31 courses with the subject EET, each shown exactly as we captured it from the college's catalog, with every element we hold. Where the wording looks broken, that is our reading of the catalog, not the college's text.
EET 104DC/AC Circuits3
An introductory course to the fundamentals and basic principles of DC and AC circuits. Topics covered include: The definition of current, voltage and passive circuit elements such as, resistors, capacitors, and inductors, through their I-V characteristic relationships. Ohm's Law Power, Kirchoff's Current and Voltage Laws, Voltage and Current Divider Rules, and their basic applications in the analysis of series, parallel and series- parallel circuits. The fundamental Network Theorems, Superposition, Thevenin's and Norton's equivalent circuits and Maximum Power Transfer. AS signal waveforms and their Average and RMS value, alternating current, voltage and power resistors, capacitors and inductors in AC circuits, ideal transformers and the concept of resonance. Introduction to the operation and basic applications of first order passive, low and high pass, RC filters. Corequisite(s): MTH 129, EET 104L Credits: (3,2)
An introduction to computer programming with applications. Examples and assignments are drawn from problems in Electrical and Computer Engineering Technology. The course uses Windows based PCs, the "C/C++" programming language (visual C++), and IEEE-488 Standard interfacing to programmable instrumentation. Corequisite: EET 111 Course Offered: Fall, Spring Credits: Credits:2 (1,2)
A basic course in direct current circuit theory. Concepts of charge, current and voltage; Ohm's Law, Kirchoff's Laws; analysis of series, parallel, and combination circuits; mesh and nodal analysis; Superposition, Thevenin's and Norton's theorems; maximum power transfer theorem; electric fields and capacitance; magnetic fields and inductance; analysis of R-C and R-L switching networks. The laboratory is coordinated with, and supports, the theory course. Corequisite(s): MTH 129, EET 111L Course Offered: Fall, Spring Credits: Credits:3 (3,2,1)
This is the second of a two-course sequence designed to provide the background needed to analyze electric networks. Topics covered in this course include sinusoidal waveforms and non-sinusoidal waveforms; the phasor representation of sinusoidal signals; the use of complex numbers to analyze R-C, R-L, and R-L-C networks under sinusoidal steady-state conditions; series and parallel resonance; average power calculations; simple passive filters, frequency response (dB magnitude and phase) and its relations to the step response of simple R-C, R-L and R-L-C networks; transformer principles and types of transformers; three phase balance systems. Prerequisite(s): EET 111 and MTH 129 Course Offered: Spring, Summer Credits: Credits:3 (3,2,1)
Fundamentals of semiconductor diodes and bipolar junction transistors are discussed in this course. Topics covered include: Q point operating conditions of semiconductor diodes in various circuit configurations, full and half-wave rectification, capacitor input filters, Zener diodes and basic linear DC power supply configurations. Q point operating conditions of BJT transistors in various bias configurations are analyzed as well as small signal single-stage and multi-stage amplifiers at mid-band frequencies in terms of voltage gain, current gain, power gain, input impedance, output impedance, AC load lines and signal node voltages. Corequisite(s): EET 113 Course Offered: Spring, Summer -2027 College Catalog • Page 213
An introductory lecture/demonstration course in the terminology, concepts, and components of electric circuits. The aim is to give students from other disciplines (e.g. Office Management, Nursing, etc.) sufficient knowledge and understanding to effectively communicate with technical specialists in this field. Prerequisite(s): Sequential (Integrated) Math 1 Credits: (4,0)
Principles and characteristics of semiconductor devices and linear integrated circuits are discussed. Devices studied include: Semiconductor diodes, Zener diodes, bipolar junction transistors, photodiodes and transistors, field- effect and metal oxide semiconductor transistors, thyristors , and operational amplifiers in various DC power supply, small signal and power amplifier configurations as well as wave shaping circuits. Simulation software will be used throughout the course in both theory and laboratory exercises. Prerequisite(s): EET 104 Credits: (3,2)
Analysis and design of combinational and sequential logic circuits. SSI and MSI circuits; flip-flops, counters, and shift registers; integrated circui families; multiplexers; semiconductor memory devices; D/A and A/D converters. The associated laboratory reinforces the topics covered in the theory through relevant experiments performed by the student. A formal report is part of the laboratory requirement. Prerequisite(s): EET 105 Corequisite(s): EET 223L, 118 Course Offered: Fall Credits: (3,2)
