In the world of high-performance materials—from solid-state batteries to aerospace composites—cracks are the enemy. Even a microscopic fracture can lead to catastrophic failure, reduced lifespan, or loss of conductivity. For engineers and researchers, the holy grail is developing a microstructure that maintains integrity under mechanical, thermal, or chemical stress.
GeoDict allows users to go from a CT scan or a synthetic model to a full mechanical simulation in a single workflow. Here is how it helps achieve crack-free results: 1. Stress and Strain Analysis (FeelMath) geodict crack free
Creating ceramic filters that remain crack-free under high pressure and high-temperature backwashing. GeoDict allows users to go from a CT
By using digital simulation, developers can identify "hot spots" where stress concentrates and redesign the material to stay crack-free throughout its lifecycle. How GeoDict Facilitates Crack-Free Designs By using digital simulation, developers can identify "hot
A material that remains crack-free isn't just "stronger"—it is more reliable. In battery technology, for example, the mechanical strain during charging and discharging causes active materials to expand and contract. If the microstructure isn't optimized, this leads to "mechanical degradation" (cracking), which quickly kills the battery’s capacity.
Often, cracks aren't caused by physical force alone, but by thermal expansion or chemical swelling. GeoDict’s ability to couple thermal and mechanical properties allows for the design of crack-free components that can survive extreme temperature swings or chemical cycling. Real-World Applications
Designing electrode architectures that accommodate lithium-ion flux without cracking the active particles or delaminating from the current collector.