Siddharth Jain

Passionate about harnessing the power of chemical processes and energy systems to drive sustainable solutions. With a background in chemical and energy engineering, I excel at blending technical expertise with strategic planning for optimal project outcomes. As a professional in AutoCAD, MATLAB, Ansys, and SolidWorks, I specialize in designing and optimizing processes for efficiency and environmental impact. My experience in production and operations management ensures seamless project execution. Currently focused on the energy sector, especially fuel cell-driven and hydrogen-driven cars.

• Differential Equations for Engineers, The Hong Kong University of Science and Technology
• Wind Energy, Technical University of Denmark
• Control of Mobile Robots, Georgia Institute of Technology
• Digital Manufacturing & Design, University at Buffalo
• Using Python to Access Web Data, University of Michigan
• Supply Chain Operations, Rutgers the State University of New Jersey
• Introduction to Programming with MATLAB, Vanderbilt University
• Advanced Manufacturing Process Analysis, The State University of New York
• Getting Started with Python, University of Michigan
• Python Data Structures, University of Michigan

Design and Fabrication of a Solar-Powered Water Purification System

Designed, prototyped, and fabricated a self-sustained water purification system powered by solar energy. The system utilized a combination of advanced filtration techniques, including UV sterilization and activated carbon adsorption, to achieve potable water quality. Conducted rigorous performance testing under varying environmental conditions to ensure reliability and efficiency.

Key responsibilities and achievements:

• Led a multidisciplinary team of four engineers throughout the project lifecycle.
• Conducted a comprehensive literature review and feasibility analysis to inform the design process.
• Utilized SolidWorks for 3D modeling and simulation, optimizing components for manufacturability and performance.
• Collaborated with suppliers to source specialized components, ensuring cost-effectiveness and timely delivery.
• Implemented a rigorous testing protocol, including flow rate analysis, microbial load assessment, and energy consumption measurements.
• Presented project progress and results to stakeholders, demonstrating effective communication and presentation skills.

Technologies and Tools:

• SolidWorks for 3D modeling and simulation
• AutoCAD for detailed engineering drawings.
• Arduino for microcontroller programming and control logic.
• MATLAB for data analysis and performance optimization.

Speed Breaker Mechanism for More Effective Electricity Generation

Designed and implemented a novel system to harness kinetic energy from vehicles passing over speed breakers for efficient electricity generation. This innovative mechanism addresses the need for sustainable energy sources in urban environments.

Key Achievements:

• Developed a cost-effective and scalable prototype that successfully converted kinetic energy into electrical power, demonstrating a potential for wider adoption in traffic-heavy areas.
• Collaborated with a multidisciplinary team to conduct feasibility studies, perform simulations, and optimize the design for maximum energy conversion efficiency.
• Conducted extensive research on existing energy harvesting methods, identifying areas for improvement and innovation.
• Demonstrated a deep understanding of electrical engineering principles, including power conversion, voltage regulation, and energy storage.
• Implemented safety measures and fail-safes to ensure reliable and sustainable operation of the system.

Technologies Used:

• Kinetic energy conversion mechanisms
• Power electronics and converters
• Energy storage systems (batteries, capacitors)
• Control systems for efficient energy transfer and storage
• Data acquisition and analysis tools