DevOps Compliance Services for SOC 2, HIPAA & PCI DSS
PlatOps is a DevOps compliance company, not a software platform. Our engineers build and run the controls auditors test: policy-as-code gates in CI/CD, automated evidence collection, control monitoring and configuration drift detection.
Your team keeps shipping, and stays compliant between audits, not just during them.
Jump to the DevOps compliance checklist, tools we implement or how to choose a provider.
What We Implement
- Policy-as-code in CI/CD
- Infrastructure-as-Code compliance controls
- Automated evidence collection
- Continuous control monitoring
- Configuration drift detection
- Compliance dashboards
What is DevOps compliance?
DevOps compliance is the practice of embedding security controls, audit evidence collection, and compliance policy enforcement directly into the engineering lifecycle — infrastructure-as-code, CI/CD pipelines, and runtime monitoring — rather than treating compliance as a separate, periodic exercise that runs alongside engineering instead of inside it.
The result is a continuous compliance posture: every infrastructure change is validated against policy before it reaches production, evidence of each control is collected automatically, and configuration drift from the compliant baseline is detected and alerted within minutes. Auditors reviewing a SOC 2 Type II period or a HIPAA technical safeguard assessment find a complete, timestamped record of controls operating — not a team scrambling to reconstruct evidence from memory.
DevOps compliance is distinct from achieving a certification. Certification (SOC 2 audit, HIPAA attestation) is a point-in-time opinion from an independent auditor. DevOps compliance is the engineering discipline that makes that opinion favorable — and keeps it favorable year-round, so the next audit cycle requires no heroics.
Why teams reach out
The pattern is consistent across every engagement. The company achieved SOC 2 Type I twelve months ago — a hard sprint, policy documents written, controls configured in a few weeks. The auditor signed off. Then engineering kept shipping. A Terraform module was updated and a storage bucket's public-access block quietly drifted. A new microservice was deployed without the logging configuration the SOC 2 control requires. An IAM role picked up a broader policy than the IaC baseline specifies because someone made a manual change in the console during an incident.
Now it's Type II time. The auditor evaluates not whether the controls existed at a point in time, but whether they operated effectively over the observation period. The team discovers that six weeks of the observation window had a control gap they didn't know about. Evidence for a third of the controls is missing or reconstructed. The audit cycle extends. Deals waiting on the SOC 2 report slip.
The root problem is that compliance was treated as a project, not a system. Controls were implemented once and assumed to hold. Evidence collection was manual and happened only when someone remembered. No one was watching for drift. DevOps compliance solves this by making the controls themselves part of the pipeline: they run on every change, produce evidence automatically, and alert when something drifts out of policy. The system does the work that manual compliance can't sustain.
For teams handling HIPAA-regulated PHI or PCI-DSS cardholder data, the stakes are higher: drift is not just an audit finding, it is a potential breach event and regulatory exposure. The same automated approach — policy-as-code in CI/CD, continuous monitoring, drift detection — is what keeps technical safeguards operating as documented rather than as aspirational bullet points in a policy PDF.
Six pillars of continuous DevOps compliance
Each pillar is designed, implemented, and operated — not enabled once and left to drift.
