GraphITE: Estimating Individual Effects of Graph-structured Treatments

被引:0
|
作者
Harada S. [1 ]
Kashima H. [1 ]
机构
[1] Kyoto University, Japan
关键词
causal inference; graph neural networks; treatment effect estimation;
D O I
10.1527/tjsai.37-2_D-M73
中图分类号
学科分类号
摘要
Outcome estimation of treatments for individual targets is a crucial foundation for decision making based on causal relations. Most of the existing outcome estimation methods deal with binary or multiple-choice treatments; however, in some applications, the number of interventions can be very large, while the treatments themselves have rich information. In this study, we consider one important instance of such cases, that is, the outcome estimation problem of graph-structured treatments such as drugs. Due to the large number of possible interventions, the coun-terfactual nature of observational data, which appears in conventional treatment effect estimation, becomes a more serious issue in this problem. Our proposed method GraphITE (pronounced ‘graphite’) obtains the representations of the graph-structured treatments using graph neural networks, and also mitigates the observation biases by using the HSIC regularization that increases the independence of the representations of the targets and the treatments. In con-trast with the existing methods, which cannot deal with “zero-shot” treatments that are not included in observational data, GraphITE can efficiently handle them thanks to its capability of incorporating graph-structured treatments. The experiments using the two real-world datasets show GraphITE outperforms baselines especially in cases with a large number of treatments. © 2022, Japanese Society for Artificial Intelligence. All rights reserved.
引用
收藏
相关论文
共 50 条
  • [41] Learning the Implicit Semantic Representation on Graph-Structured Data
    Wu, Likang
    Li, Zhi
    Zhao, Hongke
    Liu, Qi
    Wang, Jun
    Zhang, Mengdi
    Chen, Enhong
    DATABASE SYSTEMS FOR ADVANCED APPLICATIONS (DASFAA 2021), PT I, 2021, 12681 : 3 - 19
  • [42] Graph-structured populations and the Hill-Robertson effect
    Whigham, Peter A.
    Spencer, Hamish G.
    ROYAL SOCIETY OPEN SCIENCE, 2021, 8 (03):
  • [43] MULTISCALE DISCRETE FRAMELET TRANSFORM FOR GRAPH-STRUCTURED SIGNALS
    Ji, Hui
    Shen, Zuowei
    Zhao, Yufei
    MULTISCALE MODELING & SIMULATION, 2020, 18 (03): : 1210 - 1241
  • [44] Quantum Walk Neural Networks for Graph-Structured Data
    Dernbach, Stefan
    Mohseni-Kabir, Arman
    Pal, Siddharth
    Towsley, Don
    COMPLEX NETWORKS AND THEIR APPLICATIONS VII, VOL 2, 2019, 813 : 182 - 193
  • [45] Transfer Learning for Deep Learning on Graph-Structured Data
    Lee, Jaekoo
    Kim, Hyunjae
    Lee, Jongsun
    Yoon, Sungroh
    THIRTY-FIRST AAAI CONFERENCE ON ARTIFICIAL INTELLIGENCE, 2017, : 2154 - 2160
  • [46] On the complexity of the optimal transport problem with graph-structured cost
    Fan, Jiaojiao
    Haasler, Isabel
    Karlsson, Johan
    Chen, Yongxin
    INTERNATIONAL CONFERENCE ON ARTIFICIAL INTELLIGENCE AND STATISTICS, VOL 151, 2022, 151
  • [47] GRAPH-STRUCTURED SPARSE REGULARIZATION VIA CONVEX OPTIMIZATION
    Kuroda, Hiroki
    Kitahara, Daichi
    2022 IEEE INTERNATIONAL CONFERENCE ON ACOUSTICS, SPEECH AND SIGNAL PROCESSING (ICASSP), 2022, : 5538 - 5542
  • [48] EXPONENTIAL DECAY OF SENSITIVITY IN GRAPH-STRUCTURED NONLINEAR PROGRAMS
    Shin, Sungho
    Anitescu, Mihai
    Zavala, Victor M.
    SIAM JOURNAL ON OPTIMIZATION, 2022, 32 (02) : 1156 - 1183
  • [49] A pedagogical view on software modeling and graph-structured diagrams
    Tamai, Tetsuo
    Software Engineering Education in the Modern Age, 2006, 4309 : 59 - 70
  • [50] Large vocabulary word recognition based on a graph-structured dictionary
    Minamino, K
    ICSLP 96 - FOURTH INTERNATIONAL CONFERENCE ON SPOKEN LANGUAGE PROCESSING, PROCEEDINGS, VOLS 1-4, 1996, : 2123 - 2126