Pearson
    Level 5
    QN: 610/1182/4
    Curriculum Active

    Pearson BTEC Level 5 Higher National Diploma in Electronic and Electrical Systems Engineering for England

    Official qualification regulated by Ofqual, awarded by Pearson. Classified as a Other Vocational Qualification. Total guided learning hours: 1260 hours.

    Qualification Level
    Level 5
    Awarding Body
    Pearson
    Syllabus Units
    21 Units
    Guided Hours
    1260 hrs
    Instant access to interactive lessons, quizzes, and spaced revision.

    Course Syllabus & Study Modules

    Complete breakdown of verified curriculum topics and learning objectives.

    1

    Analogue and Digital Communications

    Verified
    Key Learning Objectives:
    • Examine different performance metrics and components used in a communication system
    • Explore different modulation and demodulation techniques
    • Investigate the transmission of signals over wired and wireless media
    • Design a communication system.
    2

    Analogue and Digital Electronics

    Verified
    Key Learning Objectives:
    • Investigate logic functions
    • Produce tabular and Karnaugh map designs to implement logic systems
    • Examine the use of Class A and Class B amplifiers in modern systems
    • Investigate operational amplifier circuits and their application.
    3

    Analogue Electronic Systems

    Verified
    Key Learning Objectives:
    • Analyse single stage analogue amplifier circuits to predict and measure, by simulation, the gain, frequency response and input and output resistances.2.
    • Develop functional subsystems through an understanding of the characteristics of operational amplifiers.3.
    • Assess techniques for the conversion of signals between analogue and digital formats.4. Design electronic circuits using physical components.
    4

    Automation, Robotics and Programmable Logic Controllers (PLCs)

    Verified
    Key Learning Objectives:
    • Describe the design and operational characteristics of a PLC system.2. Design a PLC program by considering function requirements, PLC information, programming and communication techniques.3. Program industrial robots using commands to perform a given task with the knowledge of the key elements and their functions.4.
    • Investigate the design and safe operation of a robot within an industrial application.
    5

    Digital Devices and Systems

    Verified
    Key Learning Objectives:
    • Design combinational logic circuits for suitable applications
    • Design sequential logic circuits for suitable applications
    • Implement combinational and sequential logic circuits using a hardware description language (HDL) software package
    • Test combinational and sequential logic designs using a field-programmable gate array (FPGA) development board.
    6

    Digital Electronic Systems

    Verified
    Key Learning Objectives:
    • Evaluate combinational logic circuit designs for complex applications
    • Evaluate sequential logic circuits for complex applications
    • Implement complex combinational and sequential logic circuits using an HDL
    • Analyse the function of combinational and sequential logic designs using simulation, and testing on a FPGA development board.
    7

    Electrical Engineering and Sustainability

    Verified
    Key Learning Objectives:
    • Investigate sustainable energy source solutions used in power production that may be integrated into existing power systems
    • Explore the technical considerations when connecting sustainable energy sources to existing power systems
    • Analyse, by practical experimentation, sustainable power production technology and its interface with conventional power systems
    • Analyse, using appropriate simulation software, models of sustainable energy sources connected to conventional systems
    8

    Electrical Machines

    Verified
    Key Learning Objectives:
    • Investigate the different types and operation of electrical machines.2.
    • Explore the operation and the various starting methods of induction machines.3.
    • Explore the operation and the various starting methods of synchronous machines.4.
    • Analyse the operating characteristics, construction and applications of electromagnetic transducers and actuators.
    9

    Electrical Systems and Fault Finding

    Verified
    Key Learning Objectives:
    • Investigate the key constructional features and applications of electrical systems, including identification and resolution of potential faults.2.
    • Examine the types, applications, and common fault-finding methodologies of electrical motors and generators.3.
    • Analyse potential faults and fault diagnostics in the various types of lighting circuits available in the industry by assessing their practical application.4.
    • Discuss the operating characteristics of electrical safety components including evaluation of their effectiveness through fault-finding techniques.
    10

    Electronic Circuits and Devices

    Verified
    Key Learning Objectives:
    • Determine the operational characteristics of amplifier circuits.2.
    • Investigate the types and effects of feedback on an amplifier’s performance.3.
    • Examine the operation and application of oscillators.4.
    • Apply testing procedures to electronic devices and circuits.
    11

