Originally published in 1908, Lodge applies his background in physics to the study of Christian Theology. He aims to reconcile religious doctrine to scientific theory, calling for a re-interpretation of biblical texts to allow for the integration of science while simultaneously making a case for the acceptance of miracles in the scientific community. This title will be of interest to students of Religious Studies as well as to general readers interested in problems of existence.

The Special Theory of Relativity: Based on a short course of lectures delivered in the late 1930s, this short book presents the theory of Special Relativity by formulating a redefinition of the measurement of length, and thus will appeal to students of physics who wish to think through Einstein's thought without the encumbrance of quasi-scientific concepts and language. Relativity: A Very Elementary Exposition: This brief lecture, delivered in October 1921 and published for the first time in 1925, offers an explanation of Einstein's theory of Special Relativity for the non-scientist, giving a general overview that does justice both to the actual physics involved, and the wider implications of this revolutionary discovery of the 20th century.

Originally published in 1908, Lodge applies his background in physics to the study of Christian Theology. He aims to reconcile religious doctrine to scientific theory, calling for a re-interpretation of biblical texts to allow for the integration of science while simultaneously making a case for the acceptance of miracles in the scientific community. This title will be of interest to students of Religious Studies as well as to general readers interested in problems of existence.

The Special Theory of Relativity: Based on a short course of lectures delivered in the late 1930s, this short book presents the theory of Special Relativity by formulating a redefinition of the measurement of length, and thus will appeal to students of physics who wish to think through Einstein's thought without the encumbrance of quasi-scientific concepts and language. Relativity: A Very Elementary Exposition: This brief lecture, delivered in October 1921 and published for the first time in 1925, offers an explanation of Einstein's theory of Special Relativity for the non-scientist, giving a general overview that does justice both to the actual physics involved, and the wider implications of this revolutionary discovery of the 20th century.

Originally published in 1930, Sir Oliver Lodge proposes a connection between physics and philosophy, or as he describes it, a key to unlock the intricate connection between mind and matter. A response to early twentieth century mathematically-led philosophy, Lodge looks at physics from a physical direction rather than from a theoretical model. This title will be of interest to students of philosophy as well physics.

Originally delivered as a series of lectures for the Halley Stewart trust in 1926, Lodge's work was collected and first published in 1927. Lodge uses his scientific training to inquire into such general issues as religion, human progress, and societal advances with an aim to better understand the physical order of the universe. This title will be of interest to students of philosophy, particularly those interested in the development of early twentieth century thought.

Originally published in 1907, this book provides information to parents and teachers wishing to teach their children about Christianity as well as science. Lodge details his fear of mandatory secularism in schools and advises how to instruct children in science without allowing any doubt of Christian doctrine and stresses the importance of reconciliation between religion and science for future generations. This title will be of interest to students of Education and Religion.

Originally delivered as a series of lectures for the Halley Stewart trust in 1926, Lodge's work was collected and first published in 1927. Lodge uses his scientific training to inquire into such general issues as religion, human progress, and societal advances with an aim to better understand the physical order of the universe. This title will be of interest to students of philosophy, particularly those interested in the development of early twentieth century thought.

Originally published in 1907, this book provides information to parents and teachers wishing to teach their children about Christianity as well as science. Lodge details his fear of mandatory secularism in schools and advises how to instruct children in science without allowing any doubt of Christian doctrine and stresses the importance of reconciliation between religion and science for future generations. This title will be of interest to students of Education and Religion.

Originally published in 1930, Sir Oliver Lodge proposes a connection between physics and philosophy, or as he describes it, a key to unlock the intricate connection between mind and matter. A response to early twentieth century mathematically-led philosophy, Lodge looks at physics from a physical direction rather than from a theoretical model. This title will be of interest to students of philosophy as well physics.

