HELLO, I'M
Thomas Kuan.
Master Student at Stanford University
Mechanical Engineering.
About
MY BACKGROUND
With a passion for Mechanical Design, Robotics, Automotive Engineering, and all things that can make the world more convenient, I have both the skill set and professional background necessary to dive deep into the technology world. As an upbeat, self-motivated engineer with excellent design skills, I envision an exciting future in the industry.
Browse my site to see all that I have to offer.
Education Background
2019–2021
Stanford University
Master of Science; Mechanical Engineering
Areas: Mechanical Design, Robotics, Manufacturing and Product Realization
2014–2018
National Tsing Hua University
Bachelor of Science; Power Mechanical Engineering
GPA: 4.07/4.3 (3.92/4.0)
Ranking: 3/97
Honors and Awards
Academic Achievement Awards of National Tsing Hua University
2014--2018
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Received Academic Achievement Awards 4 times.
Senior Capstone Projects Competition
Dec. 2017
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Project: Power Exoskeleton for Motion Recording and Reproducing.
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Received Second Prize and “The Most Popular” award out of 40 teams.
ARM Design Contest 2017 Taiwan District
Nov. 2017
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Received Honorable Mention Award out of 200 teams in annual ARM Design Contest.
EUROBOT 2018 WORLD CUP
May. 2018
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Leader of the Mechanical Design Group.
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Final World Rank: 24th (Team DIT Robotics).
Opto-Mechatronic Systems Design Contest
Jun. 2017
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Project: T-MOUSE.
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Received First Prize out of 12 teams.
Projects
Power Exoskeleton for Motion Recording and Reproducing
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Designed a power suit that records angular configurations of the shoulder joint when a person demonstrates motions, then users can wear it to reproduce the recorded motions. Its main purpose is to increase the accuracy and efficiency of shoulder rehabilitation.
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Designed it with 3 revolute joints to synthesize 3-DOF rotational motions of the spherical joint (shoulder joint) with Euler-angles convention, and equipped each axis with a rotary encoder for recording data, drivetrain mechanisms for actuating, and safety clutch mechanisms for disengagement.
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Designed kinematic mechanisms, mechanical components, and transmission drives.
EUROBOT World Cup
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Designed and built two autonomous robots to complete several specific tasks.
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Designed the chassis powertrain and task mechanisms of the robots.
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Derived kinematic and dynamic equations of the powertrain to evaluate how to optimize the integration of our mobile robots.
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Leader of Mechanical Design Group.
T-MOUSE
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A convenient and contractible Mouse that can reduce 57% thickness after contracting.
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Designed the detailed mechanisms and manufactured the prototype.
Parallelogram Robotic Arm Project
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Designed a 3- degree of freedom Robotic Arm that can grip objects weighing 1.8 kg.
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The design features with parallelogram linkages that can reduce the moment of inertia and lower the center of mass.
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Higher structural stiffness, larger workspace, and higher payload ability compare to regular serial robotic arms.
Modular Vehicle Powertrain and Chassis Design
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Designed a small automobile chassis and transmission systems with CAD software.
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The driveline and differential systems are designed in a way that makers can easily prototype with 3D-printing and machining.
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Robotic arms, cameras, and other equipment can be integrated with this chassis and powertrain module design.
Hub Motor Module Mechanical Design
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Designed a hub motor module consists of compact planetary gear sets to magnified the output torque.
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This hub motor module concept can be used for wheel-hub motors in electric vehicles or joint actuators in robotic arms.
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Designed the output flange with convenient studs and threaded holes for wheel mounting or serial robotic arm assembly.
Mobile Soccer Robot
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Designed a mobile robot that can play robot soccer games.
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Designed the gripper mechanism which features a much larger workspace by synthesizing the optimal coupler curve.
Cam Mechanisms Profile Generator
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Programmed a set of MATLAB codes that can generate profiles and curves (including position, velocity, and acceleration characteristics) of cam mechanisms.
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This generator can automatically fit the desired displacement points and the corresponding rotation angles specified by user inputs.
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Engineers can utilize this cam profile generator to design pick & place motion of automation systems, gaits of walking quadruped robots, or other related applications.
Leg Mechanisms Design using Function Generator Synthesis Method
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Developed a geometry generator that can help designers to create linkage mechanisms in GeoGebra.
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This geometry generator can synthesize linkage mechanisms that pass through three arbitrary points specified by the users.
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The generated mechanisms are mainly used for robot leg mechanisms or automation systems that follow specific paths.
Project Gallery
Skills and Knowledge
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SolidWorks
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AutoCAD
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Autodesk Inventor
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MATLAB
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ANSYS
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CATIA V5
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Arduino
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GeoGebra
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Simulink
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CAD/CAM
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Robotics
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Mechanisms Design
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Mechatronics
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Automotive Engineering
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GD&T
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Finite Element Analysis
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Rapid Prototyping
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Kinematic Synthesis
Other Experiences
ASME SPDC 2017 Contest in Taiwan District
Mar. 2017
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Referee and Director of Planning
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Evaluated the robots of each team and determined the points they got.
DIT Robotics
2014-2018
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Leader of Mechanical Design Group
Research Experience at UC Berkeley
Jun-Aug. 2017
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Assisted a super-capacitor project
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Designed and built a car model that is driven by the super capacitor.
Student Association of Department at NTHU Power Mechanical Engineering
2015-2017
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Officer of Event Planning
ZU Education Hsinchu
Jan-May.2016
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Designed lab instruments and science teaching aids.