200 Tuition Fee/year
Programme overview
Degree
BSc
Study Level
Undergraduate
Study Mode
On Campus
The Bachelor of Mechanical Engineering program is designed to produce competent graduates with strong foundations in engineering science, analytical thinking, and practical problem-solving skills to address contemporary and future technological challenges. The program integrates core principles of mechanics, thermofluids, materials science, manufacturing processes, and systems engineering, with specialized emphases on Energy Conversion, Manufacturing, and Advanced Materials.
The curriculum is structured to balance theoretical rigor with hands-on laboratory work, computational analysis, and project-based learning. Students are trained to design, analyze, and optimize mechanical systems and components while considering technical performance, safety, sustainability, economic feasibility, and environmental impact. The program also embeds engineering ethics, professional responsibility, communication skills, teamwork, and lifelong learning competencies to prepare graduates for multidisciplinary and multicultural professional environments.
Focus Area: Energy Conversion
The Energy Conversion focus equips students with comprehensive knowledge of thermodynamics, fluid mechanics, heat transfer, and energy systems engineering. Students gain competencies in the analysis and design of conventional and renewable energy systems, including internal combustion engines, power generation systems, refrigeration and air-conditioning, solar thermal and photovoltaic systems, wind energy, biomass and bioenergy conversion, and emerging hydrogen and energy storage technologies. Emphasis is placed on energy efficiency, system integration, sustainability assessment, and the application of energy management principles in industrial and community contexts.
Focus Area: Manufacturing
The Manufacturing focus prepares students to understand and apply modern manufacturing technologies and production systems. The curriculum covers conventional and advanced machining, computer numerical control (CNC), computer-aided design and manufacturing (CAD/CAM), additive manufacturing, forming and joining processes, metrology, quality control, and production planning. Students are trained to optimize manufacturing processes based on productivity, quality, cost, ergonomics, and environmental considerations, as well as to implement Industry 4.0 concepts such as automation, digital manufacturing, data-driven production, and smart factory systems.
Focus Area: Advanced Materials
The Advanced Materials focus develops student competencies in materials selection, characterization, processing, and performance evaluation for engineering applications. Topics include metallic alloys, polymers, ceramics, composites, functional and smart materials, surface engineering, and emerging materials for energy, transportation, and manufacturing technologies. Students learn to relate microstructure to mechanical, thermal, and functional properties, as well as to apply materials engineering principles in the design of lightweight, durable, and sustainable mechanical components and systems.
The curriculum is structured to balance theoretical rigor with hands-on laboratory work, computational analysis, and project-based learning. Students are trained to design, analyze, and optimize mechanical systems and components while considering technical performance, safety, sustainability, economic feasibility, and environmental impact. The program also embeds engineering ethics, professional responsibility, communication skills, teamwork, and lifelong learning competencies to prepare graduates for multidisciplinary and multicultural professional environments.
Focus Area: Energy Conversion
The Energy Conversion focus equips students with comprehensive knowledge of thermodynamics, fluid mechanics, heat transfer, and energy systems engineering. Students gain competencies in the analysis and design of conventional and renewable energy systems, including internal combustion engines, power generation systems, refrigeration and air-conditioning, solar thermal and photovoltaic systems, wind energy, biomass and bioenergy conversion, and emerging hydrogen and energy storage technologies. Emphasis is placed on energy efficiency, system integration, sustainability assessment, and the application of energy management principles in industrial and community contexts.
Focus Area: Manufacturing
The Manufacturing focus prepares students to understand and apply modern manufacturing technologies and production systems. The curriculum covers conventional and advanced machining, computer numerical control (CNC), computer-aided design and manufacturing (CAD/CAM), additive manufacturing, forming and joining processes, metrology, quality control, and production planning. Students are trained to optimize manufacturing processes based on productivity, quality, cost, ergonomics, and environmental considerations, as well as to implement Industry 4.0 concepts such as automation, digital manufacturing, data-driven production, and smart factory systems.
Focus Area: Advanced Materials
The Advanced Materials focus develops student competencies in materials selection, characterization, processing, and performance evaluation for engineering applications. Topics include metallic alloys, polymers, ceramics, composites, functional and smart materials, surface engineering, and emerging materials for energy, transportation, and manufacturing technologies. Students learn to relate microstructure to mechanical, thermal, and functional properties, as well as to apply materials engineering principles in the design of lightweight, durable, and sustainable mechanical components and systems.
Programme overview
Degree
BSc
Study Level
Undergraduate
Study Mode
On Campus
The Bachelor of Mechanical Engineering program is designed to produce competent graduates with strong foundations in engineering science, analytical thinking, and practical problem-solving skills to address contemporary and future technological challenges. The program integrates core principles of mechanics, thermofluids, materials science, manufacturing processes, and systems engineering, with specialized emphases on Energy Conversion, Manufacturing, and Advanced Materials.
