College Curriculum
Click below to learn about the curriculum relevant to engineering that I follow for the Electrical Engineering Program at Grand Valley State University.
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*First Year
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*Sophomore
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**Junior
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Senior
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5th Year Senior
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6th Year Senior
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*Fall 2017
- Introduction to Engineering Problem Solving - EGR 180
- Functions and Models - MTH 124
- Study of preparatory material for calculus using symbolic algebra and trigonometry for solving equations, representing functions, and modeling, plus appropriate technology. Core topics: concept of function, average rate of change of a function, inverse and composite functions, trigonometric functions, exponential and logarithmic functions, and right triangle trigonometry.
- Study of preparatory material for calculus using symbolic algebra and trigonometry for solving equations, representing functions, and modeling, plus appropriate technology. Core topics: concept of function, average rate of change of a function, inverse and composite functions, trigonometric functions, exponential and logarithmic functions, and right triangle trigonometry.
*Winter 2018
- Principles of Chemistry I - CHM 115
- First semester of the two-semester general chemistry sequence for the sciences. Concepts of atomic structure, development of the principles of modern chemistry, connections between atomic/molecular structure, and observed behavior.
- First semester of the two-semester general chemistry sequence for the sciences. Concepts of atomic structure, development of the principles of modern chemistry, connections between atomic/molecular structure, and observed behavior.
- Calculus I - MTH 201
- A development of the fundamental concepts of calculus using graphical, numerical, and analytic methods with algebraic and trigonometric functions of a single variable. Limits and continuity, derivatives, indefinite integrals, definite integrals, and the Fundamental Theorem of Calculus; applications of derivatives and integrals. Please see the mathematics program for placement details.
- A development of the fundamental concepts of calculus using graphical, numerical, and analytic methods with algebraic and trigonometric functions of a single variable. Limits and continuity, derivatives, indefinite integrals, definite integrals, and the Fundamental Theorem of Calculus; applications of derivatives and integrals. Please see the mathematics program for placement details.
- Intro to Engineering Design I - EGR 106
- A first course in the principles and practice of multi-disciplinary engineering analysis, design, construction, and evaluation. Topics include graphical communication, solid modeling, computer-aided manufacturing, computer programming fundamentals, and structured programming. Professional skills such as problem solving and communication are emphasized.
- A first course in the principles and practice of multi-disciplinary engineering analysis, design, construction, and evaluation. Topics include graphical communication, solid modeling, computer-aided manufacturing, computer programming fundamentals, and structured programming. Professional skills such as problem solving and communication are emphasized.
*Spring/Summer 2018
N/A
*Fall 2018
- Calculus II - MTH 202
- Continuation of Calculus I using graphical, numerical, and analytic methods to study exponential, logarithmic, hyperbolic, and inverse trigonometric functions. Indeterminate forms, improper integrals, integration techniques, sequences and series, Taylor polynomials, and power series.
- Continuation of Calculus I using graphical, numerical, and analytic methods to study exponential, logarithmic, hyperbolic, and inverse trigonometric functions. Indeterminate forms, improper integrals, integration techniques, sequences and series, Taylor polynomials, and power series.
- Intro to Engineering Design II - EGR 107
- A second course in the principles and practice of multi-disciplinary engineering analysis, design, construction, and evaluation. Topics include design process, graphical communication, solid modeling, computer-aided manufacturing, computer programming, and principles of digital and analog electronics. Professional skills such as teamwork, problem-solving, and communication (oral and written) are emphasized.
- A second course in the principles and practice of multi-disciplinary engineering analysis, design, construction, and evaluation. Topics include design process, graphical communication, solid modeling, computer-aided manufacturing, computer programming, and principles of digital and analog electronics. Professional skills such as teamwork, problem-solving, and communication (oral and written) are emphasized.
*Winter 2019
- Calculus III - MTH 203
- Continuation of Calculus II using graphical, numerical, and analytic methods to study parametric equations, polar coordinates, vector algebra in two and three dimensions, differentiation and integration of vector functions of a single variable, and scalar functions of several variables.
- Principles of Physics I - PHY 230
- The first course in a two-course calculus-based sequence for students of science, mathematics, and engineering with a laboratory. Topics include vectors, kinematics, dynamics, work, conservation of energy, linear and angular momentum, gravitation, mechanical waves and oscillations, and sound.
*Spring/Summer 2019
N/A
*Fall 2019
- Principles of Physics II - PHY 231
- The second course in a two-semester sequence for students of science and engineering, with a laboratory. Topics include thermodynamics, Coulomb’s law, electric fields and potential energy, Gauss’s law, circuits, electrical waves and oscillations, Maxwell’s equations, and optics.
- Microcontroller Programming - EGR 226
- A first course in the analysis and design of digital systems. Provides an introduction to digital systems and microcontroller programming, Boolean algebra, combinational and sequential logic, microprocessor architecture, C programming for microcontrollers.
*Winter 2020
- Intro to Digital System Design - EGR 224
- A first course in the analysis and design of digital systems. Provides an introduction to digital system design using schematic-based entry and hardware description language based entry. Boolean algebra, combinational and sequential logic, state machine design, testbenches and various hardware modeling styles.
- Linear Algebra and Differential Equations - MTH 302
- Matrix algebra and determinants. Introduction to the theory of differential equations. Methods of solution (including Laplace transform techniques) of linear equations, as well as some special types of nonlinear equations. Applications in physical, biological, and social sciences.
- Circuit Analysis - EGR 214
- The first of a two-course sequence in linear circuit analysis. Topics include Ohm’s Law, Kirchhoff’s Laws, node voltage and mesh current analysis, Thevenin’s and Norton’s Theorems, superposition, basic operation of diodes, transistors, operational amplifiers and transformers, capacitance, inductance, and time-domain analysis of first order circuits.
- The first of a two-course sequence in linear circuit analysis. Topics include Ohm’s Law, Kirchhoff’s Laws, node voltage and mesh current analysis, Thevenin’s and Norton’s Theorems, superposition, basic operation of diodes, transistors, operational amplifiers and transformers, capacitance, inductance, and time-domain analysis of first order circuits.
- Engineering Measurement and Data Analysis - EGR 220
- Measurement and data analysis lab that complements Statistical Modeling for Engineers. This course uses hands-on engineering tests and experiments to build understanding of applied statistical analysis. The use of various measurement and data-acquisition tools and data analysis techniques are introduced. Technical writing in the form of lab reports is introduced and emphasized.
- Statistical Modeling for Engineers - STA 220
- This is a first course in statistics using modeling as the unifying framework upon which to build understanding of applied statistical analysis. Focus is on applications of statistical modeling with real and simulated data. Topics include descriptive statistics, probability, data management, statistical modeling, and inference.
**Spring/Summer 2020
- Electronic Materials and Devices - EGR 257
- An introduction to solid state electronic materials and devices. Topics include basic quantum mechanics, atomic structure, electrical, magnetic and optical properties of electronic materials, and fundamentals of semiconductor devices including diodes and transistors. Laboratory activities. Offered winter semester.
- Probability and Signal Analysis - EGR 223
- An introduction to probability theory and signal analysis with applications. Topics covered include probability theory, random variables, properties of signals and systems, and applications to modeling physical systems and processes. Includes an active learning component to supplement the theory presented in lecture.
Fall 2020
- Engineering Co-op Preparation -EGR 289
- Introduces potential engineering cooperative education students to the industrial environment, the manufacture of quality products, and the basic principles of leadership. Helps students develop a better self-understanding through self-assessment and career development theory and prepares students for the co-op interview process.
- Circuit Analysis II - EGR 314
- Continuation of Circuit Analysis I. Topics include first and second order system transient analysis, Laplace transform analysis, sinusoidal steady state analysis, Bode plots, resonance, first and second order filters, Fourier series, and use of computer aided design software.
- Electronic Circuits I - EGR 315
- The design of discrete and integrated electronic circuits. Topics include large and small signal modeling of diodes, bipolar junction transistors, and MOS transistors. Biasing, small and large signal amplifier design, feedback, oscillators, and the use of computer-aided design software.
- Embedded System Design - EGR 326
- A course in the design and implementation of embedded electronic systems. Topics include digital logic building blocks, programmable logic, microcontrollers, analog interface and support components, timing margin analysis, serial interfacing, signal integrity, heat sinks, and thermal resistance. A significant term project is required.
Winter 2021
- Engineering Co-op 1 - EGR 290
- The first full-time, four-month cooperative engineering work experience usually in a local industrial/manufacturing firm. Reading, writing assignments required. At least one evening meeting required. Offered spring/summer semester.
Spring/Summer 2021
- Signals and Systems Analysis - EGR 323
- A course in the engineering applications of transform methods. The processing of analog and digital signals is discussed, as well as the analysis and design of linear time invariant systems. Topics include signal and system classification, vector space representations, convolution, impulse response, Fourier Transform, DTFT, DFT, FFT, windowing, and time frequency tradeoff.
- Power Systems Analysis - EGR 330
- An introductory course on single-phase and poly-phase power systems. Topics include single-phase and poly-phase circuits, balanced and unbalanced systems, DC and AC power transmission and distribution systems, fault analysis, and contemporary safety, and social and environmental issues.
- Applied Electromagnetics - EGR 343
- Electromagnetic field equations and waves, signal spectra, transmission lines. Electromagnetic compatibility (EMC) issues, signal integrity, crosstalk, nonideal frequency dependent behavior of components, EMC requirements for electronic systems. Computer simulations, laboratory.
Fall 2021
- Engineering Co-op 2 - EGR 390
- The second full-time, four-month cooperative engineering work experience usually in a local industrial/manufacturing firm. Reading, writing assignments required. At least one evening meeting required. Offered each semester.
Winter 2022
- Senior Engineering Project I (Capstone)- EGR 485
- An independent investigation of theoretical or experimental design problems in engineering. The nature and scope of the project are determined by the student in consultation with the instructor and depend upon the facilities available. Normally this project is carried out during the entire senior year, with one-hour of credit during the first semester and two hours of credit during the second semester. A written technical report is required. All seniors meet together each week to discuss their projects with each other and their supervisor.
Spring/Summer 2022
- Signals and Systems Analysis - EGR 323
- A course in the engineering applications of transform methods. The processing of analog and digital signals is discussed, as well as the analysis and design of linear time invariant systems. Topics include signal and system classification, vector space representations, convolution, impulse response, Fourier Transform, DTFT, DFT, FFT, windowing, and time frequency tradeoff.
- Power Systems Analysis - EGR 330
- An introductory course on single-phase and poly-phase power systems. Topics include single-phase and poly-phase circuits, balanced and unbalanced systems, DC and AC power transmission and distribution systems, fault analysis, and contemporary safety, and social and environmental issues.
- Automatic Control - EGR 455
- An introduction to automatic control of physical systems. Topics include mathematical modeling of physical systems, analysis of control system characteristics, and compensator design and implementation.
Fall 2022
- Engineering Co-op 3 - EGR 490
- The third full-time, four-month cooperative engineering work experience usually in a local industrial/manufacturing firm. Reading, writing assignments required. At least one evening meeting required.
- Embedded System Design - EGR 326
- A course in the design and implementation of embedded electronic systems. Topics include digital logic building blocks, programmable logic, microcontrollers, analog interface and support components, timing margin analysis, serial interfacing, signal integrity, heat sinks, and thermal resistance. A significant term project is required.
Winter 2023
- Embedded Systems Interface - EGR 436
- Study of the interface between microcontrollers and sensors and actuators that enable programmed control of monitoring and interaction with the environment. Use of wired and wireless communications to link users to modern electronic systems either directly or through the Internet.
- Applied Electromagnetics - EGR 343
- Electromagnetic field equations and waves, signal spectra, transmission lines. Electromagnetic compatibility (EMC) issues, signal integrity, crosstalk, nonideal frequency dependent behavior of components, EMC requirements for electronic systems. Computer simulations, laboratory.
- Senior Engineering Project I (Capstone)- EGR 485
- An independent investigation of theoretical or experimental design problems in engineering. The nature and scope of the project are determined by the student in consultation with the instructor and depend upon the facilities available. Normally this project is carried out during the entire senior year, with one-hour of credit during the first semester and two hours of credit during the second semester. A written technical report is required. All seniors meet together each week to discuss their projects with each other and their supervisor.
Spring/Summer 2023
- Fundamentals of Nanotechnology - EGR 457
- The course introduces students to the field of nanotechnology. Topics include sizes and scaling laws, characteristics of nanomaterials, growth, fabrication, and measurement techniques for nanostructures, applications in electronics, photonics, mechanics, chemistry, and medicine. In addition, the societal impact and ethical dimensions of nanotechnology are covered. Lecture and in-class lab activities.
- The course introduces students to the field of nanotechnology. Topics include sizes and scaling laws, characteristics of nanomaterials, growth, fabrication, and measurement techniques for nanostructures, applications in electronics, photonics, mechanics, chemistry, and medicine. In addition, the societal impact and ethical dimensions of nanotechnology are covered. Lecture and in-class lab activities.
- Design of Microcontroller Applications - EGR 424
- The architecture and capabilities of single chip microcontrollers and the design of microcontroller applications. A/D and D/A conversion, I/O, timing, programming, expansion methods, and development systems. Design projects will be an integral part of both lecture and laboratory.
- The architecture and capabilities of single chip microcontrollers and the design of microcontroller applications. A/D and D/A conversion, I/O, timing, programming, expansion methods, and development systems. Design projects will be an integral part of both lecture and laboratory.
- Senior Engineering Project II (Capstone)- EGR 486
- Continuation of student’s work in Senior Engineering Project I. Both an oral report and a final written technical report are required.
- Continuation of student’s work in Senior Engineering Project I. Both an oral report and a final written technical report are required.
For details about the B.S.E, Electrical Engineering at Grand Valley State University click here.