The MET 2 Program 2025 cohort is making significant strides as students delve deeper into solid modeling and Computer-Aided Manufacturing (CAM). This phase of the program equips students with the necessary skills and knowledge to excel in engineering and manufacturing. Recently, CT State Community College Manchester professors played a pivotal role in this educational journey by comprehensively explaining various processes involved in solid modeling. They guided students through the fundamental principles of creating and manipulating three-dimensional objects using SolidWorks, a leading software in the industry. In addition to theoretical instruction, the professors facilitated hands-on workshops where students were encouraged to explore their creativity and technical skills by designing parts and assemblies. This practical experience allowed students to apply the concepts they learned in class to real-world scenarios, enhancing their understanding of both the software and the manufacturing processes that follow. As the cohort progresses, they are developing proficiency in SolidWorks and gaining insights into the importance of precision and efficiency in engineering design, which are crucial for their future careers. The collaborative learning environment fostered by the professors further enriches the students' experience, encouraging teamwork and problem-solving skills essential in today's fast-paced technological landscape.
The students also work with their industry-led partners to continue their projects. Examples of the projects offered to the students are as follows:
Experience with Laser Systems
Students delve into innovative maritime engineering solutions by exploring advanced technologies such as laser systems, which are increasingly recognized for their potential in sustainable cleaning methods. This exploration will encompass the application of laser technology for cleaning, precision cutting, and surface treatment in marine environments. Students will engage in a comprehensive study that addresses real-world challenges, including cost-effectiveness, environmental impact, and performance improvement. Through rigorous research, hands-on experimentation, and collaboration with industry professionals, students will develop practical, forward-thinking solutions tailored to the marine industry. They will learn about the operational principles of laser systems, including the various types of lasers, their applications, and safety protocols necessary for practical use in maritime contexts. By the end of this program, students will have acquired a robust understanding of how laser technology can be leveraged to enhance sustainability and efficiency in marine operations.
Developing Expertise in Multi-Material 3D Printing and Optimization
Explore the exciting and rapidly evolving field of additive manufacturing by actively testing, programming, and repairing advanced 3D printing equipment. Students can engage with state-of-the-art 3D printers capable of producing components using various materials, including metals, polymers, and composite materials. This hands-on experience will not only involve the creation of intricate parts but also require students to tackle various challenges related to optimizing print quality, including adjusting print parameters, selecting appropriate materials, and troubleshooting machine errors that may arise during the printing process. This project offers invaluable hands-on experience in troubleshooting, maintaining, and modifying 3D printing systems to ensure they meet stringent industrial standards and operational needs. By the program's conclusion, students will have developed a comprehensive skill set that includes an understanding of material properties, printing techniques, and the ability to innovate within 3D printing technology.
Exploring AR/VR Applications in Manufacturing
Students will harness the transformative power of augmented reality (AR) and virtual reality (VR) technologies to revolutionize manufacturing processes in unprecedented ways. By utilizing advanced AR/VR tools, students will embark on the design and development of a sophisticated virtual wiring harness process. This project will create a highly detailed simulation environment where students can visualize, plan, and manipulate the electrical system layout, including routing and connections within various manufacturing or engineering contexts. The immersive virtual environment will facilitate extensive testing and refinement of wiring pathways, allowing students to ensure optimal placement and organization to prevent potential issues such as interference, overheating, or connectivity failures. Students will explore the integration of AR/VR with other manufacturing technologies, enhancing their understanding of how these digital tools can streamline workflows, improve training processes, and ultimately lead to more efficient manufacturing operations. By the end of this project, students will gain a grasp of the practical applications of AR/VR in the manufacturing sector, equipping them with skills that are increasingly in demand in today’s technology-driven landscape.
Automating Precision Assembly for Advanced Technologies
In this project, students will confront the complex challenge of automating a sophisticated assembly process critical to scaling quantum computer designs. The focus will be on achieving precision alignment of various components mounted on a grid pattern and secured with torqued fasteners, all while minimizing the need for operator input. Students will delve into the principles of automation, robotics, and precision engineering, learning to design systems that enhance efficiency and accuracy in assembly processes. This initiative will involve the application of cutting-edge technologies and require students to innovate new methods and strategies for streamlining assembly processes associated with advanced technologies. By collaborating with industry experts and utilizing state-of-the-art tools, students will contribute to advancing manufacturing techniques for the future of quantum computing and other high-tech fields.
Optimizing Cable Retention for Standard Diameter Cables
In this project, students will analyze and redesign a clamp system to ensure reliable cable retention that meets stringent field use pull test requirements. The focus will be modifying the clamp design to accommodate standard diameter cables while maintaining tight tolerances to prevent pull-out failures during operation. Students will engage in a comprehensive engineering process that includes evaluating current designs, identifying weaknesses, and proposing innovative solutions to enhance performance. This project will provide students with hands-on experience in design optimization, rigorous testing, and real-world problem-solving within engineering applications by addressing critical challenges such as cost reduction and navigating supply chain complexities. Through this practical engagement, students will develop a deeper understanding of the importance of reliable cable management systems in various industries, preparing them for future engineering design and implementation challenges.
