability at Zendesk Detect, diagnose, and resolve network issues easily with CNM Network Health Connect engineering errors to user impact in early-stage products Cilium configuration for Kubernetes operations at scale Designing feedback loops for progressive delivery Ship features faster and safer with Datadog Feature Flags Choosing the right OpenTelemetry Collector distribution Route your monitor alerts with Datadog monitor notification rules Automate Cloud SIEM investigations with Bits AI Security Analyst Cloud threat detection: How to identify risky activity across control and data planes Collecting Kafka performance metrics Monitoring Kafka with Datadog Monitoring Kafka performance metrics
Deploy Datadog Kubernetes Autoscaling at scale
Danny Driscoll · 2026-05-28 · via Datadog | The Monitor blog

Every Kubernetes environment accumulates waste over time. Teams overprovision CPU and memory requests to avoid performance risk, run idle replicas to preserve headroom, and leave Horizontal Pod Autoscalers (HPAs) untouched long after workload behavior has changed. Some of this waste can be addressed at the node level, where Datadog Cluster Autoscaling helps teams rightsize capacity. But the largest savings often sit at the workload level, where requests, limits, and replica counts are configured service by service.

The Datadog Pod Autoscaler continuously rightsizes to help platform and infrastructure teams deploy workload autoscaling safely across a Kubernetes fleet. Teams can apply these recommendations through three rollout paths—in-app setup, GitOps cluster profiles, and AI-assisted onboarding—each designed to fit how they already manage infrastructure. Organizations reduce idle cost at scale while platform teams centrally manage autoscaling without asking every application team to design policies from scratch.

In this post, we’ll explain how you can use Datadog Kubernetes Autoscaling to:

- Activate autoscaling across your fleet from a single page

- Manage autoscaling policy as code with GitOps cluster profiles

- Generate manifests and PRs with AI-assisted onboarding

- Adjust resource requests in place with vertical resizing

Activate autoscaling across your fleet from a single page

The in-app setup workflow gives platform teams a centralized place to manage autoscaling rollout. From the autoscaling setup page, you can view workloads across your cluster and see which ones are ready for immediate activation and which ones require you to carry over existing autoscaling settings first. For workloads that are ready, you can activate autoscaling in a single click, deploying DatadogPodAutoscalers in bulk from the UI without writing YAML or coordinating team-level handoffs for each service. 

The setup page also surfaces estimated idle cost and potential savings, so teams can prioritize rollout targets by cost impact and start with the workloads that need the least review.

Screenshot of the Datadog Kubernetes Autoscaling setup page showing selected workloads, estimated monthly savings, scaling templates, and a button to deploy autoscalers.

The in-app setup workflow is useful when you want a guided rollout from the Datadog platform. For example, a platform team can start with a cluster, filter to workloads that are ready to autoscale, choose a scaling template, and deploy the generated DatadogPodAutoscaler objects. The result is a faster path from recommendation to rollout, while still giving teams control over which workloads are included.

Manage Datadog Kubernetes Autoscaling policy as code with GitOps cluster profiles

For teams that manage Kubernetes configuration through Git, cluster profiles provide a way to define an autoscaling policy once and apply it consistently across namespaces. You can use one of our three standard workload scaling profiles or define a cluster profile as a DatadogPodAutoscalerClusterProfile custom resource, then add a label to any namespace where you want it applied. The Datadog Cluster Agent detects the label and automatically creates DatadogPodAutoscaler resources for each eligible workload in that namespace, including Deployment and Argo Rollout resources. 

Instead of writing a separate autoscaling manifest for every workload, a single profile covers the namespace. If a service within the namespace needs different behavior, you can override the inherited policy or opt it out with a single label.

A screenshot of the Datadog interface displaying Kubernetes Custom Resources. A detail panel shows the YAML configuration tab for a DatadogPodAutoscalerClusterProfile resource located in the logs8 cluster. The visible YAML code defines autoscaling policies, specifically scale-down rules and scale-up rules.

Because the policy and annotations live in Git, adding autoscaling to a namespace follows the same review and approval process as any other infrastructure change. In practice, it can be as simple as a one-line pull request (PR) that applies the relevant label to a namespace definition. GitOps cluster profiles let platform teams expand autoscaling coverage fleet-wide without moving policy decisions out of their existing deployment workflow.

Generate manifests and PRs with AI-assisted onboarding

AI-assisted onboarding helps teams quickly create and manage their first Datadog Pod Autoscaler manifests based on their existing workload context. The workflow runs from the Datadog UI with Bits AI Dev or through the Datadog Model Context Protocol (MCP) Server from Claude, Cursor, Codex, or another MCP-aware client. The assistant inspects your cluster, reviews existing autoscaling resources, and generates DatadogPodAutoscaler manifests that match your environment.

AI assistance is especially useful when a team already uses HPAs, Watermark Pod Autoscalers (WPAs), or Vertical Pod Autoscalers (VPAs) and needs to convert them into equivalent DatadogPodAutoscalers. The assistant can automatically detect those existing resources, translate them into Datadog Kubernetes Autoscaling configuration, and prepare the changes as a draft PR.

Screenshot of Bits AI Dev preparing a draft PR with DatadogPodAutoscaler manifests and showing the generated YAML changes for Kubernetes autoscaling setup.

Teams can preserve their Git-based change control, reviewing the generated manifests, adjusting the policy if needed, and merging the approved PR. AI-assisted onboarding gives teams a clear starting point for reviewing autoscaling behavior and guides them through the hardest part of a rollout: opening the first autoscaling PR.

Adjust resource requests in place with vertical resizing

The Datadog Pod Autoscaler supports in-place vertical resizing for containers. Vertical scaling recommendations are valuable because many workloads carry stale CPU and memory requests that no longer reflect production behavior. When resource requests are too high, clusters reserve capacity that applications do not use. When requests are too low, workloads can face performance risk during spikes. Rather than requiring vertical adjustments to go through a pod recreation path, supported CPU and memory request changes can be applied in place to minimize disruption.

In-place vertical resizing complements the onboarding paths described above. Whether you deploy DatadogPodAutoscalers from the UI, through GitOps cluster profiles, or with AI-assisted PRs, the Datadog Pod Autoscaler enables you to resize your resources automatically. As a result, teams can move beyond idle replicas and stale requests while reducing the operational risk of large-scale autoscaling rollout.

Get started with Datadog Kubernetes Autoscaling

Datadog Kubernetes Autoscaling lets platform teams reduce idle costs safely at fleet scale, without requiring application teams to manage their own autoscaling configuration. Whether you activate autoscaling in-app, manage policy as code with GitOps cluster profiles, or generate manifests and PRs with AI-assisted onboarding, each path uses the same stability-first approach to rightsizing workloads. In-place vertical resizing extends that approach to container resource requests, applying changes with less disruption than pod recreation. To get started, see the documentation to learn more about Kubernetes Autoscaling and idle cost and savings estimates. Then enable Kubernetes Autoscaling in the Datadog app.

To start reducing idle cost in your Kubernetes environment, sign up for a free 14-day trial.