Almost all phenomena in science and engineering are inherently multiscale, and many require exploration across orders of magnitude in both space and time. Solving such problems at the finest scales is computationally prohibitive, whereas the affordable coarser scales do not provide the required fidelity to answer relevant questions.

Understanding such behavior requires coupling across scales adaptively—a task commonly performed using computational science technique.

CASC is leading the development of new scientific machine learning (SciML) technology to explore such scientific behavior across scales through intelligent automation and decision support for complex systems. The cross-cutting nature of such technology makes it widely applicable to many scientific domains. Combined with the modern HPC resources, SciML will provide a new paradigm for large scientific simulations.

The early adoption of CASC’s SciML technology was demonstrated on the “Pilot 2” project for studying cancer initiation mechanisms.

three panels showing scale up from nano to macro

Surprising Places You'll Find ML

Researchers explain why water filtration, wildfires, and carbon capture are becoming more solvable thanks to groundbreaking data science methodologies.

two workers in reflective vests look at a power plant under a sunset

ML and Industrial Control Systems

A novel ML method discovers and predicts key data about networked devices.

two blue rectangles with rainbow-colored shapes at the center

Neural Image Compression

NIC models use ML algorithms to convert image data into numerical representations, providing lightweight data transmission in low-bandwidth scenarios.

7 cutaways of colorful data reconstructions showing memory footprint of each in megabytes; six of these are results from data-reduction strategies; the seventh is the original

PacificVis Best Paper

A resolution-precision-adaptive representation technique reduces mesh sizes, thereby reducing the memory and storage footprints of large scientific datasets.