Policy-as-code in CI/CD
- Checkov and tfsec scan Terraform and CloudFormation at pull-request stage — non-compliant changes blocked before merge
- OPA Gatekeeper and Kyverno admission controllers reject Kubernetes workloads that violate runtime security policies
- Conftest validates pipeline configurations and Dockerfile instructions against org-wide compliance rules
- Every policy decision produces a timestamped pass/fail record stored for auditor review
Infrastructure-as-Code compliance controls
- Compliance-mapped IaC modules enforce encryption-at-rest, secure networking, and least-privilege IAM by default
- Approved baseline modules version-controlled; unapproved resource configurations blocked in CI
- Tagging and resource labeling enforced at deploy to support evidence attribution per framework control
- IaC drift from live infrastructure detected and surfaced as a compliance deviation, not a silent divergence
Automated evidence collection
- Continuous, timestamped evidence streams for SOC 2 Trust Services Criteria, HIPAA §164.312, PCI-DSS, and ISO 27001
- Evidence collected at every pipeline run — no manual screenshots, no spreadsheets, no last-minute scramble
- Integrates with Vanta, Drata, or your existing compliance platform; or operates standalone
- Evidence retention and chain-of-custody records maintained for audit cycles and regulatory inquiry
Continuous control monitoring
- All in-scope controls monitored continuously against their defined baselines — not checked once per quarter
- Control status dashboard updated in real time; green/yellow/red per control and per framework
- Alerts routed to operations channel within minutes of a control moving out of compliant state
- Monthly control-health report with trending data delivered before your next audit cycle
Configuration drift detection
- Live infrastructure state compared to IaC-defined baseline on a continuous schedule
- Out-of-band changes (manual console edits, emergency patches) surface as drift events with full context
- Remediation guidance included with each alert — fix the drift or document an approved exception
- Drift resolution evidence automatically captured, closing the loop before auditors would see the deviation
Compliance dashboards
- Always-current view of control status mapped to each active compliance framework
- Evidence links accessible from each control card — auditors navigate directly to proof
- Exceptions and compensating controls documented inline with owner, rationale, and expiry
- Audit-preparation mode exports a structured evidence package ready for fieldwork hand-off
Compliance-as-code vs. manual compliance
Manual compliance treats controls as tasks that humans perform on a schedule. Compliance-as-code treats controls as automated systems that run on every change. The two approaches produce fundamentally different audit-readiness postures.
| Concern | Manual compliance | Compliance-as-code |
|---|---|---|
| How often controls are checked | Quarterly review or before audit | Every code change and continuously in production |
| Evidence collection | Manual screenshots and spreadsheets | Automated, timestamped records per pipeline run |
| Drift detection | Found during audit preparation (too late) | Alerted within minutes of deviation |
| Policy enforcement | Human reviewer approves changes | CI gate blocks non-compliant change before merge |
| Audit preparation time | Weeks of evidence gathering | Dashboard with evidence links ready on demand |
| Framework coverage | One framework at a time | Single control maps to multiple frameworks simultaneously |
| New service compliance | Retroactive review after deploy | Policy gate enforces compliance before deploy |
DevOps compliance checklist: 11 controls mapped to SOC 2, HIPAA and PCI DSS
These are the pipeline and infrastructure controls auditors ask about most often. For each one you get what “done” looks like, the evidence an auditor will want to see, and where it supports the SOC 2 Trust Services Criteria, the HIPAA Security Rule and PCI DSS v4.0.1. Work through it yourself, or use it to judge any DevOps compliance company, including us.
SOC 2 and HIPAA describe outcomes, not tools: the HIPAA Security Rule is deliberately technology-neutral, and the Trust Services Criteria leave control design to you. The mappings below show where each control typically supplies evidence. They are our reading of the frameworks, not a substitute for your auditor's or QSA's scoping.
Branch protection and mandatory code review
Done looks like: The default branch rejects direct pushes. Every merge needs an approving review from someone other than the author and passing status checks, and admin bypass is off or logged as an exception.
Evidence: The branch ruleset, plus the merged pull requests for the audit period showing reviewer, approval and green checks.
- SOC 2
- CC8.1
- HIPAA
- §164.312(c)(1) integrity
- PCI DSS
- Req. 6.2.3, 6.2.3.1
CI security scanning: SAST, SCA, secrets and IaC
Done looks like: Every pull request runs static analysis, dependency scanning, secret detection and infrastructure-as-code policy checks. Findings above an agreed severity fail the build; accepted risks are recorded with an owner and an expiry date.
Evidence: Scan results attached to each build, the gating policy in version control, and the exception register.
- SOC 2
- CC7.1, CC8.1
- HIPAA
- §164.308(a)(1)(ii)(B) risk management
- PCI DSS
- Req. 6.2.4, 6.3.1, 6.3.2
Signed build artifacts and SBOMs
Done looks like: Container images and release artifacts are built only in CI, signed, and published with a software bill of materials. The deploy step or cluster admission policy refuses unsigned images.
Evidence: Signature verification logs, the SBOM stored with each release, and the admission policy that enforces signing.
- SOC 2
- CC6.8, CC8.1
- HIPAA
- §164.312(c)(1) integrity
- PCI DSS
- Req. 6.3.2
Change management evidence from ticket to deploy
Done looks like: Each production change traces from ticket to pull request to approved review to pipeline run to deploy record. Emergency changes follow a documented break-glass path and get reviewed afterwards.
