The research highlights listed below can be viewed interactively on the booth’s Research Highlights touch screen displays.
Ames Laboratory
- Enabling GAMESS for Exascale Computing in Chemistry & Materials
- Energy Efficient Computational Chemistry: x86 and ARM
- Investigating Novel Hardware Architectures
- Xeon Phi Leadership Computing with GAMESS
- Explicitly Correlated local MRCI and local MRACPF
- Scalable Dynamics with the Fragment Molecular Orbital Method
Argonne
- Argo Containers: Resource Management for Exascale
- FTI
- Mochi
- Theta & Aurora: On the Path to Exascale
- ANL VERIFI Gasoline Diesel Engine Development
- Joint Laboratory for System Evaluation
- RAST, Quantum Dots, Platooning
- ALCF Data Science Program
Brookhaven
- Tackling Chemical, Materials and Biomolecular Challenges in the Exascale Era
- Visualization and Visual Analytics for Multivariate Scientific Data
- Exascale Lattice Gauge Theory
- Streaming Data Analysis on the Wire (AoW)
- Software Defined Network Science Flows (SDN-SF)
- Extreme Scale Machine Learning
Exascale Computing Project
- Exascale Computing Project: Capable Exascale Systems by 2023
- Exascale Computing Project: Software Technology
- DOE Exascale Computing Project: Hardware Technology Focus Area
- Applications at Exascale: Cosmology & Seismology
- Applications at Exascale: Chemistry & Combustion
- CANDLE Accelerates Solutions Toward Three Top Cancer Challenges
Fermilab
- Laboratory Directed Research and Development (LDRD) at Fermilab
- ComPASS for Accelerator Science and Simulation
- Finding the Astrophysical Objects that Produce Gravitational Waves
- HEPCloud: Facility of the Future
- Why Lattice QCD Matters
- USCMS FNAL Tier 1 Facility
Idaho
- MOOSE Simulation Environment
- Simulation Made Simple
- Improving Nuclear Safety
- BISON
- FALCON
- Rattlesnake + MAMMOTH
Lawrence Berkeley
- Optimizing Cori for Data Intensive Science
- The Cori Manycore Optimization Strategy
- Using AMR to Accelerate Breakthrough Science at Exascale
- The Petascale Data Transfer Node (DTN) Project
- JupyterLab: Transforming Computational Science
- Deploying Flexible Photonic Components to Support 400G at ESnet
Lawrence Livermore
- Simulating drug-induced arrhythmias with Cardioid
- TrueNorth chips enable brain-inspired 16-chip supercomputer
- Scaling a high energy laser application (VBL) using MPI and RAJA
- Fast, accurate, million-atom first-principles molecular dynamics
- HPC4Mfg: Virtual blast furnaces for steel manufacturing
- Spack: a flexible tool for managing exascale software
Los Alamos
- Tracing the source of infectious agents
- Machine Learning for High Performance Computing
- The Parallel Fine-grained Soft Error Fault Injector (PFSEFI)
- Preparing Open Science Applications for Trinity
- Turbulence Driven by Opposing Streams of Different Density Fluids
- Ocean Currents and Climate Change
NREL
- Simulation of molecular structure and morphology in organic photovoltaic (OPV) active layer polymers
- Atomistic Molecular Dynamics Simulations of Radical Polymer Materials for Energy Storage
- Simulated LiDAR-Based Wind Turbine Wake Measurement Campaign
Oak Ridge
- Using High Performance Computing for Manufacturing
- Toward an Exascale Ecosystem for Science
- Health Data Sciences Institute at ORNL
- Machine and Deep Learning for the Smartest Exascale Computer
- Summit: The Next Peak in HPC
Pacific Northwest
- Computing Project to Tackle Grid Modernization at Warp Speed
- NWChemEx: Tackling Chemical, Materials & Biomaterials Challenges
- CENATE: A Computing Proving Ground
- Scaling Graph Algorithms on Extreme-scale Architectures
- High Performance Data Analytics
Sandia
- Modeling Primary Atomization of Liquid Fuels Using a Multiphase Approach
- Mitigating Silent Hardware Errors in Scientific Computing
- Competitive O2N2 Separation for Cleaner Power Plants
- Scalable Stochastic Programming with Pyomo
- Evaluating Dragonfly Global Link Architectures
- Lightweight Distributed Metric Service
Savannah River
- Atmospheric Modeling with HPC
Thomas Jefferson National Accelerator Facility
- CLARA Data-Stream Processing Framework
- Parallel Event Reconstruction in GlueX
- Jefferson Lab deploys KNL Cluster, becomes IPCC
- Jefferson Lab collaborates with NVIDIA to speed up code on GPUs
- JLAB collaborates with ODU to design GHOST