Modern Optics Simplified

This textbook reduces the complexity of the coverage of optics to allow a student with only elementary calculus to learn the principles of optics and the modern Fourier theory of diffraction and imaging. Students majoring in sciences or engineering and taking a standard physics course on optics will find this text useful. Examples of a variety of applications dependent on optics allow the student to connect this course to their particular field of interest. Topics covered include aberrations with experimental examples, correction of chromatic aberration, explanation of coherence and the use of interference theory to design an antireflection coating. Fourier transform optics and its application to diffraction and imaging, use of Gaussian wave theory, and fiber optics make the text of interest to those in electrical and bioengineering as well as physics and medical science. The text includes hundreds of photos, figures and diagrams to provide readers with strong visual insights into optics. More difficult, optional topics are highlighted throughout, and the need for experience with differential equations and extensive use of vector theory are avoided by using a one dimensional theory where possible. Maxwell's equations are introduced only to determine the properties of a light wave, and the boundary conditions are introduced to characterize reflection and refraction. Most discussion is limited to reflection. The book also introduces Fourier transforms as they are needed in the discussion of diffraction and imaging.

The most up-to-date treatment available on modern optics. The text gives an overview of the topics and an introduction to design practices for a number of applications. It provides the student with the foundations to enter into advanced courses in nonlinear optics, lens design, laser system design, and optical communications.

A complete basic undergraduate course in modern optics for students in physics, technology, and engineering. The first half deals with classical physical optics; the second, quantum nature of light. Solutions.

This Book Presents A Wide-Ranging Discussion Of The Various Facets Of Optics. The Basic Principles Have Been Systematically Discussed And Extensively Explained. Several Applications Of Optics Have Also Been Discussed To Provide A Practical Flavour Of The Subject.The Book Presents A Broad Insight Into The Subject And Would Be Extremely Useful For Students As Well As Researchers.

A concise, readable introduction to classical and modern optics. Designed for persons interested in the scientific and engineering applications of optics, as well as ophthalmic professionals. Provides a lean presentation of the entire field of optics, from the geometrical aspects of lenses to the relativity of image formation. Contains frequent references to the historical development of optics. Contains a detailed discussion of the most modern developments such as optical data processing, holography, lasers, and laser applications. For individuals in the fields of physics, engineering, or optometry.

Unparalleled reference work for all researchers in field of Optics, Fiber Systems, Material Science, Atomic and Molecular Physics, Laser Physics. Covers all the sub fields of Optical Physics as well as related fields as Engineering, which impact manufacturing and many practical applications. Alphabetically arranged for ease of use cross-references to aid in tracking down all aspects of a topic under investigation.

Optical Image Formation and Processing describes modern physical optics, particularly concerning interference, diffraction, and a simplified theory of partial coherence. The book also discusses polarization, with emphasis on interference phenomena on polarized light. An image is formed in terms of the filtering of spatial frequencies, filtering that is due to transfer function. The text explains holography—a reconstruction of the image of an object beginning from the diffraction patterns produced by the object. A computer can also create artificial variations from the photographic plate which records the hologram, and can synthesize the hologram. The book cites an example of the synthesis of a hologram by a computer using the principle of binary holograms. The text also reviews some experiments dealing with the properties of lasers associated with temporal coherence and power. The book explains that lasers can carry large amounts of information due to their very high frequencies in the order of 300, 000 gigahertz, and recommends the use of optical fibers as the transmission medium instead of using open air. This book can prove useful for technicians, students, and professor connected with optical physics.