Although it is popularly assumed that the history of computing before the second half of the 20th century was unimportant, in fact the Industrial Revolution was made possible and even sustained by a parallel revolution in computing technology. An examination and historiographical assessment of key developments helps to show how the era of modern electronic computing proceeded from a continual computing revolution that had arisen during the mechanical and the electrical ages. This unique volume introduces the history of computing during the “first” (steam) and “second” (electricity) segments of the Industrial Revolution, revealing how this history was pivotal to the emergence of electronic computing and what many historians see as signifying a shift to a post-industrial society. It delves into critical developments before the electronic era, focusing on those of the mechanical era (from the emergence of the steam engine to that of the electric power network) and the electrical era (from the emergence of the electric power network to that of electronic computing). In so doing, it provides due attention to the demarcations between—and associated classifications of—artifacts for calculation during these respective eras. In turn, it emphasizes the history of comparisons between these artifacts. Topics and Features: motivates exposition through a firm historiographical argument of important developments explores the history of the slide rule and its use in the context of electrification examines the roles of analyzers, graphs, and a whole range of computing artifacts hitherto placed under the allegedly inferior class of analog computers shows how the analog and the digital are really inseparable, with perceptions thereof depending on either a full or a restricted view of the computing process investigates socially situated comparisons of computing history, including the effects of a political economy of computing (one that takes into account cost and ownership of computing artifacts) assesses concealment of analog-machine labor through encasement (“black-boxing”) Historians of computing, as well as those of technology and science (especially, energy), will find this well-argued and presented history of calculation and computation in the mechanical and electrical eras an indispensable resource. The work is a natural textbook companion for history of computing courses, and will also appeal to the broader readership of curious computer scientists and engineers, as well as those who generally just have a yearn to learn the contextual background to the current digital age. "In this fascinating, original work, Tympas indispensably intertwines the histories of analog and digital computing, showing them to be inseparable from the evolution of social and economic conditions. " Prof. David Mindell, MIT

How the computer became universal. Over the past fifty years, the computer has been transformed from a hulking scientific supertool and data processing workhorse, remote from the experiences of ordinary people, to a diverse family of devices that billions rely on to play games, shop, stream music and movies, communicate, and count their steps. In A New History of Modern Computing, Thomas Haigh and Paul Ceruzzi trace these changes. A comprehensive reimagining of Ceruzzi's A History of Modern Computing, this new volume uses each chapter to recount one such transformation, describing how a particular community of users and producers remade the computer into something new. Haigh and Ceruzzi ground their accounts of these computing revolutions in the longer and deeper history of computing technology. They begin with the story of the 1945 ENIAC computer, which introduced the vocabulary of "programs" and "programming," and proceed through email, pocket calculators, personal computers, the World Wide Web, videogames, smart phones, and our current world of computers everywhere--in phones, cars, appliances, watches, and more. Finally, they consider the Tesla Model S as an object that simultaneously embodies many strands of computing.

This book constitutes the refereed proceedings of the 25th International Conference on Applications of Evolutionary Computation, EvoApplications 2022, held as part of Evo*2022, in April 2022, co-located with the Evo*2022 events EuroGP, EvoCOP, and EvoMUSART. The 46 revised full papers presented in this book were carefully reviewed and selected from 67 submissions.

Artificial Intelligence (AI) is a major technological advancement in the 21st century. With its influence spreading to all aspects of our lives and the engineering sector, establishing well-defined objectives is crucial for successfully integrating AI in the field of transportation. This book presents different ways of adopting emerging technologies in transportation operations, including security, safety, online training, and autonomous vehicle operations on land, sea, and air. This guide is a dynamic resource for senior management and decision-makers, with essential practical advice distilled from the expertise of specialists in the field. It addresses the most critical issues facing transportation service providers in adopting AI and investigates the relationship between the human operator and the technology to navigate what is and is not feasible or impossible. Case studies of actual implementation provide context to common scenarios in the transportation sector. This book will serve the reader as the starting point for practical questions regarding the deployment and safety assurance of new and emergent technologies in the transportation domains. Artificial Intelligence and Human Performance in Transportation is a beneficial read for professionals in the fields of Human Factors, Engineering (Aviation, Maritime and Land), Logistics, Manufacturing, Accident Investigation and Safety, Cybersecurity and Human Resources.

