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Energy consumption in optical IP networks. Journal of Lightwave Technology, 2009, 27(13): 2391–2403\nKramer G. Ethernet Passive Optical Networks. Ontario: McGraw-Hill, 2005\nLi Z, Yi L, Hu W. Key technologies and system proposals of TWDM-PON. Frontiers of Optoelectronics, 2013, 6(1): 46–56\nKramer G, Pesavento G. Ethernet passive optical network (EPON): building a next-generation optical access network. IEEE Communications Magazine, 2002, 40(2): 66–73\nSystems DITU-T G Suppl. 45. 45: 2009\nWong E, Mueller M, Dias M P I, Chan C A, Amann M C. Energy-efficiency of optical network units with vertical-cavity surface-emitting lasers. Optics Express, 2012, 20(14): 14960–14970\nZhang L, Yu C, Guo L, Liu Y. Energy-saving mechanism based on double-sleep-state algorithm and dynamic double-threshold receiver selection in EPON. Optik (Stuttgart), 2013, 124(18): 3655–3664\nLi C, Guo W, Hu W, Xia M. Energy-efficient dynamic bandwidth allocation for EPON networks with sleep mode ONUs. Optical Switching and Networking, 2015, 15: 121–133\nLiu C P, Wu H T, Ke K W. The QoS provisioning tri-mode energy saving mechanism for EPON networks. Photonic Network Communications, 2017, 33(1): 26–38\nNewaz S H S, Cuevas A, Lee G M, Crespi N, Choi J K. Evaluating energy efficiency of ONUs having multiple power levels in TDM-PONs. IEEE Communications Letters, 2013, 17(6): 1248–1251\nNikoukar A, Hwang I S, Liem A T, Wang C J. QoS-aware energyefficient mechanism for sleeping mode ONUs in enhanced EPON. Photonic Network Communications, 2015, 30(1): 59–70\nAslam B R, Mahdaliza I S, Naseer Q K, Shah P M A, Zulkifli N. An energy efficient cyclic sleep control framework for ITU PONs. Optical Switching and Networking, 2018, 27: 7–17\nHwang I S, Nikoukar A, Su Y M, Liem A T. Decentralized SIEPON-based ONU-initiated Tx\u002FTRx energy-efficiency mechanism in EPON. Journal of Optical Communications and Networking, 2016, 8(4): 238–248\nButt R A, Waqar A M, Faheem M, Idrus S M. Processing efficient frame structure for passive optical network (PON). Optical Switching and Networking, 2018, 30: 85–92\nVan D P, Valcarenghi L, Dias MP, Kondepu K, Castoldi P, Wong E. Energy-saving framework for passive optical networks with ONU sleep\u002Fdoze mode. Optics Express, 2015, 23(3): A1–A14\nLv Y, Jiang N, Qiu K, Xue C. Energy-efficient load adaptive polling sequence arrangement scheme for passive optical access networks. Journal of Optical Communications and Networking, 2015, 7(6): 516–524\nTan Z, Yang C, Wang Z. Energy evaluation for cloud RAN employing TDM-PON as front-haul based on a new network traffic modeling. Journal of Lightwave Technology, 2017, 35(13): 2669–2677\nKantarci B, Mouftah H. Energy efficiency in the extended-reach fiber-wireless access networks. IEEE Network, 2012, 26(2): 28–35\nShi L, Mukherjee B, Lee S S. Energy-efficient PON with sleepmode ONU: progress, challenges, and solutions. IEEE Network, 2012, 26(2): 36–41\nGarfias P, De Andrade M, Tornatore M, Buttaboni A, Sallent S, Gutiérrez L. Energy-saving mechanism in WDM\u002FTDM-PON based on upstream network traffic. Photonics, 2014, 1(3): 235–250\nDixit A, Lannoo B, Colle D, Pickavet M, Demeester P. ONU power saving modes in next generation optical access networks: progress, efficiency and challenges. Optics Express, 2012, 20(26): B52–B63\nPham V D, Valcarenghi L, Chincoli M, Castoldi P. Experimental evaluation of a sleep-aware dynamic bandwidth allocation in a multi-ONU 10G-EPON testbed. Optical Switching and Networking, 2014, 14: 11–24\nDourado D M, Ferreira R J L, de Lacerda R M, Duarte U R. Energy consumption and bandwidth allocation in passive optical networks. Optical Switching and Networking, 2018, 28: 1–7\nWong S W, Valcarenghi L, Yen S H, Campelo D R, Yamashita S, Kazovsky L. Sleep mode for energy saving PONs: advantages and drawbacks. In: Proceedings of IEEE Globecom Workshop. Honolulu: IEEE, 2009, 1–6\nDias M P I, Wong E. Performance evaluation of VCSEL ONU using energy-efficient just-in-time dynamic bandwidth allocation algorithm. In: Proceedings of Photonics Global Conference (PGC). Singapore: IEEE, 2012\nDias M P I, Wong E. Sleep\u002Fdoze controlled dynamic bandwidth allocation algorithms for energy-efficient passive optical networks. Optics Express, 2013, 21(8): 9931–9946\nMcgarry M P, Reisslein M, Aurzada F, Scheutzow M. Shortest propagation delay (SPD) first scheduling for EPONs with heterogeneous propagation delays. Journal on Selected Areas in Communications, 2010, 28(6): 849–862\nHunsperger R G. Distributed-Feedback Lasers. In: Integrated Optics. Berlin: Springer, 1995, 226–243\nLi J, Zhong Z, Hua N, Zheng X, Zhou B. Balancing energy efficiency and device lifetime in TWDM-PON under traffic fluctuations. IEEE Communications Letters, 2017, 21(9): 1981–1984\nRayapati B R, Rangaswamy N. Adaptive scheduling mechanism with variable bit rate traffic in EPON. Journal of Optical Communications, 2019, doi:10.1515\u002Fjoc-2018-0219\nFrigui N E, Lemlouma T. Optimization of the upstream bandwidth allocation in passive optical networks using internet users’ behavior forecast. In: Proceedings of 22nd International Conference on Optical Network Design and Modeling. Dublin: HAL, 2018, 59–64\nButtaboni A, De Andrade M, Tornatore M A. Multi-threaded dynamic bandwidth and wavelength allocation scheme with void filling for long reach WDM\u002FTDM PONs. Journal of Lightwave Technology, 2013, 31(8): 1149–1157\nMercian A, McGarry M P, Reisslein M. Offline and online multithread polling in long-reach PONs: a critical evaluation. Journal of Lightwave Technology, 2013, 31(12): 2018–2028",{"EN":154},"Next-generation passive optical networks (PONs) demand power conservation to create a green environment. A reduction in power consumption of the traditional Ethernet passive optical network (EPON) can be achieved by increasing the sleep count in optical network units (ONUs). In this paper, this is accomplished by introducing a first-in-last-out (FILO) polling sequence in the place of a fixed polling sequence to increase the number of ONUs entering sleep mode (sleep count). In a fixed polling sequence, the optical line terminal (OLT) allocates idle time to the ONUs based on the overall load of the ONUs. This leads to a situation that whenever the idle time does not meet the wakeup time threshold of sleep mode, the ONUs are put into doze\u002Factive mode, which consumes more power. In the FILO polling sequence, the first polled ONU in the current cycle is made to be polled last in the following cycle. Polling continues in this way, and by this rearrangement, the idle time of delayed poll ONUs increases; hence, it helps to reduce the power consumption. Additionally, a modified load adaptive sequence arrangement (MLASA) method is suggested, where the ONUs are categorized into doze ONUs and sleep ONUs. A numerical simulation of the FILO polling sequence with a vertical cavity surface emitting laser (VCSEL) ONU shows a maximum reduction in power consumption of 15.5 Wand a 20% improvement in energy savings compared with the traditional fixed polling sequence. The MLASA method results in better power consumption with minimum delay than that of the proposed FILO and existing LASA methods.",{"EN":156},"Heuristic polling sequence to enhance sleep count of EPON",{"VOID":158},"10.1007\u002Fs12200-019-0906-5","PUBLICATION","VERIFIED","Auto Verify","http:\u002F\u002Flink.springer.com\u002F10.1007\u002Fs12200-019-0906-5",[164,180],{"id":165,"sortIndex":19,"researcher":18,"roles":166,"affiliations":168,"properties":177},"a4a0ff8d-52e7-406e-ab88-2e9591e32c5b",[167],"AUTHOR",[169],{"id":18,"sortIndex":19,"affiliation":170,"properties":18},{"id":171,"createTime":172,"updateTime":172,"relativeEntities":173,"slug":18,"properties":174,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},"9edf9c9d-a17c-4560-8732-64752d12a924","2023-12-12T17:14:18.433+00:00",[],{"title":175},{"VI":176},"Department