Students are required to conduct a comprehensive literature review on renewable energy mechanical systems and current optimization methods. They will perform conceptual and detailed design using CAD software, integrating renewable energy components effectively. The tasks include simulation and analysis to evaluate system performance under various operating conditions using tools like FEA and CFD. Students must also develop optimization strategies to enhance efficiency and reliability, supported by quantitative data. Additionally, they will prepare detailed documentation of the design process, simulate testing results, and propose improvements. Finally, students will compile a project report and present their findings, demonstrating technical proficiency and communication skills.

- Conduct a comprehensive literature review on existing HVAC technologies and sustainable practices in mechanical engineering. - Perform load calculations and energy analysis for a prototype commercial building to estimate HVAC requirements. - Design an HVAC system layout incorporating modern energy-saving components and sustainable features. - Use computer-aided design (CAD) software and simulation tools to model the HVAC system and simulate its performance under various operating conditions. - Analyze the simulation data to identify strengths and weaknesses of the designed system and refine it accordingly. - Prepare a detailed project report outlining methodology, design choices, simulation results, and recommendations for real-world application. - Present findings to peers and faculty, demonstrating the potential impact of sustainable HVAC systems on energy conservation and environmental protection.

1. Conduct comprehensive literature review on various mechanical transmission systems and sustainable design approaches. 2. Perform initial design calculations to determine appropriate sizes and specifications for gears, belts, or chain drives. 3. Use CAD software to create detailed models of the mechanical transmission components and assemblies. 4. Apply finite element analysis to assess stress distributions and potential failure points in the components. 5. Simulate the kinematic and dynamic performance using appropriate engineering software tools. 6. Investigate and select sustainable materials suitable for manufacturing the transmission components based on mechanical properties and environmental impact. 7. Analyze energy efficiency and propose design optimizations to minimize power losses. 8. Collaborate with team members to integrate components into a functional system and troubleshoot design issues. 9. Prepare technical documentation including design reports, simulation results, and presentations for evaluation. 10. Engage in critical discussions during project reviews to refine design and analysis approaches.

• Conduct comprehensive literature review on current automotive suspension technologies and sustainable material applications. • Utilize CAD software to develop detailed 3D models of the proposed suspension system, ensuring all mechanical specifications are met. • Apply Finite Element Analysis (FEA) to simulate stress, strain, and deformation under various operating conditions. • Experiment with different materials and configurations to optimize system performance and sustainability. • Prepare a technical report detailing design rationale, analysis results, and material selection along with environmental considerations. • Present the final design through a seminar or poster session, highlighting innovations and potential real-world applications in automotive engineering.

• Conduct a comprehensive literature review on current HVAC technologies, focusing on energy efficiency and sustainability innovations. • Develop a conceptual design of an HVAC system suitable for a medium-sized commercial building, integrating renewable energy sources. • Use simulation tools such as AutoCAD, SolidWorks, and ANSYS Fluent to model and analyze airflow, heat transfer, and energy consumption within the proposed system. • Perform a comparative study between traditional HVAC systems and the newly designed sustainable system, highlighting energy savings and environmental benefits. • Prepare a detailed report that includes design methodology, simulation results, cost analysis, and potential challenges. • Present the project findings through a seminar, demonstrating both technical knowledge and communication skills essential for a mechanical engineering professional.

Study elevator operational mechanisms and common fault types. Research vibration and load sensors used in lift systems. Design an edge-based architecture for real-time monitoring. Implement predictive maintenance algorithms using sensor analytics. Configure anomaly detection for abnormal movement patterns. Develop alert notifications for maintenance teams. Optimize computational load for embedded controllers. Compare performance with traditional manual inspection methods. Conduct simulated stress tests for overload conditions. Evaluate downtime reduction metrics. Document safety improvements and scalability potential.