You will learn how to clearly express mathematical ideas in English, how to use a scientific calculator and how to analyse complex problems. In this first year course a variety of topics are covered including: Algebra, Trigonometry, Calculus, and Linear Algebra. This course will provide a mathematical foundation for your future engineering study. This course is suitable for students who wish to study Further Mathematics in addition to the core Mathematics programme detailed in the NCUK Mathematics modules.
The topics in the Mathematics modules will be assumed as background knowledge. However, as students will be studying the mathematics modules together, the Further Mathematics module topics have often been planned to follow on immediately from a topic taught in the Mathematics modules. This further mathematics module contains some mechanics topics in addition to more advanced pure mathematics topics. The purpose of the Physics course is not only to increase your knowledge of physics, but also to prepare you for study in a Western university.
You will have to attend lectures, small tutorials and practical Physics labs, where you will be expected to perform simple experiments. You will be given the skills, knowledge and understanding of fundamental areas of Physics. As well as attending lectures, tutorials and labs, you will gain the confidence required to write both laboratory and investigation style reports.
An understanding of English is key for making progress in all the subjects that you will study at SBC and abroad. The Year 1 English course is designed to give you the necessary skills in all 4 language areas reading, writing, listening and speaking , be it in expressing ideas in spoken or written form, taking part in academic discussions, taking effective lecture notes or giving oral presentations.
KC Crafts Industrial Controls
You should aim to be practicing English as much as possible, not just in the classroom. For example, at SBC you should always be speaking English on campus. By practicing a little every day your oral English ability will improve and your confidence will grow at the same time. You could read English magazines or you can listen to radio stations in English over the Internet. Try to make a habit or routine of improving your English ability. This module is to introduce an engineering design and in particular methods of engineering communication through the medium of engineering drawings.
This includes the drawing method s and the selection of appropriate materials and manufacturing data. The module integrates the basic elements of engineering communication through the range of CAD and Solidworks design drawings. The selection of appropriate engineering components and materials is part of this process so that the student may, at the end of the module, produce design drawings of a simple engineered artefact. The design of a basic engineering artefact allows the students to consolidate their understanding of the role of assembly and the role of detail manufacturing drawings.
This module is to introduce the fundamental principles of semiconductor materials and semiconductor devices. This will include the methods of operation of semiconductor devices, the key physical parameters and applications for diodes and transistors, the basic characteristics of insulators, dielectrics and magnetic materials. You will expand your knowledge of electrics and electronics and you will use these topics in your later projects and researches. This module will provide student with a fundamental understanding of statics and develop their ability to analyse stationary objects subjected to various forces and moments.
Furthermore there is imparted a fundamental understanding application of basic stress analysis.
You will learn different types of forces, vector analysis, moments, deformable solids and the analysis of the pin jointed frameworks. These topics will provide you necessary knowledge and ability to analyse basic static engineering systems and understand the scientific relationships between the various aspects of engineering systems. Maths 1 is a Calculus course designed to give you the skills to apply mathematics to solving engineering problems in your other courses.
It covers differentiation and integration and there application to Engineering problems with the following goals:. This module will provide understanding of the basic properties of fluids and their mechanics. This would enable the students in understanding the application of basic principles of fluid mechanics in engineering applications through problem solving. Students will learn about flow visualisations commonly used in the studies of fluid mechanics. The assignments in this course concentrate on developing your practical skills.
Furthermore there is imparted a fundamental understanding application of basic energy and power. Students will be able to recognise simple engineering systems to which fundamental mechanical science analytical methods may be applied. Upon completion of this module you will possess the knowledge and ability to analyse basic dynamic engineering systems and understand the scientific relationships between the various aspects of engineering systems.
Maths 2 continues where Maths 1 left off. The course covers linear algebra and differential equations and the application to engineering problems with the following goals:. This module is to provide an elementary introduction to thermodynamics.
