TUS-25-Prospectus Web

Mechanical Engineering with Energy
Polymer and Mechanical Engineering
Bachelor of Engineering (Honours)
Level 8 Course Code: US912
Duration: 4 Years
CAO Points 2024: 342
Location: Athlone Campus
Modules at a glance:
Communications for Manufacturing,
Mathematics, Engineering Science, Mechanics,
Engineering Materials, Engineering Workshop
and Graphics, Electronic Technology, Processing
of Engineering Materials.
Entry Requirements: Leaving Certificate: Grade
H5 at higher level in two subjects, plus Grade O6/
H7 in four other subjects in the Leaving Certificate.
Two of these subjects must be Mathematics and a
Language (English or Irish).
Other Information:
• QQI FET/FETAC Applicants
• Work Placement
• Scholarship opportunities
* For progression to Level 8: Applicants
must have a Bachelor of Engineering in
Mechanical Engineering with Energy or a Level 7
qualification in a related engineering discipline.
Bachelor of Engineering (Honours)
Level 8 Course Code: US913
Duration: 4 Years
CAO Points 2024: 369
Modules at a glance:
Engineering Science, Mechanics, Materials and
Processing, Engineering Workshop, Drawing
and CAD, Communications and Computer
Applications, Mathematics.
Location: Athlone Campus
Entry Requirements: Leaving Certificate: Grade
H5 at higher level in two subjects, plus Grade
06/H7 in four subjects in the Leaving Certificate
examination. Two of these subjects must be
Mathematics and a Language (English or Irish).
Other Information:
• QQI FET/FETAC Applicants
• Work Placement
• JL Goor Scholarship
• Ultrapolymers Scholarship
* For progression to Level 8: Applicants must
have a Bachelor of Engineering in Polymer
and Mechanical Engineering or a Level 7
qualification in a related engineering discipline.
Contact Details: Dr. Niall Burke, Course Leader | Tel: 090 6468169 | Email: Niall.Burke@tus.ie
Contact Details: Prof. Austin Coffey, Course Leader | Tel: 090 646 8000 | Email: Austin.Coffey@tus.ie
What is this course about?
This course is ideal for students interested in the intersection
of mechanical engineering and energy technology, as it equips
them with the skills and knowledge needed to address
contemporary energy demands facing industry, including
sustainability and environmental considerations. Engineering
at TUS is very practical. Almost 50% of your time will be spent
in state-of-the-art laboratories developing your practical engineering
skills, and the other 50% will be spent on engineering
theory and its application. On this course, students will:
• Visit some of our industrial partners to experience the role of
a mechanical engineer.
• Operate high-end technical engineering equipment in our
cutting-edge engineering laboratories.
• Develop the ability to critically appraise mechanical
engineering systems, to identify area of potential
improvement, to bring about corrective action and where
applicable, to suggest and implement an alternative solution.
• Learn about environmental loadings of processes/plants and
be committed to its reduction, either in terms of the product,
the materials or the process.
• Improve your teamwork and communication skills by working
as part of small teams on problem-solving and projects.
• Develop an ethical awareness with regard to the engineering
profession and environment.
Why study this course?
This course is designed in a way to blend the essential
theoretical and practical elements of Mechanical Engineering
with some specialised expertise in sustainable energy
engineering. Mechanical engineers are essential for optimizing
energy usage in manufacturing processes and ensuring the
efficiency of industrial machinery, while energy engineering
assumes a pivotal role in the generation, distribution, and
storage of energy, forming the cornerstone of our society.
The dynamic landscape of technological progress, including
electric vehicles and data centres, is continuously evolving,
which continues to drive strong industry demand for skilled
graduates in this area.
What can I do after this course?
As a graduate of this course, you will be well-prepared to
pursue a diverse array of careers, including positions in utilities
engineering/management, energy consultancy, production
engineering, research & development, project management,
quality control, production planning, or as a CAD designer.
What is this course about?
Polymer and Mechanical Engineering provides students with
a detailed understanding of the fundamental principles of
polymers. Students develop skills to allow them to apply core
polymer engineering principles to the design and development
of polymer products and medical device components.
Students develop their skills and knowledge working alongside
experienced lecturers. Our strong industrial links allow our
students to acquire hands-on experience with the industry they
will be working in through industrial tours and teaching and
learning based on current industry practices.
Engineering education at TUS is heavily practical based.
Approximately 50% of your time will be spent in state-of-theart
laboratories developing your practical engineering skills,
and the other 50% will be spent on engineering theory and its
application.
Why study this course?
The courses are designed to meet the demand for highly
skilled graduates with training in mechanical engineering
fundamentals, emphasising specific technologies and
methodologies associated with polymer engineering. Polymer
engineering is a core skillset that many employers in the
medical device/ health care sector look for in graduates. Other
industries that polymer engineering is highly sought for are
automotive, aerospace, packaging, electronics, construction,
textiles, energy and chemical sectors.
The polymer/medical devices sector in Ireland is thriving
and is recognised as one of the fastest developing in the
world. More than 250 companies are currently developing
and manufacturing a diverse range of medical devices and
diagnostic products. The sector employs a highly skilled
workforce – over 45% of employees in the medical device
sector are qualified to graduate or postgraduate level.
Students complete a paid six-month placement from January
to June in 3rd year. The work placement may be done in Ireland
or abroad. Placements are readily available across the medical
devices, pharmaceutical and broader advanced manufacturing
sectors. Companies include Boston Scientific, Medtronic,
Harmac, Trend, and Bausch and Lomb.
Students are required to complete a 24 week work placement
from January to June in the third year of the course.
Placements may be done in Ireland or abroad.
What can I do after this course?
Upon completed of this course, you can expect 100% job
securement within six months. This degree course is designed
to equip graduates with skill sets that are relevant and essential
to emerging industrial technologies. Graduates can expect to
find employment as Polymer Engineers, Mechanical Engineers,
and Product Development Engineers.
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