These wickedly authentic introductions to twenty-first-century books preface tomes on teaching English to bacteria, using animated X-rays to create "pornograms," and analyzing computer-generated literature through the science of "bitistics." "Lem, a science fiction Bach, plays in this book a googleplex of variations on his basic themes" (New York Times Book Review). Translated by Marc E. Heine. A Helen and Kurt Wolff Book

The Ausdehnungslehre of 1862 is Grassmann's most mature presentation of his "extension theory". The work was unique in capturing the full sweep of his mathematical achievements. Compared with Grassmann's first book, Lineale Ausdehnungslehre, this book contains an enormous amount of new material, including a detailed development of the inner product and its relation to the concept of angle, the "theory of functions" from the point of view of extension theory, and Grassmann's contribution to the Pfaff problem. In many ways, this book is the version of Grassmann's system most accessible to contemporary readers. This translation is based on the material in Grassmann's "Gesammelte Werke", published by B. G. Teubner (Stuttgart and Leipzig, Germany). It includes nearly all the Editorial Notes from that edition, but the "improved" proofs are relocated, and Grassmann's original proofs are restored to their proper places. The original Editorial Notes are augmented by Supplementary Notes, elucidating Grassmann's achievement in modern terms. This is the third in an informal sequence of works to be included within the History of Mathematics series, co-published by the AMS and the London Mathematical Society. Volumes in this subset are classical mathematical works that served as cornerstones for modern mathematical thought.

"Higher Engineering Mathematics" is a comprehensive textbook designed to provide students and professionals with a solid foundation in advanced mathematical techniques essential for engineering and applied sciences. The book covers a wide range of topics, including differential equations, Fourier series, Laplace transforms, and complex analysis, with a focus on practical applications. Each chapter introduces key concepts in a clear and approachable manner, supported by worked examples and problems that demonstrate how these mathematical tools are used to solve real-world engineering problems. Through step-by-step explanations and illustrative examples, this book ensures that complex mathematical ideas are accessible and understandable for readers at all levels.

Now in its updated Third Edition, MRI: The Basics is an easy-to-read, clinically relevant introduction to the physics behind MR imaging. The book features large-size, legible equations, state-of-the-art images, instructive diagrams, and questions and answers that are ideal for board review. The American Journal of Radiology praised the previous edition as "an excellent text for introducing the basic concepts to individuals interested in clinical MRI." This edition spans the gamut from basic physics to multi-use MR options to specific applications, and has dozens of new images. Coverage reflects the latest advances in MRI and includes completely new chapters on k-space, parallel imaging, cardiac MRI, and MR spectroscopy.

Written to complement course textbooks, this book focuses on the topics that undergraduates in physics and engineering find most difficult.