{"id":63,"date":"2015-03-20T17:16:25","date_gmt":"2015-03-20T09:16:25","guid":{"rendered":"http:\/\/hfp.phy.ncu.edu.tw\/en\/journal-papers\/"},"modified":"2026-01-11T23:13:06","modified_gmt":"2026-01-11T15:13:06","slug":"journal-papers","status":"publish","type":"page","link":"https:\/\/hfp.phy.ncu.edu.tw\/en\/research\/achievements\/journal-papers\/","title":{"rendered":"Journal Papers"},"content":{"rendered":"

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High-Field Laser Technology<\/a><\/h4>\n<\/li>\n
\n
High-Harmonic Generation<\/a><\/h4>\n<\/li>\n
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Laser-Plasma Particle Accelerator<\/a><\/h4>\n<\/li>\n
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Laboratory Astrophysics<\/a><\/h4>\n<\/li>\n
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EUV \/ Soft X-Ray Laser<\/a><\/h4>\n<\/li>\n
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Plasma Nonlinear Optics<\/a><\/h4>\n<\/li>\n
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Optical Microscopy and Biophysical Applications<\/a><\/h4>\n<\/li>\n
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Theoretical Physics<\/a><\/h4>\n<\/li>\n
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Materials Fabrication and Application<\/a><\/h4>\n<\/li>\n
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Ultrafast Laser Technology and Science<\/a><\/h4>\n<\/li>\n
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Imaging through Scattering Media with Broadband Interferometry<\/a><\/h4>\n<\/li>\n<\/ul>\n
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<\/a><\/p>\n
High-Field Laser Technology<\/h3>\n
\n
\nSubnanosecond 1.3-µ<\/span>m laser for generating picosecond pulses in the long-wavelength infrared range,
\nYa-Po Yang*, Jheng-Yu Lee, Feng-Yen Su, Hsu-hsin Chu, and Jyhpyng Wang,
\nApplied Physics B 130<\/strong> (10), 178 (2024). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nEnergetic picosecond 10.2-μm pulses generated in a BGGSe crystal for nonlinear seeding of terawatt-class CO_{2<\/sub> amplifiers,
\nYa-Po Yang*, Jheng-Yu Lee, and Jyhpyng Wang,
\nOptics Express 32<\/strong>, 11182 (2024) [}link<\/a>][reprint<\/a>]\n<\/li>\n
\nA 110-TW multiple-beam laser system with a 5-TW wavelength-tunable auxiliary beam for versatile control of laser-plasma interaction,
\nTe-Sheng Hung, Chi-Hsiang Yang, Jyhpyng Wang, Szu-yuan Chen, Jiunn-Yuan Lin, and Hsu-hsin Chu*,
\nApplied Physics B 117<\/strong>, 1189 (2014).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nA versatile 10-TW laser system with robust passive controls to achieve high stability and spatiotemporal quality,
\nH.-H. Chu, S.-Y. Huang, L.-S. Yang, T.-Y. Chien, Y.-F. Xiao, J.-Y. Lin, C.-H. Lee, S.-Y. Chen, and J. Wang*,
\nApplied Physics B 79<\/strong>, 193 (2004). [link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
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<\/a><\/p>\n
High-Harmonic Generation<\/h3>\n
\n
\nFull Three-dimensional Particle-In-Cell Simulation for Phase-matched Ion-based High-order Harmonic Generation in Water-window X-ray,
\nYing-Shan Chen, Hsu-Hsin Chu, Shih-Hung Chen, and Yao-Li Liu*,
\nChinese Journal of Physics 99<\/strong>, 588–599 (2026). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nProof-of-principle experiment on quasi-phase matching of high-order harmonic generation via the selected-zoning method with a transverse disruptive pulse,
\nYao-Li Liu, Shin-Chi Kao, Yi-Yong Ou Yang, Zhong-Ming Zhang, Chih-Hao Pai, and Hsu-hsin Chu*,
\nOptics Express 32<\/strong> (23), 40620–40628 (2024). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nNumerical experiment of phase-matched ion-based high-order harmonic generation in the water-window x-ray spectral region via electromagnetic envelope equation,
\nYao-Li Liu*, Ying-Shan Chen, Shih-Hung Chen, and Hsu-hsin Chu,
\nOptics Express 32<\/strong> (13), 23469–23484 (2024) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nIsolated-attosecond-pulse high-order harmonic generation of keV x rays,
\nHsu-hsin Chu* and Jyhpyng Wang,
\nPhysical Review A 109<\/strong>, 053511 (2024) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nIon-based high-order harmonic generation from water window to keV region with a transverse disruptive pulse for quasi-phase-matching,
\nYao-Li Liu, Jyhpyng Wang, and Hsu-hsin Chu*,
\nOptics Express, 30<\/strong> (2), 1365–1380 (2022) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nTomographic analysis of high-order harmonic generation by integrating a phase-matching profile measurement with disruptive interaction-length control,
