{"id":14,"date":"2023-09-01T16:30:30","date_gmt":"2023-09-01T16:30:30","guid":{"rendered":"https:\/\/live-optics-wp.pantheonsite.io\/danielsoh\/?page_id=14"},"modified":"2026-09-01T17:36:30","modified_gmt":"2026-09-01T17:36:30","slug":"publications","status":"publish","type":"page","link":"https:\/\/wp.optics.arizona.edu\/danielsoh\/publications\/","title":{"rendered":"Publications"},"content":{"rendered":"\n

Journal Articles<\/h3>\n
    \n
  1. P. J. Ehlers, P. H. Nguyen, K. Sinha, N. Daigle, T. W. Sawyer, H. I. Nurdin, and D. Soh, “A single atom in front of a mirror is a universal reservoir computer<\/a>,” arXiv:2608.10382 (2026). Preprint.<\/em><\/li>\n
  2. D. Soh, “A charge selection rule fixes what a squeezed-light reservoir computer can compute and afford<\/a>,” arXiv:2608.19668 (2026). Preprint.<\/em><\/li>\n
  3. C. Zhu, T. Wang, P. L. McMahon, and D. Soh, “Quantum optical neural networks using atom-cavity interactions to provide all-optical nonlinearity,” Physica Scripta<\/em> 101<\/strong>, 305106 (2026).<\/li>\n
  4. E. Chatterjee, D. Soh, and M. Eichenfield, “Quantum-limited acoustoelectric amplification in a piezoelectric-2DEG heterostructure<\/a>,” Physical Review Research<\/em> 8<\/strong>, 023185 (2026).<\/li>\n
  5. I. S. Kaushik, P. J. Ehlers, and D. Soh, “All-optical echo state network reservoir computing<\/a>,” Physical Review Research<\/em> 8<\/strong>, 013041 (2026).<\/li>\n
  6. P. J. Ehlers, H. I. Nurdin, and D. Soh, “Stochastic reservoir computers<\/a>,” Nature Communications<\/em> 16<\/strong>, 3070 (2025). — Editor’s Highlights<\/strong><\/li>\n
  7. C. Zhu, P. J. Ehlers, H. I. Nurdin, and D. Soh, “Minimalistic and scalable quantum reservoir computing enhanced with feedback<\/a>,” npj Quantum Information<\/em> 11<\/strong>, 195 (2025).<\/li>\n
  8. P. J. Ehlers, H. I. Nurdin, and D. Soh, “Improving the performance of echo state networks through state feedback<\/a>,” Neural Networks<\/em> 184<\/strong>, 107101 (2025).<\/li>\n
  9. C. Zhu, P. J. Ehlers, H. I. Nurdin, and D. Soh, “Practical few-atom quantum reservoir computing<\/a>,” Physical Review Research<\/em> 7<\/strong>, 023290 (2025).<\/li>\n
  10. S. M. Young and D. Soh, “Fundamental limits to the generation of highly displaced bright squeezed light using linear optics and parametric amplifiers<\/a>,” Physical Review Research<\/em> 7<\/strong>, 013130 (2025).<\/li>\n
  11. A. J. Pizzimenti and D. Soh, “Optical Gottesman–Kitaev–Preskill qubit generation via approximate squeezed coherent state superposition breeding<\/a>,” Physical Review A<\/em> 110<\/strong>, 062619 (2024).<\/li>\n
  12. P. Chrostoski, S. Bisson, D. Farley, F. Narducci, and D. Soh, “Error analysis in large area multi-Raman pulse atom interferometry due to undesired spontaneous decay<\/a>,” arXiv:2403.08913 (2024). Preprint.<\/em><\/li>\n
  13. E. Chatterjee, A. Wendt, D. Soh, and M. Eichenfield, “Ab initio calculations of nonlinear susceptibility and multiphonon mixing processes in a 2DEG-piezoelectric heterostructure<\/a>,” Physical Review Research<\/em> 6<\/strong>, 023288 (2024).<\/li>\n
  14. J. J. Cuozzo, W. Yu, P. Davids, T. M. Nenoff, D. Soh, W. Pan, and E. Rossi, “Leggett modes in a Dirac semimetal<\/a>,” Nature Physics<\/em> (2024).<\/li>\n
  15. D. Soh and E. Chatterjee, “Label-free quantum super-resolution imaging using entangled multi-mode squeezed light<\/a>,” New Journal of Physics<\/em> 25<\/strong>, 093001 (2023).<\/li>\n
  16. E. Chatterjee, W. Pan, and D. Soh, “Ultra-high-precision detection of single microwave photons based on a hybrid system between a Majorana zero mode and a quantum dot,” Physical Review Research<\/em> 5<\/strong>, 013034 (2023).<\/li>\n
