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林家宏

林家弘 教授/特聘教授

研究室：億光大樓 1133室
電話：(02)2771-2171  分機 4664
傳真：(02)8773-3216
實驗室：光子技術實驗室(億光大樓912,分機 4663)
　　　　光電元件與材料實驗室 (億光大樓1114) 
　　　　或請洽  (億光大樓1013,分機 4693)

 

簡介

Ja-Hon Lin received the Ph.D. degree from the Institute of Electro-Optical Engineering, National Chiao Tung University, Taiwan, in 2002. From 2003 to 2007, he worked as a Postdoctoral Fellow at the same institute. In 2007, he joined the Department of Electro-Optical Engineering at National Taipei University of Technology as an Assistant Professor and has been a Professor since 2015. He served as Chief of the Research and Project Section, Research Development Office, from 2014 to 2020, and as Vice Dean from 2020 to 2021. In 2022, he was appointed Distinguished Professor at National Taipei University of Technology. He was listed among the World’s Top 2% Scientists in the Stanford University global ranking in 2024 and 2025.

His research focuses on the photophysical properties of advanced electro-optical materials and nanophotonic systems, including perovskite semiconductors, organic functional materials, and nanostructured photonic architectures. He investigates carrier dynamics and nonlinear optical phenomena in optoelectronic semiconductor materials, as well as microstructured laser systems such as random and distributed feedback (DFB) lasers. His work further extends to materials-enabled sensing technologies using Raman spectroscopy and electrochemical methods for pesticide and pharmaceutical detection.

學歷

  • 國立交通大學 光電工程研究所 博士 2002年

現職及經歷

  • 國立台北科技大學 光電工程系 教授  2015年 ~        
  • 國立台北科技大學 特聘教授
  • OPTICA 國立台北科技大學 學生分會指導老師
  • 日本九州大學 短期訪問學者
  • 國立台北科技大學 研發處 副研發長
  • 國立台北科技大學 研發處研究企劃組  組長  
  • 國立台北科技大學 光電工程系 副教授        
  • 國立台北科技大學 光電工程系 助理教授
  • 國立交通大學 光電工程系 博士後研究

研究成果殊榮

  • 2024–2025 史丹佛大學全球前 2% 頂尖科學家（World’s Top 2% Scientists）

     個人得獎                

  • 104學年度 國立台北科技大學電資學院   傑出研究獎
  • 103學年度 國立台北科技大學           年輕學者研究獎
  • 101學年度 國立台北科技大學電資學院   傑出研究獎
  • 97 學年度 國立台北科技大學電資學院   傑出研究獎

指導學生參與校外研討會得獎(連結)

中華民國物理年會

  • 2026 指導碩士班學生樊哲瑋同學榮獲 物理年會壁報論文佳作
  • 2025 指導碩士班學生侯禹丞同學榮獲 物理年會壁報論文佳作
  • 2024 指導碩士班學生劉泊灝同學榮獲 物理年會壁報論文佳作
  • 2023 指導碩士班學生許人丰同學榮獲 物理年會壁報論文佳作
  • 2022 指導碩士班學生林宛宣同學榮獲 物理年會壁報論文佳作
  • 2022 指導碩士班學生張惟宸同學榮獲 物理年會壁報論文佳作
  • 2020 指導碩士班學生張登貴同學榮獲 物理年會壁報論文佳作
  • 2019 指導碩士班學生蕭家輝同學榮獲 物理年會壁報論文佳作
  • 2018 指導碩士班學生黃俊瑋同學榮獲 物理年會壁報論文佳作
  • 2016 指導碩士班學生林聲宏同學榮獲 物理年會壁報論文佳作
  • 2012 指導碩士班學生蕭英利同學榮獲 物理年會壁報論文佳作

國際光學與光電研討會(OPTIC)

  • 2023指導北科大碩士班學生鄭舜文同學榮獲OPTIC2023學生壁報論文獎
  • 2021指導北科大碩士班學生林宛宣同學榮獲OPTIC2021學生壁報論文獎
  • 2020指導北科大碩士班學生張展耀同學榮獲OPTIC2020學生壁報論文獎

研究領域

  • 前瞻光電材料 Advanced Optoelectronic Materials

    • 光電半導體材料(鈣鈦礦量子點、D-A-D有機半導體染料)
    • 二微層狀材料(二微層狀鈣鈦礦、MXene)