\nYao-Li Liu, Shih-Chi Kao, Yi-Yong Ou Yang, Zhong-Ming Zhang, Jyhpyng Wang, and Hsu-hsin Chu*,
\nPhysical Review A, 104<\/strong>, 023112 (2021) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nSingle-shot temporal envelope measurement of ultrashort extreme-UV pulses by spatially encoded transmission gating,
\nHsu-hsin Chu*, Chi-Hsiang Yang, Shih-Cheng Liu, and Jyhpyng Wang,
\nOptics Express 23<\/strong> (26), 34082 (2015). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nSynthesis of a beat-wave pulse train with increasing pulse separation for quasi-phase-matched high-harmonic generation,
\nChi-Hsiang Yang, Shin-Chi Kao, Jyhpyng Wang, and Hsu-Hsin Chu*,
\nJ. Opt. Soc. Am. B 31<\/strong>, 1793 (2014). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nEnhancement of high-harmonic generation by laser-induced cluster vibration,
\nYen-Mu Chen, Ming-Yu Hsu, Yi-Hsian Hsieh, Jiunn-Yuan Lin, Jyhpyng Wang, and Szu-yuan Chen*,
\nOptics Letters 32<\/strong>, 2714 (2007). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nTomography of high harmonic generation in a cluster jet,
\nChih-Hao Pai, Cheng-Cheng Kuo, Ming-Wei Lin, Jyhpyng Wang, Szu-yuan Chen*, and Jiunn-Yuan Lin,
\nOptics Letters 31<\/strong>, 984 (2006). [link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
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<\/a><\/p>\n
Laser-Plasma Particle Accelerator<\/h3>\n
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\nCross-facility absolute charge calibration of scintillating screens for laser wakefield accelerated beam diagnostic,
\nChen-Wei Chiang, Ming-Chang Chou, An-Ping Lee, Yu-Qian Wang, Jhih-Jia Wang, Ming-Wei Lin, Wai-Keung Lau, and Shao-Wei Chou*,
\nReview of Scientific Instruments 95<\/strong> (12), 123306 (2024). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nEnhanced pointing and charge properties of electron beams from few-TW laser wakefield acceleration with an asymmetric density profile in a sub-millimeter nitrogen gas jet,
\nD. K. Tran, P.-W. Lai, S.-W. Chou, C.-H. Pai, H.-H. Chu, S.-H. Chen, J. Wang, and M.-W. Lin*,
\nPhysics of Plasmas 31<\/strong> (10), 100703 (2024). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nDynamics of monoenergetic asymmetric injection of laser wakefield accelerator,
\nShao-Wei Chou, Sung-Wei Huang, Wei-Cheng Liu, Chen-Yu Tsai, Chun-Cheng Chu, Ming-Wei Lin, Shih-Hung Chen, and Hsu-Hsin Chu,
\nProc. SPIE 12579<\/strong>, 1257906 (2023) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nLaser wakefield acceleration of 10-MeV-scale electrons driven by 1-TW multi-cycle laser pulses in a sub-millimeter nitrogen gas cell,
\nPo-Wei Lai, Kun-Ni Liu, Dang Khoa Tran, Shao-Wei Chou, Hsu-hsin Chu, Shih-Hung Chen, Jyhpyng Wang, and Ming-Wei Lin*,
\nPhysics of Plasmas 30<\/strong> (1), 010703 (2023) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nSimulation study for the spectral broadening and compression of a sub-TW laser pulse to a few-cycle duration in a dense gas target,
\nD. K. Tran, Y.-L. Liu, S.-W. Chou, S.-H. Chen, and M.-W. Lin*,
\nPhysics of Plasmas 29<\/strong> (1), 012305 (2022) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nEfficient hybrid acceleration scheme for generating 100 MeV protons with tabletop dual-laser pulses,
\nS. Isayama, S. H. Chen, Y. L. Liu, H. W. Chen, and Y. Kuramitsu,
\nPhysics of Plasmas 28<\/strong> (7), 073101 (2021) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nElectron bunch evolution in laser-wakefield acceleration,
\nD. E. Cardenas, S. Chou, E. Wallin, J. Xu, L. Hofmann, A. Buck, K. Schmid, D. E. Rivas, B. Shen, A. Gonoskov, M. Marklund, and L. Veisz,
\nPhysical Review Accelerators and Beams, 23<\/strong>, 112803 (2020) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nLaser wakefield acceleration driven by a few terawatt laser pulse in a sub-mm nitrogen gas jet,
\nM.-W. Lin, T.-Y. Chu, Y.-Z. Chen, D. K. Tran, H.-H. Chu, S.-H. Chen, and J. Wang,
\nPhysics of Plasmas 27<\/strong> (11), 113102 (2020) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nNear-Ideal Dechirper for Plasma-Based Electron and Positron Acceleration Using a Hollow Channel Plasma,
\nY.P. Wu, J.F. Hua, C.-H. Pai, W. An, Z. Zhou, J. Zhang, S. Liu, B. Peng, Y. Fang, S.Y. Zhou, X.L. Xu, C.J. Zhang, F. Li, Z. Nie, W. Lu, W.B. Mori, and C. Joshi,
\nPhysical Review Applied, 12<\/strong>, 064011 (2019) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nEnhancement of laser-driven betatron X-rays by a density-depressed plasma structure,
