Apply DevSecOps and Secure SDLC Principles
Integrate security requirements, threat modeling, shared responsibility, risk awareness, and security control…
It is also useful for cybersecurity professionals who need stronger understanding of modern software engineering and delivery pipelines.
Automate Delivery. Secure the Pipeline.
Develop the knowledge and practical skills to build, automate and secure modern software delivery pipelines.
Integrate security requirements, threat modeling, shared responsibility, risk awareness, and security control…
Evaluate code security, repository controls, secrets, dependencies, development workflows, and source-code ri…
Apply automated security testing, pipeline controls, artifact management, deployment gates, and secure releas…
Evaluate cloud configurations, IaC templates, identity, access, network controls, automated infrastructure, a…
Evaluate container images, registries, orchestration, APIs, microservices, runtime environments, and cloud-na…
Identify vulnerable dependencies, assess software components, interpret SBOM information, prioritize remediat…
Use telemetry, logs, alerts, runtime findings, incidents, and operational data to improve applications and de…
Use and assess AI-assisted development, testing, remediation, automation, and emerging tools responsibly.
Whether you build, deploy, secure or manage modern applications, CDevSOP® helps you advance your skills and career.
DevSecOps Principles and Shared Responsibility · Secure SDLC, Agile, and Continuous Delivery · Security Requirements and Risk Integration
Secure Coding Principles and Common Weaknesses · Source-Control Security and Repository Governance · Secrets, Credentials, and Developer Access
CI/CD Architecture and Pipeline Workflows · Pipeline Identity, Permissions, and Secrets · Automated Security Testing and Security Gates
Cloud Security and Shared Responsibility · Infrastructure as Code and Secure Templates · Identity, Network, and Resource Configuration
Container Images, Registries, and Image Security · Kubernetes and Orchestration Security Concepts · API Authentication, Authorization, and Security Testing
Open-Source Dependencies and Package Security · Software Composition Analysis and Vulnerability Detection · SBOMs and Software Component Transparency
Logging, Metrics, Tracing, and Application Observability · Runtime Security and Production Monitoring · Incident Detection, Response, and Development Feedback
AI-Assisted Coding and Developer Productivity · AI-Enabled Security Testing and Vulnerability Analysis · AI-Generated Code Risk and Validation
Apply security across the entire software delivery lifecycle.
Choose the pathway that suits your learning journey.
Earn a digital credential and certificate to showcase your achievement.
Certification Designation: CDevSOP®
Certification Level: Professional
Certification Body: International Board of AI, Cybersecurity & Technology Professionals (IBACTP®)
Program Category: DevSecOps, Secure Software Delivery, Cloud-Native Engineering & Cybersecurity
Delivery Format: Instructor-Led, Virtual Instructor-Led, Self-Paced, or Blended Learning
Professional level — Three-year certification cycle with continuing professional education
Recommended Training Duration: 40–60 Hours
Certification Examination: Proctored, competency-based examination with multiple-choice and scenario-based questions
Alternative Assessment Pathway: Applied DevSecOps Capstone for eligible candidates in approved instructor-led pathways
Credential Renewal Cycle: 3 Years
Open any topic to read the complete program information.
CDevSOP® is designed for professionals and aspiring professionals such as:
It is also useful for cybersecurity professionals who need stronger understanding of modern software engineering and delivery pipelines.
1.1 DevSecOps Principles and Shared Responsibility
1.2 Secure SDLC, Agile, and Continuous Delivery
1.3 Security Requirements and Risk Integration
1.4 Threat Modeling and Secure Design
1.5 Security Culture, Collaboration, and Continuous Feedback
2.1 Secure Coding Principles and Common Weaknesses
2.2 Source-Control Security and Repository Governance
2.3 Secrets, Credentials, and Developer Access
2.4 Code Review, SAST, and Secure Development Testing
2.5 Developer Security Feedback and Remediation
3.1 CI/CD Architecture and Pipeline Workflows
3.2 Pipeline Identity, Permissions, and Secrets
3.3 Automated Security Testing and Security Gates
3.4 Build Artifacts, Registries, Signing, and Integrity
3.5 Secure Deployment, Rollback, and Release Validation
4.1 Cloud Security and Shared Responsibility
4.2 Infrastructure as Code and Secure Templates
4.3 Identity, Network, and Resource Configuration
4.4 Policy as Code and Configuration Validation
4.5 Drift Detection, Compliance, and Automated Remediation
5.1 Container Images, Registries, and Image Security
5.2 Kubernetes and Orchestration Security Concepts
5.3 API Authentication, Authorization, and Security Testing
5.4 Microservices, Service Identity, and Runtime Security
5.5 Cloud-Native Monitoring and Threat Detection
6.1 Open-Source Dependencies and Package Security
6.2 Software Composition Analysis and Vulnerability Detection
6.3 SBOMs and Software Component Transparency
6.4 Artifact Integrity, Signing, Provenance, and Trusted Sources
6.5 Vulnerability Prioritization, Remediation, and Risk Acceptance
7.1 Logging, Metrics, Tracing, and Application Observability
7.2 Runtime Security and Production Monitoring
7.3 Incident Detection, Response, and Development Feedback
7.4 Reliability, Recovery, and Resilience Engineering
7.5 Lessons Learned, Metrics, and Continuous Improvement
8.1 AI-Assisted Coding and Developer Productivity
8.2 AI-Enabled Security Testing and Vulnerability Analysis
8.3 AI-Generated Code Risk and Validation
8.4 Intelligent Automation, Remediation, and Agentic Workflows
8.5 Responsible AI, Governance Awareness, and Emerging DevSecOps
Upon successful completion, participants will be able to:
Integrate security requirements, threat modeling, shared responsibility, risk awareness, and security controls throughout modern software-delivery lifecycles.
Evaluate code security, repository controls, secrets, dependencies, development workflows, and source-code risks.
Apply automated security testing, pipeline controls, artifact management, deployment gates, and secure release practices.
Evaluate cloud configurations, IaC templates, identity, access, network controls, automated infrastructure, and configuration risk.
Evaluate container images, registries, orchestration, APIs, microservices, runtime environments, and cloud-native attack surfaces.
Identify vulnerable dependencies, assess software components, interpret SBOM information, prioritize remediation, and strengthen artifact integrity.
Use telemetry, logs, alerts, runtime findings, incidents, and operational data to improve applications and delivery pipelines.
Use and assess AI-assisted development, testing, remediation, automation, and emerging tools responsibly.
The CDevSOP® assessment evaluates whether candidates can apply DevSecOps knowledge to realistic development, security, cloud, and delivery scenarios.
Interpret requirements, identify security responsibilities, apply threat modeling, and integrate security activities into development workflows.
Evaluate coding weaknesses, repository security, secrets, access, and development practices.
Interpret pipeline workflows, identify security gaps, select appropriate security gates, and evaluate deployment controls.
Evaluate cloud configurations, infrastructure templates, identity, network exposure, and policy requirements.
Interpret container, registry, Kubernetes, microservice, and API security scenarios.
Evaluate dependencies, vulnerabilities, SBOMs, artifact integrity, package sources, and third-party risks.
Interpret logs, monitoring, runtime events, incidents, recovery, and feedback-loop scenarios.
Evaluate AI-assisted development, automated security analysis, generated-code risk, intelligent remediation, and emerging technologies.
Plan → Build → Test → Secure → Deploy → Monitor → Remediate → Improve
The CDevSOP® competency model consists of eight integrated professional dimensions.
1. DevSecOps Foundations and Secure Software Lifecycle
Understand DevSecOps principles, Agile and DevOps delivery, secure SDLC, shared responsibility, security requirements, threat modeling, and integrated development practices.
2. Secure Coding, Source Control, and Application Security
Apply secure coding principles, code review, repository security, branch protection, secrets management, application-security testing, and developer security practices.
3. CI/CD Pipeline Security and Automation
Understand continuous integration, continuous delivery, build pipelines, security gates, automated testing, pipeline permissions, artifact management, and secure deployment workflows.
