| Section 5.1 | Finite element conversion to SPH particles based on a uniform background grid |
| Section 5.2 | Generating particles based on user specifications for DEM |
| Section 5.3 | Enhancements to particle interface behavior for DEM |
| Section 5.4 | User load for DEM |
| Section 5.5 | Improved boundary behavior based on ghost particle method |
| Section 5.6 | Skipping restart output altogether for Abaqus/Explicit analyses |
| Section 5.7 | Importing model data and results multiple times for Abaqus/Explicit analyses |
| Section 5.9 | Redistributing the mass of an element set using a scale factor |
| Section 6.3 | Enhancements to the parallel rheological framework |
| Section 6.4 | Import for Johnson-Cook plasticity model |
| Section 6.5 | Strain rate dependence of the yield stress for the nonlinear isotropic/kinematic hardening plasticity model |
| Section 6.6 | Enhancements to the critical state (clay) plasticity model |
| Section 9.2 | Enhancement to surface-based cohesive behavior usage |
| Section 10.4 | Improved domain decomposition for structural-acoustic and acoustic-acoustic tie constraints |
| Section 12.1 | Hardware system verification process |
| Section 12.3 | Translating ODB output database files to SIM format |
| Section 13.1 | Tracer particle output during an Eulerian analysis |
| Section 13.2 | Contact output enhancements |
| Section 13.6 | Network stress output for parallel rheological framework |
| Section 13.8 | Requesting the section failure ratio across layers |
| Section 13.9 | Requesting the element status at the material points |
| Section 13.10 | Sensor definition enhancements |
| Section 13.11 | Requesting reaction force at the control nodes for media transport |
| Section 14.2 | User subroutine VDFLUX to specify nonuniform distributed fluxes |
| Section 14.6 | User-defined viscous behavior for materials defined within the parallel rheological framework |
| Section 14.7 | Allocatable arrays of variable precision |
| Section 14.8 | Allocatable arrays of user-defined types |