This course introduces the properties of different working fluids vapours and gases and also provides the necessary analytical skills to address practical and theoretical issues arising in the analysis of thermodynamic machinery. Students will learn to read instrumentation, use look-up charts for thermodynamic properties and to estimate errors. You will be able to apply fundamental thermodynamic principles to areas outside of engineering and have an appreciation of the influence of thermodynamic machines on the environment. Students will develop an awareness of the limitations of many of the proposed solutions to circumvent energy supply problems.
This module is to develop skills, knowledge, understanding and enthusiasm in materials science and manufacturing.
Year 2 Pathways:
It will also develop the necessary English language materials science and manufacturing vocabulary and terminology so that students can learn effectively in an English language university. Students will learn about basic knowledge in materials such Inter-atomic bonding, structures of metals and ceramics, materials classification and mechanical properties of different materials and the selection of the proper material to use.
Also, you will learn materials processing, casting processes, material removal and the moulding processes. These are essential topics to develop an overview of important materials science concepts to act as a foundation in further study. Furthermore there is imparted a fundamental understanding of material properties and the application of stress analysis. This module will provide a continuation of scientific principles related to stresses, strains, and deflections in structures whilst considering the behaviour of materials.
Upon completion of this module students will possess the knowledge and ability to analyse structural engineering systems and understand the scientific relationships between the various aspects of engineering systems.
This course is designed to build upon the mathematical skills you have learnt in previous years at SBC. It will help further build your foundation in advanced engineering mathematics for application to the solution of engineering problems. You will be assessed in the course via examination at the end of the semester. As part of the course you will use a number of different mathematical methods to solve engineering problems. These include using: eigenvectors and eigenvalues, Laplace transforms, Fourier series, and differential calculus. The course also has a large emphasis on using symbolic mathematical software to assist in finding solutions to the various problems presented to you.
Mechatronics is an important part of modern industry. Studying on this course gives you the opportunity to develop an understanding of how sensors and actuators may be used in modern engineering systems. As part of the course you will learn how select appropriate sensors and actuators for a particular system, and show an understanding of their performance characteristics. The module incorporates elements of flipped delivery in order to encourage engagement.
The source of primary knowledge will be via material made available through the VLE, while understanding will be developed through tutorials and significant practical work. This course will help you develop an understanding of the components and principles of control systems. The basic design and analysis of control systems is covered and the opportunity for you to practice control systems applicable to industrial situations.
By taking part on this course you will gather an understanding of the basic concepts of dynamic system response and closed loop control; create models for a simple dynamic plant using appropriate software; analyse system stability; and simulate and assess system performance. The course is 1 year long, and is delivered by a mix of lectures, tutorials, and practicals.
The engineer is responsible for designing machinery so that it is safe, does not fail when being used and performs as required. In the mechanical part of this module you will study the methods used to anlayse how solid components behave when being used. In the thermal part of the module you will study the flow of fluids and heat transfer.
These are topics that are very important to the operation of many machines. An important part of manufacture is the control and understanding the materials that are used to make the final product. In an airplane for example there are over 3 million components each one may be made from a different material, and using a different manufacturing process. As an engineer you will be expected to specify the material from which the component is made, and also the processes that are used to make it. The course is designed to provide the underpinning skills in interpretation, reading, production of engineering drawings, and the use of finite element analysis FEA to verify and optimise your designs.
There is a strong emphasis on relating the course content to the production and manufacture of components and assembly of mechanical items. As part of the course, you will be learn how to read and interpret engineering parts and assembly drawings; create sketches and engineering drawings of engineering components; produce models of components using Solidworks CAD software; convert your 3D CAD drawings into 2D drawings; and test your design using FEA.
Here you will develop the skills required to practice as a professional engineer.
The course provides a broad range of experiences with an emphasis upon the systematic thinking, planning and execution required of engineers in a modern professional environment. As part of your studies you will be required to design, build and test an electronic product to a given specification. The product will incorporate elements covered elsewhere on the course, including analogue electronics and a programmable device such as a microcontroller or FPGA.
