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An introduction to the concept of continuous and discrete signals and systems. Difference equations, Discrete Fourier Transforms (DFTs), Fast Fourier Transforms (FFTs), Z-Transform techniques, Filter analysis are covered. An introduction to the bio medical signal processing using MATLAB/ any programming language.

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An introduction to the concept of continuous and discrete signals and systems. Difference equations, Discrete Fourier Transforms (DFTs), Fast Fourier Transforms (FFTs), Z-Transform techniques, Filter analysis are covered. An introduction to the bio medical signal processing using MATLAB/ any programming language.

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This course rigorously and clearly explains the latest developments and basic engineering principles of the entire spectrum of biomedical devices-ranging from their physiological basis to diagnostic and therapeutic devices in medical imaging systems.

Neural signal processing is aimed to extract information from neural signals for the purpose of understanding how the brain represents and transmits information through neuronal ensembles. In this course, brain physiology is covered with special emphasis on the functions of different parts of the brain and the different types of electrical impulses generated from these parts. Working principle of Electroencephalography (EEG) is covered in detail with live  EEG demonstration.

This course is a study of feedback control systems theory including practical applications of compensation and PID concepts. Control system modeling, transient and steady state characteristics, stability and frequency response are analyzed. Compensation and controller design using Root locus methods are covered. The use of control system software, such as MATLAB, in the analysis and design of control systems is emphasized.

This course provides an overview of engineering methods and applications in biomedical and health
systems. Engineering concepts are described in a wide range of topics such as biomaterials and
biomechanics, biomedical sensors, instrumentation and devices, biomedical imaging and diagnosis,
clinical and healthcare systems engineering, and physiological modeling. The course also provides a
glimpse of emerging trends in biomedical and health systems engineering such as neural engineering,
data-driven healthcare, and drug delivery systems.

The course provides an overview of the physiology and pathophysiology of various systems in the
human body and describes the implementation of quantitative engineering approaches and
techniques to understand the function of those systems. It covers the basic terminology of the
disease process and disease etiology and provides basic descriptions of diagnostic methods and
treatment modalitiesv.