2023-2024 Cohort - newly graduated !
Hi, I am Manvi Agrawal, interested in the quantum algorithms. My journey to Quantum Computing began with Qiskit Hackathon in 2022, followed by contribution to "Quantum Katas", Microsoft's collection of online tutorials to help beginners learn Quantum computing using Q# and QDK. My goal is to secure a PhD in quantum algorithms.
From an astrophysics background, I have done research in theoretical astro-particle physics in the ultra high-energy regime concerning dark matter and their quantum field interactions. My aim in the quantum world is to push the frontier of quantum technology to implement it in astronomical observation to widen the horizon of space observation. My current research is concerning ODNMR spectroscopy for measuring NV-center state in Diamond.
I deeply enjoy theory and computation, and I am growing a taste for experimentation as I gain more experience. Though the road ahead is lengthy, I ride on with excitement. I enjoy achieving a deep understanding of new concepts and will take my time to arrive thereto. I will spend a few years working in industry when I graduate, but I have not ruled out pursuing a doctorate after some time.
Excited by the near-term potential of quantum computing, Emma is interested in the development of novel applications and algorithms for quantum computers. Emma has undertaken substantial research in the simulation of physical systems. Specifically, she has created simulations of a diverse range of molecules using machine learning and has created a simulation of the Hubbard model on a quantum computer. Emma aspires to work in the quantum computing industry, where she aims to contribute to the development of practical applications for quantum computers.
Jai is highly passionate about crafting algorithms for quantum technologies, and fusing them with semiconductor manufacturing, to actualize their effectiveness in the realms of neuro-technology and subterranean imaging.
Having a keen interest in physics, I self-taught undergrad physics, particularly quantum mechanics and electrodynamics. Worked on BB84-QKD based quantum communication satellite for LEO at the Indian Space Research Organisation (ISOR). In-depth researched on quantum random number generators (QRNG) and their applications in cryptography. After working on quantum and classical hybrid machine-learning projects, I realized the need for scalable and fast-calibrating QPUs that could run variational quantum circuits (VQC) in parallel with classical CPUs.
I'm still trying to find out my specific interest; maybe superconducting qubit is my interest now. I'm interested in getting a job in the defense industry, or pursue PhD in quantum.
I have experience from my undergraduate education in atomic and molecular spectroscopy. I hope to use my knowledge gained from UCLA to enter the field of photonics.
My current focus in quantum computing revolves around quantum algorithms and the simulation of physical systems using quantum technologies. I am also very interested in the mechanics of different quantum computers, particularly transmon qubits and trapped ions. Right now, I'm exploring my options in the field of quantum computing, looking for projects that align with my interests and experience. Looking ahead, I aim to join the industry as a Quantum Computational Scientist, with a specific interest in roles that involve developing new quantum computing solutions and contributing to breakthroughs in quantum technology.
As a computer science and mathematics student, I'm interested in researching the potential of quantum algorithms. Furthermore, I'm interested in studying the compilation process for quantum computers. Before joining the MQST program, I had several projects studying algorithms like Grover's and the HHL algorithm with an application in machine learning. In the future, I plan to join the industry and work on the software part of quantum computing.
I believe a wholistic approach is needed to tackle the problems facing quantum computers today and therefore joined the MQST program to gain experience with everything from Shor's Algorithm to transmon architecture. My previous experience primarily lies in topological qubit hardware and design as well as RF and Microwave characterization techniques. My current interests include quantum security and communication specifically regarding QKD and entropy generation. My future career goals are to enter the quantum industry and create quantum secure products for real world communication networks.
Sarah, an international student from Australia, graduated from the University of Portland with a Bachelor's degree in Physics and a minor in Computer Science, while competing as a Division 1 NCAA student-athlete. She then worked as a software engineer for Boeing and Qualcomm, before moving to Los Angeles to pursue her Master's. As a woman in STEM, she aims to be a leader in the field of quantum technology and is passionate about encouraging underrepresented groups to pursue careers in STEM. She is also passionate about exploring the intersection of quantum science and metaphysical phenomena.
In the realm of quantum science and technology, my focus lies at the intersection of quantum finance, specifically in the burgeoning field of topological quantum computing. Having closely collaborated with a quantum finance startup, I've garnered invaluable insights into optimization and quantum error correction. My ongoing project explores the potential existence of quantum computation in nanocavities, leveraging plasmons as qubits. This endeavor aligns seamlessly with my passion for quantum programming and hardware optimization. Looking ahead, my overarching career goal is to contribute for the advancement of technologies such as realms of finance and computation.
Harry is interested in Quantum Information Science and High Energy Physics. He is motivated to bring new applications of physics to the world. Eventually, he would want to use the power of quantum computing to assist in other realms of physics. His research currently focuses on quantum error correction code and quantum simulation. A recent project he worked on is about using GPU to simulate quantum Clifford circuits for error correction, and he is working on an open-source library using CUDA.jl.
Driven by a keen interest in qubits and quantum device design, currently, my research focuses on superconducting Josephson Parameter Amplifiers (JPAs) for Qubit Readout and their potential for advancing quantum technologies applications. Prior to starting my master’s, I worked as a Quantum Circuits Student Researcher for 2 years, delving into experimental research on superconducting quantum device design such as superconducting filters and micro-resonators for qubit readout, as well as on the single photon detection. With a multidisciplinary background in Condensed Matter Physics, Electrical Engineering, and Computer Science, my dream is to bring diverse perspectives and experiences to the quantum community and continue my academic journey by pursuing a Ph.D. in the field.
With a strong background in programming and a passion for quantum programming, my research currently focuses on the architecture and algorithm design for near-term quantum computers. I am developing a quantum circuit simulator, QCsimulator, which supports the simulation of various quantum algorithms under noise using advanced classical algorithms. Additionally, I contribute to the development of Torchquantum. My long-term career aspiration is to get a PhD degree in the domain of quantum algorithms and architecture, and finally build my own quantum computer.
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