Evidence: A per-change trail generated from Git and CI metadata rather than screenshots, plus the after-the-fact review of each emergency change.
- SOC 2
- CC8.1
- HIPAA
- §164.316(b)(1) documentation
- PCI DSS
- Req. 6.5.1, 6.5.2
Least-privilege CI credentials through OIDC
Done looks like: Pipelines assume short-lived cloud roles through OIDC federation instead of storing long-lived access keys. Each role is scoped to one repository and environment, and production roles can only be assumed from protected branches.
Evidence: Role trust policies with their subject conditions, CI secret stores with no static cloud keys, and cloud audit logs of role sessions.
- SOC 2
- CC6.1, CC6.3
- HIPAA
- §164.312(a)(1) access control, §164.312(d) authentication
- PCI DSS
- Req. 7.2.2, 7.2.5
Separate environments and no production data in test
Done looks like: Development, staging and production run in separate cloud accounts or projects with separate credentials. Production data, including PHI and cardholder data, never lands in pre-production.
Evidence: Account structure and IAM boundaries defined in IaC, and the written rule for test data.
- SOC 2
- CC6.1, CC8.1
- HIPAA
- §164.308(a)(4) information access management
- PCI DSS
- Req. 6.5.3, 6.5.4, 6.5.5
Encryption enforced by IaC modules
Done looks like: Shared Terraform or CloudFormation modules turn on encryption at rest and TLS in transit by default, and a policy check fails any change that disables them.
Evidence: The module code, the policy rule, and the passing check on each change.
- SOC 2
- CC6.1, CC6.7
- HIPAA
- §164.312(a)(2)(iv), §164.312(e)(1)
- PCI DSS
- Req. 3.5.1, 4.2.1
Centralized, tamper-resistant audit logging
Done looks like: Cloud API activity, identity-provider sign-ins, CI/CD runs and production access are logged to a separate account with write-once retention, and alerts are reviewed on a defined schedule.
Evidence: Logging configuration in IaC, retention settings, and the review record.
- SOC 2
- CC7.2
- HIPAA
- §164.312(b) audit controls, §164.308(a)(1)(ii)(D) activity review
- PCI DSS
- Req. 10.2, 10.3, 10.5.1
Configuration drift detection
Done looks like: Live infrastructure is compared with the IaC baseline on a schedule. Console edits and out-of-band fixes raise an alert and are either reverted or brought back into code.
Evidence: Drift reports, the tickets they opened, and how each one was resolved.
- SOC 2
- CC7.1, CC8.1
- HIPAA
- §164.308(a)(8) evaluation
- PCI DSS
- Req. 2.2, 11.5.2
Vulnerability remediation SLAs
Done looks like: Written fix deadlines per severity for code, dependencies, images and hosts, tracked to closure. Anything past its deadline is escalated or recorded as an accepted risk with a named owner.
Evidence: Scanner exports across the audit period, time-to-fix per finding, and the exception list.
- SOC 2
- CC7.1
- HIPAA
- §164.308(a)(1)(ii)(B) risk management
- PCI DSS
- Req. 6.3.1, 6.3.3, 11.3.1
Periodic access reviews
Done looks like: On a fixed cadence, owners review who can merge to protected branches, approve deploys, administer CI and reach production. Leavers lose access as part of offboarding, not at the next review.
Evidence: Signed-off review records with the changes they produced, and offboarding tickets matched to access removal.
- SOC 2
- CC6.2, CC6.3
- HIPAA
- §164.308(a)(3)(ii)(C) termination, §164.308(a)(4)
- PCI DSS
- Req. 7.2.4, 8.2.5
For what tends to go wrong in practice, see the most common SOC 2 audit findings and, for items 2 and 3, the software supply-chain attack playbook.
Framework sources
DevOps compliance tools we implement
PlatOps is a service company, not a DevOps compliance platform. If you searched for compliance software, this is the tooling a working setup is made of. We pick from it based on what you already run, then install, tune and operate it so the checks are accurate and the evidence lands where your auditor will look.
