Query: Ma, ; , , Molecular pharmaceutics 2018, 15 6, 2348-2354.

Candidate papers:

abstract: We report the first demonstration of direct modulation of InAs/GaAs quantum dot (QD) lasers grown on on axis (001) Si substrate. A low threading dislocation density GaAs buffer layer enables us to grow a high quality 5 layered QD active region on on axis Si substrate. The active layer has p modulation doped GaAs barrier layers with a hole concentration of 5 x 10 cm to suppress gain saturation. Small signal measurement on a 3 x 580 mm Fabry Perot laser showed a 3dB bandwidth of 6.5 GHz at a bias current of 116 mA. A 12.5 Gbit/s non return to zero signal modulation was achieved by directly probing the chip. Open eyes with an extinction ration of 3.3dB was observed at room temperature. The biterror rate (BER) curve showed no error floor up to BER of 1 x 10. 12 km single mode fiber transmission experiments using the QD laser on Si showed a low power penalty of 1 dB at 5 Gbit/s. These results demonstrate the potential for QD lasers epitaxially grown on Si to be used as a low cost light source for optical communication systems. (c) 2018 Optical Society of America under the terms of the OSA Open Access Publishing Agreement OCIS codes: (250.5960) Semiconductor lasers; (230.5590) Quantum well, wire and dot devices; (060.4080) Modulation. References and links 1. A. Vahdat, H. Liu, X. Zhao, and C. Johnson, "The emerging optical data center," in Optical Fiber Communication Conference (OFC) 2011 OSA Technical Digest Series (Optical Society of America, 2011),paper OTuH2. 2. J. A. Tatum, D. Gazula, L. A. Graham, J. K. Guenter, R. H. Johnson, J. King, C. Kocot, G. D. Landry, I. Lyubomirsky, A. N. MacInnes, E. M. Shaw, K. Balemarthy, R. Shubochkin, D. Vaidya, M. Yan, and F. Tang, "VCSEL based interconnects for current and future data centers," J. Lightwave Technol. 33(4) 727 732 (2015) 3. T. Tadokoro, W. Kobayashi, T. Fujisawa, T. Yamanaka, and F. Kano, "High speed modulation lasers for 100GbE applications," in Optical Fiber Communication Conference/National Fiber Optic Engineers Conference, OSA Technical Digest Series (Optical Society of America, 2011) paper OWD1. 4. K. Otsubo, N. Hatori, M. Ishida, S. Okumura, T. Akiyama, Y. Nakata, H. Ebe, M. Sugawara, and Y. Arakawa, "Temperature insensitive eye opening under 10 Gb/s modulation of 1.3 mm p doped quantum dot lasers without current adjustments," Jpn. J. Appl. Phys. 43(8B) L1124 L1126 (2004) 5. M. Ishida, M. Matsuda, Y. Tanaka, K. Takada, M. Ekawa, T. Yamamoto, T. Kageyama, M. Yamaguchi, K. Nishi, M. Sugawara, and Y. Arakawa, "Temperature stable 25 Gbps direct modulation in 1.3 mm InAs/GaAs quantum dot lasers," in Lasers and Electro Optics (CLEO) Conference, 2012 OSA Technical Digest Series (Optical Society of America, 2012) paper CM1I.2. 6. S. Banyoudeh, O. Eyal, A. Abdollahinia, F. Schnabel, V. Sichkovskyi, J. P. Reithmaier, and G. Eisenstein, "High bandwidth temperature stable 1.55 mm quantum dot lasers," Proc. SPIE 10123, 1012306 (2017) 7. P. De Dobbelaere, S. Abdalla, S. Gloeckner, M. Mack, G. Masini, A. Mekis, T. Pinguet, S. Sahni, A. Narasimha, D. Guckenberger, and M. Harrison, "Si photonics based high speed optical transceivers," in European Conference and Exhibition on Optical Communication, OSA Technical Digest Series (Optical Society of America, 2012) paper We.1.E.5. Vol. 26, No. 6 19 Mar 2018 OPTICS EXPRESS 7022 #321372 https:/doi.org/10.1364/OE.26.007022 Journal (c) 2018 Received 6 Feb 2018; revised 25 Feb 2018; accepted 25 Feb 2018; published 7 Mar 2018 Corrected: 3 April 2018 8. T. Komljenovic, M. Davenport, J. Hulme, A. Y. Liu, C. T. Santis, A. Spott, S. Srinivasan, E. J. Stanton, C. Zhang, and J. E. Bowers, "Heterogeneous silicon photonic integrated circuits," J. Lightwave Technol. 