Publications from Shin lab include Nature Photonics, Nature Nanotechnology, Nature Communications (2), Physical Review Letters (4), Nano Letters, ACS Photonics, two KOREA patents, and two US patents.

Book Chapters

• Ravi Pant, Stephen J. Madden, Benjamin J. Eggleton, Heedeuk Shin, “Chapter 5: On-chip stimulated Brillouin scattering,” in Benjamin J. Eggleton, Michael J. Steel, Christopher G. Poulton Eds. “Brillouin Scattering Part 1”, page 159 – 191, 2022 (Elsevier, 2022) (doi: 10.1016/bs.semsem.2022.04.003)
  

  Journal Publications

  • Dongjin Lee, Junyeop Kim, and Heedeuk Shin, “Measurement of dispersion properties in a short optical fiber for an efficient quantum frequency converter,” Opt. Express 32(22), 38896-38909 (2024)(Selected as a Editors’ Pick).
  • Kiwon Kwon, Hyungjun Heo, Dongjin Lee, Hyeongpin Kim, Hyeong-Soon Jang, Woncheol Shin, Hyang-Tag Lim, Yong-Su Kim, Sang-Wook Han, Sangin Kim, Heedeuk Shin, Hyounghan Kwon, Hojoong Jung, “Photon-pair generation using inverse-designed thin-film lithium niobate mode converters,” APL Photonics 9, 056108 (2024).
  • Hyeongpin Kim, Yeolheon Seong, Kiwon Kwon, Taek Yong Hwang, and Heedeuk Shin, “Acoustic Resonance Tuning by High-Order Lorentzian Mixing,” Nano Letters, 24, 7143 (2024) [Selected as a Front Cover].
  • Dongjin Lee, Woncheol Shin, Sebae Park, Junyeop Kim, and Heedeuk Shin, “NOON-state interference in the frequency domain,” Light: Science & Applications, 13, 90 (2024).
  • Dongjin Lee, Kyungdeuk Park, Woncheol Shin, and Heedeuk Shin, “Translation from a distinguishable to indistinguishable two-photon state,” ACS Photonics, 10, 9, 3359-3365 (2023).
  • Kyumin Hwang, Jiheon Seong, Kyungdeuk Park, Jinwook Kim, Tanumoy Pramanik, Joonwoo Bae, and Heedeuk Shin, “Entanglement witness measurement of time-bin two-qubit states from fiber-based Franson interferometers,” Frontiers in Physics, 11, 1254044 (2023).
  • Woncheol Shin, Kyungdeuk Park, Hyeongpin Kim, Dongjin Lee, Kiwon Kwon, and Heedeuk Shin, “Photon-pair generation in a lossy waveguide,” Nanophotonics 12, 3, 531-538 (2023) .
  • Yeolheon Seong, Jinwook Kim, and Heedeuk Shin, “Grazing-Angle Fiber-to-Waveguide Coupler,” MDPI Photonics 9, 11, 799 (2022) .
  • Hyeongpin Kim, Yeolheon Seong, Kiwon Kwon, Woncheol Shin, Sanghui Lee, and Heedeuk Shin, “On-Chip RF Signal Shaping by Coherent Control of Optically Driven Acoustic Wave Interference,” ACS Photonics 9, 9, 2938–2945 (2022)[Published online. selected as a Front Cover] .
  • Hyeongpin Kim and Heedeuk Shin, “Active information manipulation via optically driven acoustic-wave interference,” Nano Letters 21 , 7270–7276 (2021).
  • Sebae Park†, Dongjin Lee†, Kyungdeuk Park, Heedeuk Shin*, Youngsun Choi, and Jae Woong Yoon, “Optical energy-difference conservation in a synthetic anti-PT symmetric system,” Physical Review Letters 127, 083601 (2021). [† These authors contributed equally to this work. *Corresponding author]
  • Dongjin Lee, Kyungdeuk Park, and Heedeuk Shin, “Comparison of photon-pair generation rate between the sideband and fundamental modes of spontaneous four-wave mixing,” Journal of Optics 23,095402 (2021).
  • Kyungdeuk Park, Dongjin Lee, and Heedeuk Shin, “Tunability of the nonlinear interferometer method for anchoring constructive interference patterns on the ITU-T Grid,” Applied Sciences 11, 1429 (2021).
  • Kyungdeuk Park, Dongjin Lee, Robert W. Boyd, and Heedeuk Shin, “Telecom C-band photon-pair generation using standard SMF-28 fiber,” Optics Communications 484, 126692 (2021).
