On The Theory Of The Reflection And Refraction Of Light

On the Theory of the Reflection and Refraction of Light

1997 - the centennial year of the electron - provides a good occasion to publish the first English translation ever made of H.A. Lorentz's doctoral dissertation of 1875. Just 22 years old, Lorentz took up and handled magisterially one major unresolved problem of Maxwell's electromagnetic theory, the reflection and refraction of light. By then the superiority of Maxwell's electromagnetic ether theory over current elastic solid conceptions such as Fresnel's was not nearly a settled issue. In his dissertation, Lorentz strove with considerable success to make it that. Still, he found that neither theory allowed for a satisfactory account of dispersion. One intriguing aspect of Lorentz's earliest scientific achievement (which within two years was to earn him the chair of theoretical physics at Leyden University) is that a range of subjects soon to occupy him for the rest of his life are already clearly foreshadowed in it. So far, Lorentz's first step in science has existed only in the original Dutch, and in a French translation made long ago as part of the Collected Works. Here, the joint translators have striven to provide a fluently readable, full text while preserving the flavor of Lorentz' original language and style.

Superresolution Optical Microscopy

This book presents a comprehensive and coherent summary of techniques for enhancing the resolution and image contrast provided by far-field optical microscopes. It takes a critical look at the body of knowledge that comprises optical microscopy, compares and contrasts the various instruments, provides a clear discussion of the physical principles that underpin these techniques, and describes advances in science and medicine for which superresolution microscopes are required and are making major contributions. The text fills significant gaps that exist in other works on superresolution imaging, firstly by placing a new emphasis on the specimen, a critical component of the microscope setup, giving equal importance to the enhancement of both resolution and contrast. Secondly, it covers several topics not typically discussed in depth, such as Bessel and Airy beams, the physics of the spiral phase plate, vortex beams and singular optics, photoactivated localization microscopy (PALM), stochastic optical reconstruction microscopy (STORM), structured illumination microscopy (SIM), and light-sheet fluorescence microscopy (LSFM). Several variants of these techniques are critically discussed. Noise, optical aberrations, specimen damage, and artifacts in microscopy are also covered. The importance of validation of superresolution images with electron microscopy is stressed. Additionally, the book includes translations and discussion of seminal papers by Abbe and Helmholtz that proved to be pedagogically relevant as well as historically significant. This book is written for students, researchers, and engineers in the life sciences, medicine, biological engineering, and materials science who plan to work with or already are working with superresolution light microscopes. The volume can serve as a reference for these areas while a selected set of individual chapters can be used as a textbook for a one-semester undergraduate or first-year graduate course on superresolution microscopy. Moreover, the text provides a captivating account of curiosity, skepticism, risk-taking, innovation, and creativity in science and technology. Good scientific practice is emphasized throughout, and the author’s lecture slides on responsible conduct of research are included as an online resource which will be of interest to students, course instructors, and scientists alike.

A Complete Course in ISC Physics