From Gutenberg to the Internet presents 63 original readings from the history of computing, networking, and telecommunications arranged thematically by chapters. Most of the readings record basic discoveries from the 1830s through the 1960s that laid the foundation of the world of digital information in which we live. These readings, some of which are illustrated, trace historic steps from the early nineteenth century development of telegraph systems---the first data networks---through the development of the earliest general-purpose programmable computers and the earliest software, to the foundation in 1969 of ARPANET, the first national computer network that eventually became the Internet. The readings will allow you to review early developments and ideas in the history of information technology that eventually led to the convergence of computing, data networking, and telecommunications in the Internet. The editor has written a lengthy illustrated historical introduction concerning the impact of the Internet on book culture. It compares and contrasts the transition from manuscript to print initiated by Gutenberg's invention of printing by moveable type in the 15th century with the transition that began in the mid-19th century from a print-centric world to the present world in which printing co-exists with various electronic media that converged to form the Internet. He also provided a comprehensive and wide-ranging annotated timeline covering selected developments in the history of information technology from the year 100 up to 2004, and supplied introductory notes to each reading. Some introductory notes contain supplementary illustrations.

This book offers an introduction to the history of computing during the ‘first’ (steam) and the ‘second’ (electricity) industrial revolution. It starts with the origins of the industrial revolution and stops at the emergence of electronic computing, which for many historians signifies the end of the industrial society and the beginning of a post-industrial society. It is popularly assumed that the history of computing before the second half of the twentieth century is unimportant. The general argument of the book is that computing has been of primary importance since the late nineteenth century and through the first half of the twentieth century. The book shows that the industrial revolution was made possible by a parallel revolution in computing technology. As indicated by the transition from isolated factory steam engines to vast networks of interconnected electric power lines, the industrial revolution was actually a permanent technological revolution. The book suggests that it was sustained by a perpetual revolution in computing technology. The history of this perpetual computing revolution helps us to understand that electronic era computing continued on what this permanent computing revolution had accumulated during the mechanical and the electrical age. What followed after the 1940s capitalized on what had started in the 1780s. In this sense, the book offers a history of computing during the mechanical and the electrical age that helps us to contextualize the history of electronic computing.

How do we engage with the threat of social and environmental degradation while creating and maintaining liveable and just worlds? Researchers from diverse backgrounds unpack this question through a series of original and committed contributions to this wide-ranging volume. The authors explore practices of repairing damaged ecologies across different locations and geographies and offer innovative insights for the conservation, mending, care and empowerment of human and nonhuman ecologies. This ground-breaking collection establishes ecological reparation as an urgent and essential topic of public and scholarly debate.

This book has been Conceptualized specifically for B.Sc. (Honours) according to the New Syllabus prescribed by Andhra Pradesh State Council of Higher Education (APSCHE). The book seamlessly amalgamates the realms of mathematics, physics and chemistry to offer a holistic view of the in connectedness of these sciences and their significance in solving real-world problems. The book is divided in Five Units that are further divided into the chapters. Unit One Essentials of Mathematics commences with an exploration of fundamental mathematical concepts such as Complex Numbers, Trigonometric Ratios and Statistical Measures. These essential mathematical tools serve as the building blocks for various scientific theories and practical applications. Unit Two Essentials of Physics encounters Measurements and Units, Motion of Objects, Laws of Thermodynamics, Acoustic and Electromagnetic Waves, Electric and Magnetic Fields and Their Interaction, Atomic and Nuclear Particles, Wave-particle Duality: and Uncertainty Principle, Theories of Universe. Unit Three Essentials of Chemistry covers the topics such as Scope and Importance of Chemistry, Periodic Table, Biomolecules. Unit Four covers the Applications of Mathematics, Physics and Chemistry. Unit Five Essentials of Computer Science covers the important topics such as Milestones of Computer Evolution, Internet Basics, Ethical and Social Implications, Cryptography, Malware and Data Protection.

This Festschrift volume, published in honor of Brian Randell on the occasion of his 75th birthday, contains a total of 37 refereed contributions. Two biographical papers are followed by the six invited papers that were presented at the conference 'Dependable and Historic Computing: The Randell Tales', held during April 7-8, 2011 at Newcastle University, UK. The remaining contributions are authored by former scientific colleagues of Brian Randell. The papers focus on the core of Brian Randell’s work: the development of computing science and the study of its history. Moreover, his wider interests are reflected and so the collection comprises papers on software engineering, storage fragmentation, computer architecture, programming languages and dependability. There is even a paper that echoes Randell’s love of maps. After an early career with English Electric and then with IBM in New York and California, Brian Randell joined Newcastle University. His main research has been on dependable computing in all its forms, especially reliability, safety and security aspects, and he has led several major European collaborative projects.

Technological advances in the field of materials, devices, circuits, and systems began by the discovery of new properties of objects, or the entrepreneurship with the applications of unique or practical concepts for commercial goods. To implement products using these findings and challenges textbook knowledge is usually sufficient. Semiconductor Technologies in the Era of Electronics therefore does not aim to look deeper in certain areas but it offers a broad and comprehensive overview of the field to: - Experts of specific knowledge who want to expand the overall understanding to different areas - Persons who wish to understand the principle of electronic devices often seen in everyday life - Entrepreneurs interested in the innovations and changes of semiconductor technologies and overall electronics industry A profound and theoretical approach is therefore used and special cases essential to understanding these important concept are presented.