  • 液晶光電元件  Liquid Crystal Optoelectronic Devices 

    • 可撓膽固醇液晶薄膜(一維光子晶體)
    • 膽固醇液晶元件製作(一維光子晶體)

  • 有機高分子與生物相容性材料之微奈米拓印元件 Micro- and Nano-Imprinted Devices Using Organic Polymers and Biocompatible Materials

    • 微奈米光柵拓印元件
    • 生物組織微奈米拓印元件

  • 前瞻光電材料非線性光學與應用 Nonlinear Optics and Applications of Advanced Optoelectronic Materials

    • 雙光子與三光子吸收
    • 吸收飽和

  • 前瞻光電材料光電物理特性研究 Optoelectronic Physical Properties of Advanced Optoelectronic Materials

    • 激子、聲子與瞬態載子動態
    • 表面電漿共振與拉曼散射

  • 微結構雷射光電物理特性研究 Optoelectronic Physical Properties of Microstructured Lasers

    • 前瞻光電材料放大自發性輻射
    • 邊帶雷射與隨機雷射

近五年研究計畫

      國科會計畫

  • 由載子與光子侷限增強微奈米鹵化物鈣鈦礦光電半導體之光與物質交互作用(1/3)  2024/08/01~2025/07/31
  • 鈣鈦礦奈米材料之激子-聲子動態與非線性光學研究 2023/08/01~2024/07/31
  • 結合生物相容性微奈米結構製作可撓分散反饋雷射 2022/08/01~2023/07/31
  • 高激子束縛能材料在週期與無序微奈米結構之微腔雷射光電物理特性研2022/08/01~2023/07/31

​    國科會科學園區人才培育計畫

  • 智慧顯示照明與感測課程模組 2024/07/01~2025/08/31
  • 光電顯示課程模組 2021/08/01~2022/07/31

  教育部學海築夢計畫

  • 113-1 學海築夢/前瞻性有機發光雷射二極體元件研發製作 (選送學生前往日本九州大學之OPERA)
  • 111-1 學海築夢/前瞻性鈣鈦礦量子點雷射和有機發光元件製作(選送學生前往日本九州大學之OPERA)

 北科大校際合作計畫

 產學合作計畫

  • 可攜式拉曼光譜儀之改善 (昇航股份有限公司)   2019/09/01 至 2020/12/31
  • 全正色散鎖模光纖雷射光孤子之建構與分析(工研院)  2020/01/01 至 2020/11/30

 

  授課課程

  • 光電工程研究所:
    • 超快光學與應用  (上學期)
    • 非線性光纖光學與應用  (下學期)
  • 大學部:
    • 顯示面板與實務
 

國際期刊論文(近十年選錄)

        Physical property and nonlinear optical measurement of novel semiconductor materials