  17. J. C. Taylor, E. Chatterjee, W. F. Kindel, D. Soh, and M. Eichenfield, “Reconfigurable quantum phononic circuits via piezo-acoustomechanical interactions,” npj Quantum Information<\/em> 8<\/strong>, 1–12 (2022).<\/li>\n
  18. E. Chatterjee, D. Soh, and M. Eichenfield, “Optimal quantum transfer from input flying qubit to lossy quantum memory,” Journal of Physics A: Mathematical and Theoretical<\/em> (2022).<\/li>\n
  19. D. Soh, E. Chatterjee, and M. Eichenfield, “High-fidelity state transfer between leaky quantum memories,” Physical Review Research<\/em> 3<\/strong>, 033027 (2021).<\/li>\n
  20. W. Pan, D. Soh, W. Yu, P. Davids, and T. M. Nenoff, “Microwave response in a topological superconducting quantum interference device,” Scientific Reports<\/em> 11<\/strong>, 1–5 (2021).<\/li>\n
  21. E. Chatterjee, W. Pan, and D. Soh, “Microwave photon number resolving detector using the topological surface state of superconducting cadmium arsenide,” Physical Review Research<\/em> 3<\/strong>, 023046 (2021).<\/li>\n
  22. D. Soh, R. Yanagimoto, E. Chatterjee, and H. Mabuchi, “Nonlinear optical response of a local surface plasmon coupled to a 2D material<\/a>,” arXiv:1902.06943 (2019). Preprint.<\/em><\/li>\n
  23. E. Chatterjee, D. Soh, C. Rogers, D. Gray, and H. Mabuchi, “Low-temperature annihilation rate for quasilocalized excitons in monolayer MoS2<\/sub>,” Physical Review B<\/em> 100<\/strong>, 155405 (2019).<\/li>\n
  24. D. Soh, C. Rogers, D. J. Gray, E. Chatterjee, and H. Mabuchi, “Optical nonlinearities of excitons in monolayer MoS2<\/sub>,” Physical Review B<\/em> 97<\/strong>, 165111 (2018).<\/li>\n
  25. C. Brif, M. Sarovar, D. Soh, D. Farley, and S. Bisson, “Optimizing squeezing in a coherent quantum feedback network of optical parametric oscillators<\/a>,” arXiv:1701.04242 (2017). Preprint.<\/em><\/li>\n
  26. D. Soh, R. Hamerly, and H. Mabuchi, “Comprehensive analysis of the optical Kerr coefficient of graphene,” Physical Review A<\/em> 94<\/strong>, 023845 (2016).<\/li>\n
  27. M. Sarovar, D. Soh, J. Cox, C. Brif, C. T. DeRose, R. Camacho, and P. Davids, “Silicon nanophotonics for scalable quantum coherent feedback networks,” EPJ Quantum Technology<\/em> 3<\/strong>, 14 (2016).<\/li>\n
  28. D. Soh, C. Brif, P. J. Coles, N. Lütkenhaus, R. M. Camacho, J. Urayama, and M. Sarovar, “Self-referenced continuous-variable quantum key distribution,” Physical Review X<\/em> 5<\/strong>, 041010 (2015).<\/li>\n
  29. O. Crisafulli, N. Tezak, D. Soh, M. A. Armen, and H. Mabuchi, “Squeezed light in an optical parametric oscillator network with coherent feedback quantum control,” Optics Express<\/em> 21<\/strong>, 18371–18386 (2013).<\/li>\n
  30. S. W. Moore, D. Soh, S. E. Bisson, and B. D. Patterson, “A 400 µJ 79 ns all-fiber Q-switched laser using an Yb3+<\/sup>-doped fiber saturable absorber,” Optics Express<\/em> 20<\/strong>, 23778–23789 (2012).<\/li>\n
  31. D. Soh, S. E. Bisson, B. D. Patterson, and S. W. Moore, “High-power all-fiber passively Q-switched laser using a doped fiber as a saturable absorber: numerical simulations,” Optics Letters<\/em> 36<\/strong>, 2536–2538 (2011).<\/li>\n
  32. D. Soh and J. P. Koplow, “Analysis of spectral broadening of incoherent light in optical fibers with nonzero dispersion,” Optical Engineering<\/em> 50<\/strong>, 111602 (2011).<\/li>\n
  33. D. Soh, J. P. Koplow, S. W. Moore, K. L. Schroder, and W. L. Hsu, “The effect of dispersion on spectral broadening of incoherent continuous-wave light in optical fibers,” Optics Express<\/em> 18<\/strong>, 22393–22405 (2010).<\/li>\n
  34. J. Kim, D. Soh, J. Nilsson, D. J. Richardson, and J. K. Sahu, “Fiber design for high-power low-cost Yb:Al-doped fiber laser operating at 980 nm,” IEEE Journal of Selected Topics in Quantum Electronics<\/em> 13<\/strong>, 588–597 (2007).<\/li>\n