34(1) 20 35 (2016) 9. S. Tanaka, S. H. Jeong, S. Sekiguchi, T. Kurahashi, Y. Tanaka, and K. Morito, "High output power, singlewavelength silicon hybrid laser using precise flip chip bonding technology," Opt. Express 20(27) 28057 28069 (2012) 10. G. Kurczveil, D. Liang, M. Fiorentino, and R. G. Beausoleil, "Robust hybrid quantum dot laser for integrated silicon photonics," Opt. Express 24(14) 16167 16174 (2016) 11. T. Kita, N. Yamamoto, T. Kawanishi, and H. Yamada, "Ultra compact wavelength tunable quantum dot laser with silicon photonics double ring filter," Appl. Phys. Express 8(6) 062701 (2015) 12. T. Morishita, K. Kounoike, S. Fujiwara, Y. Hagi, and Y. Yabuhara, "Crystal growth and wafer processing of indium phosphide 6" substrate,"in Proc. of the 2016 International Conference on Compound Semiconductor Manufacturing Technology(MANTECH' 2016) Florida, United States (2016) paper 5b.1. 13. A. Y. Liu, S. Srinivasan, J. Norman, A. C. Gossard, and J. E. Bowers, "Quantum dot lasers for silicon photonics," Photon. Res. 3(5) B1 B9 (2015) 14. H. Kroemer, T. Y. Liu, and P. M. Petroff, "GaAs on Si and related systems: Problems and prospects," J. Cryst. Growth 95(1 4) 96 102 (1989) 15. A. Y. Liu, C. Zhang, J. Norman, A. Snyder, D. Lubyshev, J. M. Fastenau, A. W. Liu, A. C. Gossard, and J. E. Bowers, "High performance continuous wave 1.3 mm quantum dot lasers on silicon," Appl. Phys. Lett. 104(4) 041104 (2014) 16. S. Chen, W. Li, J. Wu, Q. Jiang, M. Tang, S. Shutts, S. Elliott, A. Sobiesierski, A. Seeds, I. Ross, P. Smowton, and H. Liu, "Electrically pumped continuous wave III V quantum dot lasers on silicon," Nat. Photonics 10(5) 307 311 (2016) 17. J. Norman, M. J. Kennedy, J. Selvidge, Q. Li, Y. Wan, A. Y. Liu, P. G. Callahan, M. P. Echlin, T. M. Pollock, K. M. Lau, A. C. Gossard, and J. E. Bowers, "Electrically pumped continuous wave quantum dot lasers epitaxially grown on patterned, on axis (001) Si," Opt. Express 25(4) 3927 3934 (2017) 18. Y. Wan, J. Norman, Q. Li, M. J. Kennedy, D. Liang, C. Zhang, D. Huang, Z. Zhang, A. Y. Liu, A. Torres, D. Jung, A. C. Gossard, E. L. Hu, K. M. Lau, and J. E. Bowers, "1.3 mm submilliamp threshold quantum dot microlasers on Si," Optica 4(8) 940 944 (2017) 19. A. Y. Liu, J. Peters, X. Huang, D. Jung, J. Norman, M. L. Lee, A. C. Gossard, and J. E. Bowers, "Electrically pumped continuous wave 1.3 mm quantum dot lasers epitaxially grown on on axis (001) GaP/Si," Opt. Lett. 42(2) 338 341 (2017) 20. D. Jung, J. Norman, M. J. Kennedy, C. Shang, B. Shin, Y. Wan, A. C. Gossard, and J. E. Bowers, "High efficiency low threshold current 1.3 mm InAs quantum dot lasers on on axis (001) GaP/Si," Appl. Phys. Lett. 111(12) 122107 (2017) 21. Y. H. Jhang, R. Mochida, K. Tanabe, K. Takemasa, M. Sugawara, S. Iwamoto, and Y. Arakawa, "Direct modulation of 1.3 mm quantum dot lasers on silicon at 60 degC," Opt. Express 24(16) 18428 18435 (2016) 22. D. Jung, Z. Zhang, J. Norman, R. Herrick, M. J. Kennedy, P. Patel, K. Turnlund, C. Jan, Y. Wan, A. C. Gossard, and J. E. Bowers, "Highly reliable low threshold InAs quantum dot lasers on on axis (001) Si with 87% injection efficiency," ACS Photonics (to be published) 23. D. Jung, P. G. Callahan, B. Shin, K. Mukherjee, A. C. Gossard, and J. E. Bowers, "Low threading dislocation density GaAs growth on on axis GaP/Si (001)" J. Appl. Phys. 122(22) 225703 (2017) 24. R. L. Nagarajan, M. Ishikawa, T. Fukushima, R. S. Geels, and J. E. Bowers, "High speed quantum well lasers and carrier transport effects," IEEE J. Quantum Electron. 28(10) 1990 2008 (1992) 25. W. Kobayashi, T. Ito, T. Yamanaka, T. Fujisawa, Y. Shibata, T. Kurosaki, M. Kohtoku, T. Tadokoro, and H. Sanjoh, "50 Gb/s direct modulation of 1.3 mm InGaAlAs based DFB laser with ridge waveguide structure," IEEE J. Sel. Top. Quantum Electron. 19(4) 1500908 (2013) 26. Y. Matsui, T. Pham, T. Sudo, G. Carey, B. Young, J. Xu, C. Cole, and C. Roxlo, "28 Gbaud PAM4 and 56 Gb/s NRZ performance comparison using 1310 nm Al BH DFB Laser," J. 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Arakawa, "Effect of carrier transport on modulation bandwidth of 1.3 mm InAs/GaAs self assembled quantum dot lasers," in Proc. of the22nd IEEE International Semiconductor Laser Conference2012 (ISLC 2012) Kyoto, Japan (2012) paper WD4. 30. T. Kageyama, K. Watanabe, Q. H. Vo, K. Takemasa, M. Sugawara, S. Iwamoto, and Y. Arakawa, "InAs/GaAs quantum dot lasers with GaP strain compensation layers grown by molecular beam epitaxy," Phys. Status Solidi. A Appl. Mater. Sci. 213(4) 958 964 (2016) Vol. 26, No. 6 19 Mar 2018 OPTICS EXPRESS 7023
author_names: G C

