Skip to content
Snippets Groups Projects
Select Git revision
  • e6565a554b031739208416acb260b7b7ad50fe44
  • master default protected
  • fast-resolve_new_newNifty
  • pol_cal_new
  • update_nifty9
  • fast-resolve_cal
  • fast-resolve_new
  • mgj0751
  • fast-resolve-multi-gpu
  • jax-resolve
  • to_jubik
  • multi_resolve
  • pol_cal
  • pol_cal_jr
  • jaxbind_pypi
  • tiles
  • box
  • resolve.re
  • time_freq_avg
  • feature/mf_img
  • jax_finufft
  • v0.14
  • v0.13
  • v0.12
  • v0.10
  • v0.9
  • v0.8
  • v0.7
28 results

resolve

resolve

Documentation: http://ift.pages.mpcdf.de/resolve

Resolve aims to be a general radio aperature synthesis algorithm. It is based on Bayesian principles and formulated in the language of information field theory. Its features include single-frequency imaging with either only a diffuse or a diffuse+point-like sky model as prior, single-channel antenna-based calibration with a regularization in temporal domain and w-stacking.

Resolve is in beta stage: You are more than welcome to test it and help to make it applicable. In the likely case that you encounter bugs, please contact me via email.

Installation

Related publications

  • The variable shadow of M87* (arXiv).
  • Unified radio interferometric calibration and imaging with joint uncertainty quantification (doi, arXiv).
  • Radio imaging with information field theory (doi, arXiv).

How to run the demos

Basic imaging with automatic weighting

  • Download the data and unpack it.
  • Change the path under [data] in cygnusa.cfg to the path where the data is located.
  • Run
resolve cygnusa.cfg

or, if you have mpi4py installed:

mpirun -np <ntasks> resolve cygnusa.cfg

which should speed up the computation. The number of threads used per task can be set via -j. The number threads multiplied by the number of MPI tasks should not exceed the number CPU cores available on the machine.

Multi-frequency imaging

  • Download the data and unpack it.