4. Cloud, Infrastructure as Code, and Configuration Security
Apply security to cloud infrastructure, Infrastructure as Code, configuration templates, identity, network controls, policy enforcement, and automated infrastructure delivery.
5. Containers, APIs, and Cloud-Native Security
Evaluate container images, registries, orchestration, Kubernetes concepts, APIs, microservices, service identities, runtime security, and cloud-native threats.
6. Software Supply Chain, Dependencies, and Vulnerability Management
Identify and manage open-source dependencies, packages, SBOMs, artifact integrity, vulnerabilities, third-party components, patching, and supply-chain exposure.
7. Observability, Operations, Incident Feedback, and Resilience
Apply logging, monitoring, telemetry, runtime analysis, incident feedback, reliability, recovery, post-incident learning, and continuous operational improvement.
8. AI-Assisted DevSecOps and Emerging Secure-Delivery Technologies
Evaluate AI-assisted coding, automated security testing, intelligent remediation, AI-generated code risk, agentic development tools, and emerging software-delivery technologies.
The Certified DevSecOps Professional (CDevSOP®) validates professional competency in applying security, automation, software quality, reliability, observability, and continuous improvement across modern software development and technology delivery environments.
CDevSOP® prepares professionals to integrate security controls into workflows rather than apply them as isolated technical activities.
The certification connects:
This creates an integrated view of secure software delivery.
Candidates develop an understanding of:
CDevSOP® is positioned at the professional level.
Candidates benefit from familiarity with:
Prior professional DevSecOps experience is beneficial but advanced experience is not required to begin training.
Knowledge of Python, Bash, PowerShell, JavaScript, Java, .NET, Git, Docker, Kubernetes, Terraform, cloud platforms, or security testing tools may be beneficial but is not required to enter the certification learning pathway.
The CDevSOP® Body of Knowledge incorporates relevant principles and practices associated with:
Understand → Build → Integrate → Secure → Validate → Deploy → Monitor → Improve
Framework alignment does not constitute accreditation, recognition, approval, affiliation, or endorsement by any referenced organization.
CDevSOP® is designed around transferable secure-delivery competencies rather than dependence on a specific:
Programming Language • Cloud Provider • CI/CD Platform • Source-Control Vendor • Container Platform • Security Scanner • IaC Tool • Monitoring Product
This allows competency to transfer across diverse development environments.
Understand the Security Principle → Integrate the Control → Automate Where Appropriate → Validate the Result
The Certified DevSecOps Professional (CDevSOP®) is a comprehensive, vendor-neutral professional certification designed to validate practical competency in integrating security, automation, reliability, and continuous improvement throughout the software development and technology delivery lifecycle.
CDevSOP® prepares professionals to work effectively across modern environments where development, cybersecurity, cloud, infrastructure, platform engineering, operations, and automation increasingly converge.
The certification is designed for professionals and organizations that need to release software rapidly while maintaining appropriate standards for:
CDevSOP® recognizes that modern software delivery is no longer a simple progression from coding to deployment. Applications are built through interconnected pipelines involving source repositories, open-source dependencies, cloud infrastructure, containers, APIs, automated testing, deployment platforms, identity systems, secrets, and monitoring technologies.
As a result, DevSecOps professionals must understand how security should be integrated across the entire delivery ecosystem, not attached as a final checkpoint.
The certification integrates:
CDevSOP® therefore focuses on a practical competency question:
“Can you build, test, secure, deploy, monitor, and continuously improve software through an integrated, automated, and risk-aware delivery lifecycle?”
CDevSOP® Professional Objective
Plan Securely → Build Securely → Test Continuously → Automate Controls → Deploy Safely → Monitor Continuously → Remediate Rapidly → Improve Continuously
The phrase shift left is often used to describe moving security activities earlier in development.
That is important—but incomplete.
Security cannot exist only at the beginning of the lifecycle.
Some risks become visible only:
CDevSOP® therefore promotes a broader principle:
This includes both:
Identify design, coding, dependency, and configuration weaknesses earlier.
and
Use runtime telemetry, production monitoring, incident findings, and operational feedback to improve software continuously.
The result is a complete feedback loop:
Design → Build → Test → Deploy → Observe → Learn → Improve
DevSecOps does not mean turning developers into security analysts.
