School of Chemical and Physical Sciences

Faculty of Natural Sciences

For academic year: 2020/21 Last Updated: 08 August 2020

PHY-10023 - Electricity and Stellar Structure

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Electricity and Magnetism

This Level 4 module runs in the second semester. It has two components, Electricity and Stellar Structure.

The Electricity component explores the physical principles and mathematical description of Electricity and DC circuits, which find application in Physics and Electronics. This part of the module sets the stage for the treatment of more advanced topics in Electromagnetism at Level 6.

The Stellar Structure component introduces the fundamental physical principles that govern the structure and evolution of stars. Topics covered include basic evolution of solar-type stars, the equations of stellar structure, energy transport and the basics of star formation.

A Mathematics component is also included, in which fundamental techniques routinely used in Physics and Astrophysics are taught and practised.

There is also a laboratory component, which involves basic applications of standard astronomical techniques, computing and programming, and communication exercises.

The Electricity component explores the physical principles and mathematical description of Electricity and DC circuits, which find application in Physics and Electronics. This part of the module sets the stage for the treatment of more advanced topics in Electromagnetism at Level 6.

The Stellar Structure component introduces the fundamental physical principles that govern the structure and evolution of stars. Topics covered include basic evolution of solar-type stars, the equations of stellar structure, energy transport and the basics of star formation.

A Mathematics component is also included, in which fundamental techniques routinely used in Physics and Astrophysics are taught and practised.

There is also a laboratory component, which involves basic applications of standard astronomical techniques, computing and programming, and communication exercises.

To help students to understand the basic properties and applications of the electric field, magnetic field, stellar structure and the mathematics required to achieve this understanding. To develop the transferable, practical and computational skills that are required by the practising astrophysicist.

http://lists.lib.keele.ac.uk/modules/phy-10023/lists

Students will understand the theoretical and experimental background of electricity and stellar structure, and will appreciate their general physical significance and applications, will be achieved by assessments.

Students be able to carry out numerical calculations and to solve problems in connection with these topics, will be achieved by assessments.

Use of mathematics (including calculus) in solving problems, will be achieved by assessments.

Perform practical work and keep accurate accounts of it, including professionally maintained records of purpose, methodology, and results. Communicate the process and results of practical work in formal, written presentations. Enter, manipulate, and present data with the aid of computer tools. Develop algorithms and write simple computer program, at a level sufficient to assist in laboratory work at Levels 2 and 3, will be achieved by assessments.

Students be able to carry out numerical calculations and to solve problems in connection with these topics, will be achieved by assessments.

Use of mathematics (including calculus) in solving problems, will be achieved by assessments.

Perform practical work and keep accurate accounts of it, including professionally maintained records of purpose, methodology, and results. Communicate the process and results of practical work in formal, written presentations. Enter, manipulate, and present data with the aid of computer tools. Develop algorithms and write simple computer program, at a level sufficient to assist in laboratory work at Levels 2 and 3, will be achieved by assessments.

Lectures: 24 hours

Problem Classes: 8 hours

Laboratory Sessions: 12 hours

Computing Classes: 6 hours

Maths Support Classes: 5 hours

Maths Problem Classes: 4 hours

Maths Class Test/Unseen Examination: 1 hour

Completion of Laboratory Reports: 12 hours

Directed Reading/Independent Study: 58 hours

Problem Sheets: 18 hours

Examination: 2 hours

Problem Classes: 8 hours

Laboratory Sessions: 12 hours

Computing Classes: 6 hours

Maths Support Classes: 5 hours

Maths Problem Classes: 4 hours

Maths Class Test/Unseen Examination: 1 hour

Completion of Laboratory Reports: 12 hours

Directed Reading/Independent Study: 58 hours

Problem Sheets: 18 hours

Examination: 2 hours

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Two hour unseen written examination

Exam paper has three sections: Section A - 10 short questions with total marks 40/100; Section B - choice of 1 out of 2 long questions worth 30/100 marks; Section C - choice of 1 out of 2 long questions worth 30/100 marks.

One hour unseen Mathematics examination

Laboratory and Computing Sessions

Continuous assessment of a laboratory diary of the completed experiments during Laboratory Sessions (weight 30%). Assessment of a formal laboratory report (weight 60%). Assessment of a computer programming exercises (weight 10%).

Problem Sheets

Three assessed problem sheets.

Problem Classes

Tutor-moderated classes in which students complete assigned problems on Maths, Electricity and Stellar Structure, with assistance given as necessary. Assessment is based on weekly attendance and engagement.