-
Notifications
You must be signed in to change notification settings - Fork 57
New issue
Have a question about this project? Sign up for a free GitHub account to open an issue and contact its maintainers and the community.
By clicking “Sign up for GitHub”, you agree to our terms of service and privacy statement. We’ll occasionally send you account related emails.
Already on GitHub? Sign in to your account
Add blog post examples to documentation/tutorials #22
Comments
A few questions:
|
|
Follow up thought: To make the example quantum specific hardware, is it worth including the calculations that give the geometry (Ej Ec etc.) or should it be written with the geometry as given? It's a case of what would make it more interesting for the quantum background I suppose. |
Hi, I am attempting to use Palace for the first time (outside of running the example scripts) by simulating 5 microstrip resonators coupled to a feed line. |
Hi @fieldMC, thank you for your interest! This has fallen a bit behind schedule with some other things we have been working on, but should be relatively straightforward to finalize in the coming weeks. In the meantime, if you have any specific questions for getting started with simulating your model using Palace, I would be happy to do my best to help out if you want to just follow up in this issue. |
Thank you @sebastiangrimberg, I am trying to set up the simulation to run similarly to the cpw example. I used COMSOL to set up the vacuum with the silicon substrate in it and the device layout (set as a PEC) on the substrate. The error I am receiving at the moment is:
The only materials I defined in the config file were silicon and air. I have a feeling the error could come from incorrectly assigned Attributes either in the wave port, domains or PEC. |
@fieldMC This error is likely occurring because you have defined wave port boundaries internal to the computational domain. Unlike lumped port boundaries, wave ports must be defined on the outer boundary of the computational domain and be "one-sided" in the sense that mesh elements only exist on one side of the boundary. For an explanation of this, see for example the descriptions of lumped and wave ports in HFSS here. I realize now that our documentation around this for Palace is insufficient so will file an issue to update it and make it more clear for users. |
In reflection this makes a lot of sense, it seems to be working now. Thank you for the help! |
Hi, I also second this suggestion, particularly for the EPR eigenmode analysis. It is said that Palace will automatically perform EPR simulation and output the result in port-EPR.csv once we defined the |
Thank you for the reminder here, @ferrispnugraha. I agree it will be a useful instructive example and I should be able to get to this sometime in the coming one or two weeks. |
Looking forward to the examples @sebastiangrimberg ! For my case, I am performing eigenmode analysis on system with some floating PEC surfaces and also define ground boundaries in some of them, but I encountered:
Curious what is the case. I have tried to make sure that they do not overlap or are double-counted. |
@ferrispnugraha I believe your issue is that the The eigenmode problem description is solving for the electric field E, which looking at the gauge relations can be in a simplification thought of as the gradient of the electrostatic potential. So attempting to apply a |
Now it makes sense @hughcars , thank you for clarifying the concepts. |
Hi I am also interested in using Palace for qubit simulation and I wonder if this could still be possible. I would like to import models from Comsol and run them but have troubles creating the config file and exporting the Comsol mesh. Thank you. |
Add meshes, configuration files for the applications from https://aws.amazon.com/blogs/quantum-computing/aws-releases-open-source-software-palace-for-cloud-based-electromagnetics-simulations-of-quantum-computing-hardware/ to the examples section of the documentations, with associated writeups.
This adds some larger scale examples to the included tutorials for benchmarking, along with quantum hardware-specific walkthroughs for users.
The text was updated successfully, but these errors were encountered: