ELEC 242: FUND OF ELEC ENGINEERING II
Jacobs University Bremen
CH10-300102: General Electrical Engineering II
We start with the concepts of impedance and phasors, which allow for a convenient representation of circuit elements and their responses in terms of linear systems. Subsequently, we introduce tools for the analysis of AC signals, specifically, the Fourier Series and the Fourier Transform. Using these tools are a basis, we revise various elementary circuits, first studied in CH10-300101 under the Laplace framework, now emphasizing the notions of frequency (oscillation) and phase (rotation), thus establishing the fundamental concepts required to understand Communication Systems (module CO-25) and Signal Processing (module CO27), to be pursued in the second year.
ELEC 243: ELECTRONIC MEASUREMENT SYSTEMS
Polytechnic University: Hong Kong
IC2105: Engineering Communication and Fundamentals
This subject offers a wide spectrum of fundamental engineering practice that are essential for a professional engineer. This subject includes Engineering Drawing and CAD, Industrial Safety and Electronic Product Safety Test and Practice, Basic Mechatronic Practice and Basic Scientific Computing with MATLAB that aims at providing fundamental and necessary technical skills to all year 1 students interested in engineering.
ELEC 243: ELECTRONIC MEASUREMENT SYSTEMS
Universidad Carlos III de Madrid
15542: Electronic Technology in Biomedicine
Skills that will be acquired:
- Know the purpose and operation of analog and digital electronic systems
- Operation of basic electronic instrumentation and being able to measure with them.
- Knowledge and use of main electronic parts.
- Ability to design, dimension, build and apply basic electronic functions.
- Ability to use computer aided design tools for electronic circuit design, identify the parts in an electronic circuit and know its function in a schematic diagram.
ELEC 243: ELECTRONIC MEASUREMENT SYSTEMS
Nanyang Technological University
EE2073: Introduction to EEE Design and Project
EE2073 Introduction to EEE Design and Project is a core course proposed under BRC with the main objective to inspire students' interest in learning through active participations in the laboratory-based and practice-oriented course on the solutions of typical engineering system design and implementation problems. The course content covers multi-disciplinary areas of electrical, electronic and computer engineering, including data acquisition system and application, electronic circuit and system design,
LabVIEW software design and development, instrumentation and control, and prescribed project for the course. The current course project is a digital control system for the Automatic Volume Control of Audio Amplifier System. Project activities include the design, development, test and evaluation of sub-systems and the integration of hardware and software subsystem modules to form a complete system which meets application requirements.
ELEC 261: ELECTRONIC MATERIALS
Ecole Centrale Paris
PH 2813: Advanced Materials and Novel Devices for Information Technologies
The main goal of this interactive course is to present the state-of-the-art in research in the field of advanced electronic materials used in information and communication technologies. The novel devices considered are spintronics, mobile phones, sensor arrays and imaging systems, mass storage devices, random access memories, microwave communication systems or quantum computing.
ELEC 301: SIGNALS AND SYSTEMS
Georgia Tech
ECE 2026: Intro-Signal Processing
Introduction to signal processing for discrete-time and continuous-time signals. Filtering. Frequency response. Fourier Transform. Z Transform. Laboratory emphasizes computer-based signal processing. Credit not allowed for both ECE 2025 and ECE 2026.