In 1870, Sir William Crookes (1832-1919) travelled to Gibraltar to observe the solar eclipse. He kept a diary and produced beautiful accounts of the expedition - alongside altogether more specific observations, including the 656 steps down a local cliff face, and every item in his luggage. It is with the same meticulous approach and cheerful prose that he records, in letters, journal articles and reports, the successes and failures of the vast range of projects in which he was involved. Although initially trained as a chemist, Crookes worked across the spectrum of the sciences, from consulting on preventative measures against cattle plague through to investigating spiritualism. Opening with a foreword by the physicist Sir Oliver Lodge, this biography by Edmund Edward Fournier d'Albe (1868-1933), first published in 1923, explores a remarkable life of enquiry through a host of first-hand sources.

The early 1890s saw the development of wireless telegraphy. Although the behaviour of radio waves had been predicted by James Clerk Maxwell, the production of a working coherer occupied some of the greatest practical physicists of the time. A giant in the field was Heinrich Hertz (1857 94), who was among the first to discover that radio waves could travel independently of wires. When Hertz died, his work was continued and soon led to the development of the first wireless radios. This book, published in 1900, is the third edition of Sir Oliver Lodge's popular explanation of Hertz's work. Including the Royal Institution lecture that Lodge (1851 1940) gave in 1894, along with detailed diagrams, it covers the basic principles of radio waves and some of the theory surrounding telegraphic technology. Also included in this reissue is Lodge's 1924 lecture on electrical precipitation, discussing the scintillating possibility of altering atmospheric conditions through the use of electrical charges.

As a result of being asked to give public lectures on the subject, the eminent physicist Oliver Lodge (1851 1940) published in 1892 a pioneering study of the protection of buildings, cables and telegraphic instruments from the devastation caused by lightning strikes. This work led him almost immediately to the discovery of electromagnetic wave transmission and ultimately to the development of a version of radio telegraphy. Lodge also saw that many of the current theories about the nature of lightning were seriously in error, and his investigations led to a number of significant changes in the design of lightning conductors and lightning guards. Some of the methods and procedures that Lodge advocated have since become standard practice. They are described with Lodge's characteristic flair and accompanied by a wealth of illustrations that give a fascinating insight into how contemporary scientists and engineers tackled this significant problem.

Among the widely agreed facts of physics in the late nineteenth century was the existence of luminiferous ether: the medium through which light was thought to travel. Theorised to be a highly rarefied substance, the ether accounted for the movement of light, gravity and even heat across a vacuum. It also had great implications for spiritualism. Where thought was not proven to be a result of chemistry in the brain, the presence of ether allowed for the idea that cognition and emotion might exist independently of a physical body. First published in 1925, this monograph by the eminent physicist and ether advocate Sir Oliver Lodge (1851 1940) was written for the non-scientific reader. With a focus on straightforward explanations rather than mathematical theory, his book still represents a fascinating introduction to the topic today.

In the 1860s, radio waves were predicted by James Clerk Maxwell in his work on electromagnetism. It took a further twenty years for the first experiments to produce a working demonstration. In this guide to radio technology, first published in 1925, eminent physicist Sir Oliver Lodge (1851 1940) provides a concise history of the development of the wireless radio, explains the theory behind it, and includes some practical tips for amateurs. Having lived through and contributed to the discovery, he explains the difficulty of the early experiments, which took place in a time when terms like 'frequency' and 'inductance', now taken for granted, did not exist in the scientific vocabulary. His first-hand account reveals the incredible efforts poured into the development of a revolutionary modern technology, rekindling the sense of wonder that once surrounded this strange new science.

In his study of optics, Newton postulated that light, like sound, must be carried through a medium, and that this medium must exist even in a vacuum. By the late nineteenth century, this theoretical substance was known as the luminiferous ether. But the ether theory faced several problems. If the earth moved through ether, there would be ether wind, and light travelling against the flow would move more slowly than light travelling with it. That was soon disproven. Nor could the ether be stationary: by 1905, Einstein's work on relativity had disproven absolute motion. In this fascinating advocacy of ether, first published in 1933, Sir Oliver Lodge (1851 1940) fiercely defends ether against the new physics, arguing for solid models over mathematical abstractions, and urging new ether experiments. With in-depth references to Einstein, Jeans and Eddington, this book is still relevant to students in the history of science.

