Quantum Simulation of Electron Transfer Dynamics Using A Trapped-Ion System

Abstract

Quantum simulation is pivotal in understanding and modeling complex quantum phenomena that are challenging to study using classical computational methods. This thesis investigates the potential of trapped ion systems for advancing the field of quantum simulation. By leveraging the unique properties of trapped ions, particularly Ytterbium (Yb) ions, this research aims to enhance the precision and scalability of quantum simulations.This thesis reports our progress on developing and optimizing the experimental setup and operational techniques required for effective manipulation of trapped ions. Key advancements include refining the processes for ion trapping, cooling, state manipulation, and phase tracking, as well as addressing technical challenges to maintain high coherence and low error rates. Significant applications of the trapped ion system are demonstrated through simulations that provide deeper insights into quantum dynamics and interactions. These applications showcase the ability of trapped ion systems to model complex environments and phenomena, such as energy transfer processes and the effects of structured environments on quantum dynamics.Overall, this thesis underscores the versatility and power of trapped ion systems as a platform for quantum simulation. The findings pave the way for future research and practical applications in quantum computing and information processing, highlighting the promising role of trapped ion technology in the advancement of quantum science.