Salamone Dorothy (8 results)

Condition: As New. Unread book in perfect condition.

Condition: New.

Condition: As New. Unread book in perfect condition.

Paperback. Condition: new. Paperback. Are you building embedded products where timing is not a preference but a requirement? Have you ever wondered why some systems respond exactly when expected while others miss deadlines under load? Are you looking to understand what truly happens beneath application code when tasks compete for time, memory, and processor attention?RTOS Architecture Essentials: A Systems-Level Guide to Designing Reliable Real-Time Embedded Software is written for engineers and technical professionals who want more than surface-level explanations. This book focuses on how real-time operating systems are structured internally, why architectural decisions matter, and how those decisions directly affect determinism, latency, scalability, and long-term reliability.Instead of treating an RTOS as a black box, this guide asks you to think like a system designer. How does a scheduler make decisions under pressure? What happens during a context switch, and why does it matter for worst-case timing? How do synchronization primitives behave when priorities collide? What trade-offs exist between performance, memory footprint, safety, and maintainability? These questions are explored carefully, with clear reasoning grounded in practical engineering experience.The book takes a systems-level approach, connecting theory with real implementation concerns. It examines task models, scheduling strategies, interrupt handling, memory management, inter-task communication, timing analysis, and fault containment, always with an emphasis on predictability and correctness. Rather than relying on vendor-specific examples, the discussion remains portable and principles-driven, making the material applicable across microcontrollers, processors, and platforms.This is not a beginner's overview, yet it does not assume blind familiarity either. Concepts are introduced methodically, reinforced through engineering context, and expanded into advanced design considerations such as multicore behavior, power-aware scheduling, debugging strategies, and architectural patterns used in high-reliability products. You are encouraged to think critically: how would this design behave under stress, during failure, or after years of incremental updates?If you are a firmware engineer aiming to deepen your understanding, a systems architect responsible for dependable products, or a developer transitioning into time-critical domains, this book is written for you. It is designed to help you make informed design decisions, avoid subtle architectural mistakes, and build embedded software that behaves predictably not just in tests, but in real-world operation.Are you ready to move beyond using an RTOS and start truly understanding it? This item is printed on demand. Shipping may be from multiple locations in the US or from the UK, depending on stock availability.

PAP. Condition: New. New Book. Delivered from our UK warehouse in 4 to 14 business days. THIS BOOK IS PRINTED ON DEMAND. Established seller since 2000.

PAP. Condition: New. New Book. Delivered from our UK warehouse in 4 to 14 business days. THIS BOOK IS PRINTED ON DEMAND. Established seller since 2000.

Paperback. Condition: new. Paperback. Are you building embedded products where timing is not a preference but a requirement? Have you ever wondered why some systems respond exactly when expected while others miss deadlines under load? Are you looking to understand what truly happens beneath application code when tasks compete for time, memory, and processor attention?RTOS Architecture Essentials: A Systems-Level Guide to Designing Reliable Real-Time Embedded Software is written for engineers and technical professionals who want more than surface-level explanations. This book focuses on how real-time operating systems are structured internally, why architectural decisions matter, and how those decisions directly affect determinism, latency, scalability, and long-term reliability.Instead of treating an RTOS as a black box, this guide asks you to think like a system designer. How does a scheduler make decisions under pressure? What happens during a context switch, and why does it matter for worst-case timing? How do synchronization primitives behave when priorities collide? What trade-offs exist between performance, memory footprint, safety, and maintainability? These questions are explored carefully, with clear reasoning grounded in practical engineering experience.The book takes a systems-level approach, connecting theory with real implementation concerns. It examines task models, scheduling strategies, interrupt handling, memory management, inter-task communication, timing analysis, and fault containment, always with an emphasis on predictability and correctness. Rather than relying on vendor-specific examples, the discussion remains portable and principles-driven, making the material applicable across microcontrollers, processors, and platforms.This is not a beginner's overview, yet it does not assume blind familiarity either. Concepts are introduced methodically, reinforced through engineering context, and expanded into advanced design considerations such as multicore behavior, power-aware scheduling, debugging strategies, and architectural patterns used in high-reliability products. You are encouraged to think critically: how would this design behave under stress, during failure, or after years of incremental updates?If you are a firmware engineer aiming to deepen your understanding, a systems architect responsible for dependable products, or a developer transitioning into time-critical domains, this book is written for you. It is designed to help you make informed design decisions, avoid subtle architectural mistakes, and build embedded software that behaves predictably not just in tests, but in real-world operation.Are you ready to move beyond using an RTOS and start truly understanding it? This item is printed on demand. Shipping may be from our UK warehouse or from our Australian or US warehouses, depending on stock availability.

Paperback. Condition: new. Paperback. What actually happens inside a modern microcontroller when your firmware runs?Most engineers learn how to write embedded code long before they truly understand how instructions move through the processor, how memory access is resolved, or why certain design decisions quietly determine performance, determinism, and reliability. This book exists for readers who are no longer satisfied with surface-level explanations and want a clear, structured understanding of how microcontroller cores behave at a fundamental level.Have you ever wondered why two pieces of logically identical code produce different timing results? Or why an interrupt sometimes behaves predictably in isolation but becomes difficult to reason about in a real system? These questions are not answered by APIs or abstraction layers. They are answered by understanding execution flow, pipeline behavior, memory hierarchy, exception handling, and the interaction between hardware and firmware.This book approaches microcontroller engineering from the inside out. Instead of starting with peripherals or development frameworks, it begins by examining how instructions are fetched, decoded, executed, and retired. It explains how registers, stacks, and memory regions are organized, how privilege levels affect execution, and how faults and exceptions propagate through the system. Each concept is explained with practical engineering relevance in mind, not as theory detached from real devices.As you read, you are invited to question your assumptions. Why does alignment matter? When does caching help, and when does it silently introduce bugs? What really determines interrupt latency? How do debugging and tracing mechanisms observe a running system without fundamentally changing its behavior? These topics are explored with technical precision, using language that respects the reader's intelligence without obscuring meaning behind unnecessary complexity.The book also addresses firmware engineering as a discipline, not just a coding task. Topics such as real-time behavior, memory protection, concurrency, timing analysis, and low-level optimization are treated as first-class concerns. Rather than prescribing a single workflow, the material explains the trade-offs that experienced engineers face and why certain patterns endure across generations of hardware.You do not need proprietary documentation to follow the material. All explanations are grounded in publicly available architectural principles and industry-standard practices. The focus is on transferable understanding-knowledge that remains useful even as specific devices and tools evolve.This book is written for engineers who want to move beyond "it works" and toward "I know why it works." If you have ever stepped through assembly output to answer a performance question, struggled with subtle timing issues, or wanted a deeper mental model of the processor running your code, this book was written with you in mind.It does not promise shortcuts. It offers clarity.And it assumes that you are ready to think like the hardware does. This item is printed on demand. Shipping may be from our UK warehouse or from our Australian or US warehouses, depending on stock availability.