of Electronics Engineering, Pondicherry University, Pondicherry, India",{"title":178},{"VI":179},"Bhargav Ram Rayapati",{"id":181,"sortIndex":182,"researcher":18,"roles":183,"affiliations":184,"properties":190},"cd2364a5-49a9-47f4-bbb3-c5f4cbc5e4da",1,[167],[185],{"id":18,"sortIndex":19,"affiliation":186,"properties":18},{"id":171,"createTime":172,"updateTime":172,"relativeEntities":187,"slug":18,"properties":188,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},[],{"title":189},{"VI":176},{"title":191},{"VI":192},"Nakkeeran Rangaswamy","ARTICLE",{"url":162,"publisher":195,"properties":222},{"id":6,"createTime":7,"updateTime":8,"relativeEntities":196,"slug":10,"properties":197,"entityType":16,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19,"subjectFields":200,"manageAffiliations":201,"indexDatabases":202,"url":89,"thumbnailPath":18,"statistic":217,"gsStatistic":18,"type":139,"analyzePriority":18},[],{"issn":198,"title":199},{"VOID":13},{"EN":15},[],[],[203,210],{"id":52,"indexDatabase":204,"url":18,"indexYears":18,"academicFieldIds":209,"indexDatabaseRanking":18},{"id":54,"createTime":55,"updateTime":56,"relativeEntities":205,"label":206,"description":207,"key":63,"publicationTags":208,"standard":18},[],{"EN":59,"VI":59},{"VI":61,"EN":62},[65,66],[68],{"id":70,"indexDatabase":211,"url":83,"indexYears":84,"academicFieldIds":216,"indexDatabaseRanking":88},{"id":72,"createTime":73,"updateTime":74,"relativeEntities":212,"label":213,"description":214,"key":80,"publicationTags":215,"standard":18},[],{"EN":77,"VI":77},{"EN":77,"VI":79},[82],[86,87],{"impactFactor":19,"impactFactorByYear":218,"i10Index":102,"i10IndexLast5Year":103,"totalPublication":104,"totalPublicationByYear":219,"totalCitation":116,"totalCitationByYear":220,"totalCitationPerPublication":126,"totalCitationPerPublicationByYear":221,"hindexLast5Year":106,"hindex":106},{"2013":92,"2014":93,"2015":94,"2016":95,"2017":96,"2018":97,"2019":97,"2020":98,"2021":99,"2022":100,"2023":101},{"2012":106,"2013":107,"2014":108,"2015":109,"2016":110,"2017":111,"2018":109,"2019":108,"2020":112,"2021":113,"2022":112,"2023":114,"2024":115},{"2012":118,"2013":113,"2014":119,"2015":108,"2016":109,"2017":120,"2018":121,"2019":122,"2020":123,"2021":124,"2022":125},{"2012":128,"2013":129,"2014":130,"2015":131,"2016":132,"2017":133,"2018":134,"2019":135,"2020":136,"2021":137,"2022":138},{"volume":223,"pages":225},{"VOID":224},"12",{"VOID":226},"422-432","2019-11-05",2019,false,{"id":231,"createTime":232,"updateTime":233,"relativeEntities":234,"slug":235,"properties":236,"entityType":159,"verifyStatus":160,"verifyTime":233,"verifyNote":161,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19,"primaryUrl":245,"fullTextUrl":18,"authors":246,"publicationType":193,"publisherRelationship":302,"citationCount":18,"citationInfo":18,"publishDate":335,"publishYear":336,"citationAnalyzeStatus":17,"lastCitationAnalyze":18,"indexDatabases":18,"openAccess":18,"references":18,"isForceReanalyzing":229},"51f1aa43-2dc7-410c-993e-de66d0c2071c","2024-01-16T09:24:04.605+00:00","2025-01-10T23:56:27.435+00:00",[],"A-simple-unilateral-homogenous-PhOLEDs-with-enhanced-efficiency-and-reduced-efficiency-roll-off",{"references":237,"abstract":239,"title":241,"doi":243},{"VOID":238},"Tang C W, VanSlyke S A. Organic electroluminescent diodes. Applied Physics Letters, 1987, 51(12): 913–915\nFukase A, Dao K L T, Kido J. High-efficiency organic electroluminescent devices using iridium complex emitter and arylamine-containing polymer buffer layer. Ploymers for Advanced Technologies, 2002, 13(8): 601–604\nTanaka D, Sasabe H, Li Y J, Su S J, Takeda T, Kido J. Ultra high efficiency green organic light-emitting devices. Japanese Journal of Applied Physics, 2007, 46(1): L10–L12\nSu S J, Tanaka D, Li Y J, Sasabe H, Takeda T, Kido J. Novel fourpyridylbenzene-armed biphenyls as electron-transport materials for phosphorescent OLEDs. Organic Letters, 2008, 10(5): 941–944\nKim H, Cho N S, Oh H Y, Yang J H, Jeon W S, Park J S, Suh M C, Kwon J H. Highly efficient red phosphorescent dopants in organic light-emitting devices. Advanced Materials, 2011, 23(24): 2721–2726\nFan C H, Sun P, Su T H, Cheng C H. Host and dopant materials for idealized deep-red organic electrophosphorescence devices. Advanced Materials, 2011, 23(26): 2981–2985\nMalliaras G G, Scott J C. The roles of injection and mobility in organic light emitting diodes. Journal of Applied Physics, 1998, 83(10): 5399–5403\nPolikarpov E, Swensen J S, Chopra N, So F, Padmaperuma A B. An ambipolar phosphine oxide-based host for high power efficiency blue phosphorescent organic light emitting devices. Applied Physics Letters, 2009, 94(22): 223304\nGong S, Chen Y, Luo J, Yang C, Zhong C, Qin J, Ma D. Bipolar tetraarylsilanes as universal hosts for blue, green, orange, and white electrophosphorescence with high efficiency and low efficiency rolloff. Advanced Functional Materials, 2011, 21(6): 1168–1178\nChou H H, Cheng C H. A highly efficient universal bipolar host for blue, green, and red phosphorescent OLEDs. Advanced Materials, 2010, 22(22): 2468–2471\nXiao L, Su S J, Agata Y, Lan H, Kido J. Nearly 100% internal quantum efficiency in an organic blue-light electrophosphorescent device using a weak electron transporting material with a wide energy gap. Advanced Materials, 2009, 21(12): 1271–1274\nLee J H, Huang C L, Hsiao C H, Leung M K, Yang C C, Chao C C. Blue phosphorescent organic light-emitting device with double emitting layer. Applied Physics Letters, 2009, 94(22): 223301\nZhang X W, Li J, Khan M, Zhang L, Jiang X Y, Haq K, Zhu W Q, Zhang Z L. Improved chromaticity and electron injection in a blue organic light-emitting device by using a dual electron-transport layer with hole-blocking function. Semiconductor Science and Technology, 2009, 24(7): 075021\nCai C, Su S J, Chiba T, Sasabe H, Pu Y J, Nakayama K, Kido J. Efficient low-driving-voltage blue phosphorescent homojunction organic light-emitting devices. Japanese Journal of Applied Physics, 2011, 50(4): 040204\nTsuji H, Mitsui C, Sato Y, Nakamura E. Bis(carbazolyl)benzodifuran: a high-mobility ambipolar material for homojunction organic light-emitting diode devices. Advanced Materials, 2009, 21(37): 3776–3779\nWang Q, Tao Y, Qiao X, Chen J, Ma D, Yang C, Qin J. Highperformance, phosphorescent, top-emitting organic light-emitting diodes with p-i-n homojunctions. Advanced Functional Materials, 2011, 21(9): 1681–1686\nJang S E, Yook K S, Lee J Y. High power efficiency in simplified two layer blue phosphorescent organic light-emitting diodes. Organic Electronics, 2010, 11(6): 1154–1157\nQiao X, Tao Y, Wang Q, Ma D, Yang C, Wang L, Qin J, Wang F. Controlling charge balance and exciton recombination by bipolar host in single-layer organic light-emitting diodes. Journal of Applied Physics, 2010, 108(3): 034508\nZhang H, Huo C, Zhang J, Zhang P, Tian W, Wang Y. Efficient single-layer electroluminescent device based on a bipolar emitting boron-containing material. Chemical Communications (Cambridge), 2006, (3): 281–283\nSeo J H, Lee S J, Seo B M, Moon S J, Lee K H, Park J K, Yoon S S, Kim Y K. White organic light-emitting diodes showing nearly 100% internal quantum efficiency. Organic Electronics, 2010, 11(11): 1759–1766\nChen H, Lee J, Shiau C. Electromagnetic modeling of organic lightemitting devices. Journal of Lightwave Technology, 2006, 24(6): 2450–2457\nSu S J, Chiba T, Takeda