ITASCA Software has announced the release of MPoint2D and MPoint3D, the first commercially available geotechnical software products built on the Material Point Method (MPM). According to the company, MPoint is designed specifically for geotechnical engineering applications and can simulate large deformation, material flow, instability, and post-failure behavior that cannot be captured using conventional mesh-based numerical methods.
The software provides a specialized MPM environment for evaluating how geotechnical systems behave under realistic loading conditions and through stages of extreme deformation. By overcoming the geometric limitations of traditional mesh-based approaches, MPoint helps engineers move beyond simple stability assessments to understand how deformation develops, how failure progresses, and what occurs after failure initiates.
"Many of today's geotechnical problems involve significant movement, progressive failure, and material runout," said Jim Hazzard, Product Manager. "MPoint gives engineers a practical way to apply Material Point Method technology to real-world projects, helping to better understand deformation mechanisms and make more informed engineering decisions."
MPoint is based on a Material Point Method formulation that tracks material points as they move through a fixed computational background grid, rather than relying on a mesh that deforms with the material, becomes distorted, and needs to be rebuilt. MPM is ideal for analyzing scenarios where the engineering question extends beyond stability to understanding how a system deforms, mobilizes, and fails.
With MPoint, engineers can simulate large deformation without mesh distortion or remeshing; progressive failure and localized shear band development; liquefaction, slumping, and material flow; breach initiation and post-failure runout; and interactions between soil, rock, and water within a unified modeling framework.
"Material Point Method technology has long been recognized for its ability to model large deformation and post-failure behavior, but until now, it has not been available in a commercial product designed specifically for geotechnical engineering," said Jibril B. Coulibaly, Computational Scientist. "With MPoint2D and MPoint3D, we're bringing this advanced capability into a practical engineering workflow that helps users better understand how ground systems deform, fail, and evolve over time."
For civil engineering, MPoint is particularly well suited for projects where understanding deformation and post-instability behavior is critical. Engineers can evaluate deformation, failure progression, breach initiation, and potential runout in earthen dams and embankments. The ability to model large movement and material flow provides valuable insight into failure mechanisms and potential consequences. MPoint also enables detailed investigation of slope instability, progressive failure development, and post-failure movement, helping engineers understand how ground conditions, pore pressure changes, and triggering events influence landslide initiation and runout behavior.
In mining, MPoint provides a new tool for evaluating high-consequence geotechnical risks involving extreme ground movement. It can simulate tailings dam deformation, liquefaction triggering, failure progression, breach formation, and material runout to support risk assessment, design evaluation, and operational decision-making for tailings management. Mining engineers can also investigate progressive failure mechanisms in large slopes and embankments, gaining insight into deformation patterns and post-failure behavior that may not be fully represented using traditional small-strain approaches.
MPoint was developed to address the growing need for advanced simulation tools capable of modeling extreme deformation in geotechnical systems without the complexity and computational cost of discrete element modeling. Available in both two-dimensional and three-dimensional versions, engineers can select the appropriate level of model complexity. MPoint can be used as a standalone solution or coupled with FLAC2D or FLAC3D, ITASCA products trusted by engineers for decades. The hybrid approach combines MPM with Finite Volume methods for efficient analysis of complex geotechnical analyses of localized failure and the surrounding ground response.
"Many geotechnical problems involve understanding what happens after instability begins. MPoint was developed to provide a modeling approach that can reproduce large deformation, helping engineers evaluate post-failure ground behavior with confidence, supporting more informed design, risk assessment, and decision-making," said Tryana Garza-Cruz, General Manager, ITASCA North America.
By delivering the first commercially available MPM software specifically developed for geotechnical applications, ITASCA is providing practitioners with a practical path to more realistic simulation of complex ground behavior and the consequences of failure. To learn more about MPoint, visit the ITASCA Software website.