It does not mean forcing security teams to manage every pipeline.
It means assigning security responsibilities intelligently across the delivery lifecycle.
For example:
Apply secure coding practices and remediate code-level findings.
Define security requirements, provide expertise, validate risk, and establish assurance practices.
Secure pipelines, automation, infrastructure, secrets, and deployment environments.
Monitor runtime environments and provide operational feedback.
Prioritize security alongside features, reliability, and customer needs.
Establish governance, accountability, investment, metrics, and risk-acceptance authority.
CDevSOP® prepares professionals to operate effectively within this collaborative model.
Modern software is rarely written entirely by one development team.
Applications may depend upon:
This creates a complex software supply chain.
A compromise in one component can affect many downstream systems.
For example:
Compromised Dependency → Build Pipeline → Application Artifact → Container Image → Production Environment
Another scenario could be:
Stolen Pipeline Credential → Unauthorized Build → Modified Artifact → Deployment → Production Compromise
Or:
Compromised Package Repository → Malicious Dependency → Application Build → Customer Environment
CDevSOP® therefore prepares professionals to think beyond application code and evaluate the complete chain of trust associated with software delivery.
Effective software-supply-chain security requires professionals to understand questions such as:
This is where concepts such as:
SBOM • Signing • Provenance • Artifact Integrity • Dependency Governance • Trusted Repositories
become increasingly important.
DevSecOps depends heavily on automation.
Automation can improve:
However, badly designed automation can also create significant risk.
An automated pipeline with excessive privileges can deploy insecure software at scale.
An incorrectly configured security gate can create false confidence.
Automated remediation may make damaging changes if not properly validated.
CDevSOP® therefore teaches an important principle:
Successful DevSecOps is not about creating as many security gates as possible.
Excessive friction can cause teams to bypass controls.
Weak controls can create unacceptable risk.
The goal is to build security processes that are:
The professional challenge becomes:
not security at the expense of everything else.
CDevSOP® addresses security throughout the SDLC.
Relevant areas include:
The objective is to ensure that security is considered throughout the lifecycle rather than applied only at release.
Candidates develop awareness of how security operates within Agile and rapid-delivery environments.
Coverage includes:
Threat modeling enables teams to identify potential security issues before implementation.
CCTP® candidates learn to consider:
The progression is:
Secure coding is fundamental to DevSecOps.
CDevSOP® addresses:
The objective is not certification in one programming language.
It is to develop secure-development principles that transfer across languages and frameworks.
Modern repositories are critical parts of the software-delivery environment.
CDevSOP® addresses:
CI/CD pipelines automate the movement from code to production.
Candidates learn to evaluate:
The secure pipeline progression becomes:
Commit → Build → Test → Validate → Approve → Release → Deploy
SAST examines source or compiled code for potential security weaknesses.
Candidates develop understanding of:
The objective is not merely generating findings.
It is:
DAST evaluates running applications from an external perspective.
Relevant areas include:
Modern applications often contain significant amounts of third-party and open-source code.
SCA helps organizations identify:
This enables more effective software-supply-chain visibility.
CDevSOP® addresses professional practices involving:
Secrets should not be embedded directly in:
Candidates learn relevant concepts involving:
Modern infrastructure is increasingly defined through code.
CDevSOP® addresses:
Infrastructure can therefore be subjected to the same security principles as application code.
Policy as Code enables organizations to represent controls programmatically.
Relevant concepts include:
The objective is to convert selected policies from documents into automatable and testable controls.
Modern DevSecOps environments frequently depend on cloud platforms.
Candidates develop competency involving:
CDevSOP® addresses security throughout the container lifecycle:
Secure Dockerfiles and base images.
Identify vulnerable components.
Protect images and repositories.
Apply appropriate configuration.
Monitor container behavior.
Candidates develop familiarity with:
CDevSOP® introduces relevant Kubernetes security concepts such as:
The certification remains vendor-neutral and does not require mastery of a particular managed Kubernetes platform.
APIs connect modern applications and services.
Candidates develop competency involving:
API security is particularly important in distributed, microservice, cloud-native, and AI-enabled environments.