\nBo Guo, Zhi Cheng, Shuang Liu, Xiao Nan Ning, Jie Zhang, Chih-Hao Pai, Jianfei Hua, Hsu-hsin Chu, Jyhpyng Wang, and Wei Lu,
\nPlasma Physics and Controlled Fusion, 61<\/strong>, 035003 (2019) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nRadiation pressure injection in laser-wakefield acceleration,
\nY.-L. Liu, Y. Kuramitsu, S. Isayama, and S.-H. Chen,
\nPhysics of Plasmas 25<\/strong> (4), 013110 (2018).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nProbing plasma wakefields using electron bunches generated from a laser wakefield accelerator,
\nC. J. Zhang, Y. Wan, B. Guo, J. F. Hua, C.-H. Pai, F. Li, J. Zhang, Y. Ma, Y. P. Wu, X. L. Xu, W. B. Mori, H.-H. Chu, J. Wang, W. Lu and C. Joshi,
\nPlasma Physics and Controlled Fusion 60<\/strong> (4), 044013 (2018).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nEvolution of plasma wakes in density up- and down-ramps,
\nC. J. Zhang, C. Joshi, X. L. Xu, W. B. Mori, F. Li, Y. Wan, J. F. Hua, C.-H. Pai, J. Wang, and W. Lu,
\nPlasma Physics and Controlled Fusion 60<\/strong> (2), 024003 (2018).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nFemtosecond Probing of Plasma Wakefields and Observation of the Plasma Wake Reversal Using a Relativistic Electron Bunch,
\nC.\u2009J. Zhang, J.\u2009F. Hua, Y. Wan, C.-H. Pai, B. Guo, J. Zhang, Y. Ma, F. Li, Y.\u2009P. Wu, H.-H. Chu, Y.\u2009Q. Gu, X.\u2009L. Xu, W.\u2009B. Mori, C. Joshi, J. Wang, and W. Lu,
\nPhysical Review Letters 119<\/strong>, 064801 (2017).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nTemporal characterization of ultrashort linearly chirped electron bunches generated from a laser wakefield accelerator,
\nC.\u2009J. Zhang, J.\u2009F. Hua, Y. Wan, B. Guo, C.-H. Pai, Y.\u2009P. Wu, F. Li, H.-H. Chu, Y.\u2009Q. Gu, W.\u2009B. Mori, C. Joshi, J. Wang, and W. Lu,
\nPhysical Review Accelerators and Beams 19<\/strong>, 062802 (2016).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nSpot size dependence of laser accelerated protons in thin multi-ion foils,
\nTung-Chang Liu, Xi Shao, Chuan-Sheng Liu, Bengt Eliasson, Jyhpyng Wang, and Shih-Hung Chen,
\nPhysics of Plasmas 21<\/strong>, 063102 (2014).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nInduction of electron injection and betatron oscillation in a plasma-waveguide-based laser wakefield accelerator by modification of waveguide structure,
\nY.-C. Ho, T.-S. Hung, J.-G. Jhou, H. Qayyum, W.-H. Chen, H.-H. Chu, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysics of Plasmas 20<\/strong>, 083104 (2013).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nProgrammably structured plasma waveguide for development of table-top photon and particle sources,
\nT.-S. Hung, Y.-C. Ho, Y.-L. Chang, S.-J. Wong, H.-H. Chu, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysics of Plasmas 19<\/strong>, 063109 (2012). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nEnhancement of injection and acceleration of electrons in a laser wakefield accelerator by using an argon-doped hydrogen gas jet and optically preformed plasma waveguide,
\nY.-C. Ho, T.-S. Hung, C.-P. Yen, S.-Y. Chen, H.-H. Chu, J.-Y. Lin, J. Wang, and M.-C. Chou,
\nPhysics of Plasmas 18<\/strong>, 063102 (2011).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nProduction of a monoenergetic electron bunch in a self-injected laser-wakefield accelerator,
\nC.-L. Chang, C.-T. Hsieh, Y.-C. Ho, Y.-S. Chen, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review E 75<\/strong>, 036402 (2007).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nTomography of injection and acceleration processes that produce a monoenergetic electron in a laser wakefield accelerator,
\nC.-T. Hsieh, C.-M. Huang, C.-L. Chang, Y.-C. Ho, Y.-S. Chen, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review Letters 96<\/strong>, 095001 (2006).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nSpatially localized self-injection of electrons in a self-modulated laser-wakefield accelerator by using a laser-induced transient density ramp,
\nT.-Y. Chien, C.-L. Chang, C.-H. Lee, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review Letters 94<\/strong>, 115003 (2005).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nOptically controlled seeding of Raman forward scattering and injection of electrons in a self-modulated laser-wakefield accelerator,
\nW.-T. Chen, T.-Y. Chien, C.-H. Lee, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review Letters 92<\/strong>, 075003 (2004).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nPrepulse controlled splitting of relativistically self-guided channel and suppression of Raman forward scattering instability,
