Since the early seventies, the development of the automobile has been characterized by a steady increase in the deployment of onboard electronics systems and software. This trend continues unabated and is driven by rising end-user demands and increasingly stringent environmental requirements. Today, almost every function onboard the modern vehicle is electronically controlled or monitored. The software-based implementation of vehicle functions provides for unparalleled freedoms of concept and design. However, automobile development calls for the accommodation of contrasting prerequisites - such as higher demands on safety and reliability vs. lower cost ceilings, longer product life cycles vs. shorter development times - along with growling proliferation of model variants. Automotive Software Engineering has established its position at the center of these seemingly conflicting opposites. This book provides background basics as well as numerous suggestions, rare insights, and cases in point concerning those processes, methods, and tools that contribute to the surefooted mastery of the use of electronic systems and software in the contemporary automobile.

Safety has been ranked as the number one concern for the acceptance and adoption of automated vehicles since safety has driven some of the most complex requirements in the development of self-driving vehicles. Recent fatal accidents involving self-driving vehicles have uncovered issues in the way some automated vehicle companies approach the design, testing, verification, and validation of their products. Traditionally, automotive safety follows functional safety concepts as detailed in the standard ISO 26262. However, automated driving safety goes beyond this standard and includes other safety concepts such as safety of the intended functionality (SOTIF) and multi-agent safety. Characterizing the Safety of Automated Vehicles addresses the concept of safety for self-driving vehicles through the inclusion of 10 recent and highly relevent SAE technical papers. Topics that these papers feature include functional safety, SOTIF, and multi-agent safety. As the first title in a series on automated vehicle safety, each will contain introductory content by the Editor with 10 SAE technical papers specifically chosen to illuminate the specific safety topic of that book.

A firsthand look at how Mercedes-Benz transformed itself into a best-in-class, customer-obsessed organization. Driven to Delight offers an exclusive, behind-the-scenes look at CEO Steve Cannon and his leadership team's ambitious, multi-pronged strategy to elevate the company's customer experience to best-in-class across all brands and industries. The author reveals how leaders within the organization drove the transformation of the operational and cultural environments at Mercedes-Benz through their strategic vision, Driven to Delight. Nowhere else can you find this in-depth, all-access look at senior leadership's vision, strategy, and tactical steps to create and sustain the wide-sweeping actions needed to deliver a customer experience that lives up to the company's brand promise, "the best or nothing."

Safety has been ranked as the number one concern for the acceptance and adoption of automated vehicles since safety has driven some of the most complex requirements in the development of self-driving vehicles. Recent fatal accidents involving self-driving vehicles have uncovered issues in the way some automated vehicle companies approach the design, testing, verification, and validation of their products. Traditionally, automotive safety follows functional safety concepts as detailed in the standard ISO 26262. However, automated driving safety goes beyond this standard and includes other safety concepts such as safety of the intended functionality (SOTIF) and multi-agent safety. The Role of ISO 26262 addresses the concept of safety for self-driving vehicles through the inclusion of 10 recent and highly relevent SAE technical papers. Topics that these papers feature include model-based systems engineering (MBSE) and the use of SysML language in a management-based approach to safety. As the fourth title in a series on automated vehicle safety, each will contain introductory content by the Editor with 10 SAE technical papers specifically chosen to illuminate the specific safety topic of that book.

Racing continues to provide the preeminent directive for advancing powertrain development for automakers worldwide. Formula 1, World Rally, and World Endurance Championship all provide engineering teams the most demanding and rigorous testing opportunities for the latest engine and technology designs. Turbocharging has seen significant growth in the passenger car market after years of development on racing circuits. Advances in Turbocharged Racing Engines combines ten essential SAE technical papers with introductory content from the editor on turbocharged engine use in F1, WRC, and WEC–recognizing how forced induction in racing has impacted production vehicle powertrains. Topics featured in this book include: Fundamental aspects of design and operation of turbocharged engines Electric turbocharger usage in F1 Turbocharged engine research by Toyota, SwRI and US EPA, Honda, and Caterpillar This book provides a historical and relevant insight into research and development of racing engines. The goal is to provide the latest advancements in turbocharged engines through examples and case studies that will appeal to engineers, executives, instructors, students, and enthusiasts alike.

In this insider guide, former Harley-Davidson executive Dantar Oosterwal offers an exclusive look at how Harley-Davidson was able to adapt in an ever-changing world to stay on top and stay in existence. From near-extinction in the early eighties, Harley-Davidson rose to worldwide recognition and is still today one of the great, iconic American motorcycle brands. In this insider guide, former Harley-Davidson executive Dantar Oosterwal offers an exclusive look at how Harley-Davidson was able to adapt in an ever-changing world to stay on top and stay in existence In The Lean Machine, you will learn about their secret weapon and go-to formula for outstanding success as well as: the day-to-day transformation at Harley-Davidson their adapted Knowledge-Based Product Development identifies universal change and improvement issues so that any company can incorporate this Rooted in Japanese productivity improvement techniques, the Knowledge-Based Product Development method helped Harley realize an unprecedented fourfold increase in throughput in half the time--powering annual growth of more than ten percent. The Lean Machine is part business journal, part analysis, and part step-by-step toolkit that will help companies in all industries achieve predictably excellent results.

The use of the chassis dynamometer test cells has been an integral part of the vehicle development and validation process for several decades, focusing on the delivery of clean, efficient vehicles globally. This type of testing involves specialists from different fields such as mechanics, ventilation and refrigeration, among others. Not all of them necessarily experts in automotive engineering. As the demands on chassis dynamometer testing become more exacting and more diverse, the challenge of delivering effective installations and operating procedures becomes ever greater. Chassis Dynamometer Testing sets out to gather knowledge from multiple groups of specialists to better understand the testing challenges associated with the vehicle chassis dynamometer test cells, and enable informed design and use of these facilities. Chassis Dynamometer Testing analyses the main factors affecting a vehicle in order to closely reproduce them in a testing facility. It provides complete guidance on how these tests should be performed, including the requirements affecting the test cells themselves so that they can be fully optimized.