T, Kido J. Pyridine-containing triphenylbenzene derivatives with high electron mobility for highly efficient phosphorescent OLEDs. Advanced Materials, 2008, 20(11): 2125–2130",{"EN":240},"In this paper, highly efficient phosphorescent organic lighting emitting diodes (PhOELDs) with low efficiency roll-off are demonstrated by using a unilateral homogenous device structure with wide band-gap material 4, 4′, 4″-tri(N-carbazolyl)-triphenylamine (TCTA) as hole transporting layer and emitting layer (EML). The optimized blue device exhibits a high power efficiency of 40 lm\u002FW, external quantum efficiency of 19.2% and current efficiency of 37.7 cd\u002FA. More importantly, the device exhibits a low efficiency roll-off at 1000 cd\u002Fm2. In addition, the white homogenous PhOLEDs only exhibits the efficiency roll-off 5.6% and 17.5%, corresponding to the brightness of 1000 and 5000 cd\u002Fm2 respectively. These interesting results demonstrate that the simple unilateral homogenous device structure is a promising way to enhance the device efficiency and reduce the efficiency roll-off.",{"EN":242},"A simple unilateral homogenous PhOLEDs with enhanced efficiency and reduced efficiency roll-off",{"VOID":244},"10.1007\u002Fs12200-013-0349-3","https:\u002F\u002Flink.springer.com\u002Farticle\u002F10.1007\u002Fs12200-013-0349-3",[247,265,278,290],{"id":248,"sortIndex":249,"researcher":18,"roles":250,"affiliations":251,"properties":262},"08e11031-d058-4460-bd02-c6bb1b8677b6",3,[167],[252],{"id":18,"sortIndex":19,"affiliation":253,"properties":18},{"id":254,"createTime":255,"updateTime":256,"relativeEntities":257,"slug":258,"properties":259,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},"220a6f7b-0f05-416a-83be-eb61fddea52f","2024-04-19T00:37:21.782+00:00","2024-10-13T15:54:39.434+00:00",[],"Wuhan-National-Laboratory-for-Optoelectronics-School-of-Optical-and-Electronic-Information-Huazhong-University-of-Science-and-Technology-Wuhan-China",{"title":260},{"EN":261},"Wuhan National Laboratory for Optoelectronics, School of Optical and Electronic Information, Huazhong University of 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W, Fujimoto J G. Optical Coherence Tomography Technology and Applications. Berlin: Springer, 2008, 1357\nPuliafito C A, Hee M R, Schuman J S, Fujimoto J G. Optical Coherence Tomography of Ocular Diseases. Thorofare, NJ: Slack Inc., 1996, 376\nGupta V, Gupta A, Dogra M R. Atlas of Optical Coherence Tomography of Macular Diseases. Boca Raton: Taylor & Francis, 2004\nZaitsev V Y, Vitkin I A, Matveev L A, Gelikonov VM, Matveyev A L, Gelikonov G V. Recent trends in multimodal optical coherence tomography II. The correlation-stability approach in OCT elastography and methods for visualization of microcirculation. Radiophysics and Quantum Electronics, 2014, 57(3): 210–225\nLoduca A L, Zhang C, Zelkha R, Shahidi M. Thickness mapping of retinal layers by spectral-domain optical coherence tomography. American Journal of Ophthalmology, 2010, 150(6): 849–855\nChiu S J, Li X T, Nicholas P, Toth C A, Izatt J A, Farsiu S. Automatic segmentation of seven retinal layers in SDOCT images congruent with expert manual segmentation. Optics Express, 2010, 18(18): 19413–19428\nFercher A F, Hitzenberger C K, Sticker M, Zawadzki R, Karamata B, Lasser T. Dispersion compensation for optical coherence tomography depth-scan signals by a numerical technique. Optics Communications, 2002, 204(1–6): 67–74\nLippok N, Coen S, Nielsen P, Vanholsbeeck F. Dispersion compensation in Fourier domain optical coherence tomography using the fractional Fourier transform. Optics Express, 2012, 20(21): 23398–23413\nChoi W, Baumann B, Swanson E A, Fujimoto J G. Extracting and compensating dispersion mismatch in ultrahigh-resolution Fourier domain OCT imaging of the retina. Optics Express, 2012, 20(23): 25357–25368\nWu X, Gao W. Dispersion analysis in micron resolution spectral domain optical coherence tomography. Journal of the Optical Society of America. B, Optical Physics, 2017, 34(1): 169–177\nLychagov V V, Ryabukho V P. Chromatic dispersion effects in ultra-low coherence interferometry. Quantum Electronics, 2015, 45(6): 556–560\nYu X, Liu X, Chen S, Luo Y, Wang X, Liu L. High-resolution extended source optical coherence tomography. Optics Express, 2015, 23(20): 26399–26413\nXu D, Huang Y, Kang J U. Graphics processing unit-accelerated real-time compressive sensing spectral domain optical coherence tomography. In: Proceedings of SPIE. 2015, 93301B\nBian H, Gao W. Wavelet transform-based method of compensating dispersion for high resolution imaging in SDOCT. In: Proceedings of SPIE. 2014, 92360X\nPan L, Wang X, Li Z, Zhang X, Bu Y, Nan N, Chen Y, Wang X, Dai F. Depth-dependent dispersion compensation for full-depth OCT image. Optics Express, 2017, 25(9): 10345–10354\nWang B, Jiang Z, Hu Y, Wang Z. A segmental dispersion compensation method to improve axial resolution of specified layer in FD-OCT. In: Proceedings of SPIE, Optical Measurement Technology and Instrumentation. 2016, 101553L\nOkano M, Okamoto R, Tanaka A, Ishida S, Nishizawa N, Takeuchi S. Dispersion cancellation in high-resolution two-photon interference. Physical Review A, 2013, 88(4): 043845\nShirai T. Modifications of intensity-interferometric spectral-domain optical coherence tomography with dispersion cancellation. Journal of Optics, 2015, 17(4): 045605\nPhotiou C, Bousi E, Zouvani I, Pitris C. Using speckle to measure tissue dispersion in optical coherence tomography. Biomedical Optics Express, 2017, 8(5): 2528–2535\nPhotiou C., Pitris C. Tissue dispersion measurement techniques using optical coherence tomography. In: Proceedings of SPIE, Optical Coherence Tomography and Coherence Domain Optical Methods in Biomedicine XXI. 2017, 100532W\nBanaszek K, Radunsky A S, Walmsley I A. Blind dispersion compensation for optical coherence tomography. In: Proceedings of Conference on Lasers and Electro-Optics\u002FInternational Quantum Electronics Conference and Photonic Applications Systems Technologies, San Francisco, California. 2004, CWJ6\nBanaszek K, Radunsky A S, Walmsley I A. Blind dispersion compensation for optical coherence tomography. Optics Communications, 2007, 269(1): 152–155\nMatkivsky V A, Moiseev A A, Gelikonov G V, Shabanov D V, Shilyagin P A, Gelikonov V M. Correction of aberrations in digital holography using the phase gradient autofocus technique. Laser Physics Letters, 2016, 13(3): 035601\nLeitgeb R A, Wojtkowski M. Complex and coherence noise free Fourier domain optical coherence tomography. In: Drexler W, Fujimoto J G, eds. Optical Coherence Tomography: Technology and Applications. Berlin: Springer, 2008, 177–207\nGelikonov V M, Gelikonov G V, Kasatkina I V, Terpelov D A, Shilyagin P A. Coherent noise compensation in spectral-domain optical coherence tomography. Optics and Spectroscopy, 2009, 106(6): 895–900\nFercher A F. Optical coherence tomography. Journal of Biomedical Optics, 1996, 1(2): 157–173\nWelge W A, Barton J K. Expanding functionality of commercial optical coherence tomography systems by integrating a custom endoscope. PLoS One, 2015, 10(9): e0139396\nSchott Optical glass datasheet (Electronic document) https:\u002F\u002Frefractiveindex.info\u002Fdownload\u002Fdata\u002F2015\u002Fschott-optical-glass-collection-datasheets-july-2015-us.pdf\nBatovrin V K, Garmash I A, Gelikonov V M, Gelikonov G V, Lyubarskiǐ A V, Plyavenek A G, Safin S A, Semenov A T, Shidlovskiǐ V R, Shramenko M V, Yakubovich S D. Superluminescent diodes based on single-quantum-well (GaAl)As heterostructures. Quantum Electronics, 1996, 26(2): 109–114\nMatveev L A, Zaitsev V Y, Gelikonov G V, Matveyev A L, Moiseev A A, Ksenofontov S Y, Gelikonov V M, Sirotkina M A, Gladkova N D, Demidov V, Vitkin A. Hybrid M-mode-like OCT imaging of three-dimensional microvasculature in vivo using reference-free processing of complex valued B-scans. Optics Letters, 2015, 40(7): 1472–1475",{"EN":347},"A method for determining and correcting distortions in spectral-domain optical coherence tomography images caused by medium dispersion was developed. The method is based on analysis of the phase distribution of the interference signal recorded by an optical coherence tomography device using an iterative approach to find and compensate for the effect of a medium’s chromatic dispersion on point-spread function broadening in optical coherence tomography. This enables compensation of the impact of medium dispersion to an accuracy of a fraction of a radian (units of percent) while avoiding additional measurements and solution of the optimization problem. The robustness of the method was demonstrated experimentally using model and biological objects.",{"EN":349},"Medium chromatic dispersion calculation and correction in spectral-domain optical coherence tomography",{"VOID":351},"10.1007\u002Fs12200-017-0736-2","https:\u002F\u002Flink.springer.com\u002Farticle\u002F10.1007\u002Fs12200-017-0736-2",[354,371,383,395,407,419,432,444],{"id":355,"sortIndex":249,"researcher":18,"roles":356,"affiliations":357,"properties":368},"32509df3-d852-4d5c-99f9-dd962760a955",[167],[358],{"id":18,"sortIndex":19,"affiliation":359,"properties":18},{"id":360,"createTime":361,"updateTime":362,"relativeEntities":363,"slug":364,"properties":365,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},"4a43e229-0c98-4858-802e-f9e67e304bcd","2024-01-04T05:42:25.671+00:00","2024-12-18T17:46:45.766+00:00",[],"Institute-of-Applied-Physics-Russian-Academy-of-Sciences-Nizhny-Novgorod-Russia",{"title":366},{"VI":367},"Institute of Applied Physics, Russian Academy of Sciences, Nizhny Novgorod, Russia",{"title":369},{"VI":370},"Irina V. 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Adv. Fiber Mater. 1(3–4), 163–187 (2019)\nLuo, Q., Tang, G., Sun, M., Qian, G., Shi, Z., Qian, Q., Yang, Z.: Single crystal tellurium semiconductor core optical fibers. Opt. Mater. Express 10(4), 1072 (2020)\nSoleimani, N., Ponting, B., Gebremichael, E., Ribuot, A., Maxwell, G.: Coilable single crystals fibers of doped-YAG for high power laser applications. J. Cryst. Growth 393, 18–22 (2014)\nKim W, Shaw B, Bayya S, Askins C, Peele J, Rhonehouse D, Meyers J, Thapa R, Gibson D, Sanghera J. Cladded single crystal fibers for high power fiber lasers. In: Proceedings of Photonic Fiber and Crystal Devices: Advances in Materials and Innovations in Device Applications X. San Diego: SPIE, 2016, 99580O\nYang, T.T., Yang, T.I., Soundararajan, R., Yeh, P.S., Kuo, C.Y., Huang, S.L., Donati, S.: Widely tunable, 25-mW power, Ti:sapphire crystal-fiber laser. IEEE Photonics Technol. Lett. 31(24), 1921–1924 (2019)\nYin, S.S., Kim, J., Zhan, C., An, J., Lee, J., Ruffin, P., Edwards, E., Brantley, C., Luo, C.: Supercontinuum generation in single crystal sapphire fibers. Opt. Commun. 281(5), 1113–1117 (2008)\nBezgabadi, A.S., Bolorizadeh, M.A.: Dispersion properties of a single-mode windmill single crystal sapphire optical fiber and its broadband infrared supercontinuum generation. Opt. Eng. 57(11), 1 (2018)\nPfeiffenberger, N.: Sapphire photonic crystal fibers. Opt. Eng. 49(9), 090501 (2010)\nHill, C., Homa, D., Liu, B., Yu, Z., Wang, A., Pickrell, G.: Submicron diameter single crystal sapphire optical fiber. Mater. Lett. 138, 71–73 (2015)\nChen, H., Tian, F., Chi, J., Kanka, J., Du, H.: Advantage of multi-mode sapphire optical fiber for evanescent-field SERS sensing. Opt. Lett. 39(20), 5822–5825 (2014)\nChen, H., Buric, M., Ohodnicki, P.R., Nakano, J., Liu, B., Chorpening, B.T.: Review and perspective: sapphire optical fiber cladding development for harsh environment sensing. Appl. Phys. Rev. 5(1), 011102 (2018)\nMyers J D, Kim W, Shaw L B, Bayya S, Qadri S N, Rhonehouse D, Askins C, Peele J, Thapa R, Bekele R Y, McClain C, Sanghera J S. Development of thin film claddings for single crystal optical fiber. In: Proceedings of Advanced Photonics 2018 (BGPP, IPR, NP, NOMA, Sensors, Networks, SPPCom, SOF). Zurich: OSA, NoTu4D.4 (2018)\nLai, C.C., Gao, W.T., Nguyen, D.H., Ma, Y.R., Cheng, N.C., Wang, S.C., Tjiu, J.W., Huang, C.M.: Toward single-mode active crystal fibers for next-generation high-power fiber devices. ACS Appl. Mater. Interfaces. 6(16), 13928–13936 (2014)\nBera S, Liu B, Wuenschell J K, Baltrus J, Lau D, Howard B, Buric M P, Chorpening B T, Ohodnicki P R. Fabrication and evaluation of sapphire fiber cladding via magnesium aluminate spinel sol-gel based approaches. In: Proceedings of Fiber Optic Sensors and Applications XVI. Baltimore: SPIE, 19 (2019)\nMalinowski, M., Sarnecki, J., Piramidowicz, R., Szczepanski, P., Wolinski, W.: Epitaxial RE3+:YAG planar waveguide lasers. Opto-Electron. Rev. 9(1), 67–74 (2001)\nLo, C.Y., Huang, K.Y., Chen, J.C., Tu, S.Y., Huang, S.L.: Glass-clad Cr4+:YAG crystal fiber for the generation of superwideband amplified spontaneous emission. Opt. Lett. 29(5), 439–441 (2004)\nLo, C.Y., Huang, K.Y., Chen, J.C., Chuang, C.Y., Lai, C.C., Huang, S.L., Lin, Y.S., Yeh, P.S.: Double-clad Cr4+:YAG crystal fiber amplifier. Opt. Lett. 30(2), 129–131 (2005)\nHuang, K.Y., Hsu, K.Y., Jheng, D.Y., Zhuo, W.J., Chen, P.Y., Yeh, P.S., Huang, S.L.: Low-loss propagation in Cr4+:YAG double-clad crystal fiber fabricated by sapphire tube assisted CDLHPG technique. Opt. Express 16(16), 12264–12271 (2008)\nTong, L., Gattass, R.R., Ashcom, J.B., He, S., Lou, J., Shen, M., Maxwell, I., Mazur, E.: Subwavelength-diameter silica wires for low-loss optical wave guiding. Nature 426(6968), 816–819 (2003)\nLan, C.W., Tu, C.Y.: Three-dimensional simulation of facet formation and the coupled heat flow and segregation in bridgman growth of oxide crystals. J. Cryst. Growth 233(3), 523–536 (2001)\nBera S, Nie C D, Harrington J A, Chick T, Chakrabarty A, Trembath-Reichert S, Chapman J, Rand S C. Cladding single crystal yag fibers grown by laser heated pedestal growth. In: Proceedings of Solid State Lasers XXV: Technology and Devices. San Francisco: SPIE, 97260C (2016)\nBufetova, G.A., Rusanov, S.Y., Seregin, V.F., Pyrkov, Y.N., Kamynin, V.A., Tsvetkov, V.B.: Temperature distribution across the growth zone of sapphire (Al2O3) and yttrium–aluminum garnet (YAG) single crystal fibers. J. Cryst. Growth 433, 54–58 (2016)\nBufetova, G.A., Rusanov, S.Y., Seregin, V.F., Pyrkov, Y.N., Tsvetkov, V.B.: Temperature and emissivity measurements at the sapphire single crystal fiber growth process. J. Cryst. Growth 480, 85–89 (2017)\nWang, W.L., Tseng, Y.H., Cheng, W.H., Wang, J.S.: Silica cladded Nd3+:YAG single crystal core optical fiber and its submicron residual stress detection. Opt. Mater. Express 4(4), 656 (2014)\nSpratt, W., Huang, M., Murray, T., Xia, H.: Optical mode confinement and selection in single-crystal sapphire fibers by formation of nanometer scale cavities with hydrogen ion implantation. J. Appl. Phys. 114(20), 203501 (2013)\nSpratt, W.T., Huang, M., Jia, C., Wang, L., Kamineni, V.K., Diebold, A.C., Matyi, R., Xia, H.: Effects of hydrogen ion implantation and thermal annealing on structural and optical properties of single-crystal sapphire. Mater. Res. Soc. Online Proc. 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Photon. 