Automotive Engineering – B.Eng/B.Eng (Hons)

Qualification: B.Eng (Bachelor of Engineering) Related Subjects: Automotive Engineering
Awarding Body: Oxford Brookes University (UK) Professional Accreditation: Institution of Mechanical Engineers (UK)
Duration: 4 years Campus: Bangkok (Thailand), Oxford (UK)

Course description

Automotive Engineering

BEng (Hons) / MEng
A-level: grades BBB (for BEng) or ABB (for MEng)
Accredited by the Institution of Mechanical Engineers (IMechE)

This course is run by the Department of Mechanical Engineering and Mathematical Sciences.

This course prepares students to embark on exciting and challenging careers with some of the world's most innovative automotive engineering companies.

You will learn engineering principles and analytical techniques, and gain hands-on experience, working with the latest industry-standard test facilities. You will also have the chance to join one of the UK’s top student racing teams – Brookes was the best British team at Formula Student 2012.

Why Choose This Course

     To succeed on this course, you should want to become a designer of cars. You will need an aptitude for practical engineering, perhaps with some experience of building, driving, maintaining or designing automotive-related products.
  • You will benefit from the strong links we have forged with the automotive industry. These companies support the course in many ways and are actively involved in shaping its content and style.
  • Our courses are accredited by the Institution of Mechanical Engineers (IMechE), leading graduates to Chartered Engineer status.
  • The course is offered with an Industrial Placement year. Our students have undertaken engineering roles at major automotive companies such as BMW, Cummins and Nissan.
  • We have active research interests in vehicle design and refinement, considering issues such as vehicle aerodynamics, powertrain, suspension dynamics, noise vibration and harshness, fuels, engine emissions and environmental impact.
  • We use a range of industry-standard software in teaching, giving our students the skills to contribute to innovation and growth in the industry.
  • The curriculum is informed by research and designed to link theory and practice through addressing industrially relevant problems.
  • students are regular prizewinners of Formula Student competitions; all students are eligible to get involved with this.
  • We provide modern, state-of-the-art workshops, laboratories, computer facilities, and media studios.
  • Opportunity to mix with the local engineering community through local IMechE events and lectures.

This Course in Detail

     The course is taught in our purpose-built premises which house the latest industry-standard test facilities. As well as studying mathematics, engineering principles, design and management during your first year, you will work in small groups to strip a car and rebuild it, to gain familiarity with automotive systems.
In the second year you will develop your analytical skills through a study of dynamics, thermodynamics and stress analysis and then apply them in design.

In your final year you will study specialised automotive engineering subjects. For example, you will learn to use software to analyse the dynamic behaviour of a car when it undertakes manoeuvres. As well as studying automotive aerodynamics and automotive engines, you will be able to choose from a range of optional modules. You will also select a project of personal interest from our research and industrial activities.

Many students undertake a work placement between the second and final years, and all students may apply to join our internationally successful Formula Student team.

If you wish to extend your degree you may seek selection for the four-year MEng course. The first three years of the MEng run parallel with the BEng course, while the final year of the MEng allows you to broaden and deepen your studies. You may enroll on either course when joining the university but progression onto the MEng is only possible for the most able students. You can also apply from elsewhere to join our MEng in the third year.

Teaching and Learning

     Teaching and learning methods include seminars, lectures, and practical work in the laboratory, at a computer or in a workshop. The importance of information technology in modern engineering practice is emphasised, and in several modules almost all of the teaching is based around computers.

Approach to assessment

All modules use a mix of examination and coursework for assessment. Coursework assessment varies but could include the following:

  • oral examinations
  • group presentations
  • design or laboratory reports
  • technical reviews
  • poster presentations

Learning outcomes

When you have successfully completed this course, you will have:

  • the ability to apply engineering principles and analytical techniques in an automotive engineering context
  • an understanding of the engineering design process, at both the conceptual and detail level.
  • a familiarity with the key factors in the automotive business environment, such as marketing skills, financial awareness and investment appraisal
  • a range of transferable skills including communication, numeracy, use of information technology, project management and teamworking.

Pass-Through Requirements

Transfer to Oxford Brookes University for Mechanical/Automotive Engineering

  • Minimum cumulative GPA of 2.4
  • IELTS score of 6.0
  • Appropriate personal statement and good academic references from tutors

Modules

     Note: All modules specified with * are pass-through modules which should be completed with Grade B.

year modules  (Mahanakorn University of Technology)

