Advanced Electrical Theory   Duration of the course 4 days intensive training, or 2 evenings per week for 4 weeks, or 4 Saturdays. Course fees: £325 Prerequisites for the course There are no prerequisites for this course but it is recommended that you have a thorough knowledge of electrical circuits and associated calculations. For example, you may have taken our Essential Electrical Theory course or similar. You might be a practising electrician but need to learn more about the theoretical side of the trade, perhaps to pass exams to get qualified. Course overview This course covers the advanced theory required to support the practical work of an electrician and builds on the knowledge gained on the Essential Electrical Theory course. You will learn about the earthing arrangements for various supply systems, the operation of protective devices, 3-phase star and delta systems and loads, AC circuit theory, power factor, diversity and electronic components and circuits.       Course Outcomes   At the end of the course, you will be able to…     Describe the distribution of electricity Describe typical earthing arrangements in electrical installations, including TN-S, TN-   C-S and TT systems Identify and describe earth fault loop paths Identify and describe the operation of overload and protective devices e.g. fuses, MCB,   RCD, and RCBO State the advantages and disadvantages of different types of overload and protective   devices Determine fuse ratings and fusing factors Identify and describe three phase supply systems Describe the characteristics of three phase star and delta connected systems and   loads State the advantages and disadvantages of balanced and unbalanced loads Describe the construction and operation of three phase motors and generators Identify and describe the circuits and components to control motors Perform calculations on AC circuits for inductance and capacitance Describe the operation of inductors and capacitors in an AC circuit Describe the applications of inductors and capacitors in an AC circuit e.g. simple   fluorescent fitting, motor circuit, noise suppression, etc. State the reasons for power factor correction Determine required cable size by applying correction factors Perform calculations for diversity Identify and describe applications of electronic devices e.g. resistors, diodes,   transistors, thermistors, LED’s, LDR’s and phototransistors, dimmer switches Describe the principle and state applications of half and full-wave rectification.       Method of Assessment   We will assess your progress on the course by regular coursework exercises. You will also take a short test at the end of the course to check your knowledge. Successful completion of coursework and the final test will lead to a college certificate and entry to subsequent courses.