MSc Accounting and Finance
The Master of Science in Accounting and Finance (MSc Accounting and Finance) at the Uni...
MSc Computational Engineering Design (Advanced Mechanical Engineering Science)
Southampton
INTAKE: September
Program Overview
The MSc Computational Engineering Design (Advanced Mechanical Engineering Science) at the University of Southampton is a cutting-edge program designed to equip students with advanced knowledge and skills in computational engineering and mechanical design. The program offers a comprehensive overview of theoretical concepts, computational tools, and practical applications within the field of mechanical engineering. Students delve into the intricacies of computational methods, simulation techniques, and engineering design, preparing them for roles at the forefront of technological innovation.
Curriculum: The curriculum is structured to provide a solid foundation in advanced mechanical engineering science with a specific focus on computational engineering design. Core modules include Computational Fluid Dynamics, Finite Element Analysis, Advanced Vibrations and Dynamics, and Computational Structural Mechanics. The program also incorporates hands-on projects and design challenges to enhance practical skills. Students have the flexibility to choose elective modules based on their specific interests, allowing for a personalized learning experience.
Research Focus: With a commitment to advancing computational engineering research, the program emphasizes a strong research focus. Students engage in research projects that explore innovative solutions to complex engineering problems. The integration of research methodologies and advanced computational techniques prepares students to contribute to the development of cutting-edge technologies in mechanical engineering.
Industry Engagement: Recognizing the importance of practical experience, the MSc program actively engages students with industry-relevant projects and collaborations. Industry experts often contribute to the curriculum through guest lectures, providing insights into real-world challenges and the application of computational engineering in various sectors. Students may have opportunities to undertake industry placements, gaining hands-on experience and establishing valuable connections within the engineering industry.
Global Perspective: The program adopts a global perspective, acknowledging the international nature of engineering challenges and solutions. The curriculum incorporates case studies from diverse engineering projects around the world, exposing students to different engineering practices and standards. Students are encouraged to consider the global impact of their work, preparing them for careers that may involve international collaborations and projects.
Location
Southampton
Score
IELTS 6.5
Tuition Fee
£ 27404
Postgraduate Entry Requirements
Application Fee: £50
Academic Qualifications:For postgraduate programs, applicants are expected to hold a bachelor's degree with academic qualifications falling within the range of 60% to 70%. This criterion ensures that candidates possess the foundational knowledge necessary for advanced studies at the postgraduate level.
English Proficiency:
- IELTS: A minimum overall score of 6.5 or 7.0 with no individual component below 6.
- TOEFL: A minimum overall score of 92 on the TOEFL is accepted, with no sub-score in any section falling below 21.
- PTE: A minimum overall score of 62 with no individual score below 58.
- DET (Duolingo English Test): 110.
- Some postgraduate programs may have specific subject prerequisites or additional requirements.
Students must provide:
- academic marksheets & transcripts
- letters of recommendation
- a personal statement - SOP
- passport
- other supporting documents as required by the university.
Work experience: Some postgraduate courses may require relevant work experience in the field.
It is important to note that meeting the minimum entry requirements does not guarantee admission, as the university considers factors such as availability of places and competition for the program. Additionally, some courses may have higher entry requirements or additional selection criteria, such as interviews or portfolio submissions.
At the heart of the University of Southampton's education lies its diverse scholarship program. These scholarships are strategically designed to cater to the varied needs and aspirations of students, recognizing and rewarding excellence across different dimensions.
Merit-Based Scholarships: Recognizing Academic Brilliance: Merit-based scholarships at the University of Southampton serve as a testament to the institution's dedication to academic excellence. These scholarships are bestowed upon students with exceptional academic achievements, encouraging and rewarding their learning. Whether in science, humanities, or business, these scholarships recognize brilliance across various disciplines.
Need-Based Scholarships: Breaking Financial Barriers: Understanding the financial constraints that students may face, the university offers need-based scholarships. Tailored to support students with demonstrated financial need, these scholarships aim to ensure that economic challenges do not impede their educational journey. This initiative reflects the university's belief in the transformative power of education for all.
