The major concepts covered are:
- The abstraction from forces to fields using the examples of the electric and magnetic fields, with some applications
- The connection between conservative forces and potential energy
- How charges move through electric circuits
- The close connection between electricity and magnetism, leading to the discovery of electromagnetic waves.
- the integral form of Maxwell's Equations
Aims and Objectives
Knowledge and Understanding
Having successfully completed this module, you will be able to demonstrate knowledge and understanding of:
- the use of the Lorentz force law for the magnetic force
- the relationship between electrostatic field and electrostatic potential
- the basic laws that underlie the properties of electric circuit elements
- the use of Faraday's law in induction problems
- the use of Coulomb's law and Gauss' law for the electrostatic force
- the use of Ampere's law to calculate magnetic fields
- Coulomb's law,
- Superposition principle
- Electric field and electrostatic potential,
- Field patterns and equipotentials,
- Gauss' law,
- Capacitance, conductors and insulators,
- Analogy to gravity
- Vector product
- Lorentz force
- Ampere's Law
- Electric motors
- Magnetic field patterns
- Magnetic induction (Faraday's law)
- Mutual and self inductance
- Ohm's law and resistance.
Learning and Teaching
Teaching and learning methods
The course consists of 24 lectures presenting the basic material using chalk and talk plus powerpoint slides for historical background. There are also12 problem classes allowing hands on problem solving with help on hand. Assessed problems are through Mastering Physics, an online system that provides hints as you progress. The course is also supported by the first year small group tutorial sessions. A mid-term test encourages enagement early in the course.
|Completion of assessment task||18|
|Preparation for scheduled sessions||18|
|Wider reading or practice||50|
|Total study time||150|
Resources & Reading list
Paul A. Tipler and Gene Mosca (2004). Physics for Scientists and Engineers (extended). Freeman.
D Halliday, R Resnick and J Walker (2001). Fundamentals of Physics (Extended). John Wiley.
Randall D. Knight (2004). Physics for Scientists and Engineers: a strategic approach, (extended ed with Mastering Physics). Pearson.
Young and Freedman (2004). University Physics. Pearsons.
Wolfson (2007). Essential University Physics. Pearsons.
Weekly course work will be set and assessed in the normal way, but only the best ‘n-2’ attempts will contribute to the final coursework mark. Here n = the number of course work items issued during that Semester. As an example, if you are set 10 sets of course work across a Semester, the best 8 of those will be counted.
In an instance where a student may miss submitting one or two sets of course work, those sets will not be counted. Students will however, still be required to submit Self Certification forms on time for all excused absences, as you may ultimately end up missing 3+ sets of course work through illness, for example. The submitted Self Certification forms may be considered as evidence for potential Special Considerations requests.
In the event that a third (or higher) set of course work is missed, students will be required to go through the Special Considerations procedures in order to request mitigation for that set. Please note that documentary evidence will normally be required before these can be considered.
Referral Method: By examination, the final mark will be calculated both with and without the coursework assessment mark carried forward, and the higher result taken.
This is how we’ll formally assess what you have learned in this module.
This is how we’ll assess you if you don’t meet the criteria to pass this module.
|Coursework marks carried forward||30%|
An internal repeat is where you take all of your modules again, including any you passed. An external repeat is where you only re-take the modules you failed.
|Coursework marks carried forward||30%|
Repeat type: Internal & External