  • Seung-Woo Jeon†, Kiwon Kwon†, Sang-Wook Han, Yong-Su Kim, Young-Wook Cho, Hyang-Tag Lim, Sung Moon, Heedeuk Shin, and Hojoong Jung, “Diamond photonic crystal mirror with a partial bandgap by two 2D photonic crystal layers,” Optics Express 28, 39048 – 39057 (2020). [† These authors contributed equally to this work.]
  • Taek Yong Hwang, Heedeuk Shin, Hai Joong Lee, Hyo Soo Lee, Chunlei Guo, and Byounghwak Lee, “Rotationally symmetric colorization of metal surfaces through omnidirectional femtosecond laser-induced periodic surface structures,” Optics Letters 45, 3414-3417 (2020).
  • Hyeongpin Kim and Heedeuk Shin, “Large on-chip Brillouin net amplification in silicon-based nano-photonics,” AIP Advances 9, 125032 (2019).
  • Hyeongpin Kim and Heedeuk Shin, “Tailorable and broadband on-chip optical power splitter,” Applied Sciences 9, 4239 (2019).
  • Donghwa Lee, Kwang Jo Lee, Jin-Hun Kim, Kyungdeuk Park, Dongjin Lee, Yoon-Ho Kim, and Heedeuk Shin, “Fabrication method for ultra-long optical micro/nano-fibers,” Current Applied Physics 19, 1334-1337 (2019).
  • Taek Yong Hwang, Heedeuk Shin, Jeongjin Kang, Byounghwak Lee, and Chunlei Guo, “One-step fabrication of bi- and quad-directional femtosecond laser-induced periodic surface structures on metal with a depolarizer,” Applied Surface Science 493, 231 (2019).
  • Jin-Hun Kim, Yong Sup Ihn, Yoon-Ho Kim, and Heedeuk Shin, “Photon-pair source working in silicon-based detector wavelength range using tapered micro/nanofibers,” Optics Letters 44, 447 (2019).
  • Kyungdeuk Park, Dongjin Lee, Yong Sup Ihn, Yoon-Ho Kim, and Heedeuk Shin, “Observation of photon-pair generation in the normal group-velocity-dispersion regime with slight detuning from the pump wavelength,” New Journal of Physics 20, 103004 (2018).
  • Kwang Jo Lee, Sunmi Lee, and Heedeuk Shin, “Extended phase-matching properties of periodically poled potassium niobate crystals for mid-infrared polarization-entangled photon-pair generation,” Applied Optics 55, 9791 (2016).
  • Eric A. Kittlaus†, Heedeuk Shin†, and Peter T. Rakich, “Large Brillouin amplification in silicon,” Nature Photonics 10, 463-467 (2016). [† These authors contributed equally to this work.]
  • William Renninger, Heedeuk Shin, Ryan Behunin, Prashanta Kharel, Eric Kittlaus, and Peter Rakich, “Forward Brillouin scattering in hollow-core photonic bandgap fibers,” New Journal of Physics 18, 025008 (2016).
  • Heedeuk Shin, Jonathan Cox, Robert Jarecki, Andrew Starbuck, Zheng Wang, and Peter Rakich, “Control of coherent information via on chip photonic-phononic emitter-receivers,” Nature Communications 6, 6427 (2015).
  • Heedeuk Shin and Peter T. Rakich, “Optomechanics: Photons that pivot and shuttle,” Nature Nanotechnology, News & view, 9, 878–880 (2014).
  • Wenjun Qiu, Peter T. Rakich, Marin Solja, Heedeuk Shin, and Zheng Wang, “Stimulated Brillouin scattering in nanoscale silicon step-index waveguides: A general framework of selection rules and calculating SBS gain,” Optics Express 21, 31402–31419 (2013).
  • Heedeuk Shin, Zheng Wang, Wenjun Qiu, Robert Jarecki, J Cox, T. Olsson, and Peter T. Rakich, “Tailorable stimulated Brillouin scattering atnanoscale silicon waveguides,” Nature Communications 4, 1944 (2013).
  • Heedeuk Shin, Omar S. Magana-Loaiza, Mehul Malik, Malcolm N. O’Sullivan, and Robert W. Boyd, “Enhancing entangled-state phase estimation by mixing classical and quantum protocols,” Optics Express 21, 2816-2822 (2013).
