| Section 3.1 | GPGPU direct solver acceleration |
| Section 3.2 | Parallel ordering for the direct sparse solver |
| Section 3.3 | Thread parallel element and contact search calculations for transient fidelity dynamic analyses |
| Section 3.4 | Parallel support for Abaqus/Standard to Abaqus/Standard import |
| Section 3.5 | Parallel support for Abaqus/Standard co-simulation |
| Section 3.6 | Co-simulation execution procedure |
| Section 3.7 | Mapping thermal and magnetic loads |
| Section 4.5 | Surface-based fluid cavities in Abaqus/Standard |
| Section 4.6 | Orientation distribution for connector elements |
| Section 4.7 | Adjusting nodal coordinates |
| Section 4.13 | Diagnostics for modeling errors associated with mass properties |
| Section 4.14 | Thickness and material orientation distributions for membrane elements and sections |
| Section 5.3 | Improved import and translation of membrane data from Nastran models |
| Section 6.1 | Coupled thermal-electrical-structural analysis |
| Section 6.2 | Time-harmonic eddy current analysis |
| Section 6.5 | Continued enhancements to the XFEM-based crack propagation capability |
| Section 6.7 | Enhancements to coupled structural-acoustic analysis |
| Section 6.8 | AMS eigensolver performance improvement |
| Section 6.9 | Enhanced iterative solver capability to handle dense linear constraints |
| Section 6.10 | Matrix generation enhancements |
| Section 6.11 | Matrix input enhancements |
| Section 6.12 | Defining a spectrum using values of S as a function of frequency and damping in Abaqus/CAE |
| Section 6.13 | Creating a spectrum from a user-specified amplitude in Abaqus/Standard |
| Section 6.14 | New modal and directional summation methods for response spectrum analysis |
| Section 6.15 | Performing response spectrum analyses using the high-performance SIM architecture |
| Section 6.16 | Using uncoupled eigenmodes to generate a coupled acoustic-structural substructure |
| Section 6.18 | Contact iterations solution technique no longer available |
| Section 6.19 | Synchronizing restart information written in a co-simulation |
| Section 6.20 | Including the effect of a residual stress field on contour integral evaluation |
| Section 6.21 | Performance improvement for modal steady-state dynamic analysis |
| Section 6.22 | Import of pipe elements from Abaqus/Standard to Abaqus/Explicit |
| Section 6.23 | New iterative solver option for incomplete LU factorization |
| Section 7.3 | Material models for electromagnetic problems |
| Section 8.1 | Tapered beams and improved mass formulation |
| Section 8.2 | Linear pore pressure elements |
| Section 8.6 | Coupled thermal-electrical-structural elements |
| Section 8.7 | Electromagnetic elements |
| Section 9.1 | Three-dimensional pressure penetration loading |
| Section 9.5 | Specifying the source and target regions for temperature mapping |
| Section 9.8 | Prescribing loads and boundary conditions in a time-harmonic eddy current analysis |
| Section 10.2 | Improvement to coupling definition |
| Section 11.1 | Parallel cavity radiation |
| Section 11.2 | Penalty stiffness for contact involving gaskets |
| Section 11.4 | Supplementary edge-to-surface formulation for general contact |
| Section 11.5 | Accounting for friction coefficient changes in default choice of solution scheme |
| Section 11.6 | De-emphasized contact controls |
| Section 11.7 | Disallowed combination of features at contact interfaces |
| Section 11.8 | Enhancements for contact interactions involving pore fluid diffusion |
| Section 13.3 | Output database size reduction |
| Section 13.13 | Contact stress output improvements |
| Section 13.14 | Contact stress error indicators |
| Section 14.1 | Defining damage initiation criterion via user subroutine UDMGINI |
| Section 14.3 | Prescribing nonuniform loads and boundary conditions in a time-harmonic eddy current analysis |
| Section 15.1 | Support for NumPy library for Python in Abaqus |