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Manish Bansal

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IJCAI Conference 2020 Conference Paper

Logic Constrained Pointer Networks for Interpretable Textual Similarity

  • Subhadeep Maji
  • Rohan Kumar
  • Manish Bansal
  • Kalyani Roy
  • Pawan Goyal

Systematically discovering semantic relationships in text is an important and extensively studied area in Natural Language Processing, with various tasks such as entailment, semantic similarity, etc. Decomposability of sentence-level scores via subsequence alignments has been proposed as a way to make models more interpretable. We study the problem of aligning components of sentences leading to an interpretable model for semantic textual similarity. In this paper, we introduce a novel pointer network based model with a sentinel gating function to align constituent chunks, which are represented using BERT. We improve this base model with a loss function to equally penalize misalignments in both sentences, ensuring the alignments are bidirectional. Finally, to guide the network with structured external knowledge, we introduce first-order logic constraints based on ConceptNet and syntactic knowledge. The model achieves an F1 score of 97. 73 and 96. 32 on the benchmark SemEval datasets for the chunk alignment task, showing large improvements over the existing solutions. Source code is available at https: //github. com/manishb89/interpretable_sentence_similarity

IJCAI Conference 2016 Conference Paper

Stochastic Multiresolution Persistent Homology Kernel

  • Xiaojin Zhu
  • Ara Vartanian
  • Manish Bansal
  • Duy Nguyen
  • Luke Brandl

We introduce a new topological feature representation for point cloud objects. Specifically, we construct a Stochastic Multiresolution Persistent Homology (SMURPH) kernel which represents an object's persistent homology at different resolutions. Under the SMURPH kernel two objects are similar if they have similar number and sizes of "holes" at these resolutions. Our multiresolution kernel can capture both global topology and fine-grained topological texture in the data. Importantly, on large point clouds the SMURPH kernel is more computationally tractable compared to existing topological data analysis methods. We demonstrate SMURPH's potential for clustering and classification on several applications, including eye disease classification and human activity recognition.

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