Besana E
title: Directly modulated 1 3 m m quantum dot lasers epitaxially grown on silicon
year: 2018

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author_names: R M de Kruijff

Alexandra G Arranja

Antonia G Denkova
title: Radiolabeling Methods and Nuclear Imaging Techniques in the Design of New Polymeric Carriers for Cancer Therapy
year: 2018

abstract: Tissue mimicking phantoms are widely used for the calibration, evaluation and standardisation of medical imaging systems, and for clinical training. For photoacoustic imaging, tissue mimicking materials (TMMs) that have tuneable optical and acoustic properties, high stability, and mechanical robustness are highly desired. In this study, gel wax is introduced as a TMM that satisfies these criteria for developing photoacoustic imaging phantoms. The reduced scattering and optical absorption coefficients were independently tuned with the addition of TiO2 and oil based inks. The frequency dependent acoustic attenuation obeyed a power law; for native gel wax, it varied from 0.71 dB/cm at 3 MHz to 9.93 dB/cm at 12 MHz. The chosen oil based inks, which have different optical absorption spectra in the range of 400 to 900 nm, were found to have good photostability under pulsed illumination with photoacoustic excitation light. Optically heterogeneous phantoms that comprised of inclusions with different concentrations of carbon black and coloured inks were fabricated, and multispectral photoacoustic imaging was performed with an optical parametric oscillator and a planar Fabry Perot sensor. We conclude that gel wax is well suited as a TMM for multispectral photoacoustic imaging. Published by The Optical Society under the terms of the Creative Commons Attribution 4.0 License. Further distribution of this work must maintain attribution to the author(s) and the published article's title, journal citation, and DOI. OCIS codes: (170.3880) Medical and biological imaging; (110.5120) Photoacoustic imaging; (170.7170) Ultrasound; (110.3000) Image quality assessment; (160.4760) Optical properties; (120.5820) Scattering measurements. References and links 1. P. Beard, "Biomedical Photoacoustic Imaging," Interface Focus 1(4) 602 631 (2011) 2. L. V. Wang and S. 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author_names: D L

W J

H C

D E
title: Gel wax based tissue mimicking phantoms for multispectral photoacoustic imaging
year: 2018

abstract: Ultrafast laser inscription has been used to produce channel waveguides in Ge22As20Se58 glass (GASIR 1, Umicore N.V) The mode field diameter and waveguide losses at 2.94 mm were measured along with the waveguide dispersion in the 1 to 4.5 mm range, which is used to estimate the zero dispersion wavelength. Z scan measurements of bulk samples have also been performed to determine the nonlinear refractive index. Finally, midIR supercontinuum generation has been shown when pumping the waveguides with femtosecond pulses centered at 4.6 mm. Supercontinuum spanning approximately 4 mm from 2.5 to 6.5 mm was measured which, to the best of the authors' knowledge, represents the broadest and the deepest IR supercontinuum from an ultrafast laser inscribed waveguide to date. This work, combined with the long wavelength transmission of GASIR 1 up to 15 mm, paves the way for realizing further ultrafast laser inscribed waveguide devices in GASIR 1 for mid IR integrated optics applications. Published by The Optical Society under the terms of the Creative Commons Attribution 4.0 License. Further distribution of this work must maintain attribution to the author(s) and the published article's title, journal citation, and DOI. OCIS codes: (130.2755) Glass waveguides; (130.3060) Infrared; (160.4330) Nonlinear optical materials. References and links 1. D. W. Hewak, "Chalcogenide glasses for photonics device applications," in Photonic Glasses and GlassCeramics, G. S. Murugan, ed. (Research Signpost, 2010) 2. B. J. Eggleton, B. Luther Davies, and K. Richardson, "Chalcogenide photonics," Nat. Photonics 5(3) 141 148 (2011) 3. A. Rodenas, G. Martin, B. Arezki, N. Psaila, G. Jose, A. Jha, L. Labadie, P. Kern, A. Kar, and R. Thomson, "Three dimensional mid infrared photonic circuits in chalcogenide glass," Opt. Lett. 37(3) 392 394 (2012) 4. C. R. Petersen, N. Prtljaga, M. Farries, J. Ward, B. Napier, G. R. Lloyd, J. Nallala, N. Stone, and O. 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Y. Yu, X. Gai, P. Ma, D. Y. Choi, Z. Y. Yang, R. P. Wang, S. Debbarma, S. J. Madden, and B. Luther Davies, "A broadband, quasi continuous, mid infrared supercontinuum generated in a chalcogenide glass waveguide," Laser Photonics Rev. 8(5) 792 798 (2014) Vol. 8, No. 4 1 Apr 2018 OPTICAL MATERIALS EXPRESS 1001 #319549 https:/doi.org/10.1364/OME.8.001001 Journal (c) 2018 Received 1 Feb 2018; revised 10 Mar 2018; accepted 10 Mar 2018; published 22 Mar 2018 10. Y. Yu, X. Gai, P. Ma, K. Vu, Z. Yang, R. Wang, D. Y. Choi, S. Madden, and B. Luther Davies, "Experimental demonstration of linearly polarized 2 10 mm supercontinuum generation in a chalcogenide rib waveguide," Opt. Lett. 41(5) 958 961 (2016) 11. H. Lin, Z. Luo, T. Gu, C. Kimerling Lionel, K. Wada, A. Agarwal, and J. Hu, "Mid infrared integrated photonics on silicon: a perspective," in Nanophotonics, (2017) p. 393. 12. P. Mitchell, G. Brown, R. R. Thomson, N. Psaila, and A. Kar, "57 Channel (19x3) Spatial Multiplexer Fabricated using Direct Laser Inscription," in Optical Fiber Communication Conference, OSA Technical Digest (online) (Optical Society of America, 2014) M3K.5. 13. T. A. Birks, I. Gris Sanchez, S. Yerolatsitis, S. G. Leon Saval, and R. R. Thomson, "The photonic lantern," Adv. Opt. Photonics 7(2) 107 (2015) 14. G. Demetriou, D. W. Hewak, A. Ravagli, C. Craig, and A. Kar, "Nonlinear refractive index of ultrafast laser inscribed waveguides in gallium lanthanum sulphide," Appl. Opt. 56(19) 5407 5411 (2017) 15. J. A. Frantz, L. B. Shaw, J. S. Sanghera, and I. D. Aggarwal, "Waveguide amplifiers in sputtered films of Er3+doped gallium lanthanum sulfide glass," Opt. Express 14(5) 1797 1803 (2006) 16. J. Morris, N. K. Stevenson, H. T. Bookey, A. K. Kar, C. T. A. Brown, J. M. Hopkins, M. D. Dawson, and A. A. Lagatsky, "1.9 mm waveguide laser fabricated by ultrafast laser inscription in Tm:Lu2O3ceramic," Opt. Express 25(13) 14910 14917 (2017) 17. R. Mary, D. Choudhury, and A. K. Kar, "Applications of Fiber Lasers for the Development of Compact Photonic Devices," IEEE J. Sel. Top. Quant. 20(5) 72 84 (2014) 18. M. Sheik Bahae, A. A. Said, T. H. Wei, D. J. Hagan, and E. W. Van Stryland, "Sensitive measurement of optical nonlinearities using a single beam," IEEE J. Quantum Electron. 26(4) 760 769 (1990) 19. T. Wang, X. Gai, W. Wei, R. Wang, Z. Yang, X. Shen, S. Madden, and B. Luther Davies, "Systematic z scan measurements of the third order nonlinearity of chalcogenide glasses," Opt. Mater. Express 4(5) 1011 1022 (2014) 20. G. Demetriou, J. P. Berube, R. Vallee, Y. Messaddeq, C. R. Petersen, D. Jain, O. Bang, C. Craig, D. W. Hewak, and A. K. Kar, "Refractive index and dispersion control of ultrafast laser inscribed waveguides in gallium lanthanum sulphide for near and mid infrared applications," Opt. Express 24(6) 6350 6358 (2016) 21. C. R. Petersen, U. Moller, I. Kubat, B. Zhou, S. Dupont, J. Ramsay, T. Benson, S. Sujecki, N. Abdel Moneim, Z. Tang, D. Furniss, A. Seddon, and O. Bang, "Mid infrared supercontinuum covering the 1.4 13.3 mm molecular fingerprint region using ultra high NA chalcogenide step index fibre," Nat. Photonics 8(11) 830 834 (2014)
author_names: Giorgos Demetriou

