Mechanics is the study of the mechanical motion of matter and its interactions with physical, chemical, and biological processes. It is both an independent fundamental science and a widely applied technical discipline. Engineering presents complex challenges to mechanics, while its research continuously refines engineering design principles. Mechanics has played a decisive role in advancing aerospace technology and is also critical to the development of civil engineering, transportation, and energy technologies.
Since the 1950s, the rapid development of aerospace technology has created a pressing need for professionals who not only understand the fundamental theories of mechanics but also possess specialized knowledge and mechanical design thinking. This demand led to the creation of the Engineering Mechanics program. The program is characterized by its integration of theoretical foundations with practical applications.
Today, graduates of the Engineering Mechanics program contribute significantly across various industries, playing a key role in the country’s modernization efforts. With the rise of emerging fields such as advanced manufacturing, big data, robotics, and artificial intelligence, there is an increased demand for highly skilled talent in engineering mechanics, raising the standards for professional training in the field. At Ningbo University, the Engineering Mechanics program benefits from its world-class faculty, driving interdisciplinary collaboration and the development of new engineering fields, as well as nurturing the growth of top-tier, innovative talent.
Program Objectives
The Engineering Mechanics program is designed to cultivate professionals who possess a strong sense of national responsibility and a global outlook, with well-rounded development in moral, intellectual, physical, aesthetic, and labor aspects. Graduates will have a solid foundation in mathematics, physics, and mechanics, along with a thorough understanding of engineering science theories, analytical methods, and advanced experimental techniques. They will be capable of applying theoretical knowledge to engineering and technological innovation, identifying common mechanical problems from engineering practice, and contributing to fields such as mechanical engineering, aerospace, energy, civil and hydraulic engineering, transportation, shipbuilding, environmental science, marine engineering, materials science, and chemical engineering. These professionals will be equipped for scientific research, engineering calculations, experimental testing, technological development, and product design related to mechanics.
(1) Graduates will be well-prepared to adapt to the evolving technical landscape of engineering, with a strong grounding in mathematics, theoretical mechanics, software applications and development, and experimental techniques.
(2) Graduates will be familiar with cutting-edge technologies in mechanics, equipped to apply mechanical principles and methods to solve complex engineering problems. They will demonstrate research capabilities and an innovative mindset, able to integrate theoretical knowledge and technological tools to drive innovative practices.
(3) Graduates will understand the strategic role of engineering mechanics in supporting national and societal development, staying abreast of the field's latest trends. They will be able to consider social, health, safety, legal, cultural, and environmental factors in their work. With a strong sense of social responsibility, they will have a profound understanding of engineering ethics and professional standards, and will be committed to serving society.
(4) Graduates will possess a high level of humanities and social science literacy, a strong sense of social responsibility, and a commitment to professional ethics. They will have an international perspective and the ability to communicate, collaborate, and work effectively in cross-cultural and multidisciplinary environments. Additionally, they will be proficient in engineering management principles and economic decision-making methods.
(5) Graduates will have a strong sense of self-driven learning and lifelong development, with the ability to adapt quickly to career changes and evolving job roles. They will recognize the importance of continuous learning and skill development in advancing their professional careers.
Graduation Requirements
The Engineering Mechanics program aims to cultivate high-level professionals with a solid foundation in mechanics and mathematics. Graduates will master the foundational principles of engineering science, engineering mechanics analysis methods, and advanced experimental techniques, while also developing strong skills in computer applications and structural analysis. They will be prepared to engage in engineering calculations, experimental testing, technological development, and product design across various engineering fields, including mechanical engineering, vehicles, aerospace, shipbuilding, energy, and chemical engineering. With a solid, broad foundation, they will be equipped for long-term success and continuous professional growth as professionals with a broad skill set.
1. Engineering Knowledge: Graduates will acquire a solid understanding of mathematics, natural sciences, engineering fundamentals, and mechanical engineering expertise. They will be able to apply this knowledge to address engineering challenges.
2. Problem Analysis: Graduates will be proficient in applying principles of mathematics, natural sciences, and engineering sciences to identify, articulate, and analyze engineering problems. This includes conducting thorough literature research to derive valid and effective conclusions.
3. Design and Development of Solutions: Graduates will have the ability to design effective solutions for complex engineering problems. This includes creating systems, units/components, or process flows tailored to specific needs. Their designs will demonstrate innovative thinking and take into account factors such as societal needs, health, safety, legal and cultural considerations, and environmental impact.
4. Research Skills: Graduates will be adept at conducting research on complex engineering problems, employing scientific principles and methodologies. They will design experiments, analyze and interpret data, and synthesize information to arrive at logical and effective conclusions.
5. Utilization of Modern Tools: Graduates will be capable of developing, selecting, and employing appropriate technologies, resources, modern engineering tools, and information technology solutions to tackle complex mechanical engineering problems. They will also be able to conduct predictions and simulations while understanding the limitations of these tools.
6. Engineering and Society: Graduates will be able to leverage their engineering knowledge to critically analyze and evaluate the societal, health, safety, legal, and cultural impacts of engineering practices and solutions. They will also understand and acknowledge the responsibilities they must assume in these contexts.
7. Environment and Sustainable Development: Graduates will have the ability to understand and evaluate the environmental and societal sustainability impacts of the practices addressing complex engineering problems.
8. Professional Ethics: Graduates will possess strong humanistic and social science literacy, a deep sense of social responsibility, and a thorough understanding of engineering ethics and professional standards. They will adhere to these principles throughout their engineering practice.
9. Individual and Team Roles: Graduates will be capable of taking on individual, team member, and leadership roles within multidisciplinary teams.
10. Communication: Graduates will be proficient in communicating complex engineering issues clearly and effectively with industry peers and the public. This includes writing reports and design documents, making presentations, articulating instructions or responses, and demonstrating a global perspective for effective cross-cultural communication.
11. Project Management: Graduates will be equipped with a solid understanding of engineering management principles and economic decision-making methods, and will be able to apply them effectively in multidisciplinary settings.
12. Lifelong Learning: Graduates will have a strong commitment to self-directed and lifelong learning, with the ability to continuously acquire new knowledge and adapt to evolving professional demands.
Core courses
理论力学 - Theoretical Mechanics
材料力学 - Mechanics of Materials
弹性力学 - Elasticity
振动力学 - Vibration Dynamics
流体力学 - Fluid Mechanics
实验力学 - Experimental Mechanics
数值计算方法 - Numerical Computation Methods
有限元及程序设计 - Finite Element and Programming
数学物理方法 - Mathematical Methods in Physics
