Project (code) | Title | Research area | Principal Investigator |
---|---|---|---|

A1 | The QCD phase diagram and the critical point | theoretical physics | Z. Fodor |

A2 | QCD thermodynamics at vanishing chemical potential | theoretical physics | Z. Fodor |

A3 | Hadron structure and Generalized Parton Distributions | theoretical physics | G. Bali |

A4 | Renormalization of composite operators | theoretical physics | V. Braun, M. Göckeler, K. Szabó |

A5 | Physics of charm | theoretical physics | S. Collins, S. Dürr |

A7 | Strong decays and resonances | theoretical physics | G. Bali |

A8 | Chiral perturbation theory for hadron observables | theoretical physics | A. Schäfer |

A12 | Phenomenological aspects of the QCD crossover region | theoretical physics | S. Borsányi, C. Gattringer |

A13 | Kaon and light quark physics | theoretical physics | C. Hölbling, E. Scholz |

A14 | Hadron distribution amplitudes | theoretical physics | V. Braun |

A15 | Developing techniques for finite density lattice field theory | theoretical physics | C. Gattringer |

A16 | TMDs and DPDs | theoretical physics | A. Schäfer |

Project (code) | Title | Research area | Principal Investigator |
---|---|---|---|

B1 | Linear solvers and matrix functions | applied mathematics | A. Frommer, K. Kahl |

B3 | Algorithms for next generation supercomputers | applied mathematics | A. Frommer, S. Krieg, T. Lippert |

B5 | Numerical time integration and critical slowing down | applied mathematics, theoretical physics, |
M. Günther, F. Knechtli |

Project (code) | Title | Research area | Principal Investigator |
---|---|---|---|

C1 | Development of innovative supercomputer hardware architectures for lattice QCD and similar applications | computer science | T. Lippert, D. Pleiter, T. Wettig |

C2 | Development of system and application software for future supercomputer architectures | computer science | J. Bloch, A. Frommer, S. Solbrig |