  • Heedeuk Shin, Kam Wai Clifford Chan, Hye Jeong Chang, and Robert W. Boyd, “Quantum spatial super-resolution by the optical centroid measurement method,” Physical Review Letters 107, 083603 (2011).
  • George M. Gehring, Heedeuk Shin, Robert W. Boyd, Chil-Min Kim, and Byoung S. Ham, “Tunable optical time delay of quantum signals using a prism pair,” Optics Express 18, 19156 (2010).
  • Mehul Malik, Heedeuk Shin, Petros Zerom, and Robert W. Boyd, “Quantum Ghost Image Identification with Correlated Photon Pairs,” Physical Review Letters 104, 163602 (2010), [Corresponding author, May 2010 issue of Virtual Journal of Quantum Information].
  • Ksenia Dolgaleva, Heedeuk Shin, and Robert W. Boyd, “Observation of a Microscopic Cascaded Contribution to the Fifth-­Order Nonlinear Susceptibility,” Physical Review Letters 103, 113902 (2009), [September 2009 issue of Virtual Journal of Quantum Information].
  • Curtis J. Broadbent, Petros Zerom, Heedeuk Shin, John C. Howell, and Robert W. Boyd, “Discriminating Orthogonal Single­ Photon Images,” Physical Review A 79, 033802 (2009), [March 2009 issue of Virtual Journal of Quantum Information].
  • Heedeuk Shin, Aaron Schweinsberg, and Robert W. Boyd, “Reducing pulse distortion in fast­-light pulse propagation through an erbium-­doped fiber amplifier using a mutu­ally incoherent background field,” Optics Communications 282, 2085 (2009).
  • R. W. Boyd, K. W. C. Chan, A. Jha, M. Malik, C. O’Sullivan, H. Shin, and P. Zerom, “Quantum imaging: enhanced image formation using quantum states of light,” Proceedings of SPIE, 7342, 73420B (2009).
  • Heedeuk Shin, Hye Jeong Chang, Robert W. Boyd, M. R. Choi, and W. Jo, “Large nonlinear optical response of polycrystalline Bi3.25La0.75Ti3O12 ferroelectric thin films on quartz sub­strates,” Optics Letters 32, 2453 (2007).
  • Heedeuk Shin, Aaron Schweinsberg, George Gehring, Katie Schwertz, Hye Jeong Chang, Robert W. Boyd, Q-Han Park and Daniel J. Gauthier, “Reducing pulse distortion in fast-­light pulse propagation through an erbium­-doped fiber amplifier,” Optics Let­ters 32, 906 (2007), [April 2007 issue of Virtual Journal of Ultrafast Science].
  • Hye Jeong Chang, Heedeuk Shin, Malcolm N. O’Sullivan-Hale and Robert W. Boyd, “Implementation of sub-Rayleigh­ resolution lithography using an N­-photon absorber,” Journal of Modern Optics 53, 2271­ (2006).
  • M. S. Bigelow, N. N. Lepeshkin, H. Shin, and R. W. Boyd , “Propagation of smooth and discontinuous pulses through materials with very large or very small group velocities,” Journal of Physics: Condensed Matter 18, 3117 (2006).
  • R. W. Boyd, H. J. Chang, H. Shin, and M. C. O’Sullivan-Hale, “Progress in Quantum Lithography,” Proceedings of SPIE, 5893, 58930G-1 (2005).
  • S. H. Kang, H. D. Shin, C. H. Oh, D. H. Choi, and K. H. park, “Synthesis and Photoisomerization Properties of Polynorbornenes with Azobenzene Chromophores”, Bulletin of Korean Chemical Society 23, 957 (2002).
  • H. D. Shin, W. J. Joo, C. H. Oh, P. S. Kim, and Y. K. Han, “Determination of transition rate constants of trans-cis isomerization in a poly(malonic ester) containing disperse red 1”, Journal of Chemical Physics 117, 1677 (2002).
  • Won-Jae Joo, Hee-Deuk Shin, Cha-Hwan Oh, Seok-Ho Song, Pill-Soo Kim, Bong-Soo Ko, and Yang-Kyoo Han, “Novel mechanism of fast relaxation of photo-induced anisotropy in a poly(malonic esters) containing p-cyanoazobenzene,” Journal of Chemical Physics 113, 8848 (2000).