There is a large emphasis on practical work with much of the work you do, taking place in the laboratory. This course will provide you with an introduction to the scope of engineering projects and an understanding of the principles and techniques of the management of projects.
The course will teach you how to discuss project characteristics and the pitfalls in project management; how to plan, organize, coordinate and monitor projects; how to discuss the impact of time, cost of quality; and how to discuss the issues associated with computerised project management.
The electronics industry is very diverse and has evolved into several specialisms. The key areas of specialism which can be seen as careers in their own right include the assembly and wiring of electronic products; the designing of prototype circuits to specifications; the installation and commissioning of equipment including the provision of customer support; service and maintenance which include a service both in situ and remotely; and monitoring and testing to specifications sub-assemblies or systems and approving fit-for-purpose and simulating outcomes on computers.
The electronics specialist will work with a wide range of tools, specialist hi-tech equipment and materials. Increasingly, computers and specialist software for communications technology is embedded into the work. In addition, tasks will also require the use of specialist hand tools for the assembly and maintenance of circuits and surface mounted technology.
The skill of Industrial Control covers elements from electrical installation and automation installation. However, the requirements are now leaning more and more towards automation installation.
There are a wide range of technical skills required from the practitioner, including installation of conduits, cables, instruments, devices and control centres. The practitioner will also need to design circuits and program Programmable Logic Controllers, parameterize bus systems and configure Human Machine Interfaces. A key skill of the practitioner is troubleshooting, identifying problems during installation or remedying problems with an established plant. The practitioner will work in a large range of industrial settings; he or she may have specialist knowledge about one particular industry or may work more generally.
Also, the practitioner may be employed within one plant, installing and maintaining production equipment, or may work for a sub-contractor who will span a number of industrial settings. They will also need to provide expert advice and guidance on both technical production issues and innovative and cost effective solutions to production problems and requirements.
Computer aided design is the use of computer systems to assist in the creation, modification, analysis or optimization of an engineering design. CAD software is used to increase the productivity of the designer, improve the quality of design, improve communication through documentation and create a database for manufacturing. CAD output is often in the form of electronic files for print, manufacturing or other manufacturing processes. The technical and engineering drawings and images must convey information such as materials, processes, dimensions and tolerances according to application-specific conventions.
CAD may be used to design curves and figures in two-dimensional 2D space or curves, surfaces and solids in three-dimensional 3D space. CAD is also used to produce computer animation for the special effects used in, for example, advertising and technical manuals. CAD is an important industrial art and is the way projects come true. It is extensively used in many applications, including automotive, ship building and aerospace industries, and in industrial design.
The CAD process and outputs are essential to successful solutions for engineering and manufacturing problems. CAD software helps us explore ideas, visualize concepts through photorealistic renderings and movies and simulates how the design project will perform in the real world. Mechatronics technicians build automated systems for industry. Mechatronics involves mechanics, electronics, and pneumatics and computer technology.
The computer technology element covers information technology applications, programmable machine control systems, and technology which enable communication between machines, equipment and people. Mechatronics combines skills in mechanics, pneumatics, electronically controlled systems, programming, and robotics and systems development. Mechatronics technicians design, build, maintain and repair automated equipment, and also program equipment control systems. Outstanding mechatronics technicians are able to meet a variety of needs within industry.
They carry out mechanical maintenance and equipment building. They also deal with equipment for information gathering, components sensors and regulating units. Mechatronics technicians install, set-up, repair and adjust machine components and manage equipment control systems, including their programming. Mobile Robotics is a fast evolving, solutions orientated, industry within which the robotics engineer is a significant and growing work role.
Mobile robotics is an important part of the industry, with applications in diverse industries, including manufacturing, agriculture, aerospace, mining, and medicine.