Timezone: »
Sum-product networks have recently emerged as an attractive representation due to their dual view as a special type of deep neural network with clear semantics and a special type of probabilistic graphical model for which inference is always tractable. Those properties follow from some conditions (i.e., completeness and decomposability) that must be respected by the structure of the network. As a result, it is not easy to specify a valid sum-product network by hand and therefore structure learning techniques are typically used in practice. This paper describes a new online structure learning technique for feed-forward and recurrent SPNs. The algorithm is demonstrated on real-world datasets with continuous features for which it is not clear what network architecture might be best, including sequence datasets of varying length.
Author Information
Agastya Kalra (University of Waterloo)
Abdullah Rashwan (University of Waterloo)
Wei-Shou Hsu (University of Waterloo)
Pascal Poupart (University of Waterloo & RBC Borealis AI)
Prashant Doshi (University of Georgia)
George Trimponias (Huawei Noah's Ark Lab)
More from the Same Authors
-
2022 Poster: Optimality and Stability in Non-Convex Smooth Games »
Guojun Zhang · Pascal Poupart · Yaoliang Yu -
2022 : Attribute Controlled Dialogue Prompting »
Runcheng Liu · Ahmad Rashid · Ivan Kobyzev · Mehdi Rezaghoizadeh · Pascal Poupart -
2022 : Geometric attacks on batch normalization »
Amur Ghose · Apurv Gupta · Yaoliang Yu · Pascal Poupart -
2022 Spotlight: Optimality and Stability in Non-Convex Smooth Games »
Guojun Zhang · Pascal Poupart · Yaoliang Yu -
2022 : Attribute Controlled Dialogue Prompting »
Runcheng Liu · Ahmad Rashid · Ivan Kobyzev · Mehdi Rezaghoizadeh · Pascal Poupart -
2022 Workshop: Second Workshop on Efficient Natural Language and Speech Processing (ENLSP-II) »
Mehdi Rezagholizadeh · Peyman Passban · Yue Dong · Lili Mou · Pascal Poupart · Ali Ghodsi · Qun Liu -
2022 Poster: Uncertainty-Aware Reinforcement Learning for Risk-Sensitive Player Evaluation in Sports Game »
Guiliang Liu · Yudong Luo · Oliver Schulte · Pascal Poupart -
2021 : Best Papers and Closing Remarks »
Ali Ghodsi · Pascal Poupart -
2021 : Panel Discussion »
Pascal Poupart · Ali Ghodsi · Luke Zettlemoyer · Sameer Singh · Kevin Duh · Yejin Choi · Lu Hou -
2021 Workshop: Efficient Natural Language and Speech Processing (Models, Training, and Inference) »
Mehdi Rezaghoizadeh · Lili Mou · Yue Dong · Pascal Poupart · Ali Ghodsi · Qun Liu -
2021 : Opening Speech »
Pascal Poupart -
2021 Poster: Quantifying and Improving Transferability in Domain Generalization »
Guojun Zhang · Han Zhao · Yaoliang Yu · Pascal Poupart -
2021 Poster: Learning Tree Interpretation from Object Representation for Deep Reinforcement Learning »
Guiliang Liu · Xiangyu Sun · Oliver Schulte · Pascal Poupart -
2020 Poster: Learning Agent Representations for Ice Hockey »
Guiliang Liu · Oliver Schulte · Pascal Poupart · Mike Rudd · Mehrsan Javan -
2020 Poster: Learning Dynamic Belief Graphs to Generalize on Text-Based Games »
Ashutosh Adhikari · Xingdi Yuan · Marc-Alexandre Côté · Mikuláš Zelinka · Marc-Antoine Rondeau · Romain Laroche · Pascal Poupart · Jian Tang · Adam Trischler · Will Hamilton -
2018 Workshop: Reinforcement Learning under Partial Observability »
Joni Pajarinen · Chris Amato · Pascal Poupart · David Hsu -
2018 Poster: Deep Homogeneous Mixture Models: Representation, Separation, and Approximation »
Priyank Jaini · Pascal Poupart · Yaoliang Yu -
2018 Poster: Unsupervised Video Object Segmentation for Deep Reinforcement Learning »
Vikash Goel · Jameson Weng · Pascal Poupart -
2018 Poster: Monte-Carlo Tree Search for Constrained POMDPs »
Jongmin Lee · Geon-Hyeong Kim · Pascal Poupart · Kee-Eung Kim -
2016 Poster: Online Bayesian Moment Matching for Topic Modeling with Unknown Number of Topics »
Wei-Shou Hsu · Pascal Poupart -
2016 Poster: A Unified Approach for Learning the Parameters of Sum-Product Networks »
Han Zhao · Pascal Poupart · Geoffrey Gordon -
2015 Poster: Individual Planning in Infinite-Horizon Multiagent Settings: Inference, Structure and Scalability »
Xia Qu · Prashant Doshi