College: Institute of Graduate Studies Programs

This major provides a comprehensive understanding of the principles and practices of contemporary engineering, focusing on applying modern technologies and methodologies to solve complex engineering problems. Students will explore key topics such as advanced materials, sustainable design, robotics, and data analytics. The major emphasizes integrating theoretical knowledge and practical skills to prepare students for careers in engineering, R&D, and related fields.

Learning Objectives:

• Understand the fundamental principles of contemporary engineering and its role in technological innovation.
• Develop skills in the design and analysis of advanced engineering systems.
• Learn techniques to apply sustainable design principles in engineering projects.
• Explore the principles of robotics and automation in modern engineering.
• Understand the impact of data analytics and machine learning on engineering practices.
• Analyze challenges and career opportunities in contemporary engineering.
• Develop critical thinking and problem-solving skills to address challenges in engineering.

Main Outline:

1. Introduction to Contemporary Engineering

   • Overview of contemporary engineering, its history, and its importance in technological innovation.

2. Advanced Materials and Manufacturing

   • Fundamentals of advanced materials, including composites, nano-materials, and smart materials.
   • Techniques for applying advanced materials in engineering design and manufacturing.

3. Sustainable Design and Engineering

   • Principles of sustainable design, including life cycle assessment and green engineering.
   • Techniques to integrate sustainability into engineering projects.

4. Robotics and Automation

   • Overview of robotics and automation, including robotic systems and control algorithms.
   • Techniques to design and implement robotic solutions in engineering.

5. Data Analytics and Machine Learning in Engineering

   • Basics of data analytics, including data collection, processing, and interpretation.
   • Techniques for applying machine learning to engineering problems.

6. Ethics and Professional Practice in Engineering

   • Overview of ethical and professional considerations in contemporary engineering.
   • Techniques to ensure ethical and professional conduct in engineering practice.

7. Specialized Topics in Contemporary Engineering

   • Principles of specialized topics, including renewable energy systems, biomedical engineering, and aerospace engineering.
   • Techniques for conducting in-depth research on specialized topics.

8. Emerging Trends in Contemporary Engineering

   • Impact of emerging trends such as IoT, AI, and additive manufacturing on engineering practices.
   • Techniques to incorporate new trends into engineering projects.

Assessment Methods:

• Design and engineering analysis projects to evaluate practical skills.
• Written assignments and research papers to assess knowledge of advanced materials and sustainable design.
• Presentations and reports on robotics and data analytics.
• Participation in group projects and engineering simulations.

Recommended Textbooks:

• "Engineering Materials 1: An Introduction to Properties, Applications and Design" by Michael F. Ashby & David R. H. Jones.
• "Sustainable Engineering: Concepts, Design, and Case Studies" by David T. Allen & David R. Shonnard.
• "Introduction to Robotics: Mechanics and Control" by John J. Craig.

Prerequisites:

Basic knowledge of mathematics and physics is recommended. This major is suitable for students in engineering, technology, and related fields.

Duration:

Typically, this major lasts four academic years, combining lectures, laboratory sessions, and practical exercises.

Certification:

Upon successful completion, students may earn a degree in contemporary engineering, depending on the program and institution.

Target Audience:

This major is designed for undergraduate and graduate students in engineering, technology, and related fields, as well as professionals seeking to enhance their skills in contemporary engineering practices. It prepares students and professionals to excel in the field of contemporary engineering, leveraging theoretical knowledge, practical skills, and an understanding of emerging trends to solve complex engineering problems and drive technological innovation.