\nT.-Y. Chien, W.-T. Chen, Y. H. Chen, C.-J. Lee, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysics of Plasmas 11<\/strong>, 1173 (2004).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
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Laboratory Astrophysics<\/h3>\n
\n
\nCollective Thomson scattering in non-equilibrium laser produced two-stream plasmas,
\nK. Sakai, S. Isayama, N. Bolouki, M. S. Habibi, Y. L. Liu, Y. H. Hsieh, H. H. Chu, J. Wang, S. H. Chen, T. Morita, K. Tomita, R. Yamazaki, Y. Sakawa, S. Matsukiyo, and Y. Kuramitsu,
\nPhysics of Plasmas, 27<\/strong>, 103104 (2020) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nCollective Thomson scattering measurements of electron feature using stimulated Brillouin scattering in laser-produced plasmas,
\nN. Bolouki, K. Sakai, T.Y. Huang, S. Isayama, Y.L. Liu, C.W. Peng, C.H. Chen, N. Khasanah, H.H. Chu, T. Moritaka, K. Tomita, Y. Sato, K. Uchino, T. Morita, S. Matsukiyo, Y. Hara, H. Shimogawara, Y. Sakawa, S. Sakata, S. Kojima, S. Fujioka, Y. Shoji, S. Tomiya, R. Yamazaki, M. Koenig, Y. Kuramitsu,
\nHigh Energy Density Physics 32<\/strong>, 82-88 (2019) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nNonthermal relativistic electron acceleration due to laser-induced incoherent wakefields with external static magnetic fields,
\nYao-Li Liu, Shogo Isayama, Shih-Hung Chen, and Yasuhiro Kuramitsu,
\nHigh Energy Density Physics 31<\/strong>, 64-69 (2019) [link<\/a>][reprint<\/a>]\n<\/li>\n
\nMagnetic reconnection driven by electron dynamics,
\nY. Kuramitsu, T. Moritaka, Y. Sakawa, T. Morita, T. Sano, M. Koenig, C. D. Gregory, N. Woolsey, K. Tomita, H. Takabe, Y. L. Liu, S. H. Chen, S. Matsukiyo, and M. Hoshino,
\nNature Communications 9<\/strong>, 5109 (2018).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nTransition from coherent to incoherent acceleration of nonthermal relativistic electron induced by an intense light pulse,
\nY. L. Liu, Y. Kuramitsu, T. Moritaka, and S. H. Chen,
\nHigh Energy Density Physics 22<\/strong>, 46-50 (2017).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nRelativistic plasma astrophysics with intense lasers,
\nYasuhiro Kuramitsu, Hsu-Hsin Chu, Lin-Ni Hau, Shih-Hung Chen, Yao-Li Liu, Chia-Ying Hsieh, Youichi Sakawa, Takabe Hideaki, and Jyhpyng Wang,
\nHigh Energy Density Physics 17<\/strong>, 198 (2015).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
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EUV \/ Soft X-Ray Laser<\/h3>\n
\n
\nHigh-brightness optical-field-ionization collisional-excitation extreme-ultraviolet lasing pumped by a 100-TW laser system in an optically preformed plasma waveguide,
\nB. K. Chen, Y.-C. Ho, T.-S. Hung, Y.-L. Chang, M.-C. Chou, S.-Y. Chen, H.-H. Chu, S.-L. Huang, P.-H. Lin, J. Wang, and J.-Y. Lin,
\nApplied Physics B 106<\/strong>, 817 (2012). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nSeeding of a soft-x-ray laser in a plasma waveguide by high harmonic generation,
\nPing-Hsun Lin, Ming-Chang Chou, Ming-Jhe Jiang, Po-Chang Tseng, Hsu-Hsin Chu, Jiunn-Yuan Lin, Jyhpyng Wang, and Szu-yuan Chen,
\nOptics Letters 34<\/strong>, 3562 (2009). [link<\/a>][reprint<\/a>]<\/li>\n
\nSingle-shot soft x-ray digital holographic microscopy with an adjustable field of view and magnification,
\nMing-Chang Chou, Ru-Ping Huang, Ping-Hsun Lin, Chang-Tai Huang, Szu-yuan Chen, Hsu-Hsin Chu, Jyhpyng Wang, and Jiunn-Yuan Lin,
\nOptics Letters 34<\/strong>, 623 (2009). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nOptical-field-ionization collisional-excitation x-ray lasers with an optically preformed plasma waveguide,
\nP.-H. Lin, M.-C. Chou, C.-A. Lin, H.-H. Chu, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review A 76<\/strong>, 053817 (2007). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nDramatic enhancement of optical-field-ionization collisional-excitation x-ray lasing by using an optically preformed plasma waveguide,
\nM.-C. Chou, P.-H. Lin, C.-A. Lin, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review Letters 99<\/strong>, 063904 (2007). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nOptimization of laser propagation in optical-field-ionization plasmas for X-ray laser generation,
\nJ.-Y. Lin,
\nApplied Physics B 86<\/strong>, 25 (2007). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nExperimental investigation of the parameter space for optical-field-ionization cluster-jet x-ray lasers,
\nM.-C. Chou, P.-H. Lin, T.-S. Hung, J.-Y. Lin, J. Wang, and S.-Y. Chen.
