Have you ever wondered why some embedded systems run efficiently for years on a tiny battery, while others drain power in hours? Do you struggle to balance real-time performance with low-energy design? Have you found it difficult to create tasks and schedules that respect strict energy budgets without sacrificing determinism?
Modern RTOS Development: Power Management, Low-Energy Design, and Energy-Budgeted Scheduling was written for engineers facing exactly these challenges.
This book dives deep into the art and science of power-aware RTOS design, showing how real-time systems can be both highly responsive and energy-efficient. It explores the techniques that allow modern embedded platforms to meet deadlines while minimizing power consumption-without guesswork or oversimplification.
It asks the questions that matter:
How do tickless kernels actually save energy, and when are they the right choice?
How can sleep modes be implemented without violating real-time constraints?
What does effective CPU and peripheral power budgeting look like in multicore systems?
How do timers, wake sources, and dynamic scheduling decisions affect overall energy usage?
Rather than offering theory alone, this book challenges you to think critically about energy as a first-class design constraint. From power-aware scheduling algorithms and runtime energy profiling to low-energy RTOS design patterns, every concept is grounded in practical application and real-world system behavior.
Are you ready to change the way your systems consume energy? Are you prepared to design real-time applications that are efficient, predictable, and sustainable?
By applying the techniques in this book, you won't just optimize power-you'll design smarter systems that perform reliably within tight energy limits. If you want to move beyond reactive power fixes and into intentional, energy-conscious RTOS engineering, this guide will help you get there.
Are you ready to build real-time systems that last longer, run leaner, and perform better?
