📄️ Define ownership and governance model for DevSecOps privileged groups
Implementation Effort: Medium – Inventorying privileged GitHub and Azure DevOps groups, assigning owners, and standing up access reviews and access packages spans identity engineering and the DevSecOps platform team.
📄️ Define developer platform roles and access model
Implementation Effort: Medium – Designing a unified role model across GitHub, Azure DevOps, and Microsoft Entra ID takes several steps and coordination among platform, security, and identity teams.
📄️ Discover and remediate ungoverned developer platform accounts
Implementation Effort: Medium – Auditing every GitHub and Azure DevOps roster, then migrating, converting, or removing accounts, is a multi-step effort coordinated with platform and identity owners.
📄️ Integrate DevOps platforms with Microsoft Entra ID
Implementation Effort: Medium – Connecting GitHub EMU and Azure DevOps to Entra ID, setting up SCIM provisioning, and planning the account cutover involves several steps across identity and platform teams.
📄️ Define developer access policies using Privileged Identity Management
Implementation Effort: Medium – Scoping PIM eligibility to GitHub and Azure DevOps admin roles builds on existing Entra governance but requires identity and platform teams to configure and test activation policies.
📄️ Configure default branch protection controls
Implementation Effort: Low – Applying a branch-protection ruleset or branch policy is a one-time setting an admin configures at the organization or repository level.
📄️ Review and reduce platform-level administrative permissions
Implementation Effort: Medium – Auditing admin roles across GitHub and Azure DevOps and right-sizing each one takes methodical review and coordination with the teams that hold those roles.
📄️ Establish organization-wide secure defaults for repository security
Implementation Effort: Medium – Configuring organization and enterprise security settings plus repository onboarding automation across GitHub and Azure DevOps takes several steps and licensing coordination.
📄️ Establish credential governance and blocking controls for developer platforms
Implementation Effort: Medium – Standing up recurring token, key, and service-connection reviews plus enforcement policies across both platforms is a multi-step effort with security and platform owners.
📄️ Adopt centralized enterprise identity model for source platforms
Implementation Effort: High – Consolidating GitHub and Azure DevOps onto a single Entra identity source and retiring unmanaged accounts is an ongoing program spanning identity and platform teams.
📄️ Implement static analysis security testing (SAST)
Implementation Effort: Medium – Enabling CodeQL code scanning across repositories and wiring it into pull request and CI workflows takes setup and tuning across engineering teams.
📄️ Enable secret scanning and push protection
Implementation Effort: Low – Turning on secret scanning and push protection is mostly an administrator toggle at the organization or repository level.
📄️ Evaluate and integrate third-party SAST and DAST tools
Implementation Effort: High – Identifying coverage gaps, evaluating candidate tools, and integrating and maintaining them in pipelines is an ongoing program rather than a one-time setup.
📄️ Plan and implement emergency access for DevOps platforms
Implementation Effort: Medium – Creating break-glass accounts for GitHub, Azure DevOps, and Entra ID, excluding them from lockout dependencies, and scheduling recurring tests takes coordinated planning.
📄️ Enable Dependabot alerts and security updates
Implementation Effort: Low – Turning on the dependency graph, Dependabot alerts, and security updates is a quick settings change per repository or organization.
📄️ Configure dependency review in CI
Implementation Effort: Low – Adding the dependency-review check to pull request pipelines is a targeted, one-time pipeline change.
📄️ Implement SBOM generation in release pipelines
Implementation Effort: Medium – Choosing an SBOM format, adding generation to every release pipeline, and defining storage and verification policy takes several steps across build teams.
📄️ Implement artifact signing and build provenance
Implementation Effort: High – Standing up signing and provenance for every release, wiring in verification gates, and maintaining keys and tooling is a sustained program.
📄️ Configure Workload Identity Federation for keyless CI/CD
Implementation Effort: Medium – Configuring federated credentials, trust conditions, and scoped RBAC for each pipeline and platform is a multi-step effort with cloud and platform owners.