The curriculum is structured to balance theoretical rigor with hands-on laboratory work, computational analysis, and project-based learning. Students are trained to design, analyze, and optimize mechanical systems and components while considering technical performance, safety, sustainability, economic feasibility, and environmental impact. The program also embeds engineering ethics, professional responsibility, communication skills, teamwork, and lifelong learning competencies to prepare graduates for multidisciplinary and multicultural professional environments.
Focus Area: Energy Conversion
The Energy Conversion focus equips students with comprehensive knowledge of thermodynamics, fluid mechanics, heat transfer, and energy systems engineering. Students gain competencies in the analysis and design of conventional and renewable energy systems, including internal combustion engines, power generation systems, refrigeration and air-conditioning, solar thermal and photovoltaic systems, wind energy, biomass and bioenergy conversion, and emerging hydrogen and energy storage technologies. Emphasis is placed on energy efficiency, system integration, sustainability assessment, and the application of energy management principles in industrial and community contexts.
Focus Area: Manufacturing
The Manufacturing focus prepares students to understand and apply modern manufacturing technologies and production systems. The curriculum covers conventional and advanced machining, computer numerical control (CNC), computer-aided design and manufacturing (CAD/CAM), additive manufacturing, forming and joining processes, metrology, quality control, and production planning. Students are trained to optimize manufacturing processes based on productivity, quality, cost, ergonomics, and environmental considerations, as well as to implement Industry 4.0 concepts such as automation, digital manufacturing, data-driven production, and smart factory systems.
Focus Area: Advanced Materials
The Advanced Materials focus develops student competencies in materials selection, characterization, processing, and performance evaluation for engineering applications. Topics include metallic alloys, polymers, ceramics, composites, functional and smart materials, surface engineering, and emerging materials for energy, transportation, and manufacturing technologies. Students learn to relate microstructure to mechanical, thermal, and functional properties, as well as to apply materials engineering principles in the design of lightweight, durable, and sustainable mechanical components and systems.
The curriculum is structured to balance theoretical rigor with hands-on laboratory work, computational analysis, and project-based learning. Students are trained to design, analyze, and optimize mechanical systems and components while considering technical performance, safety, sustainability, economic feasibility, and environmental impact. The program also embeds engineering ethics, professional responsibility, communication skills, teamwork, and lifelong learning competencies to prepare graduates for multidisciplinary and multicultural professional environments.
Focus Area: Energy Conversion
The Energy Conversion focus equips students with comprehensive knowledge of thermodynamics, fluid mechanics, heat transfer, and energy systems engineering. Students gain competencies in the analysis and design of conventional and renewable energy systems, including internal combustion engines, power generation systems, refrigeration and air-conditioning, solar thermal and photovoltaic systems, wind energy, biomass and bioenergy conversion, and emerging hydrogen and energy storage technologies. Emphasis is placed on energy efficiency, system integration, sustainability assessment, and the application of energy management principles in industrial and community contexts.
Focus Area: Manufacturing
The Manufacturing focus prepares students to understand and apply modern manufacturing technologies and production systems. The curriculum covers conventional and advanced machining, computer numerical control (CNC), computer-aided design and manufacturing (CAD/CAM), additive manufacturing, forming and joining processes, metrology, quality control, and production planning. Students are trained to optimize manufacturing processes based on productivity, quality, cost, ergonomics, and environmental considerations, as well as to implement Industry 4.0 concepts such as automation, digital manufacturing, data-driven production, and smart factory systems.
Focus Area: Advanced Materials
The Advanced Materials focus develops student competencies in materials selection, characterization, processing, and performance evaluation for engineering applications. Topics include metallic alloys, polymers, ceramics, composites, functional and smart materials, surface engineering, and emerging materials for energy, transportation, and manufacturing technologies. Students learn to relate microstructure to mechanical, thermal, and functional properties, as well as to apply materials engineering principles in the design of lightweight, durable, and sustainable mechanical components and systems.
Admission Requirements
Applicants to the Bachelor of Mechanical Engineering program are required to have completed upper secondary education or an equivalent qualification with a strong academic background in mathematics and physics, and basic knowledge of chemistry, demonstrating adequate proficiency in mathematical reasoning, fundamental mechanics, and scientific thinking to support engineering studies; applicants must also possess sufficient proficiency in the language of instruction to engage with technical coursework and laboratory activities, basic computer literacy, and readiness for problem-based and hands-on learning environments, meet institutional health and safety requirements for laboratory and workshop participation, and successfully pass the competitive admission process based on academic records and applicable entrance examinations, with bridging or foundation courses provided where minimum competencies in mathematics or physics are not fully met.
Tuition fees
Domestic
200
Domestic (Out of State)
0
International
200
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