Closed pemmaras closed 1 year ago
@pemmaras @HuangJunye : Hey both, This fits my area. At my day job I do QML, Would like to contribute to this work.
It's interesting for me. I have some knowledge of QML and also the quantum open system. I also like to contribute to this project.
Hi @hykavitha, @ichen17 Thank you for your interest! Are you applying to the QAMP fall 22 program? If so, please indicate your interest on the application form. If you are not applying via the QAMP program there might also be an opportunity to collaborate. Reach out to me (@Das Pemmaraju) over Qiskit slack and we can discuss options.
@pemmaras : I'm working on issue number #35 so will drop from this.
@GemmaDawson I have been mailed to add a comment on this issue. Sorry for the late response.
Slides from Checkpoint 1 QAMP-Project34-Checkpoint1.pptx
Checkpoint-2 Project-34-Checkpoint-2.pdf
Congratulations on completing all the requirements for QAMP Fall 2022!! 🌟🌟🌟
Description
Reduced density matrices (RDMs) play an important role in the theory of open quantum systems and functional approaches that aim to circumvent the exponential scaling associated with the full Hilbert space when approximating observable properties. This project aims to explore quantum machine learning (QML) of time propagators for evolving subsystem densities or density matrices of lattice models comprised of spin or Fermionic degrees of freedom. Our goal is to assess the architectural and data requirements associated with Quantum Neural Networks (QNNs) for accurately predicting the future non-Markovian time evolution of RDMs based on past histories. Our project aims to reproduce and extend recent research in this area: https://arxiv.org/abs/2201.11647 and will be conducted in collaboration with the Sanvito group at Trinity College Dublin, Ireland.
Deliverables
The primary goal of this work is to conduct QML research into predicting the time evolution of quantum subsystems which will lead to a journal publication. Additionally we hope to contribute QML models we develop to the quantum open source community in the form of Qiskit tutorials
Mentors details
Number of mentees
1
Type of mentees