Ole Bang
title: Ge 22 As 20 Se 58 glass ultrafast laser inscribed waveguides for midIR integrated optics
year: 2018

abstract: We present the possibility of steering the direction of correlations between the offresonant Raman scattered photons from the angularly multimode atomic memory based on warm rubidium vapors. Using acousto optic deflectors (AOD) driven by different modulation frequencies we experimentally change the angle of incidence of the laser beams on the atomic ensemble. Performing correlations measurements for various deflection angles we verify that we can choose the anti Stokes light propagation direction independently of the correlated Stokes scattered light in the continuous way. As a result we can select the spatial mode of photons retrieved from the memory, which may be important for future development of quantum information processing. c (c) 2018 Optical Society of America OCIS codes: (270.5585) Quantum information and processing; (020.0020) Quantum optics; (230.1040) Atomic and molecular physics; (290.5910) Scattering, stimulated Raman; (270.0270) Acousto optical devices. 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Express 20(28) 29540 (2012) 23. M. Dabrowski, R. Chrapkiewicz, and W. Wasilewski, "Magnetically tuned, robust and efficient filtering system for spatially multimode quantum memory in warm atomic vapors," J. Mod. Opt. (to be published) 24. R. Chrapkiewicz, W. Wasilewski, and K. Banaszek, "High fidelity spatially resolved multiphoton counting for quantum imaging applications," Opt. Lett. 39(17) 5090 3 (2014) 25. M. Jachura and R. Chrapkiewicz, "Shot by shot imaging of Hong Ou Mandel interference with an intensified sCMOS camera," Opt. Lett. 40(7) 1540 3 (2015) 26. M. Dabrowski, R. Chrapkiewicz, and W. Wasilewski, "Hamiltonian design in readout from room temperature Raman atomic memory," Opt. Express 22(21) 26076 90 (2014) 27. K. O. Roberts, T. McKellar, J. Fekete, A. Rakonjac, A. B. Deb, and N. Kjaergaard, "Steerable optical tweezers for ultracold atom studies," Opt. Lett. 39(7) 2012 5 (2014) 28. R. Chrapkiewicz, M. Dabrowski, and W. Wasilewski, "High Capacity Angularly Multiplexed Holographic Memory for Enhanced Rate Generation of Photons," http:/www.arxiv.org/abs/1604.06049. 29. R. Chrapkiewicz, W. Wasilewski, and C. Radzewicz, "How to measure diffusional decoherence in multimode rubidium vapor memories?" Opt. Commun. 317, 1 6 (2014)
title: Correlation steering in the angularly multimode Raman atomic memory
year: 2018

abstract: We present and demonstrate an experimental scheme that enables overlap free reconstruction of attosecond beating by the interference of two photon transition (RABBITT) measurements at high extreme ultraviolet (XUV) photon energies. A compact passively stabilized attosecond beamline employing a multilayer (ML) mirror allows us to obtain XUV pulses consisting of only two odd high harmonic orders from an attosecond pulse train (APT) We compare our new technique to existing schemes that are used to perform RABBITTmeasurements and discuss how our scheme resolves the limitations imposed by spectral complexity of the harmonic comb at high photon energies. We further demonstrate first applications of our scheme for rare gases and gas mixtures, and show that this scheme can be extended to gas molecule mixtures. 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Arpin, S. Brown, S. Alisauskas, G. Andriukaitis, T. Balciunas, O. D. Mucke, A. Pugzlys, A. Baltuska, B. Shim, S. E. Schrauth, A. Gaeta, C. Hernandez Garcia, L. Plaja, A. Becker, Vol. 26, No. 22 29 Oct 2018 OPTICS EXPRESS 28605
title: Using a passively stable attosecond beamline for relative phjavascript:void(0);otoemission time delays at high XUV photon energies
year: 2018

