SEMIConDUCTOR ENGINEERING STUDY PLAN
(INTERNATIONAL PROGRAM)
FOR STUDENT ID 683XXXXX21 – ONWARDS
YEAR 1 - SEMESTER I
Course | Subject | Credits |
---|---|---|
2189202 |
Fundamental of Materials Science and EngineeringAtomic structures and bonding in solids; Crystallography; Surfaces and interfaces; Crystal defects; Phase equilibrium diagrams; Solid solution and compounds; Polymeric materials; Amorphous materials; Material properties; Relationship between micro- and nano-structures and properties of engineering materials; Classes of engineering materials, material processing and real-world applications. |
3 |
2190101 |
Computer ProgrammingIntroduction to computer systems; problem-solving using computers; programming in high-level languages; program structure, programming style and convention; control statements, data handling and processing; subprograms; classes and objects. |
3 |
2301107 |
Calculus ILimit, continuity, differentiation and integration of real-valued functions of a real variable and their applications; techniques of integration; improper integrals. |
3 |
2302103 |
General Chemistry LaboratoryStandard solution preparation; qualitative analysis; titration; electrochemistry; pH metric titration; spectroscopy; calculation and evaluation of data; calibration curve; introduction to polymer. |
1 |
2302105 |
Chemistry for EngineersStructure of atoms; chemical bonding: ionic bonding, covalent bonding, valence bond theory, hybridization, interaction coordination, intermolecular forces, molecular movement; state of matter: gases, structure of solid, liquid, and solutions; chemical reactions; interaction of matters with electromagnetic radiation and electrical energy; chemical thermodynamics. |
3 |
2304153 |
Physics for EngineersBasic mathematics for general physics; mechanics and its applications; gases and kinetic theory; thermodynamics; transport phenomena and heat transfer; physical properties of matter. |
3 |
2304193 |
Physics Laboratory for EngineersMeasurement and precision; experiments on simple harmonic motion; radius of gyration; dynamics of rotation; velocity of sound; viscosity of fluids. |
1 |
Total | 17 |
YEAR 1 - SEMESTER Ii
Course | Subject | Credits |
---|---|---|
2182101* |
Programming for Semiconductor EngineeringProgramming methods; program analysis; semiconductor engineering-oriented programming. |
3 |
2301108 |
Calculus IICourse Condition : 2301107 Mathematical induction; sequences and series of real numbers; Taylor series expansion and approximation of elementary functions; numerical integration; vectors, lines and planes in three-dimensional space; calculus of vector valued functions of one variable; calculus of real valued functions of two variables; introduction to differential equations and their applications. |
3 |
2304154 |
Physics and Electronics for EngineersElectrostatic; direct current; alternating current: electrical circuits; electromagnetism and magnetic materials; mechanical and electromagnetic waves; modern physics; nuclear physics; relativity. |
3 |
2304194 |
Physics and Electronics Laboratory for EngineersResistance and electromotive force measurements; experiments on ammeter; voltmeter; oscilloscope; AC circuit; transistor; lenses and mirrors; polarization; interference; diffraction. |
1 |
XXXXXXX |
Language Elective I |
3 |
XXXXXXX |
General Education |
3 |
Total | 16 |
YEAR 2 - SEMESTER I
Course | Subject | Credits |
---|---|---|
2182206* |
Mathematics for Semiconductor Engineering IFirst-order and higher-order ordinary differential equations; Fourier series; Fourier integral and transform; Laplace transform; partial differential equations; boundary-value problems; applications in semiconductor engineering. |
3 |
2182208* |
Probability and Statistics for Semiconductor EngineeringElements of probability; conditional probability; Bayes’ theorem; random variables: discrete and continuous random variables; sampling; parameter estimation; hypothesis testing of one and two populations; applications in semiconductor engineering. |
3 |
2182218* |