Code, dependency and secret scanning
Semgrep or CodeQL for SAST; Trivy, Grype or Dependabot for dependencies; Gitleaks or TruffleHog for secrets
We start with what your Git host already includes, such as GitHub or GitLab security scanning, before adding anything.
Infrastructure-as-code policy checks
Checkov, tfsec (now maintained as part of Trivy), and Conftest running Open Policy Agent (Rego) rules
Runs on every pull request against Terraform, CloudFormation, Kubernetes manifests, Helm charts and Dockerfiles.
Kubernetes admission policy
OPA Gatekeeper or Kyverno
Blocks workloads that run as root, skip resource limits, pull unsigned images or miss required labels.
Supply-chain integrity
Syft for SBOMs, Cosign (Sigstore) for signing, and build provenance from your CI system
Gives you an inventory of third-party components and proof that what runs in production came from your pipeline.
Cloud posture, logging and drift
AWS Config, Security Hub and CloudTrail; Azure Policy and Activity Log; Google Cloud Security Command Center and Cloud Audit Logs; scheduled Terraform plans for drift
Native services first, because your auditor already recognises their output.
CI identity
OIDC federation from GitHub Actions or GitLab CI to AWS, Azure and Google Cloud
Replaces long-lived deploy keys with short-lived, repository-scoped roles.
Compliance platforms: Vanta, Drata, Secureframe
A compliance automation platform tracks controls, collects evidence from your integrations and gives your auditor a single place to look. It does not write your CI gates or fix the misconfigurations its tests flag. We connect the pipeline controls above to whichever platform you use, so its tests reflect what is actually enforced, or we keep evidence in your own repositories and cloud accounts if you have no platform. Comparing options? Read Vanta vs Drata vs Secureframe.
What to look for in a DevOps compliance company
DevOps compliance companies range from policy-writing consultancies to managed engineering teams. Six questions separate them quickly.
They change your pipelines, not just your policies
A gap report and policy templates still leave the engineering work to you. Ask to see the kind of pull request they would open in your repositories.
How PlatOps does it: Our engineers open the pull requests: CI gates, IaC modules, admission policies and logging configuration.
You own everything they build
Policies, pipelines and evidence should live in your repositories, cloud accounts and compliance platform, so nothing is lost if you change providers.
How PlatOps does it: Everything we build is code in your repositories and configuration in your accounts.
Their mappings cite the framework
"SOC 2 compliant Terraform" means nothing on its own. A credible partner points to the Trust Services Criterion, HIPAA section or PCI DSS requirement a control supports.
How PlatOps does it: Every control in our checklist names the criterion, section or requirement it supports.
They are clear about what they are not
Only a licensed CPA firm can issue a SOC 2 report, and PCI DSS compliance is validated by a Qualified Security Assessor or through a self-assessment your acquirer accepts. The firm that builds your controls should not also be the one attesting to them.
How PlatOps does it: We implement and operate controls, then coordinate with your auditor or QSA. We do not audit our own work.
They run the controls after go-live
A SOC 2 Type II report tests whether controls operated across a period, not whether they existed on one day. Ask who watches drift alerts and fixes failing checks in month four.
How PlatOps does it: Ongoing operation is part of our managed retainer: alerts, failed checks, access reviews and framework updates.
They are tool-agnostic
The right scanner or compliance platform depends on your stack, team and auditor, not on which vendor the consultancy prefers.
How PlatOps does it: We work inside Vanta, Drata or Secureframe, or with no compliance platform at all.
When a tool alone is enough
You may not need a DevOps compliance company at all. A compliance platform plus the checklist above is usually enough when:
- an engineer already owns your infrastructure and has a few hours a week for compliance work;
- your stack is small enough that the platform's built-in integrations cover most of it;
- you need a first SOC 2 Type I and most controls already exist.
Bring in help when the platform's failing tests turn into engineering work nobody has time for, when HIPAA or PCI DSS adds scope, or when a Type II period means controls must keep operating month after month. If you want to test the fit first, our fixed-scope SOC 2 Readiness Sprint and HIPAA Risk Analysis Sprint run for 30 days at a fixed price.