abstract: L. Adamczyk,1 J. R. Adams,29 J. K. Adkins,19 G. Agakishiev,17 M. M. Aggarwal,31 Z. Ahammed,54 N. N. Ajitanand,42 I. Alekseev,15,26 D. M. Anderson,44 R. Aoyama,48 A. Aparin,17 D. Arkhipkin,3 E. C. Aschenauer,3 M. U. Ashraf,47 A. Attri,31 G. S. Averichev,17 X. Bai,7 V. Bairathi,27 K. Barish,50 A. Behera,42 R. Bellwied,46 A. Bhasin,16 A. K. Bhati,31 P. Bhattarai,45 J. Bielcik,10 J. Bielcikova,11 L. C. Bland,3 I. G. Bordyuzhin,15 J. Bouchet,18 J. D. Brandenburg,36 A. V. Brandin,26 D. Brown,23 J. Bryslawskyj,50 I. Bunzarov,17 J. Butterworth,36 H. Caines,58 M. Calderon de la Barca Sanchez,5 J. M. Campbell,29 D. Cebra,5 I. Chakaberia,3,18,40 P. Chaloupka,10 Z. Chang,44 N. Chankova Bunzarova,17 A. Chatterjee,54 S. Chattopadhyay,54 X. Chen,21 J. H. Chen,41 X. Chen,39 J. Cheng,47 M. Cherney,9 W. Christie,3 G. Contin,22 H. J. Crawford,4 S. Das,7 T. G. Dedovich,17 J. Deng,40 I. M. Deppner,51 A. A. Derevschikov,33 L. Didenko,3 C. Dilks,32 X. Dong,22 J. L. Drachenberg,20 J. E. Draper,5 J. C. Dunlop,3 L. G. Efimov,17 N. Elsey,56 J. Engelage,4 G. Eppley,36 R. Esha,6 S. Esumi,48 O. Evdokimov,8 J. Ewigleben,23 O. Eyser,3 R. Fatemi,19 S. Fazio,3 P. Federic,11 P. Federicova,10 J. Fedorisin,17 Z. Feng,7 P. Filip,17 E. Finch,49 Y. Fisyak,3 C. E. Flores,5 J. Fujita,9 L. Fulek,1 C. A. Gagliardi,44 F. Geurts,36 A. Gibson,53 M. Girard,55 D. Grosnick,53 D. S. Gunarathne,43 Y. Guo,18 A. Gupta,16 W. Guryn,3 A. I. Hamad,18 A. Hamed,44 A. Harlenderova,10 J. W. Harris,58 L. He,34 S. Heppelmann,5 S. Heppelmann,32 N. Herrmann,51 A. Hirsch,34 S. Horvat,58 X. Huang,47 H. Z. Huang,6 T. Huang,28 B. Huang,8 T. J. Humanic,29 P. Huo,42 G. Igo,6 W. W. Jacobs,14 A. Jentsch,45 J. Jia,3,42 K. Jiang,39 S. Jowzaee,56 E. G. Judd,4 S. Kabana,18 D. Kalinkin,14 K. Kang,47 D. Kapukchyan,50 K. Kauder,56 H. W. Ke,3 D. Keane,18 A. Kechechyan,17 Z. Khan,8 D. P. Kikola,55 C. Kim,50 I. Kisel,12 A. Kisiel,55 L. Kochenda,26 M. Kocmanek,11 T. Kollegger,12 L. K. Kosarzewski,55 A. F. Kraishan,43 L. Krauth,50 P. Kravtsov,26 K. Krueger,2 N. Kulathunga,46 L. Kumar,31 J. Kvapil,10 J. H. Kwasizur,14 R. Lacey,42 J. M. Landgraf,3 K. D. Landry,6 J. Lauret,3 A. Lebedev,3 R. Lednicky,17 J. H. Lee,3 W. Li,41 C. Li,39 X. Li,39 Y. Li,47 J. Lidrych,10 T. Lin,14 M. A. Lisa,29 F. Liu,7 P. Liu,42 Y. Liu,44 H. Liu,14 T. Ljubicic,3 W. J. Llope,56 M. Lomnitz,22 R. S. Longacre,3 S. Luo,8 X. Luo,7 G. L. Ma,41 R. Ma,3 Y. G. Ma,41 L. Ma,41 N. Magdy,42 R. Majka,58 D. Mallick,27 S. Margetis,18 