📄️ Design pipeline-as-code standards
Implementation Effort: Medium – Moving pipelines to version-controlled YAML, applying branch policies and CODEOWNERS, and optionally disabling Classic pipelines takes coordinated work across teams.
📄️ Pin third-party pipeline components to immutable references
Implementation Effort: Low – Pinning actions and tasks to commit SHAs or fixed versions is a focused change to pipeline files, aided by dependency automation.
📄️ Configure environment protection rules and approval gates
Implementation Effort: Medium – Defining required reviewers, branch restrictions, and checks on each protected environment across GitHub and Azure DevOps takes coordinated setup with resource owners.
📄️ Implement IaC scanning in CI pipelines
Implementation Effort: Medium – Enabling Defender for Cloud, connecting the DevOps connector, and adding Microsoft Security DevOps scanning with SARIF upload spans security and pipeline teams.
📄️ Deploy policy-as-code for critical Azure resources
Implementation Effort: Medium – Storing Azure Policy in source control, testing it, and wiring assignment and remediation into pipelines takes coordination between platform, security, and DevOps teams.
📄️ Implement container image scanning in registry and pipeline
Implementation Effort: Medium – Wiring image scanning into the CI pipeline, the registry, and runtime spans build, platform, and security teams across several configuration points.
📄️ Implement runtime container threat protection
Implementation Effort: Medium – Enabling Defender for Containers and deploying its sensors across AKS and any EKS, GKE, or Arc-connected clusters is a multi-step rollout with cloud and platform teams.
📄️ Connect DevOps environments to Defender for Cloud
Implementation Effort: Low – Authorizing the Defender for Cloud connectors and installing the app on each DevOps organization is a bounded onboarding task, though it needs subscription and organization owners to grant access.
📄️ Configure code-to-cloud traceability
Implementation Effort: Medium – Linking container and IaC findings back to source requires enabling Defender CSPM, wiring up connectors, and applying the documented build metadata and mapping tags across teams.
📄️ Enable DevOps attack path analysis
Implementation Effort: Medium – Turning on attack path analysis depends on enabling Defender CSPM and DevOps connectors and then tuning which chained findings to prioritize, involving both security and platform teams.
📄️ Establish centralized DevSecOps security dashboards
Implementation Effort: Medium – Aggregating code, pipeline, and cloud findings into one view means connecting multiple tools to Defender for Cloud and building Azure Workbooks tailored to different audiences, which spans security and engineering.
📄️ Integrate security findings into developer workflows
Implementation Effort: Medium – Surfacing findings in pull requests, IDEs, and work items requires configuring platform-specific integrations across GitHub and Azure DevOps and onboarding repositories to Defender for Cloud.
📄️ Establish repository security baseline standard
Implementation Effort: Low – Defining the baseline of branch protection, review, scanning, and access settings is a focused policy-writing exercise for the security team with limited coordination to publish it.
📄️ Implement organization-wide repository governance policies
Implementation Effort: Medium – Rolling out uniform governance means configuring GitHub organization rulesets and replicating equivalent branch policies in Azure DevOps through shared automation, coordinating across repository owners.
📄️ Configure custom CodeQL query packs for organization-specific risks
Implementation Effort: High – Authoring and maintaining custom CodeQL packs is an ongoing program that requires learning the QL language, encoding organization-specific rules, and updating queries as internal frameworks evolve.
📄️ Configure custom secret patterns for organization-specific tokens
Implementation Effort: Medium – Defining and testing custom secret patterns, publishing them at scope, and standing up compensating controls for Azure DevOps takes iterative work across security and repository administrators.
📄️ Triage and remediate existing secret scanning alerts
Implementation Effort: Medium – Working through the backlog means validating, revoking, and rotating each exposed credential and sometimes rewriting Git history, which requires coordination with the teams that own the affected secrets.
📄️ Establish ongoing credential rotation and hygiene process
Implementation Effort: Medium – Standing up rotation schedules, automating rotation through Key Vault, and migrating long-lived secrets to managed identities is a multi-step effort spanning pipeline, application, and platform owners.
