With the upcoming deployment of (pre-)exascale high-performance computers, the computational materials science community is facing several challenges. Nonetheless, harvesting this huge amount of computational power enables urgently needed opportunities. Together with the MPCDF and several European partners, the NOMAD Laboratory of the FHI has initiated, installed, and is leading the NOMAD Center of Excellence (CoE) to enable the next generation of electronic-structure calculations. Key items of the NOMAD CoE are extreme-scale data and exascale computing
We consider the role that large-scale electronic structure computations can now play in the modellin...
The Novel Materials Discovery (NOMAD) Laboratory is a user-driven platform for sharing and exploitin...
In October, 2016, the US Department of Energy launched the Exascale Computing Project, which aims to...
Electronic structure calculations have been instrumental in providing many important insights into a...
Progression of computational resources towards exascale computing makes possible simulations of unpr...
The advent of Advanced/Additive Manufacturing and the Materials Genome Initiative has placed signifi...
Data is a crucial raw material of this century, and the amount of data that has been created in mate...
Progression of computational resources towards exascale computing makes possible simulations of unpr...
Addressing certain materials science problems, e.g. inhomogeneous materials, using Density Functiona...
The analysis of coherent structures is a common problem in many scientific domains ranging from astr...
Scientific computation has come into its own as a mature technology in all fields of science. Never ...
Rapid growth in data, computational methods, and computing power is driving a remarkable revolution ...
The Novel Materials Discovery (NOMAD) Laboratory is a user-driven platform for sharing and exploitin...
FHI-aims is a quantum mechanics software package based on numeric atom-centered orbitals (NAOs) with...
Advances in high performance computing (HPC) have provided a way to treat large, computationally dem...
We consider the role that large-scale electronic structure computations can now play in the modellin...
The Novel Materials Discovery (NOMAD) Laboratory is a user-driven platform for sharing and exploitin...
In October, 2016, the US Department of Energy launched the Exascale Computing Project, which aims to...
Electronic structure calculations have been instrumental in providing many important insights into a...
Progression of computational resources towards exascale computing makes possible simulations of unpr...
The advent of Advanced/Additive Manufacturing and the Materials Genome Initiative has placed signifi...
Data is a crucial raw material of this century, and the amount of data that has been created in mate...
Progression of computational resources towards exascale computing makes possible simulations of unpr...
Addressing certain materials science problems, e.g. inhomogeneous materials, using Density Functiona...
The analysis of coherent structures is a common problem in many scientific domains ranging from astr...
Scientific computation has come into its own as a mature technology in all fields of science. Never ...
Rapid growth in data, computational methods, and computing power is driving a remarkable revolution ...
The Novel Materials Discovery (NOMAD) Laboratory is a user-driven platform for sharing and exploitin...
FHI-aims is a quantum mechanics software package based on numeric atom-centered orbitals (NAOs) with...
Advances in high performance computing (HPC) have provided a way to treat large, computationally dem...
We consider the role that large-scale electronic structure computations can now play in the modellin...
The Novel Materials Discovery (NOMAD) Laboratory is a user-driven platform for sharing and exploitin...
In October, 2016, the US Department of Energy launched the Exascale Computing Project, which aims to...