Subject-Specific Scholarships: Fostering Excellence in Targeted Fields: For students with a passion for specific courses or disciplines, subject-specific scholarships are a gateway to realizing their potential. These scholarships are crafted to encourage excellence in targeted areas of study, motivating students to delve deeper into their chosen fields and contribute meaningfully to their academic communities.
International Student Scholarships: Embracing Diversity: In a globalized world, the University of Southampton actively embraces diversity through international student scholarships. These scholarships are designed to attract and support students from around the world, fostering a multicultural academic environment. The aim is to help international students integrate seamlessly into the university community, ensuring a rich and inclusive learning experience.
Graduates of the MSc Computational Engineering Design (Advanced Mechanical Engineering Science) program at the University of Southampton are equipped with specialized skills in computational engineering, making them highly sought-after professionals in various industries. The program's focus on advanced mechanical engineering science, computational methods, and practical applications prepares graduates for dynamic roles at the intersection of engineering and technology.
Computational Engineer: Graduates may pursue roles as Computational Engineers, leveraging their expertise in simulation, modeling, and numerical analysis. They contribute to the development and optimization of engineering systems, using advanced computational tools to solve complex problems in industries such as aerospace, automotive, and energy.
Mechanical Design Engineer: With a strong foundation in advanced mechanical engineering, graduates can work as Mechanical Design Engineers. They are involved in the conceptualization, design, and analysis of mechanical components and systems, ensuring that designs meet performance, safety, and efficiency requirements.
Finite Element Analyst: Specializing in finite element analysis, graduates can become Finite Element Analysts. They focus on simulating and analyzing structural behaviors, ensuring the integrity and reliability of components in various engineering applications, including structural design and optimization.
Computational Fluid Dynamics (CFD) Specialist: For those interested in fluid dynamics, graduates can pursue roles as CFD Specialists. They apply computational techniques to model and analyze fluid flows, contributing to the design and optimization of aerodynamic components in industries such as aviation and automotive.
Research Scientist in Computational Engineering: Graduates may choose to embark on a career as Research Scientists in Computational Engineering. They engage in cutting-edge research, exploring new methodologies, algorithms, and technologies to advance the field of computational engineering.
Aerospace Engineer: With a focus on computational methods, graduates can enter the aerospace industry as Aerospace Engineers. They contribute to the design and analysis of aircraft and spacecraft components, ensuring compliance with safety and performance standards.
Automotive Simulation Engineer: In the automotive sector, graduates can work as Simulation Engineers. They use computational tools to simulate vehicle behavior, analyze performance, and optimize designs for fuel efficiency, safety, and overall performance.
Structural Analyst: Graduates specializing in structural analysis can pursue roles as Structural Analysts. They assess the behavior of structures under various conditions, ensuring structural integrity in construction, infrastructure, and mechanical systems.
Biomechanics Engineer: For those interested in the intersection of engineering and biology, graduates can become Biomechanics Engineers. They apply computational methods to study the mechanics of biological systems, contributing to advancements in medical devices and healthcare technologies.
Robotics Engineer: Graduates may explore roles in robotics as Robotics Engineers. They apply computational techniques to model and control robotic systems, contributing to the development of advanced automation and robotics solutions.
Energy Systems Analyst: With a focus on computational modeling, graduates can work as Energy Systems Analysts. They analyze and optimize energy systems, contributing to the design and operation of sustainable and efficient energy solutions.
Consultant in Computational Design: Graduates with a strong computational design background may work as Consultants, offering expertise in computational design methodologies to organizations seeking innovative solutions in engineering and technology.
Data Scientist in Engineering: Given the increasing importance of data-driven decision-making, graduates can become Data Scientists in Engineering. They analyze large datasets, extract meaningful insights, and contribute to data-driven engineering solutions.
Academic Researcher/PhD Candidate: Some graduates may choose to pursue a Ph.D. and become Academic Researchers. They engage in advanced research, publish scholarly articles, and contribute to the academic community's understanding of computational engineering design.
Engineering Manager: With experience and leadership skills, graduates can progress into roles as Engineering Managers. They oversee engineering projects, manage teams, and contribute to the strategic direction of engineering departments within organizations.
