Introduction to Biological Physics for the Health and Life Sciences

The second edition of Introduction to Biological Physics for the Health and Life Sciences is a comprehensive introduction to biological physics for students in the health and life sciences. It is divided into six sections and includes illustrative examples, interspersed problems, objectives, descriptions of key concepts, and further practice problems. NEW CHAPTERS INCLUDE Optical Instruments, Advanced Geometric Optics, Thermodynamic Processes, Heat Engines and Entropy, Thermodynamic Potentials, Kinematics, Force and Newtons Laws of Motion, Energy, Waves, Sound and Hearing, Elasticity, Fluid Dynamics, Temperature and the Zeroth Law, Ideal Gases, Phase and Temperature Change, Water Vapour, Thermodynamics and the Body, Static Electricity, Electric Force and Field, Capacitance, Direct Currents and DC Circuits, The Eye and Vision, Optical Instruments, Atoms and Atomic Physics, The Nucleus and Nuclear Physics, Ionising Radiation, Medical imaging, and Magnetism and MRI. Instructors support material is available through the companion website.

\n Format: Paperback / softback
\n Length: 600 pages
\n Publication date: 12 April 2019
\n Publisher: John Wiley & Sons Inc
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A comprehensive and extensively revised new edition of this highly regarded introduction to the fundamental principles of biological physics for students studying health and life sciences. The text is structured into six sections: Mechanics, Solids and Fluids, Thermodynamics, Electricity and DC Circuits, Optics, and Radiation and Health. It is designed to provide a strong foundation in physics for students pursuing health science courses.

The second edition of Introduction to Biological Physics for the Health and Life Sciences is packed with illustrative examples, diagrams, ideas, and challenges, all carefully selected to reference the biomedical sciences. The text includes interspersed problems, objectives to guide learning, descriptions of key concepts and equations, and additional practice problems.

Several new chapters have been added to this edition, including:

Optical Instruments: This chapter covers the principles and applications of optical instruments, such as telescopes, microscopes, and cameras. It discusses the basic principles of light and optics, including lenses, mirrors, and interference.

Advanced Geometric Optics: This chapter explores advanced geometric optics, including geometric transformations, ray tracing, and wave optics. It discusses the principles of lenses, mirrors, and prisms and their applications in imaging and optical communication.

Thermodynamic Processes: This chapter covers the basic principles of thermodynamics, including heat transfer, work, and energy. It discusses the laws of thermodynamics, including the first and second laws, and their applications in biological systems.

Heat Engines and Entropy: This chapter discusses heat engines, including their principles, efficiency, and applications in energy conversion. It also covers entropy and its role in understanding the behavior of biological systems.

Thermodynamic Potentials: This chapter introduces thermodynamic potentials, which are used to describe the thermodynamic state of a system. It discusses the concept of free energy and its relation to thermodynamic processes.

This comprehensive text serves as an invaluable resource for health and life science majors with limited background in mathematics or physics. It is also an excellent reference for anyone seeking a broad understanding of the subject.

Topics covered in the text include:

Kinematics: This section introduces the principles of motion, including velocity, acceleration, and displacement. It discusses the kinematic equations and their applications in analyzing the motion of objects.

Force and Newtons Laws of Motion: This section discusses the principles of force and Newton's laws of motion. It covers the definition of force, the relationship between force and mass, and the application of Newton's laws in solving problems involving motion.

Energy: This section covers the concept of energy and its various forms. It discusses the energy transfer between objects and systems and the conservation of energy.

Waves: This section introduces the principles of waves, including sound, light, and electromagnetic waves. It discusses the properties of waves, such as frequency, wavelength, and amplitude, and their applications in communication and imaging.

Sound and Hearing: This section covers the principles of sound generation, transmission, and reception. It discusses the properties of sound waves, such as pitch, frequency, and amplitude, and their effects on hearing.

Elasticity: This section discusses the principles of elasticity, including stress and strain. It covers the behavior of materials under stress and strain and their applications in engineering and biology.