\nPhysical Review A 74<\/strong>, 023804 (2006). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nCharacterization and control of plasma density distribution for the development of solid-target x-ray lasers,
\nM.-C. Chou, P.-H. Lin, H.-E. Tsai, D.-L. Chen, C.-H. Lee, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review E 72<\/strong>, 026407 (2005). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nCollisional excitation soft x-ray laser pumped by optical field ionization in a cluster jet,
\nH.-H. Chu, H.-E. Tsai, M.-C. Chou, L.-S. Yang, J.-Y. Lin, C.-H. Lee, J. Wang, and S.-Y. Chen,
\nPhysical Review A – Rapid Communication 71<\/strong>, 061804(R) (2005). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nEfficient generation of extended plasma waveguides with the axicon ignitor-heater scheme,
\nY.-F. Xiao, H.-H. Chu, H.-E. Tsai, C.-H. Lee, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysics of Plasmas 11<\/strong>, L21 (2004). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nHigh-brightness soft x-ray generation under optimized laser-cluster interaction,
\nJiunn-YuanLin, Hsu-hsin Chu, Ming-yi Shen, Yee-fang Xiao, Chau-Hwang Lee, Szu-yuan Chen, Jyhpyng Wang,
\nOptics Communications 231<\/strong>, 375 (2004). [link<\/a>][reprint<\/a>]<\/li>\n
\nInvestigations of transient Ne-like Fe x-ray lasers pumped by femtosecond laser system,
\nJiunn-Yuan Lin,
\nJapanese Journal of Applied Physics 40<\/strong>, 2282 (2001). [link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
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Plasma Nonlinear Optics<\/h3>\n
\n
\nFormation and Microfilamentation of Spiral Density Waves in Plasmas Induced by Circularly Polarized Field Ionization,
\nC.-K. Huang*, C. Zhang, K.\u2009A. Marsh, C. Joshi, and J. Wang,
\nPhysical Review Letters 133<\/strong> (22), 225101 (2024). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nPhoton deceleration in plasma wakes generates single-cycle relativistic tunable infrared pulses,
\nZan Nie, Chih-Hao Pai, Jie Zhang, Xiaonan Ning, Jianfei Hua, Yunxiao He, Yipeng Wu, Qianqian Su, Shuang Liu, Yue Ma, Zhi Cheng, Wei Lu, Hsu-Hsin Chu, Jyhpyng Wang, Chaojie Zhang, Warren B. Mori, and Chan Joshi,
\nNature Communications 11<\/strong>, 2787 (2020)\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nRelativistic single-cycle tunable infrared pulses generated from a tailored plasma density structure,
\nZan Nie, Chih-Hao Pai, Jianfei Hua, Chaojie Zhang, Yipeng Wu, Yang Wan, Fei Li, Jie Zhang, Zhi Cheng, Qianqian Su, Shuang Liu, Yue Ma, Xiaonan Ning, Yunxiao He, Wei Lu, Hsu-Hsin Chu, Jyhpyng Wang, Warren B. Mori, and Chan Joshi,
\nNature Photonics, 12<\/strong>, 489\u2013494 (2018)\u00a0[link<\/a>][reprint<\/a>][Supplementary Information<\/a>]\n<\/li>\n
\nEfficient extreme-UV-to-extreme-UV conversion by four-wave mixing with intense near-IR pulses in highly charged ion plasmas,
\nHsu-hsin Chu and Jyhpyng Wang,
\nPhysical Review A 97<\/strong>, 053840 (2018).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nRelativistic birefringence induced by a high-intensity laser field in a plasma,
\nG. Tsaur, N.-H. Kang, Z.-H. Xie, S.-H. Chen, and J. Wang,
\nPhysical Review A 83<\/strong>, 033801 (2011).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nGeneration of intense ultrashort midinfrared pulses by laser-plasma interaction in the bubble regime,
\nC.-H. Pai, Y.-Y. Chang, L.-C. Ha, Z.-H. Xie, M.-W. Lin, J.-M. Lin, Y.-M. Chen, G. Tsaur, H.-H. Chu, S.-H. Chen, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review A 82<\/strong>, 063804 (2010).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nRelativistic optical rectification driven by a high-intensity pulsed Gaussian beam,
\nGin-yih Tsaur and Jyhpyng Wang,
\nPhysical Review A 80<\/strong>, 023802 (2009).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nApplications of laser-fabricated plasma structures in laser-wakefield accelerators, x-ray lasers, and plasma nonlinear optics,
\nC.-T. Hsieh, M.-W. Lin, C.-L. Chang, Y.-C. Ho, S.-Y. Chen, J. Wang, M.-C. Chou, J.-Y. Lin, C.-H. Pai, P.-H. Lin, L.-C. Tai, S.-H. Chen, G.-Y. Tsaur, C.-C. Kuo, T.-Y. Chien,
\nJournal of the Korean Physical Society 53<\/strong>, 3719 (2008).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nBackward Raman Amplification in a Plasma Waveguide,