9(3), 504 (2017)\nLian, X., Farrell, G., Wu, Q., Han, W., Shen, C., Ma, Y., Semenova, Y.: Anti-resonance, inhibited coupling and mode transition in depressed core fibers. Opt. Express 28(11), 16526–16541 (2020)\nHossain, M. M., Maniruzzaman, M.: Analysis of dispersion and confinement loss in photonic crystal fiber. In: Proceedings of 2014 International Conference on Electrical Engineering and Information & Communication Technology. IEEE (2014)\nXu, S., Yao, Z., Pei, G., Luo, X., Wu, X., Lin, Y.: Preparation and properties of sapphire by edge-defined film-fed growth (EFG) method with different growth directions. J. Wuhan Univ. Technol. 33(5), 1022–1027 (2018)\nMaclean J O, Hodson J R, Voisey K T. Laser drilling of via micro-holes in single-crystal semiconductor substrates using a 1070 nm fibre laser with millisecond pulse widths. In: Proceedings of Industrial Laser Applications Symposium (ILAS 2015). Kenilworth: SPIE, 965704 (2015)",{"EN":501},"In this paper, a novel all-solid anti-resonant single crystal fiber (AR-SCF) with high refractive index tubes cladding is proposed. By producing the cladding tubes with high refractive index material, the AR guiding mechanism can be realized for the SCF, which can reduce the mode number to achieve single-mode or few-mode transmission. The influences of different materials and structures on the confinement loss and effective guided mode number for wavelengths of 2–3 μm are investigated. Then, the optimal AR-SCF structures for different wavelengths are determined. Furthermore, the influences of different fabrication errors are analyzed. This work would provide insight to new opportunities in the novel design of SCFs by AR, which would greatly impact the fields of laser application, supercontinum generation, and SCF sensors. \n                  \n                    \n                      \n                    \n                  \n                ",{"EN":503},"All-solid anti-resonant single crystal 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P, Mackenzie D M A, Lipsanen H. Review of fabrication methods of large-area transparent graphene electrodes for industry. Frontiers of Optoelectronics, 2020, 13(2): 91–113\nZhong C Y, Li J Y, Lin H T. Graphene-based all-optical modulators. Frontiers of Optoelectronics, 2020, 13(2): 114–128\nYao Y H, Cheng Z, Dong J J, Zhang X L. Performance of integrated optical switches based on 2D materials and beyond. Frontiers of Optoelectronics, 2020, 13(2): 129–138\nMu H R, Liu Z K, Bao X Z, Wan Z C, Liu G Y, Li X P, Shao H Y, Xing G C, Shabbir B, Li L, Sun T, Li S J, Ma W L, Bao Q L. Highly stable and repeatable femtosecond soliton pulse generation from saturable absorbers based on two-dimensional Cu3−xP nanocrystals. Frontiers of Optoelectronics, 2020, 13(2): 139–148\nLi X H, Peng J J, Liu R S, Liu J S, Feng T C, Qyyum A, Gao C X, Xue M Y, Zhang J. Fe3O4 nanoparticle-enabled mode-locking in an erbium-doped fiber laser. Frontiers of Optoelectronics, 2020, 13(2): 149–155",{"EN":687},"2D materials as a new platform for photonic applications",{"VOID":689},"10.1007\u002Fs12200-020-1059-2","https:\u002F\u002Flink.springer.com\u002Farticle\u002F10.1007\u002Fs12200-020-1059-2",[692,707],{"id":693,"sortIndex":182,"researcher":18,"roles":694,"affiliations":695,"properties":704},"6bb2d785-d160-4409-98c4-006037d76cc0",[167],[696],{"id":18,"sortIndex":19,"affiliation":697,"properties":18},{"id":698,"createTime":699,"updateTime":699,"relativeEntities":700,"slug":18,"properties":701,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},"4ffc2b8d-3632-4683-a79c-d268883f8539","2023-12-29T13:03:50.260+00:00",[],{"title":702},{"VI":703},"Department of Electronics and Nanoengineering, Aalto University, Espoo, Finland",{"title":705},{"VI":706},"Zhipei Sun",{"id":708,"sortIndex":19,"researcher":18,"roles":709,"affiliations":710,"properties":716},"6b23800c-5db7-4c54-bd69-09307fd59738",[167],[711],{"id":18,"sortIndex":19,"affiliation":712,"properties":18},{"id":514,"createTime":515,"updateTime":516,"relativeEntities":713,"slug":518,"properties":714,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},[],{"title":715},{"VI":521},{"title":717},{"VI":718},"Jianji Dong",{"url":690,"publisher":720,"properties":747},{"id":6,"createTime":7,"updateTime":8,"relativeEntities":721,"slug":10,"properties":722,"entityType":16,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19,"subjectFields":725,"manageAffiliations":726,"indexDatabases":727,"url":89,"thumbnailPath":18,"statistic":742,"gsStatistic":18,"type":139,"analyzePriority":18},[],{"issn":723,"title":724},{"VOID":13},{"EN":15},[],[],[728,735],{"id":52,"indexDatabase":729,"url":18,"indexYears":18,"academicFieldIds":734,"indexDatabaseRanking":18},{"id":54,"createTime":55,"updateTime":56,"relativeEntities":730,"label":731,"description":732,"key":63,"publicationTags":733,"standard":18},[],{"EN":59,"VI":59},{"VI":61,"EN":62},[65,66],[68],{"id":70,"indexDatabase":736,"url":83,"indexYears":84,"academicFieldIds":741,"indexDatabaseRanking":88},{"id":72,"createTime":73,"updateTime":74,"relativeEntities":737,"label":738,"description":739,"key":80,"publicationTags":740,"standard":18},[],{"EN":77,"VI":77},{"EN":77,"VI":79},[82],[86,87],{"impactFactor":19,"impactFactorByYear":743,"i10Index":102,"i10IndexLast5Year":103,"totalPublication":104,"totalPublicationByYear":744,"totalCitation":116,"totalCitationByYear":745,"totalCitationPerPublication":126,"totalCitationPerPublicationByYear":746,"hindexLast5Year":106,"hindex":106},{"2013":92,"2014":93,"2015":94,"2016":95,"2017":96,"2018":97,"2019":97,"2020":98,"2021":99,"2022":100,"2023":101},{"2012":106,"2013":107,"2014":108,"2015":109,"2016":110,"2017":111,"2018":109,"2019":108,"2020":112,"2021":113,"2022":112,"2023":114,"2024":115},{"2012":118,"2013":113,"2014":119,"2015":108,"2016":109,"2017":120,"2018":121,"2019":122,"2020":123,"2021":124,"2022":125},{"2012":128,"2013":129,"2014":130,"2015":131,"2016":132,"2017":133,"2018":134,"2019":135,"2020":136,"2021":137,"2022":138},{"volume":748,"pages":750},{"VOID":749},"13",{"VOID":751},"89-90","2020-07-13",2020,{"id":755,"createTime":756,"updateTime":757,"relativeEntities":758,"slug":759,"properties":760,"entityType":159,"verifyStatus":160,"verifyTime":757,"verifyNote":161,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19,"primaryUrl":769,"fullTextUrl":18,"authors":770,"publicationType":193,"publisherRelationship":787,"citationCount":18,"citationInfo":18,"publishDate":819,"publishYear":820,"citationAnalyzeStatus":17,"lastCitationAnalyze":18,"indexDatabases":18,"openAccess":18,"references":18,"isForceReanalyzing":229},"de98cd50-c3f6-4173-8b50-32657fcffcaf","2024-01-14T03:42:32.891+00:00","2024-12-18T23:42:49.591+00:00",[],"Enabling-technologies-and-challenges-for-transmission-of-400-Gb-s-signals-in-50-GHz-channel-grid",{"references":761,"abstract":763,"title":765,"doi":767},{"VOID":762},"Camera M, Olsson B E, Bruno G. Beyond 100 Gbit\u002Fs: System implications towards 400 G and 1 T. In: Proceedings of the 36th European Conference and Exhibition on Optical Communication 2010 Symposium toward 1 Tb\u002Fs. 2010, 1–28\nCole C. Is 1 Tb\u002Fs ready for prime time? Engineering reality check. In: IEEE Photonics Society Summer Topical, Montreal, Canada, 2011. Terabit Optical Ethernet, WC1. 1\nYu J, Zhou X, Huang M-F, Qian D, Ji P N, Wang T, Magill P. 400 Gb\u002Fs (4 × 100 Gb\u002Fs) orthogonal PDM-RZ-QPSK DWDM signal transmission over 1040 km SMF-28. Optics Express, 2009, 20(17): 17928–17933\nLiu X, Chandrasekhar S, Zhu B, Winzer P J, Gnauck A H, Peckham D W. Transmission of a 448-Gb\u002Fs reduced-guard-interval COOFDM signal with a 60-GHz optical bandwidth over 2000 km of ULAF and five 80-GHz-Grid ROADMs. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2010, PDPC2\nChandrasekhar S, Liu X, Zhu B, Peckham D W. Transmission of a 1.2-Tb\u002Fs 24-carrier no-guard-interval coherent OFDM superchannel over 7200-km of ultra-large-area fiber. In: Proceedings of the 35th European Conference on Optical Communication. 