Circuit Theory IDC concepts; Ohm's law; Kirchhoff's laws; circuit components; passive sign convention; node and mesh analysis; superposition theorem; source transformation; Thevenin and Norton theorem; maximum power transfer; transient in first order and second order circuits; periodic function; sinusoidal steady state; phasor representations; impedances and admittances; phasor diagram; AC power analysis; polyphase circuits. |
3 |
2182219* |
Electric Circuit LaboratoryLaboratory works on electrical circuits and measurements; oscilloscope, multimeter; DC circuits; first order and second order transient responses; resonance; AC circuits; three-phase circuits. |
1 |
2182241* |
Digital SystemsNumber systems and codes; Boolean algebra; two-level and multi-level gate circuits; medium-scale combinational circuits; combinational circuit design; sequential circuits; circuits for arithmetic operations; CMOS logic; VHDL; logic simulation and FPGA programming. |
3 |
2182285* |
Semiconductor Devices ICrystal properties and growth of semiconductors; atoms and electrons; energy band and charge carriers in semiconductors; excess carriers in semiconductors; junctions; field-effect transistors; bipolar junction transistors; optoelectronic devices; power devices. |
3 |
XXXXXXX |
Language Elective II |
3 |
Total | 19 |
YEAR 2 - SEMESTER II
Course | Subject | Credits |
---|---|---|
2182207* |
Mathematics for Semiconductor Engineering IISystems of linear equations; matrix algebra; eigenvalues and eigenvectors; vector spaces and subspaces; linear transformation; similarity transformation; complex numbers; complex-valued function; applications in semiconductor engineering. |
3 |
2182209* |
Chemistry for Semiconductor EngineeringBasic theory of electrochemistry; Faraday law, double layer; overvoltage, electrode dynamics and thermodynamics; electroplating technology - application and testing; chemistry of batteries; metal electrodeposition; corrosion. |
3 |
2182221* |
Engineering ElectromagneticsVector analysis; electrostatic fields in materials; Laplace's equation; energy in electrostatic fields; convection and conduction currents; magnetostatic fields; magnetic forces; energy in magnetostatic fields; electromagnetic induction and Maxwell's equations. |
3 |
2182222* |
Electronic CircuitsCourse Condition : 2182218 |
3 |
2182281* |
Properties of Electrical and Electronic MaterialsStructures of solids; practical determination of structures; preparation of materials; mechanical, thermal, electrical, magnetic and optical properties of materials; superconductivity. |
3 |
2182282* |
Semiconductor Technology: Fabrication and CharacterizationMaterial and device requirements of electronic and MEMS industries; wafer fabrication process overview; MEMS process overview; lithography; etching; metallization; thermal oxidation; diffusion; ion implantation; passivation; contacts; electron and force microscopies (SEM, TEM, AFM); electronic and optical spectroscopies (4PP, VdP, IV, CV, PL, Raman); semiconductor nanomaterials. |
3 |
Total | 18 |
YEAR 3 - SEMESTER I
Course | Subject | Credits |
---|---|---|
2182300* |
Introduction to Smart ElectronicsIntroduction to smart electronics industry; present trends of smart electronics technology; hands-on laboratories; studying trip. |
1 |
2182313* |
Characterization Methods for Semiconductor EngineeringUnits and standard instruments; accuracy; precision; voltage current, and power measurements, impedance measurement at low and high frequencies; digital techniques in measurement; noises; shielding; signal-to-noise ratio enhancement techniques; transducers; hot-point probe; electron and force microscopies (SEM, TEM, AFM). |
3 |
2182361* |
Fundamentals of Thermo-Fluid EngineeringEnergy sources and energy conversion devices; properties of pure substances and ideal gases; first and second laws of thermodynamics; entropy; efficiency of engineering devices, power and refrigeration cycles, fluid statics, momentum and energy equations, fluid machinery, internal flows, external flows, basic heat transfer, heat exchangers. |
3 |
2182389* |
Principles of Analog Circuit DesignTransistor modeling in integrated circuits; passive devices in integrated circuits; transistor amplifiers; voltage and current references; output stages; operational amplifier analysis; feedback, stability, and compensation; basic operational amplifier design. |
