Electrical Principles 1 - NFE2158

Assessment 1: Other

Formative assessment and feedback will be provided through the weekly scheduled tutorial sessions .The weekly tutorial sessions involve completing question sets which feed into the week’s learning. Oral feedback is provided at the time.

Other

Assessment 3: In-Class Test

Whole syllabus, unseen, closed book, in person.

In-Class Test

Assessment 2: Project Work

EnABLE Project 1) Group technical report with minutes in an appendix (10%): 500 words/ student.2) Group presentation (10%): 2 notional hours/student.3) Individual learning log (6%): 3 notional hours/student.Groups of 8-10 students.

Project Work

Assessment 1: Written Assignment

Taught material will contribute an element every week to the SAIL programme (Score As I Learn) submitted via the VLE platform. 11 x 15 minutes weekly assignments. Each assignment will be worth 3%. Taking the best 8 out of 11 scores.

Written Assignment

<p>The module will introduce you to electromagnetic field theory and help you apply it to various circuit elements and arrangements, and the understanding of the operating principles of transformers and basic electric machines. You will be introduced to a range of d.c. circuit theorems and apply these theorems to the solution of circuits. The complex operator will be explained and used to study reactance, impedance and phase shifts via the solution of a.c. circuits. Finally, you will investigate the step response of simple RC and RL circuits.</p>

Requirements apply to students taking an IET accredited course. Please refer to the Programme Specification Document for details.

School of Computing and Engineering

<p>https://library.hud.ac.uk/readinglists/NFE2158</p>

Electrical Engineering

NFE2158 - Electrical Principles 1

Electrical Principles 1

Conduct analysis of simple electrostatic and electromagnetic fields using fundamental formulae.

Recognise the features of the step response of RL/C circuits.

Conduct analysis of complex impedances using the j operator.

Solve d.c. circuits problems using appropriate network theorems.

Demonstrate a fundamental understanding of frequency dependency in series and parallel RLC circuits.

Work as an effective team member to generate and present a solution to an engineering challenge.

Apply the principles of electromagnetic induction.