2009, PDP 2.6\nWinzer P J, Gnauck A H, Chandrasekhar S, Draving S, Evangelista J, Zhu B. Generation and 1200-km transmission of 448-Gb\u002Fs ETDM 56-Gbaud PDM 16-QAM using a single I\u002FQ modulator. In: Proceedings of 36th European Conference and Exhibition on Optical Communication. 2010, PDP 2.2\nGnauck A H, Winzer P J, Chandrasekhar S, Liu X, Zhu B, Peckham D W. 10 × 224-Gb\u002Fs WDM transmission of 28-Gbaud PDM 16-QAM on a 50-GHz grid over 1200 km of fiber. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2010, PDPB8\nHuang Y K, Ip E, Huang M, Zhu B, Ji P N, Shao Y, Peckham D W, Lingle R, Aono Y, Tajima T, Wang T. 10×456 Gb\u002Fs DP-16QAM Transmission over 8×100 km of ULAF using Coherent Detection with a 30-GHz Analog-to-Digital Converter. In: Proceedings of the 15th OptoeElectronics and Communications Conference. 2010, PDP3\nTakahashi H, Takeshima K, Morita I, Tanaka H. 400-Gbit\u002Fs Optical OFDM Transmission over 80 km in 50-GHz Frequency Grid. In: Proceedings of European Conference on Optical Communication. 2010, Tu.3.C.1\nZhou X, Nelson L E, Magill P, Isaac R, Zhu B, Peckham DW, Borel P, Carlson K. 8×450 Gb\u002Fs, 50 GHz-spaced, PDM-32QAM transmission over 400 km and one 50 GHz-grid ROADM. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2011, PDPB3\nZhou X, Nelson L, Magill P, Isaac R, Zhu B, Peckham D W, Borel P, Carlson K. 800 km transmission of 5×450 Gb\u002Fs PDM-32QAM on the 50 GHz grid using electrical and optical spectral shaping. In: Proceedings of European Conference and Exposition on Optical Communications. 2011, We.8.B.2\nZhou X, Nelson L E, Magill P, Isaac R, Zhu B, Peckham DW, Borel P, Carlson K. 1200 km Transmission of 50 GHz spaced, 5×504 Gb\u002F s PDM-32-64 hybrid QAM using Electrical and Optical Spectral Shaping. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2012, OM2A.2\nKobayashi T, Sano A, Matsuura A, Miyamoto Y, Ishihara K. Nonlinear tolerant long-haul WDM transmission over 1200 km using 538 Gb\u002Fs\u002Fch PDM-64QAM SC-FDM signals with pilot tone. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2012, OM2A.5\nZhou X, Nelson L E, Magill P, Isaac R, Zhu B, Peckham D W, Borel P, Carlson K. High spectral efficiency 400 Gb\u002Fs transmission using PDM time-domain hybrid 32-64QAM and training-assisted carrier recovery. Journal of Lightwave Technology, Feburary issue of 2013\nProakis J G. Digital Communication. 4rd ed. NY: McGraw-Hill, 2001\nZhou X, Yu J. Multi-level, multi-dimensional coding for high-speed and high spectral-efficiency optical transmission. Journal of Lightwave Technology, 2009, 27(16): 3641–3653\nPfau T, Hoffmann S, Noé R. Hardware-efficient coherent digital receiver concept with feed-forward carrier recovery for M-QAM constellations. Journal of Lightwave Technology, 2009, 27(8): 989–999\nZhou X, Yu J, Huang M F, Shao Y, Wang T, Nelson L, Magill P, Birk M, Borel P I, Peckham D W, Lingle R, Zhu B. 64 Tb\u002Fs, 8 b\u002Fs\u002FHz, PDM-36QAM transmission over 320 km using both preand post-transmission digital signal processing. Journal of Lightwave Technology, 2011, 29(4): 571–577\nPeng W R, Morita I, Tanaka H. Hybrid QAM transmission techniques for single-carrier ultra-dense WDM systems. In: Proceedings of the 16th OptoeElectronics and Communications Conference. 2011, 824–825\nTakahashi H, Morita I, Tanaka H. The impact of the combined 8-QAM and QPSK subcarrier modulation for coherent optical OFDM. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2011, JWA30\nSchmogrow R, Winter M, Meyer M, Hillerkuss D, Wolf S, Baeuerle B, Ludwig A, Nebendahl B, Ben-Ezra S, Meyer J, Dreschmann M, Huebner M, Becker J, Koos C, Freude W, Leuthold J. Real-time Nyquist pulse generation beyond 100 Gbit\u002Fs and its relation to OFDM. Optics Express, 2012, 1(20): 317–337\nNelson L E, Woodward S L, Foo S, Moyer M, Yao D, O’sullivan M. 100 Gb\u002Fs dual-carrier DP-QPSK performance after WDM transmission including 50 GHz wavelength selective switches. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2011, NWA2\nZhou X, Nelson L E, Magill P, Isaac R, Zhu B, Peckham DW, Borel P, Carlson K. PDM-Nyquist-32QAM for 450-Gb\u002Fs per-channel WDM transmission on the 50 GHz ITU-T grid. Journal of Lightwave Technology, 2012, 30(4): 553–559\nOIF-ITLA-MSA-01.1, Optical Internetworking Forum, 2005, 91\nChang F, Onohara K, Mizuochi T. Forward error correction for 100 G transport networks. IEEE Communications Magazine, 2010, 48(3): S48–S55\nNelson L E, Pan Y, Birk M, Isaac R, Rasmussen C, Givehchi M, Mikkelsen B. WDM performance and multiple-path interference tolerance of a real-time 120 Gbps pol-mux QPSK transceiver with soft decision FEC. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2012, NTh1I.5\nChang D, Yu F, Xiao Z, Stojanovic N, Hauske F N, Cai Y, Xie C, Li L, Xu X, Xiong Q. LDPC convolutional codes using layered decoding algorithm for high speed coherent optical transmission. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2012, OW1H.4\nCai Y. Limit on coding and modulation gains in fiber-optic communication systems. In: Proceedings of Wireless and Optical Communications Conference. 2005, F9\nZhang G, Nelson L E, Pan Y, Birk M, Skolnick C, Rasmussen C, Givehchi M, Mikkelsen B, Scherer T, Downs T, Keil W. 3760 km, 100 G SSMF transmission over commercial terrestrial DWDM ROADM systems using SD-FEC. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2012, PDP5D.4\nZhou X, Birk M. New design method for a WDM system employing broad-band raman amplification. IEEE Photonics Technology Letters, 2004, 16(3): 912–914\nZhou X, Yu J, Huang M F, Shao Y, Wang T, Nelson L E, Magill P D, Birk M, Borel P I, Peckham D W, Lingle R, Zhu B. 64-Tb\u002Fs, 8 b\u002Fs\u002FHz, PDM-36QAM transmission over 320 km using both preand post-transmission digital signal processing. Journal of Lightwave Technology, 2011, 29(4): 571–577\nFang T T. Analysis of self-noise in a fourth-power clock regenerator. IEEE Transactions on Communications, 1991, 39(1): 133–140\nZhou X. An improved feed-forward carrier recovery algorithm for coherent receiver with M-QAM modulation format. IEEE Photonics Technology Letters, 2010, 22(14): 1051–1053\nChang D, Yu F, Xiao Z, Stojanovic N, Hauske F N, Cai Y, Xie C. FPGA verification of a single QC-LDPC code for 100 Gb\u002Fs optical systems without error floor down to BER of 1015. In: Proceedings of conference on Optical Fiber Communication-National Fiber Optic Engineers Conference. 2011, OTuN2\nVacondio F, Simonneau C, Lorcy L, Antona1 J C, Bononi A, Bigo S. Experimental characterization of Gaussian-distributed nonlinear distortions. In: Proceedings of European Conference and Exposition Optical Communications. 2011, We.7.B.1\nZhu B, Chandrasekhar S, Liu X, Peckham D W. Transmission performance of a 485-Gb\u002Fs CO-OFDM superchannel with PDM-16QAM subcarriers over ULAF and SSMF-based links. IEEE Photonics Technology Letters, 2011, 23(19): 1400–1402\nDischler R. Experimental comparison of 32- and 64-QAM constellation shapes on a coherent PDM burst mode capable system. In: Proceedings of the 37th European Conference Exhibition on Optical Communication. 