The discovery in 1897 of the electron, the first subatomic particle, led to rapid advances in our knowledge of atomic structure, the solid state, radioactivity and chemistry. It also raised major questions. Was the electron point-like or did it have structure? Was there a positive electron? What did the positive part of the atom look like? Did a hydrogen atom have one electron or a thousand? Published in 1906, this expository account by leading physicist Sir Oliver Lodge (1851 1940) examines the spectacular phenomena of cathode rays in evacuated tubes, the fixed units of charge observed in electrolysis, and the puzzling regularities in atomic spectra. Lodge knew most of the pioneers in the field, and his enthusiastic descriptions of their work and clear analyses of the problems as well as successes paint a vivid picture of the excitement of cutting-edge research and the scientific process in action.

Sir Oliver Lodge (1851 1940) was a physicist instrumental in the discovery of electromagnetic waves: the basis of today's radio and X-ray technology. He came from humble beginnings. After suffering at the hands of violent masters and schoolmates during his childhood, Lodge went on to teach physics and chemistry to young women at Bedford College in London. Later, he was appointed professor of physics at the University of Liverpool, and became known for his public lectures on a vast range of topics, from the comic faults of phonographs to the medical applications of X-rays. Whether seeing the cells of a voltaic battery in a pile of plates or appreciating the enunciation of Alexander Graham Bell, Lodge had a warm enthusiasm that shines through in this touching autobiography, first published in 1931. It remains ideal for general readers as well as students in the history of science.

In 1889, a year after both he and Heinrich Hertz discovered electromagnetic waves and for the first time demonstrated the truth of Maxwell's great theory of the electromagnetic field, physicist Oliver Lodge (1851-1940) published his deepest reflections on the nature and meaning of electricity, how it originates, and its different manifestations. There had been great scientific advances - the work of Faraday and Maxwell, his own experiments and those of Hertz - and a revolution in technology. There were also puzzling questions. What is the connection between electricity and the ether that occupies space? How does electricity manifest itself in matter? Why does it come in fixed units? The discovery of the electron eight years later would offer crucial answers. Always lucid and direct, with a gift for making the difficult seem simple, Lodge engages the reader with his fascination for the subject, much as he did in his famous lectures.

Knowing there was no money in science, Vincenzo Galilei wanted his son to become a cloth-dealer. While the young Galileo was disobeying his father and cultivating an unwholesome interest in geometry, Tycho Brahe was maintaining the impoverished Johannes Kepler and his entire family. Not long after this, a certain Cambridge mathematician noticed a strange phenomenon that became known as 'the precession of the equinoxes', before formulating his law of gravity. In this fascinating collection of lectures, first published in 1893, the eminent Professor of Physics Oliver Lodge (1851 1940) takes the reader on a tour of the history of astronomy. Including biographical notes on landmark astronomers, more than a hundred illustrations, and simple explanations of important concepts, this engaging book's range from the geocentric theory of the universe to the discovery of Neptune and the calculation of tides. It remains highly accessible to the general reader today.

The physicist Sir Oliver Lodge (1851 1940) made significant contributions to the study of electrons, electromagnetic waves, X-rays, radio and telegraphy, earning him the Rumford Medal, the Faraday Medal and, in 1902, a knighthood. In addition to serving as President of the Physical Society, Lodge succeeded F. W. H. Myers as President of the Society for Psychical Research, an organisation devoted to the study of paranormal phenomena. In this work, first published in 1908, Lodge discusses the controversy between science and faith, showing how the self-sufficient laws of 'orthodox science' may be reconciled with the divinely ordered universe of 'orthodox religion'. Immensely popular from the moment of its publication, the book reached its twenty-first printing in 1928. This sixth edition of 1909 conveys the full scope of Lodge's ambitious project, including his treatments of evolutionary science, church reform and the immortality of the soul.