Module - EEEE2002 - Signal Processing and Control Engineering

Programme	EEE - Department of Electrical and Electronic Engineering modules (Year 2)
Year	Select a new weight: https://curriculum.nottingham.ac.uk/2026/view/tree/1703/year_lookup/XXIDXX Year 2026/2027
Accrediting Bodies	https://curriculum.nottingham.ac.uk/2026/view/tree/1703/year_lookup/XXIDXX Accrediting Body Complete Outcome Set (UK-SPEC, EAC, etc.) Institution of Technology (IET)
Module Code	EEEE2002
Lecturer	PW Wheeler/ MS Woolfson

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No Group
	LO1 - demonstrate an appreciation of both theoretical and practical issues when designing filters and analysing linear systems
	LO2 - interpret frequency spectra, obtained by both analogue and digital means
	LO3 - demonstrate the use of appropriate analysis and modelling techniques for linear, time invariant systems
	LO4 - analyse passive and active analogue filters and also choose appropriate component values for a particular filter specification
	LO5 - choose signal parameters when implementing a discrete Fourier transform (DFT) (DFT)
	LO6 - Use Laplace transforms in solving systems and other engineering problems
	LO7 - Determine and model the stability of feedback systems.
	LO8 - Carry out a frequency analysis of system behaviour.
	LO9 - Apply pole-zero method to the design of digital filters.
	LO10 - Measure the frequency responses of filters.
	LO11 - Demonstrate the use of suitable software for the practical analysis of linear systems.
	LO12 - Demonstrate a practical knowledge of the use of Ladder logic programming for PLCs.

Programme

EEE - Department of Electrical and Electronic Engineering modules

Modules

	EEEE2003 - Telecommunications
	EEEE2004 - Power Supply Electronics
	EEEE2005 - Electronic Engineering Design Project
	EEEE2006 - Electronic Engineering
	EEEE2007 - Software Engineering Design
	EEEE2008 - Professional Skills for Electrical and Electronic Engineers
	EEEE2009 - Electrical Engineering Design Project
	EEEE2010 - Electrical Engineering Design Project - Renewables
	EEEE2011 - Electronic Construction Project
	EEEE3001 - Third Year Project
	EEEE3002 - Power Networks
	EEEE3003 - Electrical Machines
	EEEE3004 - Control Systems Design
	EEEE3005 - Electronic Design
	EEEE3006 - Solid State Devices
	EEEE3007 - Digital Communications
	EEEE3008 - Energy Conversion for Motor and Generator Drives
	EEEE3009 - VLSI Design
	EEEE3010 - Power Electronic Design
	EEEE3012 - Control 1
	EEEE3013 - Telecommunication Electronics
	EEEE3014 - Web Based Computing
	EEEE3015 - Digital Video Communication Systems
	EEEE3016 - Embedded Computing
	EEEE3017 - Microwave Communications
	EEEE3018 - IT Infrastructure
	EEEE3019 - Renewable Generation Technologies and Control
	EEEE3020 - FACTS and Distributed Generation
	EEEE3021 - Project in Energy Conversion
	EEEE3022 - Business Planning for Engineers
	EEEE3023 - Engineering Software: Design and Implementation
	EEEE3081 - Fields Waves and Antennas
	EEEE4040 - Power Systems for Aerospace, Marine and Automotive Applications
	EEEE4054 - Sustainable Energy Futures
	EEEEH54HYE - Technologies for the Hydrogen Transport Economy
	EEEEH61IAL - Introduction to Electrical Engineering
	EEEEH61ICM - Introduction to Communications Engineering
	EEEEH61ICP - Introduction to Computer Engineering
	EEEEH61IIC - Introduction to Electronic Engineering
	EEEEH61LSA - Laboratory and Presentation Skills
	EEEEH61LSM - Laboratory and Computer Skills
	EEEEH61RES - Introduction to Renewable and Sustainable Energy Sources
	EEEEH61RTS - Introduction to Real-Time Systems
	EEEEH61SCP - Introduction to Circuits and Fields

LO1 - demonstrate an appreciation of both theoretical and practical issues when designing filters and analysing linear systems

LO2 - interpret frequency spectra, obtained by both analogue and digital means

LO3 - demonstrate the use of appropriate analysis and modelling techniques for linear, time invariant systems

LO4 - analyse passive and active analogue filters and also choose appropriate component values for a particular filter specification

LO5 - choose signal parameters when implementing a discrete Fourier transform (DFT) (DFT)

LO6 - Use Laplace transforms in solving systems and other engineering problems

LO7 - Determine and model the stability of feedback systems.

LO8 - Carry out a frequency analysis of system behaviour.

LO9 - Apply pole-zero method to the design of digital filters.

LO10 - Measure the frequency responses of filters.

LO11 - Demonstrate the use of suitable software for the practical analysis of linear systems.

LO12 - Demonstrate a practical knowledge of the use of Ladder logic programming for PLCs.