Technical Books

This note explains the following topics Relativity, with an emphasis on dynamics, Classical waves, Quantum mechanics, Applications of quantum mechanics to atomic physics, nuclear physics, particle physics, solid state physics and statistical physics.

This note covers the following topics: Crystallography and Crystal Structures, X-ray Diffraction and Defects in Crystals, Lasers and Sensors, Fiber Optics, Interference and Diffraction.

This note explains the following topics Newtons first law, Newtons second law, Newtons third law, Gravity, The solar system, The Age of Calculus, Law of conservation of momentum, Conservation of Energy and Pressure.

This note covers the following topics: Relativity,frames Of Reference, Special Relativity, Consequences Of The Principle Of Special Relativity , Energy And Momentum, A Hint Of General Relativity, Quantum Theory, A Black Body Radiation, Photons,matter Waves, Atoms , Quantum Mechanics and Atomic Structure A Schrodinger Wave Equation�one Dimensional, One-dimensional Potentials, The Hydrogen Atom , Multi-electron Atoms.

This note explains the following topics: Atomic Models,basics Of Atomic Spectra, Basics Of Atomic Spectra, X-ray, Photoelectric Effect And Compton Effect,molecular Spectra, Raman Spectra, Laser,properis Of Nucleus, Nucleus Models, Nuclear Reaction , Nuclear Fission And Nuclear Fusion, Radioactivity, Elementary Particles.

This note contains below topics, Development of the Ideas and Methods of the ManyElectron Theory, Fermi Liquid and nonFermiLiquid Phases, Theory of Quantum Phase Transitions Spin Liquid and the Topological Order, Lattice Gauge Theories and Strings.

We consider in the paper the Nonsymmetric Kaluza Klein Theo ry .nding a condition for a color con.nement in the theory. We consider also a Kerner W ong Kopczy.ski equation in this theory. The Nonsymmetric Kaluza Klein Theory with a sp ontaneous symmetry breaking and Higgs mechanism is examined.

This note covers foundations of modern physics, Introduction to the course, The special theory of relativity, Basic ideas, The Lorentz transformation, Length contraction, The relativity of time, Light and the doppler effect, The addition of velocities, Energy and momentum, Toward the general theory of relativity, Radiation and matter, The schrodinger wave equation, The bohr model of the atom, Solving them schrodinger wave equation and special topics in nuclear medicine.

This note covers the following topics Medical Physics Disciplines, Cell Killing By Ionizing Radiation Cell Killing By Ionizing Radiation, Diagnostic Radiological Physics, Medical Nuclear Physics, Therapeutic Radiological Therapeutic Radiological Physics, Therapy Responsibilities Therapy Responsibilities, Magnetic Resonance Imaging, MR Spectroscopy.

This work aims to impart a knowledge of the relations existing between Physics and Medicine in their latest state of development, and to embody in the pursuit of this object whatever experience the author has obtained during a long period of teaching this special branch of applied science. Topics covered includes: Matter, Ultimate Composition Of Matter, Hydrometers, Hydrodynamics, Gaseous Matter, Kinetic Energy, Machines And Inclined Plane, Electricity, Dynamic Electricity.

The PDF covers the following topics related to Medical Physics : Fundamentals of Atomic and Nuclear Physics, Interactions of Radiation With Matter, Fundamentals of Dosimetry, Measures of Image Quality, X Ray Production, Projection Radiography, Receptors for Projection Radiography, Fluoroscopic Imaging Systems, Mammography, Special Topics in Radiography, Comp Uted Tomography, Physics of Ultrasound, Ultrasound Imaging, Physics of Magnetic Resonance, Magnetic Resonance Imaging, Digital Imaging, Image Post-processing and Analysis, Image Perception and Assessment, Quality Management, Radiation Biology, Instrumentation for Dosimetry, Patient Dosimetry, Justification and Optimization in Clinical Practice, Radiation Protection.

This book describes the following topics: Motion on a straight line, Motion in two dimensions, Newton�s law of motion, Statics, Work and energy, Mechanics of nonviscous fluids, Viscous fluids, Mirrors, lenses and optical systems, Nuclear Physics and Ionizing Radiation.

There is a strong emphasis of classical mechanics with closeness to physics and engineering. Among the topics explored linear and nonlinear oscillators quasiperiodic and multiperiodic motions systems with constraints HamiltonJacobi theory integrable systems stability problems of dissipative and conservative systems. Numerous exercises accompany the text, but the author assumes a knowledge of calculus.

This book, as its name suggests, presents those principles of mechanics that are believed to be essential for the student of engineering.All the information is there, and is told simple yet completely.

This book is the result of the experience of the writer in teaching the subject of Applied Mechanics at the Massachusetts Institute of Technology. It is primarily a text-book ; and hence the writer has endeavored to present the different subjects in such a way as seemed to him best for the progress of the class, even though it be at some sacrifice of a logical order of topics.