Foundation Modules

  • Mathematics I*
    Algebra: complex numbers; vectors; linear equations; matrices; vector geometry.
    Calculus: sets; inequalities; functions; limits; properties of continuous functions; differentiable functions; the mean value theorem and applications; inverse functions; curve sketching; integration; integration techniques; applications of integration; logarithms and exponentials; hyperbolic functions.
  • Physics I
    Base units; fundamental of vectors; one dimensional motion; constant acceleration; motion in plane; forces; torque; equilibrium; Newton’s laws of motions; work, energies; conservation’s law of energies; momentum; conservation’s law of momentum; rotational motion; conservation’s law of angular momentum; oscillation; waves’ motion; mechanical properties of matter; heat and laws of thermodynamics.
  • Physics II
    Electrostatic; Coulomb’s law; Gauss’s laws; Biot & Savart’s law; Ampere’s law; Ohm’s law; basic DC circuits; Faraday’s law; Maxwell’s law; alternating current; basic electronics; light and modern physics.
  • Chemistry
    c Atomic structure; quantum theory and the electron structure of atoms; chemical bonding; chemical reactions; mass relationships; intermolecular forces; the gaseous state; chemical kinetics; chemical equilibrium; acids and bases; thermochemistry; thermodynamics; electrochemistry; nuclear chemistry; organic chemistry.
  • Physics Laboratory I
    The experimental topics are as follows: the precision of measurement, Newton’s mechanics, centripetal force, truss, moment of inertia, heat, acceleration due to gravity force, Young’s modulus, simple harmonic motion, and conservation of linear momentum.
  • Physics Laboratory II
    The experimental topics are as follows: speed of light and speed of sound, h and e/m measurement, resonance, charge and capacitor, magnetic field, diffraction and interference of light, spectrum of light, light, terminal velocity, and measurement of electricity.
  • Chemistry Laboratory
    The experimental topics are as follows: heat of reactions, rate of reactions, titration, electrochemistry, galvanic cells, chemical equilibrium, acid-base indicators, displacement reactions, paper chromatography, and semi-micro qualitative analysis.

  • Common Modules

  • English Reading and Listening Skills
    This course incorporates both reading and listening skills in each unit.

    Activities are stimulating and motivating for students. Systematic vocabulary syllabus as well as comprehensive reading and speaking are incorporated.

    Students’ understanding of English is widened, and their ability to use the language for communicative purposes is extended.
  • English Speaking and Writing Skills
    This course incorporates both speaking and writing skills in each unit with in-depth treatment of grammar.
    Students’ understanding of English is widened, and their ability to use the language for communicative purposes is extended as accuracy, fluency and correct pronunciation are incorporated.
    Report writing and oral presentation tasks are also provided.
  • Introduction to Computer Programming
    Fundamental programming concepts: programming paradigms, C programming and compiler; Programming style: top-down design, program design and organization concepts; Program testing and debugging; Memory representation of data; Systematic problem solving, program documentation and maintenance.
  • Basic Tool Skills Practice
    Basic tool skills: filing, basic machine tool, sheet metal working, welding, basic measuring devices, basic electrical work, and workpiece measuring; safety in workshop; introduction to basic engineering practice e.g. discipline, patience, responsibility, and teamwork.
  • General Science
    Principles in physical and biological science; basic concepts in biology, chemistry, physics and environmental science, effects of science and on technology human and society; Applied science; Modern science and technologies.
  • Preliminary Modules
  • Mathematics II*
    Ordinary Differential Equations. Linear Algebra: linear equationsand matrices; vector spaces; linear transformations; Gram-Schmidt; least squares; QR factorisation; determinants; eigenvalues; eigenvectors and diagonalisation; symmetric and Hermitian matrices; Jordan forms; matrix exponentials; systems of ordinary differential equations.
  • Engineering Materials*
    Importance and application of engineering materials such as metals, plastics, polymers, semiconductor, concrete, cement, asphalt and wood etc; phase diagrams and meaning; properties testing of engineering materials and meaning; study of microstructure and macrostructure relating with property of material; degradation of materials; production processes and applications of engineering materials in engineering work.
  • Engineering Mechanics I*
    Force systems, resultant force, moments; resultant moment; equilibrium of particle and rigid body in 2 and 3 dimensions; basic structural analysis, truss, frame and machine; friction; center of gravity; moment of inertia of area and mass; virtual work; stability of structure.
  • Basic Engineering Drawing*
    Standard drawing practices: lettering, hand-sketching, orthographic drawings and pictorial drawings, orthographic projection, auxiliary views and developments, section views, and assembly drawings; dimensioning and tolerancing; basic computer-aided drawing.
  • Engineering Design
    Design composition; evolution and history of design; different facets of design; problem solving and problem formulation; design process: concept design, detail design, analysis and manufacturing; reverse engineering; impact on environment and society; hands-on assignments to enhance the learning outcome; written and oral presentation skills.
  •  

    year modules  (Mahanakorn University of Technology) 

    Preliminary Modules

  • Mathematics III*
    Several Variable Calculus: vectors and vector calculus; functions of several variables; partial derivatives; gradients; extreme values; differentials; double and triple integrals; line integrals; surface integrals.

