**Provides a solid foundation in the biomechanical analysis of human posture and movement **Details the anatomical and functional architecture of the cardiovascular system from an engineering perspective **Contains methods to set up general flow problems using components of the equations of motion and continuity **Presents methods to classify models according to their degree of mathematical complexity **Studies biomechanical applications impacting human performance and functioning such as the optimization of human power generation and cycling power studies and the design of computer-controlled hydraulic above-knee prosthetic limbs **Introduces discrete-time systems for the processing of common signals derived from the human body Linking methodologies in engineering, medicine, biology, and physics, this reference clearly defines basic principles in image processing and biomechanics, the modeling of physiological processes, and bioelectric signal analysis for a solid understanding of devices and designs for improved functioning of the human body-including cutting-edge discussions of tissue engineering applications such as skin equivalents, cardiovascular components, bone regrowth, muscle tissue, and the regeneration of nerves. The author also discusses technologies at the forefront of cardiac care including total artificial hearts, left ventricular assist devices, defibrillators, pacemakers, and stents, as well as issues related to minimally-invasive and robotic surgery, next-generation imaging devices, nanomotors, and nanodevices. Table of Contents Introduction. Cell Physiology. Hemodynamics. The Cardiovascular System. Biomedical Signals Processing. Signal Acquisition and Processing. Techniques for Physiological Signals Processing. Examples of Physiological Signals Processing. Principles of Biomechanics. Practical Applications of Biomechanics. Tissue Engineering. The Future of Biomedical Engineering.