C. Markert,45 H. S. Matis,22 D. Mayes,50 K. Meehan,5 J. C. Mei,40 Z. W. Miller,8 N. G. Minaev,33 S. Mioduszewski,44 D. Mishra,27 S. Mizuno,22 B. Mohanty,27 M. M. Mondal,13 D. A. Morozov,33 M. K. Mustafa,22 Md. Nasim,6 T. K. Nayak,54 J. M. Nelson,4 D. B. Nemes,58 M. Nie,41 G. Nigmatkulov,26 T. Niida,56 L. V. Nogach,33 T. Nonaka,48 S. B. Nurushev,33 G. Odyniec,22 A. Ogawa,3 K. Oh,35 V. A. Okorokov,26 D. Olvitt Jr.,43 B. S. Page,3 R. Pak,3 Y. Pandit,8 Y. Panebratsev,17 B. Pawlik,30 H. Pei,7 C. Perkins,4 J. Pluta,55 K. Poniatowska,55 J. Porter,22 M. Posik,43 A. M. Poskanzer,22 N. K. Pruthi,31 M. Przybycien,1 J. Putschke,56 A. Quintero,43 S. Ramachandran,19 R. L. Ray,45 R. Reed,23 M. J. Rehbein,9 H. G. Ritter,22 J. B. Roberts,36 O. V. Rogachevskiy,17 J. L. Romero,5 J. D. Roth,9 L. Ruan,3 J. Rusnak,11 O. Rusnakova,10 N. R. Sahoo,44 P. K. Sahu,13 S. Salur,37 J. Sandweiss,58 M. Saur,11 J. Schambach,45 A. M. Schmah,22 W. B. Schmidke,3 N. Schmitz,24 B. R. Schweid,42 J. Seger,9 M. Sergeeva,6 R. Seto,50 P. Seyboth,24 N. Shah,41 E. Shahaliev,17 P. V. Shanmuganathan,23 M. Shao,39 W. Q. Shen,41 S. S. Shi,7 Z. Shi,22 Q. Y. Shou,41 E. P. Sichtermann,22 R. Sikora,1 M. Simko,11 S. Singha,18 M. J. Skoby,14 N. Smirnov,58 D. Smirnov,3 W. Solyst,14 P. Sorensen,3 H. M. Spinka,2 B. Srivastava,34 T. D. S. Stanislaus,53 D. J. Stewart,58 M. Strikhanov,26 B. Stringfellow,34 A. A. P. Suaide,38 T. Sugiura,48 M. Sumbera,11 B. Summa,32 X. Sun,7 Y. Sun,39 X. M. Sun,7 B. Surrow,43 D. N. Svirida,15 Z. Tang,39 A. H. Tang,3 A. Taranenko,26 T. Tarnowsky,25 A. Tawfik,57 J. Thader,22 J. H. Thomas,22 A. R. Timmins,46 D. Tlusty,36 T. Todoroki,3 M. Tokarev,17 S. Trentalange,6 R. E. Tribble,44 P. Tribedy,3 S. K. Tripathy,13 B. A. Trzeciak,10 O. D. Tsai,6 B. Tu,7 T. Ullrich,3 D. G. Underwood,2 I. Upsal,29 G. Van Buren,3 G. van Nieuwenhuizen,3 A. N. Vasiliev,33 F. Videbaek,3 S. Vokal,17 S. A. Voloshin,56 A. Vossen,14 G. Wang,6 F. Wang,34 Y. Wang,7 Y. Wang,47 G. Webb,3 J. C. Webb,3 L. Wen,6 G. D. Westfall,25 H. Wieman,22 S. W. Wissink,14 R. Witt,52 Y. Wu,18 Z. G. Xiao,47 G. Xie,39 W. Xie,34 Q. H. Xu,40 Y. F. Xu,41 J. Xu,7 N. Xu,22 Z. Xu,3 C. Yang,40 S. Yang,3 Q. Yang,40 Y. Yang,28 Z. Ye,8 Z. Ye,8 L. Yi,58 K. Yip,3 I. K. Yoo,35 N. Yu,7 H. Zbroszczyk,55 W. Zha,39 J. B. Zhang,7 J. Zhang,22 S. Zhang,39 L. Zhang,7 J. Zhang,21 X. P. Zhang,47 Z. Zhang,41 S. Zhang,41 Y. Zhang,39 J. Zhao,34 C. Zhong,41 C. Zhou,41 L. Zhou,39 X. Zhu,47 Z. Zhu,40 and M. Zyzak12
author_names: L Adamczyk