3 |
5501214 |
Communication and Presentation SkillsCourse Condition : 5501123 |
3 |
XXXXXXX |
Semiconductor Engineering Elective |
3 |
XXXXXXX |
General Education |
3 |
Total | 19 |
YEAR 3 - SEMESTER II
Course | Subject | Credits |
---|---|---|
2182345* |
Introduction to Embedded Machine LearningeCourse Condition : 2182241 |
3 |
2182452* |
Digital Circuit DesignIntroduction to digital circuit design; synthesis of logic circuit; CAD tool and VHDL; standard chips, programmable logic devices and gate arrays; optimized implementation of logic function; combinational circuit design; synchronous sequential circuit design; system controller; digital system design; microcontroller-based design. |
3 |
5501225 |
Technical WritingCourse Condition : 5501123 |
3 |
XXXXXXX |
Interdisciplinary or 21st Century Skill Course |
3 |
XXXXXXX |
General Education |
3 |
Total | 15 |
YEAR 3 - SEMESTER III (SUMMER)
Course | Subject | Credits |
---|---|---|
2182301* |
Industrial TrainingEngineering practice in related areas under supervision of experienced engineers in private sectors or government agencies. |
2 |
Total | 2 |
YEAR 4 - SEMESTER I
Course | Subject | Credits |
---|---|---|
2182400* |
Semiconductor Engineering CapstoneUtilization and application of knowledge in semiconductor engineering by using scientific research, problem analysis, design, and development to determine possible solutions, question reviews, team collaboration and communication. Apply the project to the real-world problem in the form of group projects. |
3 |
2182490* |
Semiconductor Engineering Pre-ProjectProblem–solving framework; guidelines for problem solving and solution from Semiconductor Engineering project. |
1 |
XXXXXXX |
Semiconductor Engineering Elective |
3 |
XXXXXXX |
Semiconductor Engineering Elective |
3 |
XXXXXXX |
Free Elective I |
3 |
Total | 13 |
YEAR 4 - SEMESTER II
Course | Subject | Credits |
---|---|---|
2182499* |
Semiconductor Engineering ProjectCourse Condition : 2182490 |
3 |
XXXXXXX |
Semiconductor Engineering Elective |
3 |
XXXXXXX |
Free Elective II |
3 |
XXXXXXX |
General Education |
3 |
Total | 12 |
Interdisciplinary or 21st Century Skill Courses
Course | Subject | Credits |
---|---|---|
2100201 |
Introduction to Artificial IntelligenceIntroduction to artificial intelligence related to scope, historical background; Concept for design; knowledge representation; memory structures; probabilistic reasoning; decision making; fuzzy logic; genetic algorithm; chaotic. |
3 |
2182385* |
Introduction to Lab-on-a-ChipDefinition and history of lab-on-a-chip; differences between lab-on-a-chip and conventional lab equipment at present; scaling laws and theoretical effects of small devices; key building blocks of lab-on-a-chip; microfabrication and design of lab-on-a-chip; relationship between nanotechnology and lab-on-a-chip; applications of lab-on-a-chip. |
3 |
2182453* |
Advanced Embedded SystemsHardware and software platforms for embedded systems; devices and buses; embedded programming; real time operating system; hardware-software codesign in an embedded system; testing. |
3 |
2182479* |
Optical Fiber CommunicationOverview of optical fiber communications; wave guiding in optical fibers, mode theory for dielectric circular waveguides; signal distortion in optical fibers due to loss and dispersion; modulation techniques; digital transmission systems; principle and components in WDM systems; introduction to FTTX. |
3 |
Total | 12 |
Semiconductor Engineering Electives
Course | Subject | Credits |
---|---|---|
2182332* |
Linear Control Systems ICourse Condition : 2182206 |
3 |
2182423* |
Digital Signal ProcessingContinuous-time and discrete-time signals and systems; spectral analysis; discrete-Fourier transform (DFT) and fast Fourier transform (FFT); design of FIR, IIR digital filters; decimation and interpolation; sampling rate conversion; multirate systems and filter banks. |
3 |
2182435* |
Industrial AutomationThermal sensors; mechanical sensors; optical sensors; signal conditioning; final control elements; programmable logic control (PLC); distributed control system (DCS); communication modules; human machine interface (HMI); alarm management systems; selected applications to factory automation and process automation. |