Signal parameters of Class A and Class B power amplifiers as well as operational amplifiers are studied in this course. Topics covered include, efficiency, dB, dBm, heat sinks, JFET and MOSFET transistors, operational amplifiers, and the frequency response of amplifier circuits. In addition, operational amplifier characteristics and models are used in the analysis of open loop and closed loop amplifiers. Adders, subtractors, active filters, comparators, differentiators, integrators, and the Schmitt trigger are also studied. Feedback concepts and the effect of feedback on gain, impedance and frequency response of amplifiers are studied as well as circuit stability, gain, and phase margins. Simulation software is used in the analysis of operating conditions and frequency response of amplifiers. Formal Report writing is part of the Laboratory requirement. Prerequisite(s): EET 118 Corequisite(s): EET 110, MTH 130 Course Offered: Fall Credits: Credits:3 (3,3)
Fundamental microprocessor and microcontroller concepts; architecture, memory, memory interfacing, programming, signals, timing, delay calculations, I/O interfacing and interrupts. The students will be required to interface input and output devices to the embedded controller and quantify associated hardware/software trade-offs. Laboratory work requires programming in assembly language and in C/C++. Prerequisite(s): EET 223 Course Offered: Spring Credits: Credits:3 (2,3)
This course will deliver concepts related to the operation, maintenance and challenges of wind turbine energy production under offshore conditions. This course explores the main electrical components of Wind Energy Conversion Systems (WECS) including the generator and power converter interfaces for fixed and variable speed operations, as well as critical aerodynamical power controls for performance and efficiency such as stall Page 214 • Course Index • 2026-20 and pitch angle controls and grid codes. In addition, this course explores mechanical components related to hydraulic brake systems used in on- land and offshore wind turbine systems and critical maintenance practices of the overall mechanical operations of the wind turbine. Students will also be trained to troubleshoot key problems related to the assembly and installation of offshore wind turbine systems. A laboratory component will be offered along with this course to provide hands-on technical training, aligned with the topics covered in class. Prerequisite(s): EET 111 or MET 230 Credits: (2,2)
A calculus based network analysis course that introduces the use of Laplace transforms in the analysis of both active and passive lumped parameter time-invariant linear networks. Topics covered include Mesh and Nodal analysis using matrix formulations; the network theorems; impedance and the modeling of initial conditions; first and second order systems; transfer functions; poles and zeros; impulse and step response; forced and natural response as well as system stability and time domain response. The sinusoidal steady state (AC) phasor transformation and its relation to the Laplace transform and the frequency response of networks are also included. The laboratory utilizes simulation of electric networks. Corequisite(s): MTH 236, EET 311L Course Offered: Fall, Spring Credits: Credits:4 (3,2) t
Introduction to Digital Design using FPGA (Field Programmable Gate Arrays) and VHDL (Hardware Description Languages). The FPGA circuits are designed using Schematic Capture as well as VHDL. The target chips are Xilinx FPGAs and Xilinx tools are used to simulate and to "place and route" the design. Designs are then tested using FPGA based platforms. Prerequisite(s): EET 223 Course Offered: Fall, Spring Credits: Credits:4 (3,3)
Selected topics involving Difference and Instrumentation amplifiers with Transducer Bridge applications. Linear and Switching mode regulated power supply operation with analysis and design techniques using existing industrial ICs Thyristor characteristics with SCR, DIAC and TRIAC applications in power control circuits. Theory concepts are illustrated in the laboratory. Formal report writing is part of the laboratory requirement. Prerequisite(s): EET 224 Course Offered: Fall Credits: Credits:4 (3,2)
The course will provide the students with an introduction to continuous- time and discrete-time signals and systems. Topics to be covered include: Linear Time-Invariant (LTI) systems, Laplace transforms, transfer function, impulse and step response, transient and steady state responses, frequency response, Bode plots, passive and active filters, modulation, oscillators. Fourier series and Fourier transforms, power spectral density and Parseval’s theorem. Random signals and noise. Signal-to-noise ratio. Discrete-time signals. Sampling, filtering, convolution, Discrete Fourier Transform (DFT), Fast Fourier Transform (FFT) algorithms, and the z-transform. The use of MATLAB is integrated throughout the course in laboratory exercises, demonstrations and student projects. Prerequisite(s): EET 311 Course Offered: Spring Credits: Credits:4 (3,3)
