Date of Award
5-2023
Document Type
Thesis
Degree Name
Master of Science
Degree Discipline
Computer Science
Abstract
Reliability is crucial for industrial recommendation systems. Recent advancement in deep neural networks has greatly improved the performance of modern recommendation systems. However, there is a lack of research on estimating how reliable such recommendation systems are in practical scenarios. Due to the blackbox nature of the deep learning-based systems, many times additional labor has to be involved to examine the prediction accuracy manually, which is costly and time-consuming. To address the problem, we propose a novel approach to estimate the model confidence for a deep learning-based recommendation system. Our approach utilized data statistics to improve the traditional model confidence estimation and maintain the model’s high performance. We further proposed a new evaluation metric to properly compare different prediction confidence estimation approaches. Experimental results showed that the external data statistics could effectively improve the prediction reliability by increasing confidence score, which will lead to significant reduction of the time and labors on the system’s prediction result examination.
Index Terms—Prediction Reliability, Recommendation Systems, Deep Learning, Data Confidence, Named Entity Recognition
Committee Chair/Advisor
Lin Li
Committee Member
Xishuang Dong
Committee Member
Lijun Qian
Committee Member
Ahmed Ahmed
Committee Member
Kiranmai Bellam
Publisher
Prairie View A&M University
Rights
© 2021 Prairie View A & M UniversityThis work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.
Date of Digitization
6/08/2023
Contributing Institution
John B Coleman Library
City of Publication
Prairie View
MIME Type
Application/PDF
Recommended Citation
Banik, P. (2023). Enhancing Prediction Reliability Of Deep Learning By Data Confidence For Recommendation Systems: A Case Study On Named Entity Recognition. Retrieved from https://digitalcommons.pvamu.edu/pvamu-theses/1517