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Wan Sun
Wan Sun
Bestätigte E-Mail-Adresse bei ujs.edu.cn - Startseite
Titel
Zitiert von
Zitiert von
Jahr
Development of the optimal bluff body for wind energy harvesting using the synergetic effect of coupled vortex induced vibration and galloping phenomena
W Sun, S Jo, J Seok
International Journal of Mechanical Sciences 156, 435-445, 2019
1162019
A novel self-tuning wind energy harvester with a slidable bluff body using vortex-induced vibration
W Sun, J Seok
Energy conversion and management 205, 112472, 2020
712020
Development of a novel vibro-wind galloping energy harvester with high power density incorporated with a nested bluff-body structure
W Sun, F Guo, J Seok
Energy conversion and management 197, 111880, 2019
562019
Novel galloping-based piezoelectric energy harvester adaptable to external wind velocity
W Sun, J Seok
Mechanical Systems and Signal Processing 152, 107477, 2021
422021
Magnetically coupled piezoelectric galloping-based energy harvester using a tandem configuration
W Sun, H Jang, J Seok
Mechanical Systems and Signal Processing 161, 107952, 2021
272021
Frequency-tunable electromagnetic energy harvester using magneto-rheological elastomer
W Sun, J Jung, J Seok
Journal of Intelligent Material Systems and Structures 27 (7), 959-979, 2016
232016
Design, simulation, and optimization of a frequency-tunable vibration energy harvester that uses a magnetorheological elastomer
W Sun, J Jung, XY Wang, P Kim, J Seok, D Jang
Advances in Mechanical Engineering 7 (1), 147421, 2015
172015
Galloping-based energy harvester considering enclosure effect
S Jo, W Sun, C Son, J Seok
AIP Advances 8 (9), 2018
162018
Adaptive wind energy harvester with transformable bluff body
S Jeon, W Sun, H Jang, J Seok
Energy Conversion and Management 238, 114159, 2021
122021
Lubrication characteristics of a textured porous sliding bearing
S Lee, D Jang, XY Wang, P Kim, W Sun, J Seok
Advances in Mechanical Engineering 7 (3), 1687814015573618, 2015
102015
Performance enhancement of galloping-based piezoelectric energy harvesting by exploiting 1: 1 internal resonance of magnetically coupled oscillators
W Sun, C Guo, G Cheng, S He, Z Yang, J Ding
Nonlinear Dynamics 108 (4), 3347-3366, 2022
62022
An enhanced galloping-based piezoelectric energy harvester with non-rotational bluff body
W Sun, Y Zhang, G Cheng, S He, Z Yang, J Ding
Applied Physics Letters 121 (17), 2022
52022
High-dimensional harmonic balance analysis for a turning process with state-dependent delay
P Kim, W Sun, JW Seok
Advanced Materials Research 655, 515-520, 2013
32013
Performance investigation of a crossing angle adjustable galloping-based energy harvester
S He, Q Zhang, Z Yang, W Sun
International Journal of Mechanical Sciences 233, 107660, 2022
22022
The Visualization Analysis of Second Language Acquisition's Research Evolution
Y Zhang, W Sun
2nd International Conference on Contemporary Education, Social Sciences and …, 2017
22017
A novel elastic strip suspension-based bi-directional electromagnetic wind energy harvester designed specifically for wind energy factories
B Su, Y Wang, J Li, T Guo, G Cheng, W Sun
Mechanical Systems and Signal Processing 208, 111059, 2024
12024
A Comprehensive Review of Advancements and Challenges from Solid–Solid to Liquid–Solid Triboelectric Nanogenerators
G Cheng, T Zhang, X Fu, J Hua, W Dai, J Cao, W Sun, J Ding
Advanced Materials Technologies, 2301588, 2024
12024
Enhancing output performance of galloping-based energy harvesting using asymmetric bluff body
Y Zhang, G Cheng, J Seok, J Ding, W Sun
Ocean Engineering 294, 116793, 2024
2024
Performance Enhancing of Galloping-based Piezoelectric Energy Harvesting by Exploiting 1: 1 Internal Resonance of Magnetically Coupled Oscillators
W Sun, C Guo, G Cheng, S He, J Ding
2021
Mathematical modeling of a galloping-based piezoelectric wind energy harvesting system using a slidable bluff body
W Sun, J Seok
대한기계학회 춘추학술대회, 1528-1528, 2020
2020
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