Patent Citation Dynamics Modeling via Multi-Attention Recurrent Networks
Taoran Ji, Zhiqian Chen, Nathan Self, Kaiqun Fu, Chang-Tien Lu, Naren, Ramakrishnan

TL;DR
This paper introduces a multi-attention recurrent network model that improves patent citation forecasting by leveraging multiple historical citation sequences, including assignee and inventor data, and predicts both citation timing and category.
Contribution
It presents a novel sequence-to-sequence model with an attention-of-attention mechanism that captures dependencies across multiple citation-related sequences for enhanced forecasting.
Findings
Outperforms existing models in citation prediction accuracy
Effectively forecasts both citation timing and categories
Utilizes large USPTO dataset for validation
Abstract
Modeling and forecasting forward citations to a patent is a central task for the discovery of emerging technologies and for measuring the pulse of inventive progress. Conventional methods for forecasting these forward citations cast the problem as analysis of temporal point processes which rely on the conditional intensity of previously received citations. Recent approaches model the conditional intensity as a chain of recurrent neural networks to capture memory dependency in hopes of reducing the restrictions of the parametric form of the intensity function. For the problem of patent citations, we observe that forecasting a patent's chain of citations benefits from not only the patent's history itself but also from the historical citations of assignees and inventors associated with that patent. In this paper, we propose a sequence-to-sequence model which employs an…
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Taxonomy
TopicsIntellectual Property and Patents · Machine Learning in Materials Science · Computational Drug Discovery Methods