ELEC 301: SIGNALS AND SYSTEMS
National University of Singapore
EE2023: Signals and Systems
On completion of this course of study, students should be able to:
1. Understand signal representation in time and frequency domains
2. Make use of Fourier Transform to analyse signals
3. Derive the power and energy spectra of signals
4. Apply the Nyquist sampling theorem to sampled systems
5. Make use of Laplace Transform to analyse systems
6. Evaluate the stability of systems
7. Understand frequency response via the Bode plots
8. Appreciate how signal processing can be applied in modulation and filtering
ELEC 301: SIGNALS AND SYSTEMS
Indian Institute of Technology Bombay
EE210: Signals and Systems
Continuous-time signals and systems: signal characteristics, common signals, properties of continuous-time systems. Continuous linear time-invariant systems: impulse response, convolution, linear constant-coefficient differential equations. Fourier series, Fourier transform Laplace transform: system analysis frequency response, analog filters. State-space analysis for continuous-time systems Discrete-time signals and systems Discrete-time LTI systems: convolution, difference equations. Sampling
ELEC 303: RANDOM SIGNALS
Howard University
EECE-331: Probability & Random Variables for Engineers
Examines fundamentals of discrete and continuous probability: conditional probability, independence, random variables, density and distribution functions, expected value and variance, common discrete and continuous distributions, joint distributions, and introduction to simple stochastic processes. Applications to electrical and computer engineering; reliability of series and parallel circuits, models for waiting time phenomena.
ELEC 305: INTRO PHYSICAL ELECTRONICS
National University of Singapore
TDEE2004: Electronic Devices
Electronic devices are the building blocks of electronic systems, and an understanding of device technology is essential for the electrical engineer. This module discusses the physical foundations with emphasis on topics that are necessary for the understanding of the operation of electronic devices. Device concepts are then introduced, and the operational principles of key semiconductor devices are explained, showing how their terminal characteristics are obtained. Topics covered include: structure of solids; electrical conduction; physics of semiconductors; PN junction, bipolar transistors, and field-effect transistors.
ELEC 322: APPL ALGORITHMS&DATA STRUCTURE
Indian Institute of Technology Bombay
CS 213: Data Structures & Algorithms
Introduction to data structures, abstract data types, analysis of algorithms. Creation and manipulation of data structures: arrays, lists, stacks, queues, trees, heaps, hash tables, balanced trees, tries, graphs. Algorithms for sorting and searching, order statistics, depth-first and breadth-first search, shortest paths and minimum spanning tree.
ELEC 326: DIGITAL LOGIC DESIGN
Jacobs University Bremen
CAS-300351: Advanced Digital Design
As the feature size of semiconductor devices continues to shrink at a staggering rate, the increasing degree of integration allows very complex digital systems to be realized on a single chip. Such systems can either be fabricated in application specific integrated circuits (ASICs) using very high scale integration (VLSI) techniques or implemented in programmable devices, such as field programmable gate arrays (FPGAs). In both cases, very large designs are partitioned into a hierarchy of logical blocks, and by adhering to a set of standard design rules, the difficulty of integrating these blocks is dramatically reduced. The most popular approach is synchronous design with register transfer level (RTL) logic, but asynchronous designs are also possible. Although digital systems were traditionally designed at the schematic level, the current trend is toward hardware description languages (HDLs) that allow compact description of very complex hardware constructs. The appearance of sophisticated automatic hardware synthesis engines that implement logic directly from HDL have made HDLs the choice for new logic designs. Although the target language of this class is VHDL, other languages such as Verilog and SystemC apply the same design strategies. This course stresses the importance of viewing HDL as a way of describing real hardware, and not “just another programming language.”
ELEC 342: ANALOG ELECTRONIC CIRCUITS I
Bogazici University
EE 334: Electronics II
Multistage amplifiers; coupling techniques and frequency response; differential amplifiers; high-frequency modeling of transistors, feedback and broadbanding techniques. Analog Integrated Circuits; OpAmp; power amplifiers; filters and oscillators; regulated power supplies.
ELEC 395: TRANSFER CREDIT - JUNIOR
Indian Institute of Technology Bombay
EE308: Communication Systems
This is the first introductory course of communication area in IIT Bombay undergraduate curriculum. If you have ever wondered how does AM or FM works, then this course will definitely help you. This course is fundamental course and will give you glimpse of analog communication, digital communication, information theory & coding and today’s wireless technology. Communication systems (EE308) in parallel with Probability and Random Process (EE325) will lead to foundation of basic concepts required as a communication engineer.