  Patents

  넓은 파장 영역에서 분배 비율의 조절이 가능한 실리콘 칩 타입의 광 분배기

  Patent number: 10-1844987

  Filed:  Oct. 19, 2017

  Date of Patent: Mar. 28, 2018

  Assignee: 포항공과대학교 산학협력단

  Inventors: 신희득, 김형빈

  1.5 MICRO-METER 이하의 직경 구간이 길고 균일한 광 섬유의 제조 방법

  Patent number: 10-2050060

  Filed:  Jan. 22, 2018

  Date of Patent: Nov. 22, 2019

  Assignee: 포항공과대학교 산학협력단

  Inventors: 신희득, 박경득, 이동화, 김진훈, 이광조, 이동진, 김윤호

  ON-CHIP PHOTONIC-PHONONIC EMITTER-RECEIVER APPARATUS

  Patent number: 9696492

  Abstract: A radio-frequency photonic devices employs photon-phonon coupling for information transfer. The device includes a membrane in which a two-dimensionally periodic phononic crystal (PnC) structure is patterned. The device also includes at least a first optical waveguide embedded in the membrane. At least a first line-defect region interrupts the PnC structure. The first optical waveguide is embedded within the line-defect region.

  Type: Grant

  Filed: March 3, 2016

  Date of Patent: July 4, 2017

  Assignee: National Technology & Engineering Solutions of Sandia, LLC

  Inventors: Jonathan Albert Cox, Robert L. Jarecki, Jr., Peter Thomas Rakich, Zheng Wang, Heedeuk Shin, Aleem Siddiqui, Andrew Lea Starbuck

  Guided wave opto-acoustic device

  Patent number: 9268092

  Abstract: The various technologies presented herein relate to various hybrid phononic-photonic waveguide structures that can exhibit nonlinear behavior associated with traveling-wave forward stimulated Brillouin scattering (forward-SBS). The various structures can simultaneously guide photons and phonons in a suspended membrane. By utilizing a suspended membrane, a substrate pathway can be eliminated for loss of phonons that suppresses SBS in conventional silicon-on-insulator (SOI) waveguides. Consequently, forward-SBS nonlinear susceptibilities are achievable at about 3000 times greater than achievable with a conventional waveguide system. Owing to the strong phonon-photon coupling achievable with the various embodiments, potential application for the various embodiments presented herein cover a range of radiofrequency (RF) and photonic signal processing applications. Further, the various embodiments presented herein are applicable to applications operating over a wide bandwidth, e.g. 100 MHz to 50 GHz or more.

  Type: Grant

  Filed: October 16, 2013

  Date of Patent: February 23, 2016

  Assignee: Sandia Corporation

  Inventors: Robert L. Jarecki, Jr., Peter Thomas Rakich, Ryan Camacho, Heedeuk Shin, Jonathan Albert Cox, Wenjun Qiu, Zheng Wang