J R Adams

James Kevin Adkins

Geydar Agakishiev

Madan Mohan Aggarwal

Zubayer Ahammed

Nuggehalli N Ajitanand

I G Alekseev

D M Anderson

Ryo Aoyama

Alexey Aparin

D A Arkhipkin

Elke C Aschenauer

Muhammad Usman Ashraf

Anjali Attri

G S Averichev

Xiaozhi Bai

Vipul Bairathi

Kenneth N Barish

A Behera

Rene Bellwied

Anju Bhasin

Ashok Kumar Bhati

Prabhat Bhattarai

Jaroslav Bielcik

J Bielcikova

Leslie Bland

I G Bordyuzhin

Jonathan Bouchet

James Daniel Brandenburg

A V Brandin

D R Brown

Jason Bryslawskyj

I Zh Bunzarov

Joseph Butterworth

Helen Caines

M Sanchez

J M Campbell

Daniel Cebra

Irakli Chakaberia

Petr Chaloupka

Zhi Chang

Nedialka Chankova-Bunzarova

Arka Chatterjee

Sukalyan Chattopadhyay

Xinghao Chen

Jinhui Chen

J Cheng

Michael Gerard Cherney

William Christie

Giacomo Contin

Henry J Crawford

S K Das

Tatiana Grigoryevna Dedovich

Jun Deng

I M Deppner

A A Derevschikov

Larysa Didenko

Christopher Dilks

X Dong

James Drachenberg

James E Draper

John Charles Dunlop

L G Efimov

Nicholas Elsey

J M Engelage

Geary W Eppley

R T Esha

Shin-ichi Esumi

O Evdokimov

Justin Ewigleben

Oleg Eyser

Renee Fatemi

Salvatore Fazio

Pavol Federic

P Federicova

Jan Fedorisin

Z Feng

Peter Filip

Evan Finch

Yuri V Fisyak

C E Flores

Jiro Fujita

Lukasz Fulek

Carl A Gagliardi

Frank J M Geurts

Adam Gibson

Martin Robert Girard

David Grosnick

Devika Gunarathne

Y Guo

Anoop Gupta

Wlodek Guryn

Ayman Hamad

Ahmed M Hamed

Alena Harlenderova

J W Harris

L He

Samuel Heppelmann

Norbert Herrmann

Andrew S Hirsch

Stephen Horvat

X Y Huang

H Z Huang

T C Huang

B Huang

Thomas J Humanic

Peng Huo

George J Igo

William W Jacobs

Alexander M Jentsch

J Jia

K J Jiang

Sedigheh Jowzaee

Eleanor G Judd

Sonja Kabana

Dmitry Kalinkin

Ke-jun Kang

David Kapukchyan

K Kauder

Hongwei Ke

Declan Keane

A O Kechechyan

Z H Khan

Daniel Kikola

C Kim

Ivan Kisel

Adam Kisiel

Leonid Kochenda

M Kocmanek

Thorsten Sven Kollegger

Leszek Kosarzewski

A F Kraishan

L Krauth

P Kravtsov

K W Krueger

Nalinda Kulathunga

Lokesh Kumar

Jakub Kvapil

Joseph Kwasizur

Roy Lacey

J M Landgraf

Keith Landry

Jerome Lauret

Andrey Lebedev

Richard Lednicky

J S H Lee

Wei Li

Chuanliang Li

Xiaoguang Li

Yiping Li

Jindrich Lidrych

T T Lin

Michael Annan Lisa

F Liu

P Liu

Yanfang Liu

Hongbin Liu

Tatjana Ljubicic

William Llope

M Lomnitz

Ronald S Longacre

Siwei Luo

X F Luo

G L Ma

Rongrong Ma

Y G Ma

L Ma

Niseem Magdy

R Majka

Debasish Mallick

Spiros Margetis

C Markert

Howard S Matis

D Mayes

Kathryn Meehan

J C Mei

Z W Miller

N G Minaev

Saskia Mioduszewski

Debadeepti Mishra

Sanshiro Mizuno

Bedangadas Mohanty

Mriganka Mouli Mondal

D A Morozov

Mohd Kamarulzaki Mustafa

Md Nasim

Tapan Kumar Nayak

Jonathan M Nelson

Daniel Nemes

Maowu Nie

Grigory Nigmatkulov

Takafumi Niida

L V Nogach

Toshihiro Nonaka

S B Nurushev

Grazyna Odyniec

Akio Ogawa

Kunsu Oh

Vitalii A Okorokov

Daniel Olvitt

Brian Page

R Pak

Yadav Pandit

Yu A Panebratsev

Bogdan Pawlik

Hua Pei

Chris Perkins

Jan Marian Pluta

Katarzyna Poniatowska

J Porter

Matthew Posik

Arthur M Poskanzer

Navneet Kumar Pruthi

M Przybycien

Jorn Henning Putschke

Amilkar Quintero

Suvarna Ramachandran

Rajarshi Ray

Rosi Jan Reed

Matthew Rehbein

Hans Georg Ritter

J Brent Roberts

O V Rogachevskiy

Jose Luis Romero

Jordan Daniel Roth

Li-juan Ruan

John Joseph Rusnak

Olga Rusnakova

Niladribihari Sahoo

Pradip Kumar Sahu

S Salur

Jack H Sandweiss

Miroslav Saur

Joachim J Schambach

Alexander Schmah

W B Schmidke

Norbert Schmitz

Benjamin Schweid

Janet Seger

Maria V Sergeeva

Ryosuke Seto

Peter Seyboth

Nilay D Shah

E I Shahaliev

P Vivekananda Shanmuganathan

Ming Shao

W Q Shen

Shusu Shi

Z Shi

Q Y Shou

Ernst Sichtermann

Rafal Sikora

Miroslav Simko

Subhash Singha

Michael Skoby

N Smirnov

Dmitri Smirnov

William Solyst

Paul Richard Sorensen

Harold M Spinka

Brijesh Kumar Srivastava

Thanthirimudalige Don Shirvel Stanislaus

David J Stewart

M N Strikhanov

B C Stringfellow

Alexandre Alarcon Suaide

Tetsuro Sugiura

Michal Sumbera

Branden Summa

X Sun

Y J Sun

Bernd Surrow

D N Svirida

Z Tang

A H Tang

Arkadij Taranenko

Terence J Tarnowsky

Abdel Nasser Tawfik

Jochen Thader

J H Thomas

Anthony Robert Timmins

David Tlusty

Takahito Todoroki

Mikhail Tokarev

Stephen Trentalange

Robert E Tribble

Prithwish Tribedy

Srikanta Kumar Tripathy

Barbara Antonina Trzeciak

O D Tsai

Biao Tu

Thomas Ullrich

David G Underwood

Isaac Upsal

Gene van Buren

Gerrit Jan van Nieuwenhuizen

Andrey Vasiliev

F Videbaek

S Vokal

Sergey Voloshin

A Vossen

G Wang

F Wang

Grant Webb

Jason C Webb

Liwen Wen

Gary D Westfall

Howard Henry Wieman

Scott W Wissink

Richard Witt

Yuanfang Wu

Z G Xiao

G Xie

Wei Xie

Q Xu

Y Xu

J Xu

Nu Xu

Z Z Xu

C G Yang

S Yang

Q Yang

Ying Yang

Zhenyu Ye

Liang Yi

Kin Yip

I -K Yoo

Ning Yu

Hanna Paulina Zbroszczyk

Wangmei Zha

Ji Zhang

S H Zhang

Liang Zhang

Xiang Zhang

Zhong-Chao Zhang

Yao Xuan Zhang

J Zhao

Chao Zhong

C Zhou

L P Zhou

X L Zhu

Z Zhu

Maksym Zyzak
title: C 98 014915 2018 Azimuthal anisotropy in Cu Au collisions at
year: 2018