CDevSOP® addresses:
The objective is to establish confidence that software is built from expected components through trusted processes.
Candidates develop understanding of SBOM concepts.
An SBOM can help organizations understand:
The professional progression is:
DevSecOps integrates vulnerability management into software delivery.
Candidates learn to consider:
The goal is to prioritize intelligently rather than treat every finding identically.
CDevSOP® develops competency in automating activities such as:
The principle is:
Automate Repetitive Security Activities So Humans Can Focus on Higher-Value Decisions
DevSecOps does not end at deployment.
Candidates develop understanding of:
Observability enables the organization to understand what is happening once software reaches production.
Security incidents provide valuable development information.
CDevSOP® integrates:
Incident → Root Cause → Development Feedback → Control Improvement → Safer Software
This enables production lessons to improve future architecture, code, testing, deployment, and monitoring.
Secure software must also be reliable.
Candidates develop awareness of:
Security and reliability should reinforce each other.
Artificial intelligence is increasingly used for:
CDevSOP® evaluates both the opportunities and risks.
Relevant risks include:
The DevSecOps environment continues to evolve.
CCTP® introduces candidates to relevant developments involving:
CDevSOP® connects the entire professional workflow:
Requirements → Design → Code → Build → Test → Secure → Package → Deploy → Observe → Remediate → Improve
This reinforces the point that secure software delivery is not a single security activity.
It is a continuous engineering discipline.
CDevSOP® develops competency across several important professional transitions.
“Security will test the application before release.”
becomes:
“Security requirements and controls are integrated throughout delivery.”
“Someone will scan the application.”
becomes:
“Appropriate security controls execute automatically within the pipeline.”
“The scanner found 500 issues.”
becomes:
“These issues create the greatest risk and require priority remediation.”
“Is our code secure?”
becomes:
“Can we trust the code, dependencies, build process, artifacts, containers, and deployment chain?”
“The application is in production.”
becomes:
“Production telemetry continuously informs development, security, and reliability improvements.”
CDevSOP® integrates:
Its central professional objective is:
Build Securely → Test Continuously → Automate Intelligently → Deploy Safely → Monitor Effectively → Remediate Rapidly → Improve Continuously
A CDevSOP® professional should be capable of asking:
That is the professional competency CDevSOP® is designed to develop and validate.
CDevSOP® — Build Securely. Automate Continuously. Deliver with Confidence. Improve Without Stopping.
CDevSOP® remains vendor-neutral but addresses representative technologies used across secure software delivery.
Git • GitHub • GitLab • Bitbucket • Pull Requests • Branch Protection
GitHub Actions • GitLab CI/CD • Jenkins • Azure DevOps • CircleCI • Equivalent Pipeline Platforms
SAST • DAST • SCA • Secrets Scanning • Dependency Scanning • API Security Testing
Representative technologies may include:
SonarQube • Semgrep • OWASP ZAP • Trivy • Dependency-Check • Snyk Concepts • Equivalent Platforms
Docker • Kubernetes • Container Registries • Helm Concepts • Runtime Security
Terraform/OpenTofu Concepts • Ansible • Cloud Templates • Policy as Code
AWS • Microsoft Azure • Google Cloud • Private/Hybrid Cloud
Prometheus • Grafana • OpenTelemetry • Logging Platforms • Cloud-Native Monitoring
SBOM Tools • Artifact Repositories • Signing • Provenance • Package Repositories
APIs • Python • Bash • PowerShell • AI Coding Assistants • Automated Analysis • Intelligent Remediation
The professional focus is:
Code → Pipeline → Artifact → Infrastructure → Deployment → Runtime → Feedback
Recommended structure:
Assessment emphasis:
Secure Development • CI/CD • Application Security • Cloud • IaC • Containers • Supply Chain • Monitoring • Automation
Eligible candidates in approved instructor-led pathways may complete a structured Applied DevSecOps Capstone.