    Embedded Systems

    Verified
    Key Learning Objectives:
    • Examine embedded system technology.2. Design an embedded system using available interfaces to perform a range of functions.3.
    • Implement embedded system design by writing code in an appropriate programming language, to simulate, test and debug the system.4.
    • Evaluate applications of embedded systems in the wider environment.
    12

    Engineering Mathematics

    Verified
    Key Learning Objectives:
    • Apply a variety of mathematical methods to a range of engineering and manufacturing sector problems.2.
    • Investigate applications of statistical and probability techniques to interpret
    • organise, and present data.3.
    • Use analytical and computational methods for solving engineering and manufacturing sector problems by relating sinusoidal wave and vector functions to their respective applications.4.
    • Examine how differential and integral calculus can be used to solve engineering and manufacturing sector problems.
    13

    Engineering Mechanics and Materials

    Verified
    Key Learning Objectives:
    • Describe the fundamental structures of common engineering materials
    • Identify the most important properties of engineering materials
    • Assess the performance of engineering materials using key indicators, including materials constraints and established database resources
    • Calculate solutions to problems within static and dynamic mechanical systems, with consideration of constraints on performance.
    14

    Engineering Project

    Verified
    Key Learning Objectives:
    • Identify an engineering-based project in line with national and international engineering regulatory and ethical frameworks
    • Plan an engineering-based project using project management software, tools and techniques
    • Implement the project plan to include the production of a technical engineering report
    • Present the engineering-based project and reflection of the project outcomes
    15

    Engineering Science I

    Verified
    Key Learning Objectives:
    • Examine scientific data using both quantitative and qualitative methods.2.
    • Apply the fundamentals of mechanical engineering systems.3.
    • Explore the characteristics and properties of engineering materials.4.
    • Analyse applications of A.C./D.C. circuit theorems, electromagnetic principles, and properties.
    16

    Further Engineering Mathematics

    Verified
    Key Learning Objectives:
    • Use applications of number theory in practical engineering/manufacturing situations.2.
    • Solve systems of linear equations relevant to engineering//manufacturing sector applications using matrix methods.3. Approximate solutions of contextualised examples with graphical and numerical methods.4.
    • Review models of engineering/manufacturing systems using ordinary differential equations.
    17

    Mechatronics

    Verified
    Key Learning Objectives:
    • Explain the design and operational characteristics of a mechatronic system.2.
    • Produce a mechatronic system design specification for a given application.3.
    • Examine the operation and function of a mechatronics system using simulationand modelling software.4.
    • Demonstrate fault finding skills and fault analysis on a mechatronic system.
    18

    Professional Engineering Practice

    Verified
    Key Learning Objectives:
    • Determine the roles, responsibilities and competences of the professional engineer.2.
    • Describe the regulatory, legislative and ethical frameworks that govern the work of the professional engineer.3.
    • Review the roles of communication, team working and leadership in the development of professional engineers.4.
    • Discuss how professional engineers can develop holistic approaches to the sustainability of manufacturing processes.
    19

    Programmable Logic Controllers

    Verified
    Key Learning Objectives:
    • Describe the design, operation and selection of PLC systems.2.
    • Explore Functional Safety within PLC systems.3.
    • Develop a PLC program for an automated process system.4.
    • Review how PLCs exchange information and process signals with other devices.
    20

    Programming for Engineers

    Verified
    Key Learning Objectives:
    • Discuss key aspects of software evolution and development in the context of engineering applications
    • Design a programming solution for an engineering problem
    • Implement a programming solution for an engineering problem
    • Perform testing of the programming solution to meet defined requirements and to ensure high quality outputs
    21

    Signals and Systems

    Verified
    Key Learning Objectives:
    • Examine the behaviours and applications of continuous-time and discrete-time signals in engineering systems.2. Formulate Fourier transform and the Laplace transform to analyse continuous time signals and systems.3. Formulate discrete-time Fourier transform and the z-transform to analyse discrete-time signals and systems.4.
    • Analyse applications of signals and systems using MATLAB based on the accuracy levels of the transmitted information.

    Regulatory & Verification Details

    Qualification Number (QN)
    610/1182/4
    Regulated Status
    Available to learners
    Awarding Body
    Pearson
    Qualification Type
    Other Vocational Qualification
    Operational Start
    Sept 2024