    Complex Analysis: basic topology functions and mappings; limits; continuity and differentiability; analytic and harmonic functions; exponential, trigonometric and hyperbolic functions; principal logarithms and complex exponents; arcs, contour integrals and antiderivatives; Cauchy-Goursat theorem and Cauchy integral formula; Taylor and Laurent series; Fourier transforms and Laplace transforms; evaluating integrals; singularities and residues; real improper integrals; trigonometric integrals.
  • Engineering Mechanics II*
    Kinematics and kinetics of particles and rigid bodies; the Newton’s second law of motion; principle of work and energy; impulse and momentum; introduction to dynamics applications.
  • Fluid Mechanics*
    Partial differential equation of fluid motion; boundary layers, fluid flow about immersed bodies; fluid machinery; performance characteristics for pump, turbines and compressors; compressible flow.
  • Solid Mechanics*
    Forces and stresses; relation of stress and strain; bars under axial loading; torsion of shafts; straight beams under pure bending and transverse loading; transformation and Mohr’s circle of plane stress; failure criteria under plane stress; shear and bending-moment diagram; defection of beams by integration and superposition method; buckling of columns.
  • Thermodynamics*
    Basic of thermodynamics; properties of pure substance; heat and work; basic energy conversion; ideal gas; first law of thermodynamics; second law of thermodynamics; entropy; carnot cycle; introduction to heat transfer mechanisms.
  • Mechanical Engineering Laboratory I*
    Experimental studies via laboratory practices on dynamics, solid mechanics, and mechanical measurement.
  • Manufacturing Technology*
    Size and dimensions; tolerance limits; metal fabrication processes without scrap: casting, forging, hobbing, extruding, welding, etc.; metal fabrication processes with scrap: metal cutting, grinding, etc.; heat treatment processes; fundamental of plastic injection; relationship between materials and manufacturing processes; manufacturing cost estimation.
  • Mechanics of Machinery
    Linkage, kinematic diagram; degrees of freedom in motion; equivalent linkages; velocity analysis; cam; gear train; gear train analysis; acceleration analysis; acceleration diagram; force analysis of mechanism system; linkage force; static force analysis; dynamic force analysis; balance of machines; static balance; dynamic balance.
  • Applied Fluid Mechanics
    Partial differential equation of fluid motion; boundary layers, fluid flow about immersed bodies; fluid machinery; performance characteristics for pump, turbines and compressors; compressible flow.
  • Applied Solid Mechanics
    Stress concentrations, plastic deformations, and residual stresses of bars, shafts, and straight beams; stresses in thin-walled pressure vessels; transformation and Mohr’s circle of plane strain; impact loading and work-energy method; deflections of beams under unsymmetrical bending and curved beams by moment-area method; problem solving by energy methods.
  • Applied Thermodynamics
    Power cycles and refrigeration cycles; thermodynamic property relations; energy change efficiency; gaseous mixtures and psychrometry; chemical reactions and combustion process analysis; phase equilibrium; compressible fluid flow.
  • Mechanical Engineering Laboratory II*
    Experimental studies via laboratory practices on thermodynamics, fluid mechanics, and automotive technology.
  • Common Modules
  • English for International Communication I
    The aims of this course are to encourage students to analyse the systems of the English language; to expose them to a variety ofchallenging and interesting texts in the reading activities and to stimulate them to give their own opinions when participating in discussions.
    IELTS-style reading and writing tasks are also included.
  • English for International Communication II
    This course provides comprehensive coverage of the grammatical and lexical systems of English, so that students can express themselves with precision, and with a good command of idioms and collocation.
  • General Statistics
    Probability and Statistics: probabilities and probability rules; conditional probability and Bayes’ rule; descriptive statistics; random variables; discrete random variables; mean and variance of discrete random variable; binomial, Poisson, geometric, exponential and normal distributions; sampling distributions; the central limit theorem; inferential statistics; linear regression; analysis of variance.
  •  

    year modules  (Oxford Brookes University) 

  • Materials Engineering
  • Stress Analysis I
  • Engineering Dynamics I
  • Engineering Mathematics
  • Engineering Thermo Fluids
  • Automotive Engineering Design and Computer Aided Engineering (double)
  • Automotive Electronics
  • year modules  (Oxford Brookes University)

  • New Product Development
  • Stress Analysis II
  • Chassis Engineering
  • Automotive Engines
  • Vehicle Aerodynamics
  • Advanced CAD/CAM
  • Automotive Group Design Study
  • Project (double)
  •  

    Further Information

    © 2013 Mahanakorn University of Technology
    140 Cheumsampan Rd, Nongchok, Bangkok, Thailand 10530
    Tel. +66 (0) 2988-3655, +66 (0) 2988-3656
    Email: inter@mutacth.com
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