The Capstone may integrate:
Requirements → Threat Model → Code → Pipeline → Security Testing → Deployment → Monitoring → Remediation
The employment outlook for professionals with DevSecOps-related skills remains favorable because DevSecOps sits at the intersection of several high-growth technology disciplines:
Software Development • Cybersecurity • Cloud Computing • DevOps • Application Security • Platform Engineering • Automation • Software Supply-Chain Security • AI-Assisted Engineering
There is no single U.S. Bureau of Labor Statistics occupation titled “DevSecOps Professional” or “DevSecOps Manager.” DevSecOps responsibilities are distributed across occupations such as software developers, information security analysts, cloud and infrastructure engineers, security engineers, DevOps engineers, software engineering managers, and computer and information systems managers.
For that reason, the strongest employment outlook is obtained by examining the occupations that most closely align with CDevSOP® and CDevSOM® competencies.
CDevSOP® prepares professionals for a labor market in which organizations increasingly need workers who understand both software delivery and cybersecurity.
Modern employers need professionals who can combine:
Development + Cloud + Security + Automation + CI/CD + Application Security + Software Supply Chain
The U.S. Bureau of Labor Statistics projects strong growth in several occupations directly related to this competency profile.
Software development is one of the largest occupational foundations for DevSecOps careers.
The U.S. Bureau of Labor Statistics reports approximately 1.69 million software developer jobs in 2024 and projects employment to reach approximately 1.96 million by 2034.
That represents approximately:
and a projected growth rate of:
This is more than five times the approximately 3.1% projected growth for all U.S. occupations. BLS also identifies software developers as having one of the largest projected increases in employment of any occupation. (Bureau of Labor Statistics)
Approximately 115,200 software developer openings per year, on average, are projected over the 2024–2034 period. (Bureau of Labor Statistics)
DevSecOps professionals also operate within the rapidly expanding cybersecurity workforce.
According to BLS, employment of Information Security Analysts is projected to increase from approximately:
182,800 jobs in 2024
to:
234,900 jobs in 2034
representing approximately:
and projected growth of:
between 2024 and 2034. (Bureau of Labor Statistics)
Approximately 16,000 information-security analyst openings per year are projected over the decade. (Bureau of Labor Statistics)
This growth rate is substantially above the projected 3.1% growth for all occupations and makes information security analysts one of the fastest-growing computer occupations in the United States. (Bureau of Labor Statistics)
The broader occupational group covering software developers, software quality-assurance analysts, and testers is projected by BLS to grow approximately:
with approximately:
on average. (Bureau of Labor Statistics)
This is highly relevant to CDevSOP® because DevSecOps integrates software engineering with:
BLS specifically identifies continued expansion of software for:
as contributors to software-development demand.
BLS also expects organizations to increase investment in software protecting electronic networks and infrastructure because of cybersecurity concerns. (Bureau of Labor Statistics)
That combination is particularly significant for DevSecOps because the discipline brings together software development, automation, cybersecurity, and secure infrastructure.
The 2025 ISC2 Cybersecurity Workforce Study, based on responses from 16,029 cybersecurity professionals and decision-makers globally, found that organizations increasingly face a skills shortage rather than merely a headcount shortage. (ISC2)
Among respondents:
Several skills particularly relevant to DevSecOps ranked among the most needed:
This is particularly relevant to CDevSOP® because its Body of Knowledge combines application security, cloud security, secure engineering, automation, AI-assisted development, and risk-based remediation.
| Skill Area | Organizations Reporting Need |
|---|---|
| AI | 41% |
| Cloud Security | 36% |
| Risk Assessment | 29% |
| Application Security | 28% |
| Security Engineering | 27% |
| Governance, Risk & Compliance | 27% |
ISC2 found that cybersecurity hiring managers identified:
Cloud Security — 29%
AI — 27%
Security Engineering — 24%
Security Analysis — 23%
Risk Assessment — 23%
among technical skills they were prioritizing in hiring. (ISC2)
A separate ISC2 hiring study reported that nearly 90% of surveyed hiring managers had open cybersecurity positions, while 75% planned to hire additional cybersecurity professionals in 2025. (ISC2). These data support the growing value of professionals capable of combining software engineering with cloud and security competencies.
Because BLS does not publish a separate wage category for “DevSecOps Engineer,” current market salary benchmarks provide useful supplementary guidance.
As of July 1, 2026, Salary.com reported an average U.S. salary for a DevSecOps Engineer of approximately:
or approximately:
The reported compensation distribution was approximately:
(Salary)
Salary.com's experience-based estimates showed considerable progression:
(Salary)
These are market estimates rather than BLS occupational medians and can vary significantly by employer, location, clearance requirements, technical specialization, and experience.
| Percentile | Annual Salary |
|---|---|
| 10th percentile | $115,731 |
| 25th percentile | $126,103 |
| Average | $137,495 |
| 75th percentile | $145,943 |
| 90th percentile | $153,634 |
| Experience Level | Estimated Annual Salary |
|---|---|
| Entry / <1 year | $83,443 |
| Early Career / 1–2 years | $101,283 |
| Mid-Level / 2–4 years | $135,735 |
| Senior / 5–8 years | $151,829 |
| Expert / 8+ years | $167,756 |
BLS provides useful compensation benchmarks for occupations closely related to DevSecOps.
The BLS median annual wage for software developers was:
(Bureau of Labor Statistics)
More recent BLS Occupational Employment and Wage Statistics for May 2025 reported approximately:
(Bureau of Labor Statistics)
The BLS median annual wage for information security analysts was:
(Bureau of Labor Statistics)
These figures demonstrate that both of the major occupational foundations underlying DevSecOps—software engineering and cybersecurity—are relatively highly compensated compared with the $49,500 median annual wage for all U.S. workers in 2024. (Bureau of Labor Statistics)
Actual compensation may be considerably higher for positions requiring specialized cloud, security, clearance, platform, or senior engineering capabilities.
Recent 2026 U.S. postings included:
These examples are individual job postings—not national salary averages—but demonstrate the potential compensation range for professionals with specialized DevSecOps capabilities.
CDevSOP® competencies may support career development toward roles such as:
Professionals may strengthen their employment potential by combining DevSecOps competency with expertise in:
Cloud + Cybersecurity + Software Engineering + Containers + Infrastructure as Code + CI/CD + Application Security + Automation + AI
Particularly valuable combinations include:
Cloud security remains one of the most significant cybersecurity skills needs. ISC2 reported it as the top technical skill prioritized by hiring managers at 29% in its 2025 research. (ISC2)
Application security was identified as a significant skills need by 28% of cybersecurity respondents. (ISC2)
AI was the most frequently cited cybersecurity skills need in the ISC2 study at 41%. (ISC2)
Security engineering was identified as an important skills need by 27% of respondents. (ISC2)
Projected U.S. software-developer employment growth, 2024–2034. (Bureau of Labor Statistics)
Projected additional U.S. software-developer jobs by 2034. (Bureau of Labor Statistics)
Projected U.S. information-security analyst growth, 2024–2034. (Bureau of Labor Statistics)
Projected additional information-security analyst jobs by 2034. (Bureau of Labor Statistics)
July 2026 market-average salary estimate for U.S. DevSecOps Engineers. (Salary)
May 2025 BLS mean annual wage for U.S. software developers. (Bureau of Labor Statistics)
2024 BLS median annual wage for information security analysts. (Bureau of Labor Statistics)
Cybersecurity respondents reporting at least one skills need in ISC2's 2025 global study. (ISC2)
Everything you need to plan your sitting.
Exam code for the Professional-level DevSecOps credential.
Multiple choice, completed in 120 minutes.
Passing score. Delivered in English.
A minimum of two years of experience in devsecops or a closely related technology discipline.
IBACTP® approved testing centers and online proctored delivery
Three-year certification cycle with continuing professional education
Every route leads to the same CDevSOP® examination and the same designation.
Start as a Professional. Advance as a Leader.
Exam fee only, with complimentary course materials provided — $400 USD.
4 days, 2 hours daily online. All course materials + Exam — $1,200 USD.
10 days, 2 hours daily. All course materials + Exam — $1,800 USD.
Certify a whole team on a schedule that suits your organization. Fees negotiable.
Apply, choose your preparation route and book your examination with an approved provider.