  1. K. Uma , N. Arjun , S. Chandra Mohan , G.-T. Pan , K. Jothivenkatachalam, Thomas C.-K. Yang*, J.-H. Lin,* “In-situ DRIFT-IR investigation of photocatalytic redox reactivity of the SiO2@α-Fe2O3 core-shell decorated RGO nanocomposite,” has been accepted by the Sci. Rep.
  2. W.-R. Liu,* J.-H. Lin,* J.-S, Chen, H.-M. Cheng, S.-J. Li, H.-R. Chen, C.-H. Hsu and W.-F. Hsieh, “Saturation and beating of acoustic phonon oscillations excited near the exciton resonance of strained polar ZnO/Zn0.8Mg0.2O multiple quantum wells,” RSC Adv., 8, 7980, February (2018).
  3. J.-H. Lin,* Yu-Kai Shen, Wei-Rein Liu, Chia-Hui Lu, Yao-Hui Chen, Chun-peng Chang, Wei-Chin Lee, Minghwei Hong, Jueinai-Raynien Kwo, Chia-Hung Hsu, and Wen-Feng Hsieh, “Coherent acoustic phonon oscillation accompanied with backward acoustic pulse below exciton resonance in a ZnO epilm on oxide-buered Si(111),” J. Phys. D., 49, 325102, July (2016).
  4. J.-H. Lin,* W.-R. Liu, Y.-C. Lin, H.-J. Su, H.-R. Chen, C.-Y. Tsai, Y.-H. Chen, and W.-F. Hsieh, “Room temperature excitonic dynamics of non-polar a-plane ZnO epifilms,” AIP advances 6, 095222, Sept (2016).
  5. J.-H. Lin,* H.-J. Su, C.-H. Lu, C.-P. Chang, W.-R. Liu, and Wen-Feng Hsieh, “Pump polarization dependent ultrafast carrier dynamics and two-photon absorption in an a-plane ZnO epitaxial film,” Appl. Phys. Lett. 107, 142107 (2015).
  6. T.-C. Lin,* M.-H. Li, C.-Y. Liu, J.-H. Lin, Y.-K. Shen and Y.-H. Lee “Synthesis and two-photon properties of a novel multi-branched chromophore with an unsymmetrically substituted scaffold derived from functionalized quinoxalinoid heterocycles,” J. Mater. Chem. C 1, 2764 (2013).
  7. T.-C. Lin,* Y.-H. Lee, C.-Y. Liu, B.-R. Huang, M.-Y. Tsai, and Yu-Jhen Huang, Ja-Hon Lin,* Yu-Kai Shen, and Cheng-Yu Wu “Synthesis and Two-photon Absorption Property Characterizations of Small Dendritic Chromophores Containing Functionalized Quinoxaliniod Heterocycles,” Chem. Eur. J 19, 749 (2013).
  8. P.-C. Ou, J.-H. Lin,* and W.-F. Hsieh, “Spectral dependence of transient reflectance in a ZnO epitaxial film at room temperature,” Appl. Phys. B, 106, 339 (2012).
  9. P. C. Ou. W.-R. Liu, H.-J. Ton, J. H. Lin,* and W.-F. Hsieh, “Ultrafast relaxation and absorption saturation at near exciton resonance in a thin ZnO epilayer,” J. Appl. Phys. 109, 013102 (2011)
  10. P.-C. Ou, J.-H. Lin,* C.-A. Chang, W.-R. Liu and W.-F. Hsieh, “Thickness effect on ultrafast thermalization of carriers in above-band-gap states in ZnO epitaxial films,” J. Phys. D: Appl. Phys. 43 (2010).

        Liquid crystal device and nano-structurel and organic luminescence material and random laser

  1. W.-C. Chen, J.-H. Shiao, T.-L. Tsai , D.-H. Jiang , L.-C. Chen , C.-H. Chang , B.-H. Lin, J.-H. Lin,* and C.-C. Kuo,* “Multiple Scattering from Electrospun Nanofibers with Embedded Silver Nanoparticles of Tunable Shape for Random Lasers and White-Light-Emitting Diodes,” ACS Appl. Mater. Interfaces, 12, 2783 (2020).
  2. J.-H. Hsiao, S.-W. Chen, B.-Y. Hung, K. Uma, W.-C. Chen, and C.-C. Kuo,* J. H. Lin,* “Resonant energy transfer and light scattering enhancement of plasmonic random laser with silver nanoplates,” RSC. Adv. 10, 7551 (2020).
  3. J-H Lin,* Y-H Li, S.-H. Lin, and B.-H. Nguyen, “Configuration dependent output characteristics with Fabry–Perot and random lasers from dye-doped liquid crystals within glass cells,” Photonics Res., 6, 403, May (2018).
  4. J-H Lin,* J.-W. Huang, J.J. Wu, S.-Y. Tsay, and Y.-H. Chen, “Electrically controllable random lasing from dye-doped nematic liquid crystal within a capillary fiber,” Opt. Mater. Express, 8, 2910 August (2018).
  5. J.-H. Lin,* S.-C. Chang, Y.-H. Li, C.-Y. Chien, C.-H. Chen, Y.-C. Lin, J.-J. Wu,* Shwu-Yun Tsay, and Yao-Hui Chen, “Investigation of laser speckle noise suppression by using polymer-stabilized liquid crystals within twisted nematic cell,” Appl. Phys. Express, 10, 031701 (2017).
  6. S.-H. Lin, P.-Y. Chen, Y.-H. Li, C.-H. Chen, J.-H. Lin, * Y.-H. Chen, S.-Y. Tsay, and Jin-Jei Wu, “Manipulation of Polarized Random Lasers from Dye-Doped Twisted Nematic Liquid Crystals Within Wedge Cells,” IEEE PJ, 9, 1502208, April (2017).
  7. J.-H. Lin,* K.-C. Liao, L.-H. Jian, S.-Y. Tsay, J.-J. Wu, and Y.-G. Duann, “Spatially tunable emissions of dye-doped liquid crystal lasers between the cholesteric and smectic phases,” Opt. Mater. Express, 5, 2142, Sep (2015).
  8. J.-H. Lin,* Y.-L. Hsiao, B.-Y. Ciou, S.-H. Lin, Y.-H. Chen, and J.-J. Wu, “Manipulation of Random Lasing Action From Dye-Doped Liquid Crystals Infilling Two-Dimensional Confinement Single Core Capillary,” IEEE Photon. J. 7, 1501809 June (2015).
  9. J.-H. Lin,* and Y.-L. Hsiao, “Manipulation of the resonance characteristics of random lasers from dye-doped polymer dispersed liquid crystals in capillary tubes,” Opt. Mater. Express 4, 1555, Aug (2014).
  10. J.-H. Lin,* P.-Y. Chen, and J.-J. Wu  “Mode Competition of Two Band-edge Lasing from Dye-Doped Cholesteric Liquid Crystal Laser,” Opt. Express 22, 9932 (2014).