ELEC 395: TRANSFER CREDIT - JUNIOR
Bogazici University
EE 304: Energy Conversion
Energy technology and resources: Fossil fuels, nuclear, solar, and other types of energy. Three phase systems and magnetic circuits. Transformers: Ideal and physical models and equivalent circuit, and transformer testing. Electromechanical energy conversion. Efficiency and process performance. Sensors and actuators: Relays, stepper and positioning systems, switched reluctance machines, synchronous reluctance machines, direct current (DC) machines. Symmetrical alternating current (AC) synchronous machines. Symmetrical AC induction machines.
ELEC 425: COMPUTER SYSTEMS ARCHITECTURE
Sabancı University
CS 401: Computer Architectures
This is an introductory course on the architecture and organization of computer hardware. The most important objective of the course is to explore the interaction between the hardware organization of modern computers and software, and to reveal the impact of the hardware organization on the performance of the software. Thus, the emphasis in this course will be the basic concepts and techniques that are fundamental for modern computers such as datapath design, pipelining, memory hierarchy etc. MIPS architecture as a representative modern RISC architecture is chosen to explain some fundamental concepts. And also, basics of assembly language programming for this architecture will be introduced. More specifically, we show how numbers are represented within a computer and how the circuits that perform arithmetic operations on those numerals are organized. With a high-level overview of digital logic design to support us, we look at how the datapath and control circuits of processors are designed, and in particular we gain some insight for the pipelined processor design, which is the key organizational principle at work in most present-day processors. We examine the use of memory hierarchy (cache memory and virtual memory) to provide the illusion of a large and fast memory from the reality of limited fast memory plus a larger but slower memory. We'll look at input/output devices and buses. Throughout the course there will be an emphasis on the quantitative performance characteristics of computer systems; we'll look at the influence of architecture and organization on performance, and take an introductory look at the empirical and analytical tools appropriate to the study of performance.
ELEC 429: INTRO TO COMPUTER NETWORKS
Indian Institute of Technology Bombay
CS348M: Computer Networks
The course will cover basic concepts of computer networking for students taking up computer science as their minor. The topics covered include the history and architecture of the Internet, popular applications, congestion control protocols, routing and switching, wireless networking. The course will also touch upon some recent advances in the field of computer networking.
ELEC 429: INTRO TO COMPUTER NETWORKS
University of Waterloo
ECE 409: Cryptography and System Security
This course will provide introduction to cryptology and system security, theory of secure communications, points of attacks, symmetric-key and public-key cryptographic algorithms, network security protocols, access authentication, wireless system security, blockchain security, and applications.
ELEC 429: INTRO TO COMPUTER NETWORKS
Hong Kong UST
COMP 4621: Computer Communication Networks I
Principles of computer network architectures and communication protocols; the OSI reference model; switching and multiplexing techniques; data link, network, transport and application layers; LAN and medium access protocols; network programming.
ELEC 430: DIGITAL COMMUNICATION
Bogazici University
EE 374: Communication Engineering
Building blocks of communication systems. Signal types, generalized functions. Hilbert transform and analytical signals. Linear and angular modulation methods, frequency division multiplexing. Sampling, quantization, Pulse-Code Modulation (PCM), Differential Pulse-Code Modulation (DPCM), Delta Modulation (DM), Time Division Multiplexing (TDM), pulse transmission. Baseband data transmission: Nyquist pulse shaping; Bandpass data transmission and digital modulation techniques: Noise analysis of modulation systems.
ELEC 436: FUNDAMENTALS OF CONTROL SYST
National University of Singapore
EE4304: Digital Control Systems
This module provides students with system theory, analysis tools and design methods in discrete-time domain. It is the first course in control and automation that systematically introduces the basic concepts and principles in sampling, Z-transform, zero-order-hold, discrete equivalence and the relations to discrete-time control design. It further examines the design issues for digital PID, PID auto-tuning, phase compensator, and the model predictive control, including the performance criteria, pole-placement, as well as numerous illustrative application examples.