  35. J. Kim, P. Dupriez, D. Soh, J. Nilsson, and J. K. Sahu, “Core area scaling of Nd:Al-doped silica depressed clad hollow optical fiber and Q-switched laser operation at 0.9 microns,” Optics Letters<\/em> 31<\/strong>, 2833–2835 (2006).<\/li>\n
  36. D. Soh, J. Nilsson, and A. B. Grudinin, “Efficient femtosecond laser generation using parabolic amplification combined with a pulse compressor: I. Stimulated Raman scattering effect,” Journal of the Optical Society of America B<\/em> 23<\/strong>, 1–9 (2006).<\/li>\n
  37. D. Soh, J. Nilsson, and A. B. Grudinin, “Efficient femtosecond laser generation using parabolic amplification combined with a pulse compressor: II. Finite gain-bandwidth effect,” Journal of the Optical Society of America B<\/em> 23<\/strong>, 10–19 (2006).<\/li>\n
  38. Y. Jeong, J. Nilsson, J. K. Sahu, D. Soh, P. Dupriez, C. A. Codemard, S. Baek, D. N. Payne, R. Horley, J. A. Alvarez-Chavez, and P. W. Turner, “Single-mode plane-polarized ytterbium-doped large-core fiber laser with 633 W continuous-wave output power,” Optics Letters<\/em> 30<\/strong>, 955–957 (2005).<\/li>\n
  39. Y. Jeong, J. Nilsson, J. K. Sahu, D. Soh, C. Alegria, P. Dupriez, C. A. Codemard, D. N. Payne, R. Horley, L. M. B. Hickey, L. Wanzcyk, C. E. Chryssou, J. A. Alvarez-Chavez, and P. W. Turner, “Single-frequency single-mode plane-polarized ytterbium-doped fiber master-oscillator power amplifier source with 264 W output power,” Optics Letters<\/em> 30<\/strong>, 459–461 (2005).<\/li>\n
  40. S. Yoo, D. Soh, J. Kim, Y. Jung, J. Nilsson, J. K. Sahu, J. W. Lee, and K. Oh, “Analysis of W-type waveguide for Nd-doped fiber laser operating near 940 nm,” Optics Communications<\/em> 247<\/strong>, 153–162 (2005).<\/li>\n
  41. Y. Jeong, J. K. Sahu, D. Soh, C. A. Codemard, and J. Nilsson, “High-power tunable single-frequency single-mode erbium:ytterbium co-doped large-core fiber master-oscillator power amplifier source,” Optics Letters<\/em> 30<\/strong>, 2997–2999 (2005).<\/li>\n
  42. D. Soh, S. Yoo, J. Nilsson, J. K. Sahu, K. Oh, S. Baek, Y. Jeong, C. A. Codemard, P. Dupriez, J. Kim, and V. Philippov, “Neodymium-doped cladding pumped aluminosilicate fiber laser tunable in the 0.9 micron wavelength range,” IEEE Journal of Quantum Electronics<\/em> 40<\/strong>, 1275–1282 (2004).<\/li>\n
  43. D. Soh, J. Nilsson, S. Baek, C. Codemard, Y. Jeong, and V. Philippov, “Modal power decomposition of beam intensity profiles into LP modes of multimode optical fibers,” Journal of the Optical Society of America A<\/em> 21<\/strong>, 1241–1250 (2004).<\/li>\n
  44. S. Baek, D. Soh, Y. Jeong, J. K. Sahu, J. Nilsson, and B. Lee, “A cladding-pumped fiber laser with pump-reflecting inner-cladding Bragg grating,” IEEE Photonics Technology Letters<\/em> 16<\/strong>, 407–409 (2004).<\/li>\n
  45. D. Soh, C. Codemard, S. Wang, J. Nilsson, J. K. Sahu, F. Laurell, V. Philippov, Y. Jeong, C. Alegria, and S. Baek, “A 980 nm Yb-doped fiber MOPA source and its frequency doubling,” IEEE Photonics Technology Letters<\/em> 16<\/strong>, 1032–1034 (2004).<\/li>\n
  46. Y. Jeong, J. K. Sahu, S. Baek, C. Alegria, D. Soh, C. Codemard, and J. Nilsson, “Cladding-pumped ytterbium-doped large-core fiber laser with 610 W of output power,” Optics Communications<\/em> 234<\/strong>, 315–319 (2004).<\/li>\n
  47. D. Soh, J. Nilsson, J. K. Sahu, and L. J. Cooper, “Geometrical factor modification of helical-core fiber radiation loss formula,” Optics Communications<\/em> 222<\/strong>, 235–242 (2003).<\/li>\n<\/ol>\n\n
    \n\n

    Conference Talks and Papers<\/h3>\n
      \n
    1. P. H. Nguyen, P. J. Ehlers, K. Sinha, and D. Soh, “The minimalistic non-Markovian quantum reservoir computer for real-world applications,” CLEO: Fundamental Science<\/em>, paper JTu-96, Optica Publishing Group (May 2026).<\/li>\n