        Passive mode-locked fiber laser and biomedicine diagnosis of human skin

  1. J.-H. Lin,* T.-Y. Liao, C.-Y. Yang, D.-G. Zhang, C.-Y. Yang,* Y.-W. Lee, S. Das, A. Dhar, and M. Chandra Paul, “Noise-like pulse generation around 1.3-μm based on cascaded Raman scattering,” Opt. Express. 28, 12252, Apr. (2020).
  2. J.-H. Lin,* G.-H. Huang, C.-H. Ou, K.-C. Che, W.-R. Liu, S.-Y. Tasy, and Y.-H. Chen, “Q-Switched Pulse and Mode-Locked Pulse Generation From a Yb3+-Doped Fiber Laser Based on Bi2Se3,” IEEE Photon. J, 10, 1502410, June (2018).
  3. W.-C. Chang, J.-H. Lin,* T.-Yu. Liao, and C.-Y. Yang,* “Characteristics of noise-like pulse with broad bandwidth based on cascaded Raman scattering,” Opt. Express, 9, 31808 October (2018).
  4. W.-C. Chang, Y.-S. Lin, Y.-W. Lee, C.-H. Chen, J.-H. Lin,* P. H. Reddy, S. Das, A. Dhar, and M. C. Paul, “Investigation of Q-Switched and Mode-Locked Pulses From a Yb3+-Doped Germano-Zirconia Silica Glass Based Fiber Laser (2017), “IEEE Photon. J, 9, 7104708, August.
  5. J.-H. Lin,* C. L. Chen, C.-W. Chan and Y.-H. Chen, “Investigation of noise-like pulses from a net normal Yb-doped fiber laser based on a nonlinear polarization rotation mechanism,” Opt. Lett. 41, 5310, Nov (2016).
  6. J.-H. Lin,* C.-W. Chan, H.-Y. Lee, and Y.-H. Chen (2015), “Bound States of Dispersion-Managed Solitons From Single-Mode Yb-Doped Fiber Laser at Net-Normal Dispersion,” IEEE Photon. J. 7, 7102409
  7. J.-H. Lin,* B.-C. Lai, and Y.-W. Lee, “High energy rectangular pulse generated in a low repetition rate all normal-dispersion Yb3+-doped fiber laser,” Laser Phys. 25, 045101, April (2015).
  8. J.-H. Lin, Y. W. Lee, * T.-C. Lin, B.-C. Lai, M. Pal, S. Das, A. Dhar, and M. C. Paul, “Near-infrared supercontinnum generation in single -mode nonlinear Yb3+-doped fiber amplifier,” Opt. Express. 13, 16130, Jun (2014).
  9. J.-H. Lin,* J.-L. Jhu, S.-S. Jyu, T.-C. Lin, and Y. Lai, “Characteristics of low repetition rate passively mode-locked Yb-doped fiber laser in all normal dispersion cavity,”  Laser Phys. 23, 025103 (2013).
  10. J.-H. Lin,* D. Wang, and K. H. Lin, “High energy pulses generation with giant spectrum bandwidth and submegahertz repetition rate from a passively mode-locked Yb-doped fiber laser in all normal dispersion cavity,” Laser Phys. Lett. 8, 66-70 (2011).

 

專利

  • "雷射腔體結構",中華民國專利,新型第 M463928 號
 

技術報告

  • 林家弘，朱家亮，林鼎鈞，"低重複頻率高能量全正常色散摻鐿光纖短脈衝鎖模雷射,", 第 189 期，44–51 頁，2012 年 8 月，光纖雷射專題 

 

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