About the Precipitation Module (TC-PRISMA)
A screenshot of the Precipitation Module (TC-PRISMA) showing the results of a precipitation calculation of Cementite, M23C6, and M7C3 in a Fe-C-Cr system.
Questions the Precipitation Module (TC-PRISMA) Can Help You Answer
The Precipitation Module (TC-PRISMA) is a relatively general tool for making precipitation simulations. As long as the fundamental model assumptions are met, it is primarily the access to thermodynamic and kinetic data that determines if a problem can be simulated or not. Some typical questions it can help you answer are:
The Precipitation Module (TC-PRISMA) Allows You to Calculate:
Upcoming Training Courses
Precipitation Module (TC-PRISMA) Training
The Precipitation Module (TC-PRISMA) Training is designed for beginners with no prior experience required. This hands-on course covers the simulation of diffusion-controlled multi-particle precipitation in multicomponent alloy systems, including nucleation, growth, and coarsening processes. Participants will explore theory, numerical methods, case studies, and the module’s functionality through interactive teacher-led exercises and Q&A sessions.
We schedule courses two to three times per year, check out the course pages to see if we currently have courses scheduled.
Learn More about the Precipitation Module (TC-PRISMA)
Modeling of Spontaneous Para-equilibrium to Ortho-equilibrium Transition in Cementite Precipitation During Martensite Tempering
Implementing numerical algorithms to optimize the parameters in Kampmann–Wagner Numerical (KWN) precipitation models
Thermodynamic and Kinetic Simulations on Joining and Additive Manufacturing Processes for an ICME Framework
Coupling TQ-Interface with Precipitation Models for Gas Turbine Applications
A collection of videos demonstrating the capabilities of the Precipitation Module (TC-PRISMA).
Modeling the precipitation processes and the formation of hierarchical microstructures in a single crystal high entropy superalloy
Modeling Precipitation Kinetics During Heat Treatment with Calphad-Based Tools
Study of nucleation, growth and coarsening of precipitates in a novel 9%Cr heat resistant steel: Experimental and modeling