    2. A. J. Pizzimenti and D. Soh, “Quantum Bayesian-adaptive image feature extraction,” CLEO: Applications and Technology<\/em>, paper JTu-102, Optica Publishing Group (May 2026).<\/li>\n
    3. P. J. Ehlers and D. Soh, “Diagrammatic expansion for solving the Lindblad master equation,” APS Global Physics Summit<\/em> (March 2026).<\/li>\n
    4. C. Zhu, T. Wang, P. L. McMahon, and D. Soh, “Quantum atomic optical neural network,” APS Global Physics Summit<\/em> (March 2026).<\/li>\n
    5. E. Chatterjee, D. Soh, and M. Eichenfield, “An ultra-scalable quantum squeezer through acoustic parametric amplification in a piezoelectric-2DEG heterostructure,” APS Global Physics Summit<\/em> (March 2026).<\/li>\n
    6. A. J. Pizzimenti and D. Soh, “All-optical Gottesman–Kitaev–Preskill qubit generation via approximate squeezed coherent state superposition breeding,” Quantum 2.0<\/em>, paper QTu3A-13, Optica Publishing Group (June 2025).<\/li>\n
    7. E. Chatterjee, D. Soh, and M. Eichenfield, “Acoustic amplification by stimulated emission of radiation using a piezoelectric-2DEG heterostructure pumped by a drift field,” APS March Meeting<\/em> (2025).<\/li>\n
    8. P. J. Ehlers, H. I. Nurdin, and D. Soh, “Using noisy qubits to achieve universal reservoir computation,” APS March Meeting<\/em> (2025).<\/li>\n
    9. I. S. Kaushik, P. J. Ehlers, and D. Soh, “All-optical echo state network machine learning,” APS March Meeting<\/em> (2025).<\/li>\n
    10. D. Soh, P. J. Ehlers, and H. I. Nurdin, “Reservoir computing with feedback for quantum state identification,” APS March Meeting<\/em> (2024).<\/li>\n
    11. P. Chrostoski, S. E. Bisson, and D. Soh, “Limitations of a large momentum atom interferometer acceleration sensor due to spontaneous emission,” APS March Meeting<\/em> (2024).<\/li>\n
    12. E. Chatterjee, D. Soh, and M. Eichenfield, “Ab initio calculations of nonlinear susceptibility and multi-phonon mixing processes in a 2D electron gas coupled to a piezoelectric material,” APS March Meeting<\/em> (2024).<\/li>\n
    13. D. Soh and S. M. Young, “Fundamental limits to the highly-displaced bright squeezed light generation based on linear optics and parametric processes,” APS March Meeting<\/em> (2024).<\/li>\n
    14. E. Chatterjee, D. Soh, and M. Eichenfield, “Building a quantum repeater using optomechanical oscillators as on-demand entanglement sources,” APS March Meeting<\/em> (2023).<\/li>\n
    15. P. Chrostoski, S. E. Bisson, and D. Soh, “Limitations of a multi-Raman-pulse atom interferometry acceleration sensor,” APS March Meeting<\/em> (2023).<\/li>\n
    16. D. Soh, “Super-resolution quantum imaging using massively entangled multimode squeezed light,” APS March Meeting<\/em> (2022). — Invited focus session talk<\/em><\/li>\n
    17. D. Soh and M. Eichenfield, “Bright squeezed light from dissipative optomechanical light squeezer,” APS March Meeting<\/em> (2022).<\/li>\n
    18. E. Chatterjee, D. Soh, R. Lewis, W. Kindel, L. Hackett, J. Taylor, and M. Eichenfield, “Long-distance end-to-end quantum state transfer in a transmon qubit network connected via optical photons,” APS March Meeting<\/em> (2022).<\/li>\n
    19. J. J. Cuozzo, W. Yu, P. Davids, T. M. Nenoff, D. Soh, E. Rossi, and W. Pan, “Leggett modes in Dirac semimetals,” APS March Meeting<\/em> (2022).<\/li>\n
    20. E. Chatterjee, D. Soh, and M. Eichenfield, “Optimal quantum transfer from input flying qubit to lossy memory,” APS March Meeting<\/em> (2022).<\/li>\n
    21. E. Chatterjee, W. Pan, and D. Soh, “An RF photon-number-resolving detector using Majorana zero mode,” APS March Meeting<\/em> (2022). — Invited focus session talk<\/em><\/li>\n
    22. E. Chatterjee, D. Soh, and M. Eichenfield, “Artificial atom on a chip based on coupling between 2DEG and piezo resonator,” APS March Meeting<\/em>. — Invited focus session talk<\/em><\/li>\n
    23. E. Chatterjee, D. Soh, and M. Eichenfield, “High-fidelity qubit transfer between leaky memory blocks,” APS March Meeting<\/em>.<\/li>\n
    24. D. Soh, E. Chatterjee, C. Rogers, D. Gray, and H. Mabuchi, “Optical selection rules and optical nonlinearities of excitonic states in monolayer MoS2<\/sub>,” APS March Meeting<\/em>, paper C12.003 (2019).<\/li>\n
    25. D. Soh, B. D. Patterson, and S. E. Bisson, “An all-fiber high-energy cladding-pumped 93 nanosecond Q-switched fiber laser using a fiber saturable absorber,” Photonics West LASE<\/em> (2014).<\/li>\n
    26. S. W. Moore, D. Soh, S. E. Bisson, B. D. Patterson, and W. L. Hsu, “A high-energy cladding-pumped 80 nanosecond Q-switched fiber laser using a tapered fiber saturable absorber,” Photonics West LASE<\/em> (2013).<\/li>\n
    27. J. P. Koplow and D. Soh, “The 4FAD: a high-extinction-ratio, achromatic, temperature-insensitive, high-damage-threshold, all-fiber, power-selective filter,” CLEO<\/em>, Baltimore, paper CMZ5 (2011).<\/li>\n
    28. S. W. Moore, D. Soh, K. L. Schroder, and W. L. Hsu, “Spectral beam compression and combination using fiber laser sources,” Directed Energy Professional Society, 24th Solid State and Diode Laser Technology Review (SSDLTR)<\/em>, Santa Fe (2011).<\/li>\n
    29. J. Kim, P. Dupriez, D. Soh, C. Codemard, S. Yoo, Y. Jeong, J. Nilsson, and J. K. Sahu, “Depressed clad hollow optical fiber with the fundamental LP01<\/sub> mode cut-off,” Photonics West<\/em>, San Jose, paper 6102-16 (2006).<\/li>\n
    30. Y. Jeong, J. Nilsson, D. Soh, C. A. Codemard, P. Dupriez, C. Farrell, J. K. Sahu, J. Kim, S. Yoo, D. J. Richardson, and D. N. Payne, “High power single-frequency Yb-doped fiber amplifiers,” OFC<\/em>, Anaheim, paper OThJ7 (2006). — Invited<\/em><\/li>\n
    31. J. Nilsson, Y. Jeong, D. Soh, C. A. Codemard, P. Dupriez, C. Farrell, J. K. Sahu, J. Kim, S. Yoo, and D. N. Payne, “High-power fiber lasers: progress and opportunities,” 14th International Laser Physics Workshop (LPHYS 2005)<\/em>, Kyoto, paper PS5 (2005). — Plenary<\/em><\/li>\n
    32. P. Dupriez, J. Nilsson, Y. Jeong, J. K. Sahu, C. Codemard, D. Soh, C. Farrell, J. Kim, A. Piper, A. Malinowski, and D. J. Richardson, “Current progress in high-power fiber lasers and amplifiers,” Optical Amplifiers and their Applications (OAA)<\/em>, Budapest (2005). — Invited<\/em><\/li>\n
    33. J. Kim, D. Soh, C. Codemard, S. Yoo, Y. Jeong, J. Nilsson, and J. K. Sahu, “Yb:Al-doped depressed clad hollow optical fiber laser operating at 980 nm,” CLEO\/IQEC Pacific Rim<\/em>, Tokyo, paper CTuI4-5 (2005).<\/li>\n
    34. D. Soh, A. B. Grudinin, J. Nilsson, Y. Jeong, S. Yoo, J. Kim, C. Codemard, and P. Dupriez, “Stimulated Raman scattering effect on femtosecond pulse generation using a parabolic amplification and a pulse compressor,” ONERA Scientific Day<\/em>, Paris (2005).<\/li>\n
    35. Y. Jeong, J. Nilsson, J. K. Sahu, P. Dupriez, C. A. Codemard, D. Soh, C. Farrell, J. Kim, D. J. Richardson, and D. N. Payne, “High power fiber lasers,” CLEO\/IQEC Pacific Rim<\/em>, Tokyo, paper CWI4-1-INV (2005). — Invited<\/em><\/li>\n
    36. Y. Jeong, J. K. Sahu, D. Soh, C. Codemard, and J. Nilsson, “Tunable single-frequency ytterbium-sensitized erbium-doped fiber MOPA source with 150 W (51.8 dBm) of output power at 1563 nm,” OFC<\/em>, Anaheim, paper PDP1 (2005). — Postdeadline<\/em><\/li>\n
    37. Y. Jeong, J. Nilsson, J. K. Sahu, D. Soh, P. Dupriez, C. A. Codemard, C. Farrell, J. Kim, D. J. Richardson, and D. N. Payne, “Beyond 1 kW, the rising power of fibre lasers,” OECC<\/em>, Seoul, paper 8D1-1 (2005). — Invited<\/em><\/li>\n
    38. Y. Jeong, D. Soh, C. A. Codemard, P. Dupriez, C. Farrell, V. Philippov, J. K. Sahu, D. J. Richardson, J. Nilsson, and D. N. Payne, “State of the art of cw fibre lasers,” CLEO\/Europe<\/em>, Munich, paper TFII1-1-WED (2005). — Invited<\/em><\/li>\n