Fluid Dynamics: This section covers the principles of fluid dynamics, including fluid flow. It discusses the properties of fluids, such as density, viscosity, and pressure, and their applications in aerodynamics, hydrodynamics, and blood flow.

Temperature and the Zeroth Law: This section introduces the concept of temperature and the Zeroth Law of Thermodynamics. It discusses the relationship between temperature, energy, and entropy and their applications in understanding the behavior of biological systems.

Ideal Gases: This section covers the principles of ideal gases, including the ideal gas equation, pressure-volume relationships, and thermodynamic properties. It discusses the behavior of gases under different conditions, such as high and low pressures and high and low temperatures.

Phase and Temperature Change: This section discusses the principles of phase and temperature change, including phase diagrams and the phase rule. It discusses the transitions between different phases, such as solid, liquid, and gas, and their applications in chemistry and physics.

Water Vapour: This section covers the principles of water vapor, including its properties, phase diagrams, and thermodynamic properties. It discusses the behavior of water vapor under different conditions, such as high and low pressures and high and low temperatures.

Thermodynamics and the Body: This section covers the principles of thermodynamics and their applications in understanding the behavior of the human body. It discusses the body's energy balance, heat transfer, and the role of thermodynamics in maintaining homeostasis.

Static Electricity: This section covers the principles of static electricity, including electric charges, electric fields, and electric potential. It discusses the behavior of electric charges in static and dynamic situations and their applications in electrostatics and electrodynamics.

Electric Force and Field: This section covers the principles of electric force and field, including Coulomb's law and Gauss's law. It discusses the behavior of electric charges in electric fields and their applications in electrostatics and electromagnetism.

Capacitance: This section covers the principles of capacitance, including the definition, capacitance equation, and applications. It discusses the behavior of capacitors in electric circuits and their applications in energy storage and power conditioning.

Direct Currents and DC Circuits: This section covers the principles of direct currents and DC circuits, including the definition, current flow, and resistance. It discusses the behavior of DC circuits, including batteries, generators, and rectifiers, and their applications in power generation and distribution.

The Eye and Vision: This section covers the principles of vision, including the anatomy and physiology of the eye. It discusses the process of vision, including light detection, image formation, and perception.

Atoms and Atomic Physics: This section covers the principles of atoms and atomic physics, including the structure of the atom, the electron shell, and the quantum mechanics of matter. It discusses the properties of atoms, such as mass, charge, and energy, and their applications in chemistry and physics.

The Nucleus and Nuclear Physics: This section covers the principles of the nucleus and nuclear physics, including the structure of the nucleus, nuclear reactions, and nuclear energy. It discusses the properties of nuclei, such as mass, charge, and energy, and their applications in nuclear medicine and nuclear power.

Ionising Radiation: This section covers the principles of ionising radiation, including its sources, types, and effects. It discusses the effects of ionising radiation on living organisms, including radiation sickness and cancer.

Medical imaging: This section covers the principles of medical imaging, including X-rays, CT scans, and MRI. It discusses the techniques used in medical imaging and their applications in diagnosing and treating medical conditions.

Magnetism and MRI: This section covers the principles of magnetism and MRI, including the behavior of magnetic fields and the principles of MRI. It discusses the applications of MRI in imaging the brain and other organs.

In conclusion, Introduction to Biological Physics for the Health and Life Sciences, Second Edition is a comprehensive and extensively revised text that provides a solid foundation in physics for students pursuing health science courses. It is packed with illustrative examples, diagrams, ideas, and challenges, all carefully selected to reference the biomedical sciences. The text includes interspersed problems, objectives to guide learning, descriptions of key concepts and equations, and additional practice problems. Several new chapters have been added to this edition, covering topics such as optical instruments, advanced geometric optics, thermodynamic processes, heat engines and entropy, thermodynamic potentials, and medical imaging. This text serves as an invaluable resource for health and life science majors with limited background in mathematics or physics, as well as anyone seeking a broad understanding of the subject.

\n Weight: 1668g\n
Dimension: 211 x 297 x 26 (mm)\n
ISBN-13: 9781118934500\n
Edition number: 2nd Edition\n