Tianyu Wang

Dr. Tianyu Wang

orcid

Research Focus & Metrics

Academic Career Length

7Years (2020-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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6 March 2025 in Journal of Manufacturing Systems
Verified
Journal Article
Open access
TWTianyu Wang
Tianyu Wang
Zhihao LiuZhihao Liu
Zhihao Liu
LWLihui Wang
Lihui Wang
MLMian Li
Mian Li
Xi Vincent WangXi Vincent Wang
Xi Vincent Wang

10 July 2021 in International Journal of Computer Assisted Radiology and Surgery
Verified
Journal Article
Closed access
PDF file
TWTianyu Wang
Tianyu Wang
MJMinhao Jin
Minhao Jin
MLMian Li
Mian Li

21 July 2021 in ACM Transactions on Knowledge Discovery From Data
Verified
Journal Article
Open access
MDMing Ding
Ming Ding
TWTianyu Wang
Tianyu Wang
XWXudong Wang
Xudong Wang
In smartphone data analysis, both energy consumption modeling and user behavior mining have been explored extensively, but the relationship between energy consumption and user behavior has been rarely studied. Such a relationship is explored over large-scale users in this article. Based on energy consumption data, where each users’ feature vector is represented by energy breakdown on hardware components of different apps, User Behavior Models (UBM) are established to capture user behavior patterns (i.e., app preference, usage time). The challenge lies in the high diversity of user behaviors (i.e., massive apps and usage ways), which leads to high dimension and dispersion of data. To overcome the challenge, three mechanisms are designed. First, to reduce the dimension, apps are ranked with the top ones identified as typical apps to represent all. Second, the dispersion is reduced by scaling each users’ feature vector with typical apps to unit ℓ 1 norm. The scaled vector becomes Usage Pattern, while the ℓ 1 norm of vector before scaling is treated as Usage Intensity. Third, the usage pattern is analyzed with a two-layer clustering approach to further reduce data dispersion. In the upper layer, each typical app is studied across its users with respect to hardware components to identify Typical Hardware Usage Patterns (THUP). In the lower layer, users are studied with respect to these THUPs to identify Typical App Usage Patterns (TAUP). The analytical results of these two layers are consolidated into Usage Pattern Models (UPM), and UBMs are finally established by a union of UPMs and Usage Intensity Distributions (UID). By carrying out experiments on energy consumption data from 18,308 distinct users over 10 days, 33 UBMs are extracted from training data. With the test data, it is proven that these UBMs cover 94% user behaviors and achieve up to 20% improvement in accuracy of energy representation, as compared with the baseline method, PCA. Besides, potential applications and implications of these UBMs are illustrated for smartphone manufacturers, app developers, network providers, and so on.

9 December 2025 in Applied Energy
Verified
Journal Article
Closed access
JQJingbo Qu
Jingbo Qu
JSJiale Shen
Jiale Shen
Weihan LiWeihan Li
Weihan Li
TWTianyu Wang
Tianyu Wang
YWYijie Wang
Yijie Wang
ZWZhaoguang Wang
Zhaoguang Wang

13 June 2024 in Journal of Intelligent Manufacturing
Verified
Journal Article
Closed access
PDF file
TWTianyu Wang
Tianyu Wang
RZRuixiang Zheng
Ruixiang Zheng
MLMian Li
Mian Li
CCChangbing Cai
Changbing Cai
SZSiqi Zhu
Siqi Zhu
YLYangbing Lou
Yangbing Lou