2011, Mo. 2.A.6\nMateo EF, Zhou X, Li G. Selective post-compensation of nonlinear impairments in polarization-division multiplexed WDM systems with different channel granularities. IEEE Journal of Quantum Electronics, 2011, 47(1): 109–116",{"EN":764},"This paper reviewed the recent progress in transmission of 400 Gb\u002Fs, wavelength-division-multiplexed (WDM) channels for optical networks based on the standard 50 GHz grid. We discussed the enabling modulation, coding, and line system technologies, as well as the existing challenges. It is shown that, 400 Gb\u002Fs per channel signal can be transmitted on the standard 50 GHz ITU-T grid at 8.4 b\u002Fds\u002FHz net spectral efficiency (SE) over meaningful transmission reach for regional and metropolitan applications. However, further studies are needed to fully understand the potential for meeting the requirements of long-haul transmission applications.",{"EN":766},"Enabling technologies and challenges for transmission of 400 Gb\u002Fs signals in 50 GHz channel grid",{"VOID":768},"10.1007\u002Fs12200-012-0298-2","https:\u002F\u002Flink.springer.com\u002Farticle\u002F10.1007\u002Fs12200-012-0298-2",[771],{"id":772,"sortIndex":19,"researcher":18,"roles":773,"affiliations":774,"properties":784},"32680a4e-955b-4b3c-94d8-5851239484f5",[167],[775],{"id":18,"sortIndex":19,"affiliation":776,"properties":18},{"id":777,"createTime":778,"updateTime":778,"relativeEntities":779,"slug":780,"properties":781,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},"45b3475a-02e6-443b-8f34-6e54fbbd9036","2024-04-14T09:32:01.751+00:00",[],"AT-T-Labs-Research-Middletown-USA",{"title":782},{"EN":783},"AT&T Labs—Research, Middletown, USA",{"title":785},{"VI":786},"Xiang Zhou",{"url":769,"publisher":788,"properties":815},{"id":6,"createTime":7,"updateTime":8,"relativeEntities":789,"slug":10,"properties":790,"entityType":16,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19,"subjectFields":793,"manageAffiliations":794,"indexDatabases":795,"url":89,"thumbnailPath":18,"statistic":810,"gsStatistic":18,"type":139,"analyzePriority":18},[],{"issn":791,"title":792},{"VOID":13},{"EN":15},[],[],[796,803],{"id":52,"indexDatabase":797,"url":18,"indexYears":18,"academicFieldIds":802,"indexDatabaseRanking":18},{"id":54,"createTime":55,"updateTime":56,"relativeEntities":798,"label":799,"description":800,"key":63,"publicationTags":801,"standard":18},[],{"EN":59,"VI":59},{"VI":61,"EN":62},[65,66],[68],{"id":70,"indexDatabase":804,"url":83,"indexYears":84,"academicFieldIds":809,"indexDatabaseRanking":88},{"id":72,"createTime":73,"updateTime":74,"relativeEntities":805,"label":806,"description":807,"key":80,"publicationTags":808,"standard":18},[],{"EN":77,"VI":77},{"EN":77,"VI":79},[82],[86,87],{"impactFactor":19,"impactFactorByYear":811,"i10Index":102,"i10IndexLast5Year":103,"totalPublication":104,"totalPublicationByYear":812,"totalCitation":116,"totalCitationByYear":813,"totalCitationPerPublication":126,"totalCitationPerPublicationByYear":814,"hindexLast5Year":106,"hindex":106},{"2013":92,"2014":93,"2015":94,"2016":95,"2017":96,"2018":97,"2019":97,"2020":98,"2021":99,"2022":100,"2023":101},{"2012":106,"2013":107,"2014":108,"2015":109,"2016":110,"2017":111,"2018":109,"2019":108,"2020":112,"2021":113,"2022":112,"2023":114,"2024":115},{"2012":118,"2013":113,"2014":119,"2015":108,"2016":109,"2017":120,"2018":121,"2019":122,"2020":123,"2021":124,"2022":125},{"2012":128,"2013":129,"2014":130,"2015":131,"2016":132,"2017":133,"2018":134,"2019":135,"2020":136,"2021":137,"2022":138},{"volume":816,"pages":817},{"VOID":332},{"VOID":818},"30-45","2012-12-17",2012,{"id":822,"createTime":823,"updateTime":824,"relativeEntities":825,"slug":826,"properties":827,"entityType":159,"verifyStatus":160,"verifyTime":824,"verifyNote":161,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19,"primaryUrl":836,"fullTextUrl":18,"authors":837,"publicationType":193,"publisherRelationship":1015,"citationCount":18,"citationInfo":18,"publishDate":1048,"publishYear":1049,"citationAnalyzeStatus":17,"lastCitationAnalyze":18,"indexDatabases":18,"openAccess":18,"references":18,"isForceReanalyzing":229},"0be59483-2d64-4b10-9fc3-8db19c433d3b","2023-12-09T21:53:46.436+00:00","2025-01-21T23:41:19.415+00:00",[],"Widely-tunable-and-high-resolution-mid-infrared-laser-based-on-BaGa4Se7-optical-parametric-oscillator",{"references":828,"abstract":830,"title":832,"doi":834},{"VOID":829},"Bai, F., Wang, Q., Liu, Z., Jiao, Z., Xu, X., Zhang, H.: Comparison of signal-resonant and idler-resonant KTA-SROs. Chin. Opt. Lett. 14(7), 64–68 (2016)\nLi, H., Zhu, X., Ma, X., Li, S., Chen, W.: Nanosecond high-pulse energy 1.57 μm KTA optical parametric amplifier with time delay. Chin. Opt. Lett. 13(11), 111402–111405 (2015)\nKang, M.Q., Deng, Y., Yan, X.W., Zeng, X., Guo, Y., Yao, J., Zeng, F., Zheng, J., Zhou, K., Qu, C., Su, J., Zhu, Q.: A compact and efficient 4.25 µm BaGa4Se7 optical parametric oscillator. Chin. Opt. Lett. 17(12), 121402 (2019)\nKong, H., Bian, J.T., Sun, X.Q.: Calculation of phase-matching angles and effective nonlinear coefficients of BaGa4Se7 crystals. Optik (Stuttg.) 193, 163004 (2019)\nYao, J., Mei, D., Bai, L., Lin, Z., Yin, W., Fu, P., Wu, Y.: BaGa4Se7: a new congruent-melting IR nonlinear optical material. Inorg. Chem. 49(20), 9212–9216 (2010)\nYao, J., Yin, W., Feng, K., Li, X., Mei, D., Lu, Q., Ni, Y., Zhang, Z., Hu, Z., Wu, Y.: Growth and characterization of BaGa4Se7 crystal. J. Cryst. Growth 346(1), 1–4 (2012)\nYang, F., Yao, J.Y., Xu, H.Y., Feng, K., Yin, W.L., Li, F.Q., Yang, J., Du, S.F., Peng, Q.J., Zhang, J.Y., Cui, D.F., Wu, Y.C., Chen, C.T., Xu, Z.Y.: High efficiency and high peak power picosecond mid-infrared optical parametric amplifier based on BaGa4Se7 crystal. Opt. Lett. 38(19), 3903–3905 (2013)\nYang, F., Yao, J., Xu, H., Zhang, F.F., Zhai, N.X., Lin, Z.H., Zong, N., Peng, Q.J., Zhang, J.Y., Cui, D.F., Wu, Y.C., Chen, C.T., Xu, Z.Y.: Midinfrared optical parametric amplifier with 6.4–11 µm range based on BaGa4Se7. IEEE Photonics Technol. Lett. 27(10), 1100–1103 (2015)\nKostyukova, N.Y., Boyko, A.A., Badikov, V., Badikov, D., Shevyrdyaeva, G., Panyutin, V., Marchev, G.M., Kolker, D.B., Petrov, V.: Widely tunable in the mid-IR BaGa4Se7 optical parametric oscillator pumped at 1064 nm. Opt. Lett. 41(15), 3667–3670 (2016)\nYang, F., Yao, J.Y., Guo, Y.W.: High-energy continuously tunable 8–14 µm picosecond coherent radiation generation from BGSe-OPA pumped by 1064 nm laser. Opt. Laser Technol. 125, 5 (2020)\nTian, K., Wang, W., Li, C., Wan, Z., Hu, B., He, L., Xiang, M., Yao, J., Wu, H., Liang, H.: Ultrabroad (3.7–17 µm) tunable femtosecond optical parametric amplifier based on BaGa4Se7 crystal. Opt. Lett. 47(22), 5973–5976 (2022)\nKong, H., Bian, J., Yao, J., Ye, Q., Sun, X.: Temperature tuning of BaGa4Se7 optical parametric oscillator. Chin. Opt. Lett. 19(2), 021901 (2021)\nYang, K., Yao, B., Li, C.: High efficiency non-critical phase-matching 93–106 μm optical parametric oscillator in BaGa4Se7 crystal. Opt. Laser Technol. 160, 109082 (2023)\nBadiKov, V., BadiKov, D., Shevyrdyaeva, G., Tyazhev, A., Marchev, G., Panyutin, V., Petrov, V., Kwasniewski, A.: Phase-matching properties of BaGa4S7 and BaGa4Se7: wide-bandgap nonlinear crystals for the mid-infrared. Phys. Status Solidi Rapid Res. Lett. 5(1), 31–33 (2011)\nBoursier, E., Segonds, P., Debray, J., Inácio, P.L., Panyutin, V., Badikov, V., Badikov, D., Petrov, V., Boulanger, B.: Angle noncritical phase-matched second-harmonic generation in the monoclinic crystal BaGa4Se7. Opt. Lett. 40(20), 4591–4594 (2015)\nKato, K., Miyata, K., Petrov, V.: Phase-matching properties of BaGa4Se7 for SHG and SFG in the 0.901–10.5910 μm range. Appl. Opt. 56(11), 2978–2981 (2017)\nKato, K., Miyata, K., Badikov, V.V., Petrov, V.: Thermo-optic dispersion formula for BaGa4Se7. Appl. Opt. 57(11), 2935–2938 (2018)\nBian, J., Kong, H., Ye, Q., Yao, J., Guo, L., Sun, X.: Narrow-linewidth BaGa4Se7 optical parametric oscillator. Chin. Opt. Lett. 20(4), 041901 (2022)",{"EN":831},"The widely tunable and high resolution mid-infrared laser based on a BaGa4Se7 (BGSe) optical parametric oscillator (OPO) was demonstrated. A wavelength tuning range of 2.76–4.64 μm and a wavelength tuning resolution of about 0.3 nm were obtained by a BGSe (56.3°, 0°) OPO, which was pumped by a 1064 nm laser. It is the narrowest reported wavelength tuning resolution for BGSe OPO, and was obtained by simultaneously controlling the angle and temperature of BGSe. \n\n                  \n                    \n                  \n                ",{"EN":833},"Widely tunable and high resolution mid-infrared laser based on BaGa4Se7 optical parametric 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Express 22(19), 22707–22715 (2014)\nWang, X., Zhou, L., Li, R., Xie, J., Lu, L., Wu, K., Chen, J.: Continuously tunable ultra-thin silicon waveguide optical delay line. Optica 4(5), 507–515 (2017)\nSong, L., Chen, T., Liu, W., Liu, H., Peng, Y., Yu, Z., Li, H., Shi, Y., Dai, D.: Toward calibration-free Mach-Zehnder switches for next-generation silicon photonics. Photon. Res. 10(3), 793–801 (2022)\nXiang, C., Davenport, M.L., Khurgin, J.B., Morton, P.A., Bowers, J.E.: Low-loss continuously tunable optical true time delay based on Si3N4 ring resonators. IEEE J. Sel. Top. Quantum Electron. 