Argonne Leadership Computing Facility

ALCF Resources
- Computing Resources
  
  Aurora
  
  Polaris
  
  Sophia
  
  Crux
  
  ALCF AI Testbed
  
  Evaluation Testbeds
  
  Storage and Networking
- Facility Expertise
  
  Facility Expertise
Leadership Computing Resources

The ALCF provides users with access to supercomputing resources that are significantly more powerful than systems typically used for open scientific research.

Featured: Aurora
Science and Engineering
- Output
  
  Projects
  
  Publications
  
  Case Studies
- Allocation Programs
  
  INCITE Program
  
  ALCC Program
  
  Director’s Discretionary
  
  Early Science Program
  
  NAIRR Program
Computational Science

The ALCF is accelerating scientific discoveries in many disciplines, ranging from chemistry and engineering to physics and materials science.

Featured: Engineering
Community and Outreach
- Partnerships
  
  Industry
  
  Collaborations
- Educational Outreach
  
  Women in STEM
  
  Student Programs
- Community
  
  NAIRR Pilot
  
  ALCF Lighthouse Initiative
  
  Exascale Computing Roundtable
Growing the HPC Community

The ALCF is committed to providing training and outreach opportunities that prepare researchers to efficiently use its leadership computing systems, while also cultivating a diverse and skilled HPC workforce for the future.
About
- Get to Know More
  
  Leadership
  
  People
  
  Organizational Chart
  
  Code of Conduct
  
  User Advisory Council
  
  History
- Visit
  
  Visiting ALCF
  
  Tours
- Latest
  
  News
  
  Careers
- Press Kits
  
  ALCF Media Kit
  
  Aurora Media Kit
  
  Reports Archive
Accelerating Science

The Argonne Leadership Computing Facility enables breakthroughs in science and engineering by providing supercomputing resources and expertise to the research community.
Support
- Current
  
  Machine Status
  
  Facility Updates
  
  MyALCF
- Training
  
  Training Videos & Slides
  
  Training Overview
  
  Training and Events
Support Center

The ALCF Support Center assists users with support requests related to their ALCF projects.

Help Desk
Hours: 9:00am-5:00pm CT M-F
Email: support@alcf.anl.gov
Guides
Featured: Get Started

Featured: MyALCF

Computational Design of Novel Semiconductors for Power and Energy Applications

Research Project

Large Scale Simulations of Materials for Quantum Information Science

Research Project

Energy Partition and Particle Acceleration in Laser-Driven Laboratory Magnetized Shocks

Research Project

Relativistic Quantum Dynamics in the Non-Equilibrium Regime

Research Project

Two-Phase Flow Interface Capturing Simulations

Research Project

Hadronic Contributions to the Muon G-2 from Lattice QCD

Research Project

Emergent Geometry and Duality in the Carbon Nucleus

Publications Nature Communications

Electric Dipole Polarizability of 40Ca

Publications Physical Review Research

β+ Gamow-Teller Strengths from Unstable 14O via the (d,2He) Reaction in Inverse Kinematics

Publications Physical Review Letters

Existence of La-site Antisite Defects in LaMO3 (M=Mn, Fe, and Co) Predicted with Many-Body Diffusion Quantum Monte Carlo

Publications Scientific Reports

Subscribe to

Leadership Computing Resources

Featured: Aurora

Computational Science

Featured: Engineering

Growing the HPC Community

Accelerating Science

Support Center

Featured: Get Started

Featured: MyALCF

Computational Design of Novel Semiconductors for Power and Energy Applications

Large Scale Simulations of Materials for Quantum Information Science

Energy Partition and Particle Acceleration in Laser-Driven Laboratory Magnetized Shocks

Relativistic Quantum Dynamics in the Non-Equilibrium Regime

Two-Phase Flow Interface Capturing Simulations

Hadronic Contributions to the Muon G-2 from Lattice QCD

Emergent Geometry and Duality in the Carbon Nucleus

Electric Dipole Polarizability of 40Ca

β+ Gamow-Teller Strengths from Unstable 14O via the (d,2He) Reaction in Inverse Kinematics

Existence of La-site Antisite Defects in LaMO3 (M=Mn, Fe, and Co) Predicted with Many-Body Diffusion Quantum Monte Carlo