📄️ Establish code review and approval requirements
Implementation Effort: Low – Enabling branch protection rules that require peer approval, block self-approval, and dismiss stale reviews is a focused configuration change on protected branches.
📄️ Configure Dependabot auto-triage rules at organization level
Implementation Effort: Low – Defining organization-level auto-triage rules by severity, ecosystem, patch availability, and EPSS score is a focused configuration task in GitHub security settings.
📄️ Design approved package registry and trusted publishing controls
Implementation Effort: Medium – Standing up governed Azure Artifacts feeds, enabling upstream sources as a scan-before-promote buffer, and moving publishing to trusted OIDC credentials is a multi-step effort across platform and security teams.
📄️ Design software supply chain security standards
Implementation Effort: Medium – Writing organization-wide standards for SBOMs, artifact signing, provenance, and dependency governance requires input from multiple product and platform teams to agree on a workable baseline.
📄️ Enforce artifact integrity validation in deployment gates
Implementation Effort: High – Enforcing signature and provenance checks at every deployment boundary is a sustained program spanning GitHub Actions, Azure signing tooling, and admission controllers, with ongoing tuning as capabilities reach general availability.
📄️ Migrate existing service principals to federated credentials
Implementation Effort: High – Inventorying and converting every legacy service principal secret to workload identity federation across many pipelines and applications is a sustained migration effort.
📄️ Configure managed identity for Azure resource deployments
Implementation Effort: Medium – Configuring system- or user-assigned managed identities on self-hosted Azure compute and scoping their role assignments takes coordinated work across deployment and platform owners.
📄️ Audit and eliminate plaintext secrets in pipeline definitions
Implementation Effort: Medium – Auditing every pipeline definition, moving exposed credentials into approved secret stores, and enabling push protection to prevent regression spans the teams that own each pipeline.
📄️ Harden build runners with ephemeral execution and least privilege
Implementation Effort: High – Moving to ephemeral, least-privilege runners requires re-architecting build infrastructure with on-demand provisioning and teardown and maintaining it as workloads change.
📄️ Evaluate pipeline security posture against OWASP CI/CD Top 10
Implementation Effort: Medium – Systematically reviewing workflows, identities, runners, and third-party integrations against all ten OWASP CI/CD risk categories is a structured assessment that draws on platform and security teams.
📄️ Evaluate third-party SCA tools for advanced coverage
Implementation Effort: High – Comparing candidate SCA tools' reachability, license, and ecosystem coverage against native scanning and then integrating a chosen tool is a sustained evaluation and rollout effort.
📄️ Implement drift detection for deployed infrastructure
Implementation Effort: High – Standing up continuous drift monitoring, scheduled template-comparison jobs, and an ongoing investigate-and-remediate workflow is a sustained operational commitment.
📄️ Define approved base image policy and governance
Implementation Effort: Medium – Curating approved base images, maintaining a private registry with a rebuild cadence, and configuring admission-control policies requires coordination between security and platform teams.
📄️ Implement container image signing and verification
Implementation Effort: High – Configuring signing with Notation and Key Vault, wiring verification into pipelines and admission control, and maintaining trust policies is an ongoing engineering commitment.
📄️ Establish hardened deployment trust relationships for CI/CD
Implementation Effort: High – Defining explicit pipeline-to-environment trust bindings and enforcing them with environment protections, reviewers, branch rules, and federated identity claims is sustained work across every pipeline.
📄️ Establish prioritized onboarding model for DevOps posture coverage
Implementation Effort: Medium – Building a phased onboarding plan and asset registry across many repositories and pipelines requires coordination between security and engineering owners.
📄️ Design DevSecOps security triage and response process
Implementation Effort: Medium – Defining triage ownership, severity and exploitability priorities, response timelines, and finding tracking across scanning tools requires coordination between security and engineering teams.
📄️ Define remediation SLAs and exception workflow for findings
Implementation Effort: Medium – Setting remediation timelines by severity and building a documented exception workflow requires agreement across security, engineering, and leadership.