The Master's degree in "Lightweight Engineering & Composites" is intended for engineers and graduates of mathematics and natural sciences with professional experience, who would like to gain a qualification in the area of composites via the professional development route. The particular focus of the study program is on both carbon fiber-reinforced plastics (CFRP, colloquially known as "carbon") and glass fiber-reinforced plastics (GFRP).

The programme provides an opportunity for applied scientists and engineers to pursue an in-depth study in various aspects of materials engineering and nanotechnology. Courses in this programme may also be used to fulfil the "top-up courses" requirement for joining the Materials Discipline of the Hong Kong Institution of Engineers (HKIE).

The program of study is structured to offer students a comprehensive education in Materials Science and Engineering and equip them for successful careers in the fields of Advanced Materials and Nanotechnology. The courses, taught by renowned faculty members with backgrounds in materials science, chemistry, physics, and electrical, mechanical, and manufacturing engineering, are designed to not only teach fundamentals but also to prepare students to apply modern-day approaches to materials problems in order to enable them to synthesize improved materials in response to challenges in the areas of energy, the environment, and manufacturing. Collaborating with industry, the government, and other departments and institutions, the research contributes to a broad range of fields and allows the exploration of relationships between processing, structure, and properties in all classes of materials, including metals, ceramics, polymers, electronic and biomaterials.

Materials scientists study how the history of a material influences its structure and properties, advancing understanding in research areas that include metallurgy, solid-state physics, and biomaterials.

OSU's Master of Science in Materials Science and Engineering program is located at OSU-Tulsa and places the College of Engineering, Architecture and Technology in a unique position to conduct world-class education, research, and technology development and transfer in advance materials of strategic importance to our nation.

Provide solutions to a number of different fields including energy, medicine, clothing, and equipment production through the study of materials science.

The MSc in Energy Materials and Battery Science is designed to develop an in-depth understanding of recent developments in emerging energy materials and their applications, particularly with respect to the battery technology sector which is seeing major government and industrial investment. The program provides practical training in an array of energy materials characterization techniques and aims to develop knowledge of the fundamental principles of chemistry that underpins commercially important energy materials, such as lithium-ion batteries and photovoltaics.

Master in Materials Engineering provides advanced education in materials engineering, with two fields of specialization: a more generalized education in materials and another in metallurgy. The study cycle offers a background in materials science and technology, focusing on product design, processing technologies, and characterization techniques, addressing all classes of materials in the specialization on materials and, more specifically, metallic materials in the case of the specialization in metallurgy. This is complemented with education in management and interdisciplinary competencies.

Welding is integral to the manufacture of a wide-range of products. This course provides the practical and theoretical knowledge required to become a welding engineer and a materials and joining specialist. The course covers modern welding techniques, automation, metallurgy, materials science, welding processes, weld design, and quality.

The innovative power of M.Sc in photonics is changing our daily lives. Brilliant laser sources, quantum computers and communication, high-performance fibre optic networks, light-based therapy and diagnostics in medicine, and energy-efficient semiconductor optics are the hallmarks of current technological progress, which will determine our lives in the future.

The purpose of the Master of Engineering in Physical Metallurgy is to develop a graduate with advanced abilities in appropriate analytical and research skills relevant to engineering design and synthesis, in order to solve engineering problems of society at large. One of the main objectives of this program is to develop an advanced capability to conduct research independently and as such promote a lifelong learning approach.

Are you considering pursuing a PhD or Masters by Research degree? Do you want to find out more about our attractive scholarships that are available? Join our Postgraduate Research Programmes Virtual Fair and discover the opportunities awaiting you at NTU!

The non-thesis Master of Science in Materials Engineering provides students with an advanced level of knowledge in mechanical properties, materials structure, materials thermodynamics, kinetics, and electrical, optical, and magnetic properties of materials.

The Master's Degree in Materials Science and Engineering aims to provide comprehensive, advanced and specialized training in the field of materials and their associated technologies.

Novel materials have the power to completely transform the health, climate, tech, and energy sectors. Materials engineers learn how to create, test, and implement cutting-edge materials to solve today's and tomorrow’s problems. A fundamental understanding of materials science, materials engineering, and manufacturing are critical for students with a BS degree in biomedical engineering, civil engineering, materials science, mechanical engineering, or other backgrounds to further their materials knowledge. Through this professional training, students will be equipped with the knowledge needed to diversify career opportunities in academia, industry, and startups.