Disk Brake Design and Assembly
Designed and modeled a Disk Brake System using SolidWorks, creating individual components with attention to dimensions and mechanical functionality. Performed the assembly of all parts to ensure proper fit and motion, gaining practical experience in 3D modeling, component integration, and mechanical design principles.
Engine Mechanism Design and Assembly
Designed and modeled key engine components, including the piston, connecting rod, and crankshaft, using SolidWorks. Performed the assembly of these components to simulate the crank-slider mechanism and verify proper motion and alignment. This project enhanced my understanding of engine kinematics, mechanical design principles, and CAD assembly techniques.
Roller Bearing Design and Assembly
Designed and modeled the individual components of a roller bearing, including the inner ring, outer ring, rolling elements (balls), and ball cage, using SolidWorks. Performed the complete assembly to ensure proper alignment and functionality, gaining practical experience in precision CAD modeling, component integration, and understanding of bearing mechanisms and motion.
Car Jack Assembly Design
Designed and assembled a mechanical scissor car jack in SolidWorks, consisting of interconnected linkages, threaded screw mechanism, pivots, and base components. The model was developed with precise dimensions and proper mating conditions to ensure smooth motion and realistic operation. The assembly demonstrates an understanding of mechanical design principles, kinematic motion, and component interaction, while emphasizing manufacturability and structural stability. This project enhanced my proficiency in 3D modeling, assembly design, and motion analysis using SolidWorks.
Jet Engine Design and Assembly
Designed and developed a detailed 3D model of a jet engine in SolidWorks, incorporating key components such as the propeller, housing, and shaft. Created individual parts with precise dimensions and assembled them to ensure proper alignment and functionality. The project enhanced my understanding of mechanical design principles, component integration, and assembly techniques while strengthening my proficiency in CAD modeling and SolidWorks tools.
Intermeshing Rotor Mechanism Design
Conceptually designed and modeled an Intermeshing Rotor Helicopter Mechanism in SolidWorks, featuring two synchronized upper rotors driven through a combination of spur gears and bevel gears. The assembly was created to demonstrate the transmission of rotational motion and precise synchronization between the counter-rotating rotor shafts. The design includes gear arrangements, rotor shafts, and top-mounted rotor blades, providing an understanding of helicopter drivetrain mechanisms and complex power transmission systems. This project enhanced proficiency in 3D part modeling, assembly creation, and mechanical motion concepts within SolidWorks.
Conceptual Mechanical Leg Design
Designed and developed a conceptual mechanical leg model in SolidWorks to study linkage mechanisms and motion transfer. The design incorporates multiple interconnected links and joints arranged to simulate the movement and articulation of a robotic or prosthetic leg. The assembly focuses on achieving coordinated motion, structural stability, and efficient force transmission between the various components. This project enhanced my understanding of mechanism design, kinematic relationships, and assembly modeling while providing practical experience in creating complex mechanical systems in a CAD environment.
Circular Foldable Table Design
Designed and modeled a circular foldable table in SolidWorks with a focus on compact space utilization and multifunctional use. The design incorporates a folding mechanism that allows the table to be easily expanded for use and folded when not required, minimizing storage space. The circular configuration provides uniform accessibility and efficient use of surface area, making it suitable for small living spaces and portable applications. This project enhanced my understanding of mechanism design, assembly constraints, and the development of space-saving furniture solutions using CAD tools.