MuST Collaboration on Disordered Materials
Multiple Scattering Theory for Disordered Systems
Welcome to the MuST Project. MuST, a Multiple Scattering Theory based the first principle public computational framework with exascale computing capability for the study of quantum phenomena in disordered materials. MuST is developed based on full-potential multiple scattering theory, also known as the Korringa-Kohn-Rostoker (KKR) method, with Green's function approach. It is built upon decades of development of research codes led by Malcolm Stocks, and his postdocs and students, in the Theory Group of Metals and Ceramics Division, which later became the Materials Science and Technology Division, in Oak Ridge National Laboratory. The original research codes include Korringa-Kohn-Rostoker Coherent Potential Approximation (KKR-CPA), a highly efficient ab initio method for the study of random alloys, and Locally Self-consistent Multiple Scattering (LSMS) the method, a linear scaling ab initio code capable of treating extremely large disordered systems from the first principles using the largest parallel supercomputers available.
The MuST project is a team effort, requiring to involve dedicated researchers from condensed matter physics, high-performance computing, computational materials science, applied mathematics and software engineering communities. The current participants of the MuST project include:
- Wang, Yang (Pittsburgh Supercomputing Center, Carnegie Mellon University, USA)
- Eisenbach, Markus (Center for Computational Sciences, Oak Ridge National Laboratory, USA)
- Tam, Ka-Ming (Department of Physics, Louisianna State University, USA)
- Terletska, Hanna (Department of Physics, Middle Tennessee State University, USA)
- Widom, Michael (Carnegie Mellon University, USA)
- Chioncel, Liviu (Institute of Physics, Augsburg University, Germany)
- Dobrosavljevic, Vlad (Department of Physics, Florida State University, USA)
- Xianglin, Liu (Peng Cheng Laboratory, Shenzhen, China)
- Zhang, Yi (Kavli Institute for Theoretical Sciences, Beijing 100190, China)
- Mondal, Wasim (Department of Physics, Middle Tennessee State University, USA)
- Karabin, Mariia (Oak Ridge National Laboratory, USA)
- Liang, Xia (Pittsburgh Supercomputing Center, Carnegie Mellon University, USA)
- Raghuraman, Vishnu (Pittsburgh Supercomputing Center, Carnegie Mellon University, USA)
- Anna, Egel (Pittsburgh Supercomputing Center, Carnegie Mellon University, USA)
- Yuqing, Lin (Pittsburgh Supercomputing Center, Carnegie Mellon University, USA) MuST GitHub can be found here: MuST GitHub .
- Download the package
- Modify/Create your own architecture file, your_architecture_file, under the MuST/architecture/ directory
- Build the executables
MuST Installation Instructions
In the current code release (v1.8.9), MuST consists of three computational components:MST: A density functional theory (DFT) based ab initio code which allows to perform electronic structure calculations with the KKR, KKR-CPA, KKR-CPA with cluster average, and LSMS methods, which are interfaced with the many-body physics solvers via local Green function and self-energy calculations.
KUBO: A Kubo-Greenwood formula based code which allows to perform ab initio calculations of the electrical conductivity for random alloys. The development effort is led by Mike Widom with NSF/CSSI funding support under award number 2103958.
LSMS: An extreme performance code which is designed to run LSMS and WL-LSMS calculations on the most advanced supercomputing.
For the MuST code and installation instructions, visit our GitHub page.
> git clone https://github.com/mstsuite/MuST
> cd MuST
> make your_architecture_file
> make install
If the above procedures are successful, the executable binaries are created under the directory MuST/bin/.
Update the MuST Package on Your Computer
MuST packages are periodically updated with new releases, including bug fixes and additional functionalities. You may update and rebuild your code using the following commands:
> cd MuST
> git pull
> make clean
> make your_architecture_file
MuST YouTube Channel
A MuST Youtube Channel, called "MuST Program for Disordered Materials," has been created to allow viewing our webinar and workshop series online.
Visit our YouTube channel: MuST Program for Disordered MaterialsTo get notified of new videos/seminars, please subscribe to our MuST Youtube channel.