Organizations building complex cyber-physical systems face mounting pressure to innovate faster while maintaining reliability, safety, and efficiency. A new paper, “AI and Industrial DevOps for Teams” from IT Revolution’s Spring 2025 Enterprise Technology Leadership Journal, offers a compelling vision for how artificial intelligence can transform the way teams develop and operate these mission-critical systems.
Written by industry veterans Debbie Brey, Jennifer Fawcett, Dr. Suzette Johnson, and Robin Yeman, this paper provides a roadmap for technical leaders seeking to leverage AI as a force multiplier within their teams.
The Convergence of AI and Industrial DevOps
The paper’s central thesis is that AI, particularly large language models (LLMs), can significantly enhance the application of Industrial DevOps principles to the development of cyber-physical systems. These systems—which include everything from autonomous vehicles and spacecraft to smart infrastructure and medical devices—are increasingly complex, with sophisticated interactions between hardware, software, and human operators.
Industrial DevOps, an approach that applies Agile, Lean, and DevOps principles to cyber-physical systems, provides a framework for managing this complexity. The authors demonstrate how AI can strengthen each of the nine Industrial DevOps principles, from organizing around value flow to adopting a growth mindset.
One of the paper’s most striking insights is its reconceptualization of AI from passive tool to active collaborator. The authors present an AI-enabled operating model where AI serves as an intelligent partner that enhances human capabilities rather than replacing them.
“AI is more than a tool,” the authors argue. “It now acts as a collaborative entity, providing guidance and suggestions and augmenting human creativity across the value stream, but it still requires human oversight in critical decision-making areas.”
This human-AI collaboration is particularly evident in hypothesis-driven development, where AI can help generate and test hypotheses about system behavior, analyze vast datasets to identify patterns, and propose potential solutions—essentially functioning as a co-researcher alongside human teams.
Practical Applications Across the Value Stream
The paper doesn’t just deal in theoretical constructs; it offers concrete examples of how teams across different disciplines can leverage AI to improve their workflows:
- Requirements Management: AI can analyze user feedback and historical data to generate more precise, actionable requirements and improve communication between technical and non-technical stakeholders.
- Documentation: AI-powered tools can automate the creation and maintenance of technical documentation, ensuring it remains current with minimal manual effort.
- Continuous Integration and Deployment: AI can optimize CI/CD pipelines by predicting which code changes might introduce defects, dynamically adjusting test coverage, and proactively identifying potential failures before they impact production.
- Rapid Testing and Feedback: For complex cyber-physical systems, AI can simulate real-world conditions, predict failure points, and provide immediate feedback on system performance.
- Operations: AI can dynamically optimize workflows by identifying bottlenecks and focusing resources on high-value activities, as exemplified by UPS’s ORION system for route optimization.
Industry-Specific Examples
The paper grounds its arguments in real-world scenarios across various industries:
- In ground communications and operations, the US National Reconnaissance Office is investigating AI for mission management and ground operations in space systems.
- Shell uses AI and machine learning to monitor more than 10,000 pieces of critical equipment at upstream, manufacturing, and integrated gas assets globally, reducing downtime and improving safety.
- BMW leverages digital twins for predictive analytics in vehicle manufacturing processes and to test new capabilities before field deployment.
These examples illustrate how organizations are already realizing tangible benefits from AI integration, from improved operational efficiency to enhanced decision-making and innovation.
Embedding Responsible AI Practices
The authors emphasize that as AI becomes more integral to cyber-physical systems, responsible AI practices are essential. This means ensuring fairness, transparency, and accountability in AI systems—particularly in safety-critical applications.
For autonomous systems making high-stakes decisions, the paper stresses the importance of aligning AI decision-making with societal values and legal frameworks, maintaining human oversight, and implementing robust security measures to protect against tampering or malicious interference.
Future Directions and Call to Action
Looking ahead, the authors envision AI’s role in cyber-physical systems continuing to grow, with advancements ranging from enhanced real-time decision-making to the emergence of autonomous, self-healing systems that optimize industrial operations.
They predict expanded AI applications in healthcare, smart infrastructure, and autonomous systems, increased adoption in military defense, revolutionary advances in space technology, and the evolution of frameworks for ethical AI that balance innovation with societal responsibilities.
The paper concludes with a pragmatic call to action for leaders:
- Start small, think big: Begin with a single workflow or project that can benefit from AI-enhanced Industrial DevOps principles and scale from there.
- Invest in training: Equip your workforce with the skills to work effectively and ethically alongside AI tools.
- Address challenges strategically: Make considered investments in data infrastructure and architecture.
- Collaborate for impact: Partner with other organizations, academia, and research institutions to learn, share knowledge, and drive innovation.
“The question is no longer whether AI should be a part of your journey,” the authors conclude, “but rather how prepared you are to make it a reality and what are your next steps.”
A Blueprint for Leadership
For technical leaders overseeing the development and delivery of cyber-physical systems, this paper offers a comprehensive blueprint for integrating AI into their teams’ workflows. It provides both the strategic vision and tactical guidance needed to leverage AI effectively, responsibly, and in alignment with broader organizational goals.
The authors—all with extensive experience in aerospace, defense, and complex systems development—bring credibility and practical wisdom to their recommendations. Their collective expertise shines through in the paper’s nuanced understanding of both AI’s potential and the challenges of implementing it within industrial contexts.
Whether you’re leading teams developing autonomous vehicles, smart infrastructure, medical devices, or other complex systems, “AI and Industrial DevOps Teams” offers valuable insights that can help you improve operational efficiency, accelerate innovation, and maintain your competitive edge in an increasingly AI-driven landscape.
As we move into an era where “the speed of relevance defines success,” as the authors put it, this paper equips leaders with the knowledge and frameworks they need to integrate AI with purpose and precision, setting new standards for what’s possible in cyber-physical system development.
The full paper, published in the Spring 2025 edition of the Enterprise Technology Leadership Journal, is available as a free download from IT Revolution. For leaders navigating the intersection of AI, DevOps, and complex systems development, it’s essential reading that will shape how they think about and implement AI within their organizations.