Frameworks we map to
Controls are designed to satisfy multiple frameworks simultaneously. A single encryption-at-rest control embedded in your IaC modules generates compliant evidence for SOC 2, HIPAA, and PCI-DSS at once. When a new framework version is released, the policy update propagates to every pipeline automatically.
SOC 2 (Trust Services Criteria)
CC6, CC7, and availability criteria mapped to IaC controls and CI gates; continuous evidence for Type II observation periods.
HIPAA Technical Safeguards
§164.312 access controls, audit logging, integrity, and encryption requirements enforced in pipeline and runtime monitoring.
PCI DSS v4.0.1
Requirement 6 secure development, vulnerability and change controls enforced in the pipeline; cardholder data environment segmentation and encryption gates enforced at PR stage.
ISO 27001
Annex A technical controls operationalized in CI/CD; evidence collection aligned to certification and surveillance audit requirements.
NIST CSF
Identify, Protect, Detect, Respond functions operationalized through policy-as-code, monitoring, and drift detection.
GDPR Technical Requirements
Encryption, access controls, and data-residency guardrails enforced in IaC; processing activity logs collected automatically.
For achieving initial certification, see our Compliance & Certification service. For security embedded in cloud-native workloads, see Cloud-Native Security.
A realistic implementation timeline
Eight weeks to a fully automated compliance posture; ongoing operation maintains it and handles framework evolution.
Compliance Mapping
Week 1-2Map target frameworks (SOC 2, HIPAA, PCI-DSS, ISO 27001) to specific IaC and runtime controls; identify gaps
Policy-as-Code Foundation
Weeks 2-4Deploy Checkov, tfsec, and OPA/Kyverno policies into CI/CD; block non-compliant changes at PR stage
Evidence Automation
Weeks 4-6Configure automated, timestamped evidence collection for each mapped control; connect to compliance platform if applicable
Drift Monitoring
Weeks 6-8Deploy continuous control monitoring with alerting; configure drift detection across all in-scope resources
Continuous Operation
OngoingQuarterly policy tuning, framework updates, audit-cycle support, and evidence review
Frequently Asked Questions
What is a DevOps compliance company?
A DevOps compliance company embeds compliance controls into the engineering workflow itself — CI/CD pipelines, infrastructure-as-code, and automated evidence collection — rather than treating compliance as a separate, periodic audit exercise. PlatOps operates as that partner: we design and run the technical controls that keep you continuously compliant with SOC 2, HIPAA, PCI-DSS, and ISO 27001, so auditors find evidence waiting for them instead of gaps.
What does compliance-as-code mean?
Compliance-as-code means expressing security controls as machine-readable policies that run automatically on every change. Instead of a checklist a human reviews quarterly, a Checkov rule blocks a Terraform change that would expose a storage bucket publicly. An OPA policy rejects a Kubernetes deployment missing required security labels. A CI gate fails a build that includes a hardcoded secret. The policy lives in version control, runs on every change, and produces timestamped pass/fail evidence — audit-ready by design, not by scrambling.
Does DevOps compliance replace SOC 2 or HIPAA certification?
No. DevOps compliance is how you stay compliant between audits and maintain controls continuously — it is the engineering discipline, not the certification itself. Certification (SOC 2 Type II, HIPAA attestation) requires an independent auditor's opinion on your controls. PlatOps's compliance-certification service handles the audit process and auditor coordination. DevOps compliance is what ensures the controls that auditor evaluates are actually working every day of the year, not just in the weeks before fieldwork.
How does continuous compliance work in CI/CD pipelines?
At the pull-request stage: static analysis tools (Checkov, tfsec, Conftest) scan infrastructure-as-code and fail the pipeline if a change would violate a compliance policy. At deploy: admission controllers (OPA Gatekeeper, Kyverno) block workloads that do not meet runtime security requirements. Post-deploy: continuous monitoring tools check running resources against approved baselines and alert on drift within minutes. Evidence from each stage — policy outcomes, timestamps, commit hashes — is automatically collected and stored for auditors. No manual screenshots; no last-minute evidence hunts.
How is this different from a compliance tool like Vanta or Drata?
Vanta and Drata are evidence-aggregation platforms — they connect to your systems and collect signals that already exist. They are useful, and we integrate with both. What they do not do is implement controls, write policy-as-code, configure CI gates, remediate drift, or run as an ongoing managed service. PlatOps implements the controls themselves and operates them continuously. If you already have Vanta, we make it accurate and complete; if you do not, we build the technical foundation that makes evidence collection automated and auditor-ready.
What should a DevOps compliance checklist include?
At minimum: branch protection with independent code review; SAST, dependency, secret and IaC scanning in CI; signed build artifacts with SBOMs; change records that trace from ticket to deploy; short-lived OIDC credentials for pipelines instead of stored keys; separate environments with no production data in test; encryption enforced by IaC modules; centralized, tamper-resistant audit logging; configuration drift detection; written vulnerability fix deadlines; and periodic access reviews. The checklist on this page maps each control to the SOC 2 Trust Services Criteria, the HIPAA Security Rule and PCI DSS v4.0.1, and lists the evidence an auditor will ask for.
DevOps compliance tools vs services: which do I need?
Tools detect and record; services implement and operate. A scanner such as Checkov or Trivy, or a compliance platform such as Vanta, Drata or Secureframe, tells you which controls fail and stores evidence. Someone still has to write the policies, wire the gates into CI, fix what the tools flag and keep it all working through an audit period. If you have engineers with time for that, tools are enough. If you do not, a DevOps compliance service does that work with the same tools. PlatOps implements open-source and cloud-native tooling and works inside whichever compliance platform you already use.
Does DevOps compliance cover PCI DSS?
Yes. PCI DSS says more about software delivery than SOC 2 or HIPAA do. In PCI DSS v4.0 (current revision v4.0.1), Requirement 6 covers secure systems and software: 6.2 requires bespoke and custom software to be developed securely, including code review before release; 6.3 requires identifying and addressing vulnerabilities, keeping an inventory of custom software and third-party components, and installing critical security patches within one month of release; 6.4 requires protecting public-facing web applications against attacks; and 6.5 requires managed changes and separating pre-production from production. The pipeline controls on this page produce evidence for those requirements and for logging (Requirement 10) and access control (Requirements 7 and 8). We are not a QSA: your QSA or acquirer confirms scope and how you validate compliance, and we coordinate with them.
What compliance frameworks do you cover?
SOC 2 (Trust Services Criteria), HIPAA Technical Safeguards (§164.312), PCI-DSS, ISO 27001, GDPR technical requirements, and NIST CSF. Controls are designed to map across frameworks simultaneously — once your CI pipeline enforces encryption-at-rest for storage resources, that single control generates evidence for SOC 2 CC6, HIPAA §164.312(a)(2)(iv), and PCI-DSS Requirement 3.5 at once. Mapping is documented and maintained as framework requirements evolve.
How does configuration drift detection work?
Drift detection compares the live state of your infrastructure and runtime environment against the approved, policy-compliant baseline on a continuous schedule. If a security group rule is opened manually outside the IaC workflow, an IAM permission is escalated via the console, or a running container drops a required label, the monitoring system flags it immediately and alerts the operations channel with the specific resource, the expected state, and the detected deviation. Drift is resolved and evidence of remediation is captured, closing the loop before an auditor would see the gap.
Related Articles
Guides and resources to help you go deeper
SOC 2 Audit Findings: 8 Common Issues and How to Fix Them
The Software Supply-Chain Attack Playbook for SMBs
How Long Does SOC 2 Really Take? A Realistic Timeline
SOC 2 to FedRAMP: A Regulated SMB's Compliance Roadmap
Stay compliant between audits, not just during them
Get a free DevOps compliance assessment. We audit your CI/CD pipeline, infrastructure-as-code, evidence collection, and drift monitoring — and deliver a prioritized roadmap to continuous compliance.
Related Services
Compliance & Certification
Achieve SOC 2, HIPAA, ISO 27001 — the audit and certification process.
SOC 2 Compliance
Readiness, control implementation and auditor coordination for SOC 2 Type I and Type II.
CI/CD Pipelines
The pipelines the compliance gates on this page run in.
Cloud-Native Security
Workload-layer security for containers, Kubernetes, and service mesh.
Managed Services
24/7 continuous operation — compliance runs, you ship features.
SOC 2 Readiness Sprint
A fixed-scope, 30-day start: gap assessment, first controls shipped, auditor-ready roadmap.