    39. J. Nilsson, J. K. Sahu, Y. Jeong, V. N. Philippov, D. Soh, C. Codemard, P. Dupriez, J. Kim, D. J. Richardson, A. Malinowski, A. N. Piper, J. H. V. Price, K. Furusawa, W. A. Clarkson, and D. N. Payne, “High power fiber lasers,” OFC<\/em>, Anaheim, paper OTuF1 (2005). — Invited<\/em><\/li>\n
    40. J. Kim, P. Dupriez, D. Soh, J. K. Sahu, J. Nilsson, and D. N. Payne, “Nd:Al-doped depressed clad hollow fiber laser at 930 nm,” ASSP<\/em>, Vienna (2005).<\/li>\n
    41. D. Soh, J. Clowes, I. Godfrey, and A. B. Grudinin, “Compact 85 fs frequency doubled 810 nm fiber system with 60 mW of average power,” Photonics West<\/em>, San Jose (2005).<\/li>\n
    42. Y. Jeong, J. Nilsson, J. K. Sahu, D. Soh, C. Alegria, P. Dupriez, C. A. Codemard, D. N. Payne, R. Horley, L. M. B. Hickey, L. Wanzcyk, C. E. Chryssou, J. A. Alvarez-Chavez, and P. W. Turner, “Single-frequency polarized ytterbium-doped fiber MOPA source with 264 W output power,” CLEO\/IQEC<\/em>, San Francisco, paper CPDD1 (2004). — Postdeadline<\/em><\/li>\n
    43. C. Alegria, Y. Jeong, C. Codemard, J. K. Sahu, L. Fu, M. R. Mokhtar, M. Ibsen, S. Baek, D. Soh, V. Philippov, and J. Nilsson, “Wideband tunable high power narrow linewidth erbium-ytterbium doped fiber laser using compression-tunable fiber Bragg grating,” Photonics West<\/em>, San Jose, SPIE Proc. 5335-43, 229 (2004).<\/li>\n
    44. C. A. Codemard, L. M. B. Hickey, K. Yelen, D. Soh, R. Wixey, M. Coker, M. N. Zervas, and J. Nilsson, “400 mW 1060 nm ytterbium doped fiber DFB laser,” Photonics West<\/em>, San Jose, SPIE Proc. 5335-11, 224 (2004).<\/li>\n
    45. J. K. Sahu, Y. Jeong, C. Alegria, C. Codemard, D. Soh, S. Baek, V. Philippov, L. J. Cooper, J. Nilsson, R. B. Williams, M. Ibsen, W. A. Clarkson, D. J. Richardson, and D. N. Payne, “Recent advances in high power fiber lasers,” ASSP<\/em>, New Mexico (2004). — Invited<\/em><\/li>\n
    46. Y. Jeong, J. K. Sahu, S. Baek, C. Alegria, D. Soh, C. Codemard, V. Philippov, D. J. Richardson, D. N. Payne, and J. Nilsson, “Ytterbium-doped double-clad large-core fiber lasers with kW-level continuous-wave output power,” CLEO\/IQEC<\/em>, San Francisco, paper CMS (2004).<\/li>\n
    47. D. Soh, S. W. Yoo, J. Nilsson, J. K. Sahu, S. Baek, Y. Jeong, L. J. Cooper, C. Codemard, P. Dupriez, C. Alegria, V. Philippov, and K. Oh, “Cladding pumped Nd-doped fiber laser tunable from 908 to 938 nm,” CLEO\/IQEC<\/em>, San Francisco, paper CMK (2004).<\/li>\n
    48. D. Soh, S. W. Yoo, J. K. Sahu, L. J. Cooper, S. Baek, and K. Oh, “A cladding pumped neodymium-doped fiber laser tunable from 932 nm to 953 nm,” ASSP<\/em>, New Mexico, paper MD9 (2004).<\/li>\n
    49. D. Soh, C. Codemard, J. K. Sahu, J. Nilsson, V. Philippov, C. Alegria, and Y. Jeong, “A 4.3 W 977 nm ytterbium-doped jacketed-air-clad fiber amplifier,” ASSP<\/em>, New Mexico, paper MA3 (2004).<\/li>\n
    50. D. Soh, C. Codemard, J. K. Sahu, J. Nilsson, S. Baek, S. Wang, and F. Laurell, “An 18 mW 488.7 nm cw frequency doubled fibre MOPA source,” Photonics West<\/em>, San Jose, SPIE Proc. 5335-10, 223 (2004).<\/li>\n
    51. K. H. Ylä-Jarkko, S.-U. Alam, P. W. Turner, J. Moore, J. Nilsson, R. Selvas, D. Soh, C. Codemard, and J. K. Sahu, “Cladding pumping technology for next generation of fiber amplifiers and lasers,” OAA<\/em>, Otaru, paper TuC1 (2003). — Invited<\/em><\/li>\n
    52. V. Philippov, J. Nilsson, Y. Jeong, C. Alegria, D. Soh, C. Codemard, S. Baek, J. K. Sahu, W. A. Clarkson, and D. N. Payne, “Versatile and functional high power fiber sources,” 2nd International Symposium on High-Power Fiber Lasers and Their Applications<\/em>, St. Petersburg, paper HPFL-2.4 (2003). — Invited<\/em><\/li>\n
