Kirjahaku

Sonar to Quartz Clock examines how the unapplied phenomenon of piezoelectricity became applied for technologies such as sonar, crystal frequency control, the quartz clock, and how its research has consequently changed during WWI and the interwar period. It aims at reconstructing, for the first time, the fascinating history of the inventions and the development of these highly important technologies, which are still in extensive use, and which were crucial for the electronic revolution, arguably the most important technological developments of the twentieth century. On this basis, this book suggests a better and more nuanced understanding of the relationships between modern science and technology and the process of development and innovation of science-based technologies. It examines in particular the mutual transfer and transformation of knowledge between them including the way physics becomes practically applicable, the way applications and societal interests shape technology and science, and the differences and similarities between scientific and technological research. The book presents an in-depth analysis of the scientific and technological research and development in the field, and of the evolution of their experimental, theoretical, and technical aspects within their social military and commercial contexts. It offers an integrative history of science and technology, needed to better comprehend their interactions and evolution but rare in current historiography. This book will appeal to historians of science and technology, sociologists of science and generally scientists and engineers studying or working with piezoelectricity, ultrasound devices, and crystal frequency control.

Involving electricity, elasticity, thermodynamics and crystallography, several scientific traditions and approaches and leading physicists, the history of piezoelectricity provides an advantageous perspective on late nineteenth century physics and its development. The beginnings of piezoelectricity, the first history of the subject, exhaustively examines how these diverse influences led to the discovery of the phenomenon in 1880, and how they shaped its subsequent research until the consolidation of an empirical and theoretical knowledge of the field circa 1895. It studies a particular subdiscipline representative of many similar ‘mundane’ branches of physics that did not bear revolutionary consequences beyond their field. Although most research is of this kind, such branches have rarely been studied by historians of science. Shaul Katzir’s historical account shows that this mundane science was an intriguing intellectual and practical enterprise, which involved, among other things,originality, surprises and controversies. Thereby, it displays the fruitfulness of studying such a field. Employing exceedingly rich material Katzir gains interesting insights into the nature of scientific development from this history. Among the themes raised here are: the sources of a discovery, the interplay between molecular-atomistic and phenomenological approaches and between scientific practice and protagonists’ philosophy of science, the role of thermodynamic formulation, the interaction of different levels of theories with experiment, the use and design of qualitative versus precise quantitative experiments, the employment of symmetry in physics and the role of national and local experimental and theoretical traditions. Observations regarding these and other issues in this book portray an unexpected picture of turn of the century physics.

Involving electricity, elasticity, thermodynamics and crystallography, several scientific traditions and approaches and leading physicists, the history of piezoelectricity provides an advantageous perspective on late nineteenth century physics and its development. The beginnings of piezoelectricity, the first history of the subject, exhaustively examines how these diverse influences led to the discovery of the phenomenon in 1880, and how they shaped its subsequent research until the consolidation of an empirical and theoretical knowledge of the field circa 1895. It studies a particular subdiscipline representative of many similar ‘mundane’ branches of physics that did not bear revolutionary consequences beyond their field. Although most research is of this kind, such branches have rarely been studied by historians of science. Shaul Katzir’s historical account shows that this mundane science was an intriguing intellectual and practical enterprise, which involved, among other things,originality, surprises and controversies. Thereby, it displays the fruitfulness of studying such a field. Employing exceedingly rich material Katzir gains interesting insights into the nature of scientific development from this history. Among the themes raised here are: the sources of a discovery, the interplay between molecular-atomistic and phenomenological approaches and between scientific practice and protagonists’ philosophy of science, the role of thermodynamic formulation, the interaction of different levels of theories with experiment, the use and design of qualitative versus precise quantitative experiments, the employment of symmetry in physics and the role of national and local experimental and theoretical traditions. Observations regarding these and other issues in this book portray an unexpected picture of turn of the century physics.