Open nbronn opened 2 years ago
Wow this sounds so cool, I'd be really interested in exploring this!
I'm interested in exploring and contributing towards this project
@nbronn Is this a pure coding project? If it isn't, I'm very interested. :-)
Happy to hear the interest! I would not say it is a pure coding project, since the operations will be determined by qubit physics, mathematical analyses (see Zhang et al) and/or compiling techniques (see Ding et al) can be used to increase efficiency of the operations, and this will inform how this information is coded in the transpiler. The idea is that someone will eventually use this on actual quantum hardware, but that is outside the scope of this project.
I'm really interested in this project and looking forward to contributing to it!
Is this project suitable for someone who isn't very proficient in coding? I really like the idea and being a Physics undergraduate I can help with the mathematical formulations.
Hello, I was assigned to this project, to the spin modality group. I'm excited to begin exploring it.
Hi, I was assigned to this project, looking forward to working on it.
Sorry I mixed up with project #17 and #18.
@kjwcoo @msciwoj1 Can you please comment in this issue so that I can assign you?
Like this? @HuangJunye
@HuangJunye Thanks Junye!
@HuangJunye I commented here two weeks ago, but doing it again if it helps.
@kjwcoo @peachnuts @brandhsn @msciwoj1 Can you please upload your presentation here by the end of today? Thank you!
Final QAMP presentation #18 CircuitPulse optimization across different quantum hardware modalities_final.pptx
Description
While Qiskit is nominally a hardware-agnostic platform for gate-based quantum computing, the current transpiler (which takes an "abstract" quantum circuit to one that can be implemented on the available hardware) is more optimized for superconducting qubits (i.e., 2-qubit gates, immutable qubits, static couplings, etc). In order to expand the Qiskit ecosystem to different hardware modalities such as trapped ions, cold neutral atoms, and quantum dots, transpiler passes that take advantage of the physical interactions will be desired (for example, see this preprint as it relates to trapped ions).
Mentor
@nbronn, Research Staff Member at IBM Research
Type of participant
Participants should be familiar with the physics of qubits (for example, this section of the Qiskit textbook or equivalent) and/or compilation and manipulation of quantum circuits as represented by directional acyclic graphs (DAGs), as in this tutorial.
Number of participants
2
Deliverable
Transpiler passes for optimization of circuits for non-superconducting quantum modalities.