    53. D. N. Payne, J. Nilsson, Y. Jeong, C. Alegria, V. Philippov, D. Soh, C. Codemard, S. Baek, J. K. Sahu, D. J. Richardson, and W. A. Clarkson, “The revolution in high-power fiber lasers,” 2nd International Symposium on High-Power Fiber Lasers and Their Applications<\/em>, St. Petersburg, paper HPFL-1.2 (2003). — Invited<\/em><\/li>\n
    54. Y. Jeong, J. K. Sahu, S. Baek, C. Alegria, C. A. Codemard, D. Soh, V. Philippov, R. B. Williams, K. Furusawa, D. J. Richardson, D. N. Payne, and J. Nilsson, “The rising power of fibre lasers,” IEEE\/LEOS<\/em>, Arizona, paper ThD1 (2003). — Invited<\/em><\/li>\n
    55. J. Nilsson, Y. Jeong, C. Alegria, V. Philippov, D. Soh, C. Codemard, S. Baek, J. K. Sahu, D. J. Richardson, W. A. Clarkson, and D. N. Payne, “Fiber lasers: flexible and functional solutions for today and the future,” Third International Symposium on Laser and Nonlinear Optical Materials (ISLNOM)<\/em>, Colorado (2003). — Invited<\/em><\/li>\n
    56. K. H. Ylä-Jarkko, R. Selvas, D. Soh, J. K. Sahu, C. A. Codemard, J. Nilsson, S.-U. Alam, and A. B. Grudinin, “A 3.5 W 977 nm cladding-pumped jacketed air-clad ytterbium-doped fiber laser,” ASSP<\/em>, OSA TOPS 83<\/strong>, 103–107 (2003). — Postdeadline<\/em><\/li>\n
    57. C. Codemard, D. Soh, K. H. Ylä-Jarkko, J. K. Sahu, M. Laroche, and J. Nilsson, “Cladding-pumped L-band phosphosilicate erbium-ytterbium co-doped fiber amplifier,” OAA<\/em>, Otaru, paper TuC2 (2003).<\/li>\n<\/ol>\n\n
      \n\n

      Books<\/h3>\n
        \n
      1. D. Soh, Photonic Quantum Information Processing<\/em>, CRC Press (Taylor and Francis Group), London, 2027 (in press).<\/li>\n<\/ol>\n\n
        \n\n

        Patents<\/h3>\n
          \n
        1. US Patent 12112236, Reconfigurable photonic devices for classical and quantum systems<\/em>, M. Eichenfield, D. Soh, E. Chatterjee, J. C. Taylor (Sandia National Laboratories).<\/li>\n
        2. US Patent 12038285, Hybrid inertial navigation system and method<\/em>, J. Lee, D. Soh (Sandia National Laboratories).<\/li>\n
        3. US Patent 12029141, Systems and methods for resolving a number of incident RF-range photons<\/em>, D. Soh, W. Pan, E. Chatterjee (Sandia National Laboratories).<\/li>\n
        4. US Patent 11343088, Systems and methods for quantum optical device authentication<\/em>, D. Soh, S. E. Bisson (Sandia National Laboratories).<\/li>\n
        5. US Patent 11226502, Photonic integrated circuits for generating high-brightness squeezed light<\/em>, D. Soh, M. Eichenfield, C. Long (Sandia National Laboratories).<\/li>\n
        6. US Patent 11177890, Remote quantum state transfer for qubits with different frequencies<\/em>, D. Soh, M. Eichenfield (Sandia National Laboratories).<\/li>\n
        7. US Patent 10341015, Secure fiber optic seals enabled by quantum optical communication concepts<\/em>, M. Sarovar, D. Farley, D. Soh, R. Camacho, C. Brif (Sandia National Laboratories).<\/li>\n
        8. US Patent 9964431, Narrow bandwidth detection of vibration signature using fiber lasers<\/em>, S. Moore, D. Soh (Sandia National Laboratories).<\/li>\n
        9. US Patent 9906311, Transceivers and receivers for quantum key distribution and methods pertaining thereto<\/em>, C. DeRose, M. Sarovar, D. Soh, A. Lentine, P. Davids, R. Camacho (Sandia National Laboratories).<\/li>\n
        10. US Patent 9553677, Self-referenced continuous-variable quantum key distribution<\/em>, D. Soh, M. Sarovar, R. Camacho (Sandia National Laboratories).<\/li>\n
        11. US Patent 9500930, On-chip entangled photon source<\/em>, D. Soh, S. E. Bisson (Sandia National Laboratories).<\/li>\n
        12. US Patent 9465274, High yield entangled photons<\/em>, D. Soh, S. E. Bisson (Sandia National Laboratories).<\/li>\n
        13. US Patent 9031098, All-fiber passively Q-switched laser<\/em>, D. Soh, S. E. Bisson (Sandia National Laboratories).<\/li>\n