3 |
2182446* |
Power ElectronicsBasic principles of power electronics for electrical power processing and control; basic power converters: AC-to-DC converter, DC-to-DC converter, AC-to-AC converter, DC-to-AC converter and their operations; basic characteristics of semiconductor power devices: diodes, transistors and thyristors. |
3 |
2182447* |
Electronics Engineering LaboratoryCourse Condition : 2182219 |
1 |
2182488* |
Semiconductor Devices IICourse Condition : 2182285 |
3 |
2182494* |
Study Abroad IStudy additional courses abroad according to the requirement of the program. |
3 |
2182495* |
Study Abroad IIStudy additional courses abroad according to the requirement of the program. |
3 |
2182496* |
Study Abroad IIIStudy additional courses abroad according to the requirement of the program. |
3 |
2182497* |
Study Abroad IVStudy additional courses abroad according to the requirement of the program. |
3 |
2182545* |
Digital Integrated CircuitsInternal circuits of different families of gates; TTL, ECL, NMOS and CMOS; internal configuration of large-scale integrated circuits including ROM, RAM, PAL, PLA and FPGA; dynamic digital circuits such as domino and clocked circuits. |
3 |
2182547* |
Analog Integrated CircuitsMOS transistor models; operational amplifier design; stability and frequency compensation of feedback amplifiers; bandgap references; witched-capacitor circuits; effect of nonlinearity and mismatch; oscillators and phase lock loops. |
3 |
2182582* |
Photonic Devices in Optical Communication SystemsWave nature of light; dielectric waveguides and optical fibers; semiconductor science; operating principles, structure and properties of LEDs, laser diodes, photodetectors, optical modulators, and optical amplifiers. |
3 |
2182583* |
Introduction to Quantum MechanicsWave and particles; Schroedinger equation; tunneling; periodic potentials; harmonic oscillators; operators and bases; perturbation theory; motion in centrally symmetric potentials; spin angular momentum; introduction to quantum computing. |
3 |
2182585* |
Solar Cell TechnologyBand theory of semiconductors; optical properties of semiconductor; structure of solar cells; characteristics of solar cells; equivalent circuit of solar cells; p-n junction silicon solar cells; polycrystalline silicon solar cells; amorphous silicon solar cells; gallium arsenide solar cells; photovoltaic system design; concentrated sunlight system; photovoltaic system applications. |
3 |
2182586* |
Electron MicroscopyWave nature of electron beam; electron optics; scanning electron microscopy; transmission electron microscopy; spectroscopies with electron beam. |
3 |
2182587* |
Sensor Technology and ApplicationsSensor characteristics : static and dynamic characteristics, sensor fabrication technology; Microelectromechanical systems (MEMs); sensor operations; Interface circuits. |
3 |
2182588* |
Solid-State Physics for Semiconductor EngineeringCrystal structures and lattices; lattice vibration and thermal properties of crystals; crystalline defects; modern theory of solids; quantum theory of metals; quantum theory of electrons in periodic lattices; semiconductors and their electrical and optical properties; dielectric materials and insulation; optical properties of materials; magnetism and magnetic resonances; superconductivity; introduction to nanostructures. |
3 |
2182589* |
Laser EngineeringFundamental theory : energy states in atoms, electron population inversion, spontaneous emissions; stimulated emissions principles of lasers; coherent light; gas lasers; solid-state lasers, semiconductor lasers. |
3 |
2183412 |
Micro and Nano-Electro Mechanical SystemsOverview of MEMs; scaling of micromechanical devices; behavior and modeling of micromechanical devices; mechanical properties of MEMs materials; review of microfabrication; bulk and surface micromachining; applications of MEMs: pressure sensors, accelerometer; micromotors; micropumps and microvalves; thermal sensors and actuators; micromirror. |
3 |
Total | 58 |