This course provides the applications and practical knowledge in RF technology. The course also integrates the essential measurement equipment and techniques used in RF technology such as RF signal generator, spectrum analyzer, and vector network analyzer with various hands-on lab exercises to help students be competent with the equipment. The topics covered in the course include RF power calculations, complex impedances, impedance matching, network analysis using s-parameters and Smith chart, signal modulation and measurement techniques, and link budgets. This course is an integrated lecture/lab class. Prerequisite(s): EET 225 with a grade of C or higher or department approval Credits: (2,2)
Introduction to transmission lines. Transient response for conditions of matched and mismatched impedance. Definition of reflection and 27 College Catalog
This course covers an in-depth study of microprocessor systems by exploring the internal functions of a computer. Hardware and software capabilities are studied in order to build a foundation for the design and interfacing of microprocessor based systems using real world examples. Assembly as well as a high-level language such as "C++" is used in various programming projects and in interfacing devices. Prerequisite(s): EET 110 and EET 251 Course Offered: Fall Credits: (3,2)
An introduction to digital communications systems. Topics covered include; the sampling theorem; PCM systems; synchronization techniques; noise analysis and reduction; FSK; PSK; bit error rates; hamming codes; and an introduction to fiber optic systems. Prerequisite(s): EET 225 Course Offered: Spring Credits: (3,0)
This course builds upon the knowledge and skills learned in EET 330, RF Technology I. The course provides in-depth and practical knowledge of more complex RF devices and components used in RF technology that are not covered in EET 330. The course has hands-on laboratory exercises that feature advanced RF measurement techniques that require multiple measurement equipment and comprehensive analysis of measured data. The topics covered in the course include architectures and performances of transmitters, receivers, and transceivers, RF filters, oscillators, RF amplifiers, low noise amplifiers, noise analysis, antennas, coax cables, signal combiners/dividers, and microwave components. This course is an integrated lecture/lab class. Prerequisite(s): EET 330 with a grade of C or higher Credits: (2,2)
This course is a continuation of EET 440, Networking and Data Communications. The principles of Architecture Layering, Multiplexing and Encapsulation are discussed. TCP/IP, IPX, PPP, ISDN and Frame Relay Protocols are covered. Network equipment such as repeaters, bridges router hubs and switches are studied in detail. Equipment examples are drawn from key vendors such as CISCO, 3COM and Cabletron. The laboratory portion of the course will concentrate on experiments and projects designed using CISCO Systems networking equipment, such as 2500 and 2600 series routers, 1900 and 2900 catalysts switches. The students will also learn how to design networks using VLANS on the above- mentioned equipment. Prerequisite(s): EET 440 Course Offered: Fall, Spring Credits: Credits:4 (3,3)
General design considerations and concepts with particular emphasis in "worst case" design and "optimum" design. Case studies will be provided through examples of different areas of Electrical Engineering Technology. Product development procedures and processes will be presented along with testing and costing considerations. By the end of this course students must select their senior design project for EET 452W and must submit an appropriate proposal. Prerequisite(s): Completion of junior level EET courses or Department permission. Course Offered: Fall, Spring Credits: (2,0)
Technical Electives*** 6 Total Credits: 126-127 *FYE 101 First Year Experience is required for all first time full time students **EET 450 and EET 452W must be completed in residence at Farmingdale State College. ***Technical Electives must be selected from EET 414, EET 426, EET 440 or other courses in areas of student interest with Departmental approval. 26-2027 College Catalog
EET 490Selected Topics in Electrical Engineering Technology3
Courses that range from 490-499 are selected topics of current interest in Computer and/or Electrical Engineering Technology. Prerequisite(s): Contingent upon selected topic Course Offered: Fall Credits: (2,3)
EET 491Selected Topics in Electrical Engineering Technology3
Courses that range from 490-499 are selected topics of current interest in Computer and/or Electrical Engineering Technology. Prerequisite(s): Contingent upon selected topic Course Offered: Fall Credits: (2,3)
EET 492Selected Topics in Electrical Engineering Technology3
Courses that range from 490-499 are selected topics of current interest in Computer and/or Electrical Engineering Technology. Prerequisite(s): Contingent upon selected topic Course Offered: Spring Credits: (2,3)
EET 493Selected Topics in Electrical Engineering Technology3
Courses that range from 490-499 are selected topics of current interest in Computer and/or Electrical Engineering Technology. Prerequisite(s): Contingent upon selected topic Course Offered: Spring Credits: (3,0)