        14. US Patent 8730568, Generating laser pulses based on chirped pulse amplification<\/em>, S. Tong, J. Prawiharjo, H. Cong, D. Soh, L. West, A. H. Lin (Calmar Laser Inc.).<\/li>\n
        15. US Patent 7991022, Optical pulse amplification based on stimulated Raman scattering<\/em>, D. Soh, T. H. Lin (Calmar Laser Inc.).<\/li>\n
        16. US Patent 7573918, Dispersion compensated mode-locked pulsed lasers and optical amplifiers<\/em>, D. Soh, T. H. Lin (Calmar Laser Inc.).<\/li>\n<\/ol>\n\n
          \n\n

          Technical Reports<\/h3>\n
            \n
          1. D. Soh, “Quantum super-resolution bioimaging using massively entangled multimode squeezed light,” Sandia National Laboratories (2020).<\/li>\n
          2. D. Soh, “Atom interferometer accelerator modeling,” Sandia National Laboratories (2018).<\/li>\n
          3. C. Brif, M. Sarovar, D. Soh, D. R. Farley, and S. E. Bisson, “Optimized coherent quantum feedback network as squeezed-light source for continuous-variable quantum communication,” Sandia National Laboratories (2015).<\/li>\n
          4. D. Soh, N. Tezak, O. Crisafulli, M. A. Armen, and H. Mabuchi, “Optical parametric oscillator network with coherent feedback quantum control,” Sandia National Laboratories, SAND2013 (2013).<\/li>\n
          5. M. A. Danson, S. W. Moore, D. Soh, and R. P. Bambha, “Large core highly doped fiber amplifiers,” Sandia National Laboratories, SAND2012 (2012).<\/li>\n
          6. D. Soh, “Design of optical pulse slicers based on fiber amplitude discriminator technology,” Sandia National Laboratories, SAND2011-9229 (2011).<\/li>\n
          7. D. Soh, “Feasibility study of mode-locked fiber laser based on fiber amplitude discriminator (FAD) device,” Sandia National Laboratories, SAND2011-7077 (2011).<\/li>\n
          8. D. Soh, “Development of all-fiber passively Q-switched laser: modeling and simulation,” Sandia National Laboratories, SAND2011-4269 (2011).<\/li>\n
          9. D. Soh, “All-fiber saturable absorber,” Sandia National Laboratories, SAND2010-6731 (2010).<\/li>\n<\/ol>\n","protected":false},"excerpt":{"rendered":"

            Journal Articles P. J. Ehlers, P. H. Nguyen, K. Sinha, N. Daigle, T. W. Sawyer, H. I. Nurdin, and D. Soh, “A single atom in front of a mirror is a universal reservoir computer,” arXiv:2608.10382 (2026). Preprint. D. Soh, “A charge selection rule fixes what a squeezed-light reservoir computer can compute and afford,” arXiv:2608.19668 (2026). Preprint. C. Zhu, T. Wang,<\/p>\n","protected":false},"author":91,"featured_media":0,"parent":0,"menu_order":0,"comment_status":"closed","ping_status":"closed","template":"","meta":{"footnotes":""},"categories":[],"tags":[],"class_list":["post-14","page","type-page","status-publish","hentry"],"_links":{"self":[{"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/pages\/14","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/pages"}],"about":[{"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/types\/page"}],"author":[{"embeddable":true,"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/users\/91"}],"replies":[{"embeddable":true,"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/comments?post=14"}],"version-history":[{"count":32,"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/pages\/14\/revisions"}],"predecessor-version":[{"id":295,"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/pages\/14\/revisions\/295"}],"wp:attachment":[{"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/media?parent=14"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/categories?post=14"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/wp.optics.arizona.edu\/danielsoh\/wp-json\/wp\/v2\/tags?post=14"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}