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19 | 19 | </a> |
20 | 20 | </p> |
21 | 21 |
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22 | | -DeepFlame is a deep learning empowered computational fluid dynamics package for single or multiphase, laminar or turbulent, reacting flows at all speeds. It aims to provide an open-source platform to combine the individual strengths of [OpenFOAM](https://openfoam.org), [Cantera](https://cantera.org), and [PyTorch](https://pytorch.org/) libraries for deep learning assisted reacting flow simulations. It also has the scope to leverage the next-generation heterogenous supercomputing and AI acceleration infrastructures such as GPU and FPGA. |
| 22 | +DeepFlame is a deep learning empowered computational fluid dynamics package for single or multiphase, laminar or turbulent, reacting flows at all speeds. It aims to provide an open-source platform to combine the individual strengths of [OpenFOAM](https://openfoam.org), [Cantera](https://cantera.org), and [PyTorch](https://pytorch.org/) libraries for deep learning assisted reacting flow simulations. It also has the scope to empower the combustion community to pursue scientific innovation by combining the power of heterogeneous acceleration (GPU/FPGA) with autonomous agent-driven workflows. |
23 | 23 |
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24 | | -The neural network models used in the tutorial examples can be found at– [AIS Square](https://www.aissquare.com/). To run DeepFlame with DNN, download the DNN model [DFODE](https://www.aissquare.com/models/detail?pageType=models&name=DF-ODENet_DNNmodel&id=197) into the case folder you would like to run. |
| 24 | +The neural network models used in the tutorial examples can be found at– [AIS Square](https://www.aissquare.com/). To run DeepFlame with DNN, download the DNN model [DFODE](https://www.aissquare.com/models/detail?pageType=models&name=DF-ODENet_DNNmodel&id=197) into the case folder you would like to run. To train DNN models for your specific problem, please use the [DFODE-kit](https://github.com/deepflame-ai/DFODE-kit) package developed by the DeepFlame team. |
25 | 25 |
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26 | 26 | ## Documentation |
27 | 27 | Detailed guide for installation and tutorials is available on [our documentation website](https://deepflame.deepmodeling.com). |
28 | 28 |
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29 | 29 | ## Features |
| 30 | +New in v2.0 (2026/1/28): |
| 31 | +- Introduce Agent-driven Combustion Scientific Computing as a new research paradigm, extending DeepFlame from pure acceleration to workflow-level automation for CombustionCFD |
| 32 | +- Develope [FlamePilot](./agents/FlamePilot.md), a CFD simulation agent for combustion case setup, runtime diagnosis, and iterative optimization via natural language interaction |
| 33 | +- Introduce [DFODE-kit](https://github.com/deepflame-ai/DFODE-kit), a deep learning package for accelerating stiff, high-dimensional chemical kinetics ODEs |
| 34 | +- Develope [DFODE-Kit Trainer](./agents/DFODE-kit-Trainer.md), an agent-driven workflow for training combustion-chemistry neural-networks |
| 35 | +- Improve initialization in `dfChemistryModel` |
| 36 | +- Fix bug in `df0DFoam` |
| 37 | +- Fix bug in LES `SIGMA` sgs model |
| 38 | +- Add support for the localBlended scheme |
| 39 | +- Change build-test actions to self-hosted runner |
| 40 | + |
30 | 41 | New in v1.6 (2025/5/30): |
31 | 42 | - Add a new solver, dfSteadyFoam, a steady-state compressible flow solver. It supports turbulence and uses the SIMPLE algorithm to efficiently compute steady solutions |
32 | 43 | - Extend energy model to support sensible enthalpy (hs) in addition to absolute enthalpy (ha) and internal energy (ea). Furthermore, T, h and cp can now be computed independently of Cantera, improving flexibility and removing external dependencies. `CANTERA_THERMO` is added in bashrc to control method to calculate h, cp and update T. `CANTERA_THERMO=1`(current default) means using Cantera and `CANTERA_THERMO=0` means using deepflame. |
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