\nC.-H. Pai, M.-W. Lin, L.-C. Ha, S.-T. Huang, Y.-C. Tsou, H.-H. Chu, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review Letters 101<\/strong>, 065005 (2008).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nDegenerate four-wave mixing mediated by ponderomotive-force-driven plasma gratings,
\nK.-H. Lee, C.-H. Pai, M.-W. Lin, L.-C. Ha, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review E 75<\/strong>, 036403 (2007).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nEnhancement of relativistic harmonic generation by an optically-preformed periodic plasma waveguide,
\nC.-C. Kuo, C.-H. Pai, M.-W. Lin, K.-H. Lee, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review Letters 98<\/strong>, 033901 (2007).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nThree-dimensional analysis of collective relativistic electron motion and coherent harmonic generation driven by an intense pulsed Gaussian beam,
\nGin-yih Tsaur and Jyhpyng Wang,
\nPhysical Review A 76<\/strong>, 063815 (2007).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nProgrammable fabrication of spatial structures in a gas jet by laser machining with a spatial light modulator,
\nM.-W. Lin, Y.-M. Chen, C.-H. Pai, C.-C. Kuo, K.-H. Lee, J. Wang, S.-Y. Chen, and J.-Y. Lin,
\nPhysics of Plasmas 13<\/strong>, 110701 (2006). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nFabrication of spatial transient-density structure as high-field plasma photonic devices,
\nC.-H. Pai, S.-Y. Huang, C.-C. Kuo, M.-W. Lin, J. Wang, S.-Y. Chen, C.-H. Lee, and J.-Y. Lin,
\nPhysics of Plasmas 12<\/strong>, 070707 (2005). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nControl of laser-beam propagation and absorption in a nanoplasma gas by programming of a transient complex refractive index with a prepulse,
\nH.-H. Chu, H.-E. Tsai, Y.-F. Xiao, C.-H. Lee, J.-Y. Lin, J. Wang, and S.-Y. Chen,
\nPhysical Review E 69<\/strong>, 035403(R) (2004).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nDependence of relativistic self-guiding and Raman forward scattering on duration and chirp of an intense laser pulse propagating in a plasma,
\nT.-W. Yau, C.-J. Hsu, H.-H. Chu, Y.-H. Chen, C.-H. Lee, J. Wang, and S.-Y. Chen,
\nPhysics of Plasmas 9<\/strong>, 391 (2002).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
\n
<\/a><\/p>\n
Optical Microscopy and Biophysical Applications<\/h3>\n
\n
\nHigh-resolution phase-contrast imaging of biological specimens using a stable betatron X-ray source in the multiple-exposure mode,
\nBo Guo, Xiaohui Zhang, Jie Zhang, Jianfei Hua, Chih-Hao Pai, Chaojie Zhang, Hsu-Hsin Chu, Warren Mori, Chan Joshi, Jyhpyng Wang, and Wei Lu,
\nScientific Reports 9<\/strong>, 7796 (2019). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nReducing radiation exposure in intra-medullary nailing procedures: Intra-medullary endo-transilluminating (iMET),
\nInjury 40<\/strong>, 1084 (2009).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nSuper-resolution bright-field optical microscopy based on nanometer topographic contrast,
\nMicroscopy Research and Technique 65<\/strong>, 180 (2004).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nSub-diffraction-limit imaging based on the topographic contrast of differential confocal microscopy,
\nOptics Letters 28<\/strong>, 1772 (2003).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nNon-interferometric wide-field optical profilometry with nanometer depth resolution,
\nOptics Letters 27<\/strong>, 1773 (2002).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nUsing differential confocal microscopy to detect the phase transition of lipid vesicle membranes,
\nOptical Engineering 40<\/strong>, 2077 (2001).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nAll-optical measurements of the bending rigidity of lipid-vesicle membranes across structural phase transitions,
\nChau-Hwang Lee, Wan-Chen Lin, and Jyhpyng Wang,
\nPhysical Review E 64<\/strong>, 020901(R) (2001).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nDeconvolution of local surface response from topography in nanometer profilometry with a dual-scan method,
\nChao-Wei Tsai, Chau-Hwang Lee, and Jyhpyng Wang,
\nOptics Letters 24<\/strong>, 1732 (1999).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nOptical measurement of the viscoelastic and biochemical responses of living cells to mechanical perturbation,
\nChau-Hwang Lee, Chin-Lin Guo, and Jyhpyng Wang,
\nOptics Letters 23<\/strong>, 307 (1998).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nNoninterferometric differential confocal microscopy with 2-nm depth resolution,
\nChau-Hwang Lee and Jyhpyng Wang,
\nOptics Communications 135<\/strong>, 233 (1997).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nImaging and profiling surface microstructures with noninterferometric confocal laser-feedback,
\nChun\u2010Hung Lu, Jyhpyng Wang, and King\u2010Li Deng,
\nApplied Physics Letters 66<\/strong>, 2022 (1995).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nNanometer-resolution distance measurement with a noninterferometric method,
\nKung-Li Deng and Jyhpyng Wang,
\nApplied Optics 33<\/strong>, 113 (1994).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
\n
<\/a><\/p>\n
Theoretical Physics<\/h3>\n
\n
\nA systematic approach for obtaining the Green functions of time-dependent Schr\u00f6dinger equations by Fourier transform,
\nGin-yih Tsaur and Jyhpyng Wang,
\nEuropean Journal of Physic 37<\/strong>, 045402 (2016).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nLaser acceleration of protons using multi-ion plasma gaseous targets,
\nTung-Chang Liu, Xi Shao, Chuan-Sheng Liu, Bengt Eliasson, W T Hill III, Jyhpyng Wang, and Shih-Hung Chen,
\nNew Journal of Physics 17<\/strong>, 023018 (2015).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nA universal Laplace-transform approach to solving Schr\u00f6dinger equations for all known solvable models,
\nGin-yih Tsaur and Jyhpyng Wang,
\nEuropean Journal of Physics 35<\/strong>, 015006 (2014).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nEnhancement of proton energy by polarization switch in laser acceleration of multi-ion foils,
\nTung-Chang Liu, Xi Shao, Chuan-Sheng Liu, Bengt Eliasson, Jyhpyng Wang, and Shih-Hung Chen,
\nPhysics of Plasmas 20<\/strong>, 103112 (2013).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nGeneration of quasi-monoenergetic protons from thin multi-ion foils by a combination of laser radiation pressure acceleration and shielded Coulomb repulsion,
\nTung-Chang Liu, Xi Shao, Chuan-Sheng Liu, Minqing He, Bengt Eliasson, Vipin Tripathi, Jao-Jang Su, Jyhpyng Wang, and Shih-Hung Chen,
\nNew Journal of Physics 15<\/strong>, 025026 (2013).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nA Canonical Approach to the Action-Angle Formalism in Quantum Mechanics,
\nGin-yih Tsaur and Jyhpyng Wang,
\nChinese Journal of Physics 49<\/strong>, 555 (2011). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nInvariance of the canonical quantization prescription under classical canonical transformations,
\nGin-Yih Tsaur and Jyhpyng Wang,
\nChinese Journal of Physics 45<\/strong>, 425 (2007).\u00a0[reprint<\/a>]\n<\/li>\n
\nTransverse oscillation in laser cavities,
\nGin-yih Tsaur and Jyhpyng Wang,
\nPhysical Review A 73<\/strong>, 033804 (2006).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nConstructing Green functions of the Schrodinger equation by elementary transformations,
\nGin-yih Tsaur and Jyhpyng Wang,
\nAmerican Journal of Physics 74<\/strong>, 600 (2006).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nIntegration of the Schrodinger equation by canonical transformations,
\nGin-yih Tsaur and Jyhpyng Wang,
\nPhysical Review A 65<\/strong>, 012104 (2001).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nPopulation diffusion and equipartition in quantum systems of many degrees of freedom,
\nGin-yih Tsaur and Jyhpyng Wang,
\nPhysical Review Letters 80<\/strong>, 3682 (1998).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nEnergy diffusion due to nonlinear perturbation on linear Hamiltonians,
\nGin-yih Tsaur and Jyhpyng Wang,
\nPhysical Review E 54<\/strong>, 4657 (1996).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
\n
<\/a><\/p>\n
Materials Fabrication and Application<\/h3>\n
\n
\nGrowth of strongly textured FeCO_{3<\/sub> thin films for application in research of nuclear quantum optics with ultrashort-pulsed laser deposition,
\nChih-Ping Yen, Cheng-Shiuan Wong, Chi-Yu Yeh, Yen-Mu Chen, Hsu-Hsin Chu, Jiunn-Yuan Lin, Jyhpyng Wang, Ping-Hsun Lin, and Szu-yuan Chen,
\nAppl. Phys. A 115<\/strong> (2), 671–677 (May 2014).\u00a0[}link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
\n
<\/a><\/p>\n
Ultrafast Laser Technology and Science<\/h3>\n
\n
\nFabricating high-aspect-ratio sub-diffraction-limit structures on silicon with two-photon photopolymerization and reactive ion etching,
\nC.-H. Lee, T.-W. Chang, K.-L. Lee, J.-Y. Lin, and J. Wang,
\nApplied Physics A 79<\/strong>, 2027 (2004).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nFemtosecond self-focusing dynamics measured by three-dimensional phase-retrieval cross correlation,
\nTai-Wei Yau, Chau-Hwang Lee, and Jyhpyng Wang,
\nJournal of the Optical Society of America B 17<\/strong>, 1626 (2000).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nDynamic model of multipass ultrashort-pulse laser amplifiers and its application,
\nYi-Yuh Hwang, Chau-Hwang Lee, and Jyhpyng Wang,
\nApplied Optics 36<\/strong>, 7802 (1997).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nFemtosecond transform-limited Kerr-lens mode-locked dye lasers,
\nChau-Hwang Lee, Jyhpying Wang, and Yuh-Fwu Chou
\nOptical and Quantum Electronics 28<\/strong>, 1443 (1996).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nOff-axial pulse propagation in graded-index materials with Kerr nonlinearity–a variational approach,
\nChih-Hung Chien, Shinn-Sheng Yu, Yinchieh Lai, and Jyhpyng Wang,
\nOptics Communications 128<\/strong>, 145 (1996).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nTunable multiwavelength synchronized femtosecond pulse trains for ultrafast spectroscopy,
\nJyhpyng Wang, Hsiao-Hua Liu, and Meng-Ru Li,
\nOptics Communications 124<\/strong>, 505 (1996). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nExperimental study of the geometric group-delay dispersion in graded-index media,
\nHoang Yan Lin and Jyhpyng Wang,
\nApplied Optics 35<\/strong>, 2610 (1996).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nSpatio-temporal solitary pulses in graded-index materials with Kerr nonlinearity,
\nShinn-Sheng Yu, Chih-Hung Chien, Yinchieh Lai, and Jyhpyng Wang,
\nOptics Communications 119<\/strong>, 167 (1995).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nCharacteristics of a femtosecond transform-limited Kerr-lens mode-locked dye laser,
\nYuh-Fwu Chou, Chau-Hwang Lee, and Jyhpyng Wang,
\nOptics Letters 19<\/strong>, 975 (1994).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nMeasurements of the self-starting threshold of Kerr-lens mode locking lasers,
\nYuh-Fwu Chou, Jyhpyng Wang, Hsiao-Hua Liu, and Nai-Ping Kuo,
\nOptics Letters 19<\/strong>, 566 (1994).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nWavelength-tunable passive mode locking of dye lasers by use of the intracavity optical Kerr effect,
\nYuh-Fwu Chou, Kung-Li Deng, and Jyhpyng Wang,
\nOptics Letters 18<\/strong>, 1247 (1993).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nOptical Soliton in graded-index waveguides,
\nRailing Chang and Jyhpyng Wang,
\nOptics Letters 18<\/strong>, 266 (1993).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nAdjustable negative group-velocity dispersion in graded-index lenses,
\nAn-Chun Tien, Railing Chang, and Jyhpyng Wang,
\nOptics Letters 17<\/strong>, 1177 (1992).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nAnalysis of passive additive-pulse mode-locking with eigenmode theory,
\nJyhpyng Wang,
\nIEEE J. Quantum Electron. 28<\/strong>, 562 (1992). [link<\/a>][reprint<\/a>]\n<\/li>\n
\nSelf-starting issues of passive self-focusing mode-locking,
\nSzuyuan Chen and Jyhpyng Wang,
\nOptics Letters 16<\/strong>, 1689 (1991).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nTheory of passive additive-pulse mode locking,
\nJyhpyng Wang,
\nOptics Letters 16<\/strong>, 1104 (1991).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
\n
<\/a><\/p>\n
Imaging through Scattering Media with Broadband Interferometry<\/h3>\n
\n
\nImaging through animal tissues with cw diode laser based broadband interferometry,
\nOptics Communications 130<\/strong>, 317 (1996).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nRejection of stochastic background noise in low-level pulsed light scattering experiments,
\nReview of Scientific Instruments 64<\/strong>, 2550 (1993).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nImaging through random scattering media by using cw broadband interferometry,
\nOptics Letters 18<\/strong>, 546 (1993).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n
\nSpatially coherent white-light interferometer based on a point fluorescent source,
\nOptics Letters 18<\/strong>, 678 (1993).\u00a0[link<\/a>][reprint<\/a>]\n<\/li>\n<\/ul>\n
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