ELEC 436: FUNDAMENTALS OF CONTROL SYST
Bogazici University
EE 352: System Dynamics & Control
Analysis of linear control systems by differential equations and transfer function methods using Laplace transforms. Stability of closed loop systems. Routh-Hurwitz criterion, root-locus diagrams. System analysis in frequency domain. Bode, polar plots and Nichols charts. Nyquist stability criterion. Introduction to design and optimization of linear control systems, compensation techniques.
ELEC 436: FUNDAMENTALS OF CONTROL SYST
Indian Institute of Technology Bombay
EE302: Control Systems
Basic concepts: Notion of feedback, open- and closed-loop systems.Modeling and representations of control systems: Ordinary differential equations, Transfer functions, Block diagrams, Signal flow graphs, State-space representations,Performance and stability: Time-domain analysis, Second-order systems, Characteristic-equation and roots, Routh-Hurwitz criteria, Frequency-domain techniques: Root-locus methods, Frequency responses, Bode-plots, Gain-margin and phase-margin, Nyquist plots, Compensator design: Proportional, PI and PID controllers, Lead-lag compensators. State-space concepts: Controlability, Observability, pole placement result, Minimal representations.
ELEC 436: FUNDAMENTALS OF CONTROL SYST
University of Waterloo
ECE 380: Analog Control Systems
Introduction to control systems. Advantages of closed-loop feedback systems. The role of the system mathematical model. Block diagrams and signal flow graphs. The basic control system design problem, stability in control systems. Frequency response analysis techniques. Root-locus analysis. Elementary lead-lag compensation.
ELEC 436: FUNDAMENTALS OF CONTROL SYST
Tsinghua University
30220363: Automatic Control Systems
Upon completion students should understand the basic concepts in both classical and modern control theory: characteristics of a linear system, linearization, how to build up mathematical models for linear systems in different mathematical forms such as differential equations, transfer functions and state-space equations, be able to do system analysis (stability and performance assessment), master different
tools for doing system analysis (classical time domain and frequency domain methods, state space methods), be able to do system synthesis based on different system description using appropriate tools; understand the differences between continuous and discrete-data control systems, effects of sampling rates and quantization, be able to analysis and synthesis a digital control system including stability and performance assessment using time- and frequency-domain methods, be able to design simple digital controllers either directly using discrete-date controller design methods or using continuous controller design method then converting it into a digital one.
ELEC 447: INTRO TO COMPUTER VISION
Bogazici University
EE 576: Machine Vision
The aim of this course is to introduce the students to the fundamental problems of machine vision and the approaches that have been proposed for solving these problems. The topics covered include the following: Images, image formation, light and image formation, color, visual processing, features, segmentation, shape descriptors, object recognition, scene recognition, optical flow, tracking, motion estimation, binocular stereo, photometric stereo.
ELEC 495: TRANSFER CREDIT - SENIOR
National University of Singapore
EE4411: Silicon Processing Technology
This module focuses on the major process technologies used in the fabrication of integrated circuits and other microelectronic devices. Each lecture topic covers important scientific aspects of silicon wafer processing steps. Simulations and laboratory experiments provide hands-on experience on basic operation and fabrication of MOS devices. Topics include: crystal growth and wafer preparation, epitaxy, oxidation, diffusion, ion implantation, lithography, plasma technology, etching, deposition, and metallization.
ELEC 495: TRANSFER CREDIT - SENIOR
National University of Singapore
EE4510: Solar Photovoltaic Energy Systems
Energy sustainability is important both due to the limited global petroleum reserves and due to the global warming effects of greenhouse gases released by the use of fossil fuels. This module focuses on the types of electrical components and schemes used in solar photovoltaic (PV) energy systems. Besides the characteristics of solar radiation, stand-alone PV schemes with battery energy storage and grid-connected PV schemes will be covered.