abstract: A subwavelength water metamaterial is proposed and analyzed for ultra broadband perfect absorption at microwave frequencies. We experimentally demonstrate that this metamaterial shows over 90% absorption within almost the entire frequency band of 12 29.6 GHz. It is also shown that the proposed metamaterial exhibits a good thermal stability with its absorption performance almost unchanged for the temperature range from 0 to 100*C. The study of the angular tolerance of the metamaterial absorber shows its ability of working at wide angles of incidence. Given that the proposed water metamaterial absorber is low cost and easy for manufacture, we envision it may find numerous applications in electromagnetics such as broadband scattering reduction and electromagnetic energy harvesting. (c) 2018 Optical Society of America under the terms of the OSA Open Access Publishing Agreement OCIS codes: (160.1245) Artificially engineered materials; (050.6624) Subwavelength structures. 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author_names: R D
title: Water metamaterial for ultra broadband and wide angle absorption
year: 2018

abstract: Time resolved multispectral imaging has many applications in different fields, which range from characterization of biological tissues to environmental monitoring. In particular, optical techniques, such as lidar and fluorescence lifetime imaging, require imaging at the subnanosecond scales over an extended area. In this paper, we demonstrate experimentally a time resolved multispectral acquisition scheme based on single pixel imaging. Single pixel imaging is an emerging paradigm that provides low cost high quality images. Here, we use an adaptive strategy that allows acquisition and image reconstruction times to be reduced drastically with respect to conventional single pixel approaches that are based on compressed sensing or full basis scans. Adaptive time resolved multispectral imaging scheme can have significant applications in biological imaging, at scales from macroscopic to microscopic. (c) 2018 Optical Society of America under the terms of the OSA Open Access Publishing Agreement OCIS codes: (100.7410) Wavelets; (100.3020) Image reconstruction restoration; (110.1085) Adaptive imaging; (300.6280) Spectroscopy, fluorescence and luminescence; (110.4234)Multispectral and hyperspectral imaging; (170.6920) Time resolved imaging. References and links 1. J. Shan and C. K. Toth, Topographic laser ranging and scanning: principles and processing (CRC press, 2008) 2. W. Becker, "Fluorescence lifetime imaging techniques and applications," J. Microsc. 247, 119 136 (2012) 3. L. Marcu, "Fluorescence lifetime techniques in medical applications," Annals Biomed. Eng. 40, 304 331 (2012) 4. K. Amarnath, J. Zaks, S. Park, K. Niyogi, and G. Fleming, "Fluorescence lifetime snapshots reveal two rapidly reversible mechanisms of photoprotection in live cells of chlamydomonas reinhardtii," Proc. Natl. Acad. Sci. United States Am. 109, 8405 8410 (2012) 5. T. Laviv, B. Kim, J. Chu, A. Lam, M. 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Photonics 11, 411 414 (2017) 22. Q. Pian, R. Yao, L. Zhao, and X. Intes, "Hyperspectral time resolved wide field fluorescence molecular tomography based on structured light and single pixel detection," Opt. Lett. 40, 431 434 (2015) 23. A. Farina, M. Betcke, L. di Sieno, A. Bassi, N. Ducros, A. Pifferi, G. Valentini, S. Arridge, and C. D'Andrea, "Multiple view diffuse optical tomography system based on time domain compressive measurements," Opt. Lett. 42, 2822 2825 (2017) 24. C. D'Andrea, D. Comelli, A. Pifferi, A. Torricelli, G. Valentini, and R. Cubeddu, "Time resolved optical imaging through turbid media using a fast data acquisition system based on a gated ccd camera," J. Phys. D: Appl. Phys. 36, 1675 1681 (2003) 25. S. Mallat, A Wavelet Tour of Signal Processing, Third Edition: The Sparse Way (Academic Press, 2008) 3rd ed. 26. F. Rousset and N. Ducros, SPIRIT (https:/www.creatis.insa lyon.fr/~ducros/WebPage/ spirit.html, 2017) 27. I. Van Stokkum, D. Larsen, and R. 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title: Time resolved multispectral imaging based on an adaptive single pixel camera
year: 2018

abstract: Compressive sensing (CS) combines data acquisition with compression coding to reduce the number of measurements required to reconstruct a sparse signal. In optics, this usually takes the form of projecting the field onto sequences of random spatial patterns that are selected from an appropriate random ensemble. We show here that CS can be exploited in 'native' optics hardware without introducing added components. Specifically, we show that random sub Nyquist sampling of an interferogram suffices to reconstruct the field modal structure despite the structural constraints of the measurement system set by its limited degrees of freedom. The distribution of the reduced (and structurally constrained) sensing matrices corresponding to random measurements is provably incoherent and isotropic, which helps us carry out CS successfully. We implement compressive interferometry using a generalized Mach Zehnder interferometer in which the traditional temporal delay is replaced with a linear transformation corresponding to a fractional transform. By randomly sampling the order of the fractional transform, we efficiently reconstruct the modal content of the input beam in the Hermite Gaussian and Laguerre Gaussian bases. (c) 2018 Optical Society of America under the terms of the OSA Open Access Publishing Agreement OCIS codes: (260.3160) Interference; (120.3180) Interferometry; (030.4070) Modes. References and links 1. B. E. A. Saleh and M. C. Teich, Fundamentals of Photonics (Wiley, 2007) 2. A. F. Abouraddy, T. M. Yarnall, and B. E. A. Saleh, "Generalized optical interferometry for modal analysis in arbitrary degrees of freedom," Opt. Lett. 37, 2889 2891 (2012) 3. A. F. Abouraddy, T. M. Yarnall, and B. E. A. Saleh, "Angular and radial mode analyzer for optical beams," Opt. Lett. 36, 4683 4685 (2011) 4. J. Wang, J. 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author_names: Deepan Balakrishnan

Chenggen Quan

C J Tay

Antoine Liutkus

David Martina

Sebastien M Popoff

Gilles Chardon
title: Compressive optical interferometry under structural constraints
year: 2018