Logo image
Analysis of self-heating-related instability in n-channel low-temperature polysilicon TFTs with different S/D contact hole densities
期刊文章   開放取用(OA)

Analysis of self-heating-related instability in n-channel low-temperature polysilicon TFTs with different S/D contact hole densities

Y.-F. Tu, T.-C. Chang, K.-J. Zhou, Y.-H. Hung, Y.-Z. Zheng, J.-J. Chen, M.-C. Tai, Y.-X. Wang, W.-C. Hung, W.-C. Hung, …
Applied Physics Express, 卷.15(3)
2022
Web of Science ID: WOS:000754070100001

摘要

contact hole low-temperature polysilicon (LTPS) RC delay self-heating stress thin-film transistor (TFT) Capacitance Heating Polycrystalline materials Polysilicon Temperature Thin film circuits Thin films C. thin film transistor (TFT) Contact holes Hole densities Low-temperature poly-silicon Low-temperature polysilicon N-channel RC delay Self-heating Self-heating stress Thin-film transistor Thin film transistors
This study examines self-heating-related instability in n-channel low-temperature polysilicon thin-film transistors with different source/drain contact hole densities. Devices with more contact holes exhibit a higher on-current without additional parasitic capacitance, further enhancing the RC delay property. For high-current-induced self-heating stress, a device with one contact hole has one hump due to the kink effect. However, a device with six contact holes has two humps, induced by the kink effect and thermionic field emission. COMSOL simulations of heat distribution and energy bands are performed to examine the different degradation behaviors, and then physical models are proposed. © 2022 The Japan Society of Applied Physics.

檔案與連結 (2)

url
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85125644266&doi=10.35848%2f1882-0786%2fac4e25&partnerID=40&md5=275241607b38c991b0e1c22192a32545檢視
url
https://doi.org/10.35848/1882-0786/ac4e25檢視
已出版(紀錄版本) 開放

相關連結

InCites亮點

本研究成果之相關指標(擷取自 InCites Benchmarking & Analytics)

合作類型
機構合作
引用書目主題
5 Physics
5.31 Silicon Systems
5.31.981 Thin Film Transistors
Web Of Science研究領域
Physics, Applied
ESI研究領域
Physics

詳細資料

Logo image