Ph.D. in Condensed Matter Physics

My research focuses on probing quantum transport phenomena in layered 2D materials and their heterostructures, particularly low-temperature measurements (<1 K) and high magnetic fields, device designs, and theoretical modeling to uncover emergent quantum behaviors with relevance to future quantum technologies.

Bachelor's in Mechanical Engineering and Physics

Worked on Several projects, including nanomaterials, DQPTs, nano-sensors, and nano-FETs; my main focus was on studying the "Real-time Dynamics of Thirring 1+1 model".

Foreign Exchange Student 

Studies included the Korean language and involved joining the Computational Materials lab to study the Nanoscopic behavior of matter.

Taught Amplifiers and Feedback, Microcontrollers and Sensors (Physics lab-based course for 2nd year undergraduates) Assessed, and advised students. Marked assignments, exam papers, and oral presentations.

The work includes assisting the students in the computational and experimental analysis of the nanoscale transport in single molecular junctions, and the study also includes the analysis of the Quantum Spin Hall effect in monolayer stanene. In addition, I collaborated with the National Cheng Kung University, Taiwan, to study the oxygen evolution reaction using high entropy alloys.

Developed the quantum algorithm for the 5-Qubits Quantum Computers in collaboration with the Australian company. Our goal is to run the program using a similar analogy with GPUs and CPUs. We also worked on the traffic optimization problem using the quantum annealing approach with real-time traffic data from an intersection in Taichung, Taiwan. One of the primary contributors to the Traffic congestion prediction project [Link].

Advisor: Artem Mishchenko

My research focuses on probing quantum transport phenomena in layered 2D materials and their heterostructures, particularly low-temperature measurements (<1 K) and high magnetic fields, device designs, and theoretical modeling to uncover emergent quantum behaviors with relevance to future quantum technologies.

Advisor: Hoonkyung Lee

I conducted first-principles calculations based on density functional theory (DFT), focusing primarily on the electronic, dielectric, and sensing properties of two-dimensional materials. 

Advisor: David Lin

Developed a tensor network algorithm to simulate the 1+1-dimensional models to study the real-time dynamics and dynamical quantum phase transitions. Examining the real-time eigenvalue spectrum, change in ground state tensor due to unitary time evolution, entanglement entropy, and the system's return rate based on the Tensor network method.

Advisor: Hiroshi Watanabe

Studied the single-electron transport in nano-FET and studied the electronic properties of graphene and molybdenum disulfide heterostructure in the presence of the gated field. We also explored the van der Waals force and interlayer interactions in the heterostructure. We developed and simulated a program to study the I-V characteristics in the nano-scaled semiconductor devices. 

Advisor: Fang-Pang Lin

Developed the Quantum Algorithm for the 5 Qubit operations, we also developed Quantum-Inspired Computing for Optimization, our research is closely related to the quantum annealing using QUBO and IM formulation.

Advisor: Ching Yi Lai

Explored ways to encode qubits into mechanical harmonic oscillators using the superposition of the displaced squeezed states. Developed a program for Quantum Error correction using Gottesman, Kitaev, and Preskill(GKP) codes.