dmlc--dgl
93ac29ce34
* upd * upd * upd * lint * fix * fix test * fix * fix * upd * upd * upd * upd * upd * upd * upd * upd * upd * upd * upd tutorial * upd * upd * fix kg * upd doc organization * refresh test * upd * refactor doc * fix lint Co-authored-by: Minjie Wang <minjie.wang@nyu.edu>
.. _tutorials3-index: Generative models ================== * **DGMG** `[paper] <https://arxiv.org/abs/1803.03324>`__ `[tutorial] <3_generative_model/5_dgmg.html>`__ `[PyTorch code] <https://github.com/dmlc/dgl/tree/master/examples/pytorch/dgmg>`__: This model belongs to the family that deals with structural generation. Deep generative models of graphs (DGMG) uses a state-machine approach. It is also very challenging because, unlike Tree-LSTM, every sample has a dynamic, probability-driven structure that is not available before training. You can progressively leverage intra- and inter-graph parallelism to steadily improve the performance. * **JTNN** `[paper] <https://arxiv.org/abs/1802.04364>`__ `[PyTorch code] <https://github.com/dmlc/dgl/tree/master/examples/pytorch/jtnn>`__: This network generates molecular graphs using the framework of a variational auto-encoder. The junction tree neural network (JTNN) builds structure hierarchically. In the case of molecular graphs, it uses a junction tree as the middle scaffolding.