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ph.d syllabus research scholar
Typology: Cheat Sheet
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Objectives:
Pre-requisites: None Outcome: Upon completion of the course, the student will be able to:
Syllabus:
Unit 1. Evolution of medical instrument : Components of a medical instrumentation system, Classification of medical instruments, Electrical activity of cells, Electrode-skin interface, Origin of Bio-potentials, Bio-potential signal conditioning circuits, and physiological sensors. [ 4 Lectures]
Unit 2. Computer based medical instrumentation - Computerized versions of ECG, EEG, EMG, Tread Mill Test ECG– Foetal monitor, cardiac arrythmias and its monitoring through Holter monitor, Operation theatre equipment and Critical Care instrumentation - Patient monitors, pulse oximetry, ICU ventilators, Event monitors. [ 8 Lectures ]
Unit 3. Specialized Therapeutic and diagnostic equipment - Cardiac pacemakers, AC and DC defibrillators, heart lung machines, Haemodialysis - design, clinical laboratory instrumentation, Audiometer, Phonocardiogram, Electromagnetic Blood flow meters, Ultrasonic Blood Flow meters, Laser Doppler Blood Flow Meters, Types of stimulators, electrodiagnostic/ therapeutic stimulator, peripheral nerve stimulator, Detection of physiological parameters using electrical impedance technique. [ 8 Lectures ]
Unit 4. Clinical Laboratory Instruments: Spectrophotometry and Spectrophotometers, colorimeters, High performance liquid chromatography, electrolyte analysers, blood gas analysers, Blood cell counters. [ 5 Lectures]
Unit 5. Modern Imaging systems: Digital X-ray, Computed tomography, Ultrasonic Imaging systems, magnetic resonance imaging systems [ 5 Lectures ]
Unit 6. Electroencephalography (EEG), Concept of BCI (Brain control interface): Invasive and Noninvasive Types, EEG Standards, EEG Data Acquisition. [ 2 Lectures ]
Reference Book:
Objective: The purpose of the proposed course is to present control theory that is relevant to the analysis and design of computer-controlled systems, with an emphasis on basic concepts and ideas Pre-requisite: Laplace Transforms, Differential Equation, Matrix theory, Linear Control system Outcome: Upon completion of the course, the student will be able to:
Syllabus: Unit 1. Introduction, Digital control systems, quantizing and quantization error, Data acquisition, conversion, and distribution systems, The Z transform, z transforms of elementary functions, Important properties and theorems of z transform, The inverse z transform, z transform method for solving difference equations [ 8 Lectures ]
Unit 2. Z-Plane analysis of discrete control systems: Introduction, impulse sampling and data hold, obtaining the z transform by convolution integral method, reconstructing original signals from sampled signals, the pulse transfer function, realization of digital controllers and digital filters. [ 8 Lectures ]
Unit 3. Discrete time system design by conventional methods: Introduction, mapping between the s-plane and the z-plane, stability analysis of closed loop systems in the z plane, transient steady state response analysis, design based on the root locus method, design based on the frequency response method, analytical design method. [ 8 Lectures]
Unit 4. State space representations of discrete time systems, solving discrete time state space equations, pulse- transfer-function matrix, discretization of continuous time state space equations, lyapunov stability analysis [ 8 Lectures]
Unit 5. Discretization Techniques: Euler discretization method, Modified Euler discretization method, Taylor discretization method, Taylor discretization methods for nonlinear systems, Exactly discretizable systems. [ 8 Lectures ]
List of lab experiments: