Mechanical Engineering - MEng

Program Overview

Mechanical Engineering – MEng

Course Overview

The Master of Engineering (MEng) in Mechanical Engineering programme, is a unique Master programme using a novel, proven and unified practical methodology for effectively Design performant products and Solve complex engineering problems and to Optimize products and processes across various Industries such as Biomedical and Medical device manufacturing, Biotechnology, Manufacturing, Automotive, Aeronautical, Automation, Construction, Energy, etc.

The Master’s novel unified methodology incorporates a combination of Simulation of engineering components behaviour, Failure analysis, Material selection and characterisation, Product and Process design, Optimization methods that enables Design for performance and Innovation within a company. The programme will bridge the gap between theory and practice. While theoretical knowledge is essential, this Master program emphasizes the practical application of that knowledge.

The programme runs over 2.5 days per week, so students can avail of work placement if offered by potential industrial partners two to three days a week. The work placement is optional and not a mandatory requirement for students to take up.

There will be a total of 14 hours per week. Ten hours of classes will take place on campus and four hours will be delivered online.

Entry Requirements

• A minimum Second Class Honours, Grade 2.2, in a Level 8 Mechanical Engineering degree OR related engineering discipline, or equivalent, from a recognised university or third-level college, or international equivalent engineering programme (as described above).
• Any qualification(s) deemed by the TUS as being equivalent to point 1. above, when taken in conjunction with relevant work experience.

Where applicants are non-native English language speakers, certified achievement in TOEFL or IELTS Standard English Language Competency Test will be required. An interview may be part of the admission process. Factors taken into account in determining admission will include the specific content of the undergraduate degree, the applicant’s performance, and the availability of places.

Course Modules

Semester 1

• Advanced Materials with Thermofluids
  • Credits: 10
  • This module explores the principles of material science and thermal fluid dynamics at an advanced level, emphasizing high-performance applications in industries such as aerospace, renewable energy, and advanced manufacturing. Students will develop expertise in the thermo-physical properties of advanced materials and the fluid dynamics of heat transfer. Through a blend of theory, computational modelling, and experimental work, the module prepares students for complex problem-solving in research and industry settings.
• Finite Element Analysis (FEA) with Engineering Design
  • Credits: 10
  • This module employs the use of Finite Element Analysis (FEA) and its integration into Design Engineering, aiming at equipping the students with the skills to model, simulate, and optimise structural and mechanical designs. The course combines theoretical foundations with hands-on application, preparing students to employ FEA as a critical tool for solving complex engineering problems across various industries such as Biomedical and Medical, Manufacturing, Automotive, Aerospace, Civil engineering etc.
• Data Analytics and Prediction Modelling
  • Credits: 10
  • This module aims to equip mechanical engineering students with advanced skills in data analytics, data management, multivariate analysis, prediction modeling, and continuous improvement methodologies. The module will cover the theoretical foundations and practical applications of these techniques in the context of mechanical engineering.
• Dissertation (Year-long module)
  • Credits: 30
  • This module focuses on preparation of a research proposal and the application of literature review findings to the design, testing, and execution of a comprehensive research study.

Semester 2

• Sustainable Product and Process Development
  • Credits: 10
  • This module aims to equip students with the knowledge and skills to develop sustainable products and processes in the field of mechanical engineering. By exploring the lifecycle impacts of products, circular economy principles, and sustainable design methodologies, students will gain a comprehensive understanding of how to reduce environmental footprints in manufacturing and design. The module also focuses on developing practical skills to implement these strategies in real-world engineering contexts.
• Computational Fluid Dynamics (CFD) with Engineering Design
  • Credits: 10
  • This module aims to provide an in-depth use of Computational Fluid Dynamics (CFD) with an emphasis on its application to Design Engineering in advanced engineering projects. The module offers a balanced approach to theory and practical application, equipping students with the skills to model, analyse, and optimise fluid flows and heat transfer in various engineering design systems. Upon completion of this module, students will have developed the technical expertise to perform sophisticated CFD simulations, interpret and analyse results critically, and apply CFD as a key tool in the engineering design process, across various industries such as Biomedical and Medical, Automotive, Aerospace etc.
• Digitization and Automation Management
  • Credits: 10
  • This module aims to provide mechanical engineering students with the knowledge and skills necessary to manage and implement digitisation and automation processes within the field of mechanical engineering. It covers the theoretical foundations, practical applications, management and strategic implications of digitisation and automation technologies specific to mechanical engineering.
• Dissertation (Year-long module)
  • Credits: 30
  • This module focuses on preparation of a research proposal and the application of literature review findings to the design, testing, and execution of a comprehensive research study.

What can you do after this course?

Further Study

Upon successfully completing this program, graduates may pursue Level 9 or 10 programmes at TUS or other institutions.

Career Opportunities

The programme will create Industry-ready graduates who will be able to apply a methodology which is time saving and it does not require extensive experimentation, to real-world scenarios, whilst solving identified engineering problems, optimizing, and designing new products and processes.

Graduates of this programme will have the required skills for jobs in major Irish and multinational companies across a wide range of sectors: Biomedical and Medical device manufacturing and R&D, Biotechnology, Manufacturing, Automotive, Aeronautical, Automation, Construction, Energy, etc.

In addition, the course will provide graduates with the required educational standard to apply for Chartered Engineer status, fulfilling the requirements of Engineers Ireland for this internationally-recognised professional title.

Further Information

Fees

EU fees – €6,900; Non-EU fees – €16,500

Assessment Type

Assessment for all modules is based on Continuous Assessment.

Is there any required software?

Required software for specific modules, is provided by TUS.

Class Contact Hours

There will be a total of 14 hours per week. Ten hours of classes will take place on campus and four hours will be delivered online. The programme runs over 2.5 days per week, so students can avail of work placement if offered by potential industrial partners two to three days a week.