24(4), 5900109 (2018)\nLin, D., Xu, X., Zheng, P., Yang, H., Hu, G., Yun, B., Cui, Y.: A tunable optical delay line based on cascaded silicon nitride microrings for Ka-band beamforming. IEEE Photonics J. 11(5), 5503210 (2019)\nChung, C., Xu, X., Wang, G., Pan, Z., Chen, R.T.: On-chip optical true time delay lines featuring one-dimensional fishbone photonic crystal waveguide. Appl. Phys. Lett. 112(7), 071104 (2018)\nCassan, E., Roux, X.L., Caer, C., Hao, R., Bernier, D., Marris-Morini, D., Vivien, L.: Silicon slow light photonic crystals structures: present achievements and future trends. Front. Optoelectron. China 4(3), 243–253 (2011)\nKaushal, S., Cheng, R., Ma, M., Mistry, A., Burla, M., Chrostowski, L., Azaña, J.: Optical signal processing based on silicon photonics waveguide Bragg gratings. Front Optoelectron. 11(2), 163–188 (2018)\nDu, Z., Xiang, C., Fu, T., Chen, M., Yang, S., Bowers, J.E., Chen, H.: Silicon nitride chirped spiral Bragg gratings with large group delay. APL Photonics 5(10), 101302 (2020)\nOrtega, B., Mora, J., Chulia, R.: Optical beamformer for 2-D phased array antenna with subarray partitioning capability. IEEE Photonics J. 8(3), 6600509 (2016)\nGao, X., Zhu, Y., Chong, Y., Xu, Z., Mei, L., Cao, J., Zhang, F., Dong, J.: Integrated channel-shared optical true time delay line array based on gratings-assisted contradirectional couplers for phased array antennas. Proc. SPIE 11763, 117633W (2021)\nSun, Y., Wang, D., Deng, C., Lu, M., Huang, L., Hu, G., Yun, B., Zhang, R., Li, M., Dong, J., Wang, A., Cui, Y.: Large group delay in silicon-on-insulator chirped spiral Bragg gratings waveguide. IEEE Photonics J. 13(5), 5500205 (2021)\nShi, W., Veerasubramanian, V., Patel, D., Plant, D.V.: Tunable nanophotonic delay lines using linearly chirped contradirectional couplers with uniform Bragg gratings. Opt. Lett. 39(3), 701–703 (2014)\nWang, X., Zhao, Y., Ding, Y., Xiao, S., Dong, J.: Tunable optical delay line based on integrated gratings-assisted contradirectional couplers. Photon. 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The simulation results show that the displacement sensor with optical power responsivity of 0.31%\u002Fnm and AFM cantilever with resonance frequency of 5.4 MHz and spring constant of 0.21 N\u002Fm are achievable with the proposed approach. The developed silicon waveguide fabrication method enables silicon waveguide with 6 and 7.5 dB\u002Fcm transmission loss for TE and TM modes, respectively, and formation of 13 nm wide nano-gaps between silicon waveguides. The coupler demonstrates misalignment tolerance of ±1.8 μm for 5 μm spot size lensed fiber and coupling loss of 2.12 dB\u002Ffacet for standard cleaved single mode fiber without compromising other performance. The nano-tips with apex radius as small as 2.5 nm and aspect ratio of more than 50 has been enabled by the development of novel HAR nanotip fabrication technique. Integration of the HAR tips onto an array of 460 nm wide cantilever beam has also been demonstrated.",{"EN":1267},"Silicon waveguide cantilever displacement sensor for potential application for on-chip high speed AFM",{"VOID":1269},"10.1007\u002Fs12200-018-0774-4","https:\u002F\u002Flink.springer.com\u002Farticle\u002F10.1007\u002Fs12200-018-0774-4",[1272,1287,1299],{"id":1273,"sortIndex":267,"researcher":18,"roles":1274,"affiliations":1275,"properties":1284},"e7c8f21b-e0a2-4075-8378-3d2bfa28caf8",[167],[1276],{"id":18,"sortIndex":19,"affiliation":1277,"properties":18},{"id":1278,"createTime":1279,"updateTime":1279,"relativeEntities":1280,"slug":18,"properties":1281,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},"75fc0bf5-1c17-49f7-a534-acd6caaf3adf","2024-02-06T14:29:51.779+00:00",[],{"title":1282},{"VI":1283},"School of Electrical Engineering and Telecommunications, University of New South Wales, Kensington, Australia",{"title":1285},{"VI":1286},"Chee Yee Kwok",{"id":1288,"sortIndex":182,"researcher":18,"roles":1289,"affiliations":1290,"properties":1296},"054725b7-c9a9-4eb4-8325-5a0bfa76da99",[167],[1291],{"id":18,"sortIndex":19,"affiliation":1292,"properties":18},{"id":1278,"createTime":1279,"updateTime":1279,"relativeEntities":1293,"slug":18,"properties":1294,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},[],{"title":1295},{"VI":1283},{"title":1297},{"VI":1298},"Aron Michael",{"id":1300,"sortIndex":19,"researcher":18,"roles":1301,"affiliations":1302,"properties":1308},"3ef0db91-9bcb-46aa-95b4-98a825b5dfaf",[167],[1303],{"id":18,"sortIndex":19,"affiliation":1304,"properties":18},{"id":1278,"createTime":1279,"updateTime":1279,"relativeEntities":1305,"slug":18,"properties":1306,"entityType":47,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19},[],{"title":1307},{"VI":1283},{"title":1309},{"VI":1310},"Peng Wang",{"url":1270,"publisher":1312,"properties":1339},{"id":6,"createTime":7,"updateTime":8,"relativeEntities":1313,"slug":10,"properties":1314,"entityType":16,"verifyStatus":17,"verifyTime":18,"verifyNote":18,"syncStatus":17,"languages":18,"translateLanguages":18,"viewCount":19,"subjectFields":1317,"manageAffiliations":1318,"indexDatabases":1319,"url":89,"thumbnailPath":18,"statistic":1334,"gsStatistic":18,"type":139,"analyzePriority":18},[],{"issn":1315,"title":1316},{"VOID":13},{"EN":15},[],[],[1320,1327],{"id":52,"indexDatabase":1321,"url":18,"indexYears":18,"academicFieldIds":1326,"indexDatabaseRanking":18},{"id":54,"createTime":55,"updateTime":56,"relativeEntities":1322,"label":1323,"description":1324,"key":63,"publicationTags":1325,"standard":18},[],{"EN":59,"VI":59},{"VI":61,"EN":62},[65,66],[68],{"id":70,"indexDatabase":1328,"url":83,"indexYears":84,"academicFieldIds":1333,"indexDatabaseRanking":88},{"id":72,"createTime":73,"updateTime":74,"relativeEntities":1329,"label":1330,"description":1331,"key":80,"publicationTags":1332,"standard":18},[],{"EN":77,"VI":77},{"EN":77,"VI":79},[82],[86,87],{"impactFactor":19,"impactFactorByYear":1335,"i10Index":102,"i10IndexLast5Year":103,"totalPublication":104,"totalPublicationByYear":1336,"totalCitation":116,"totalCitationByYear":1337,"totalCitationPerPublication":126,"totalCitationPerPublicationByYear":1338,"hindexLast5Year":106,"hindex":106},{"2013":92,"2014":93,"2015":94,"2016":95,"2017":96,"2018":97,"2019":97,"2020":98,"2021":99,"2022":100,"2023":101},{"2012":106,"2013":107,"2014":108,"2015":109,"2016":110,"2017":111,"2018":109,"2019":108,"2020":112,"2021":113,"2022":112,"2023":114,"2024":115},{"2012":118,"2013":113,"2014":119,"2015":108,"2016":109,"2017":120,"2018":121,"2019":122,"2020":123,"2021":124,"2022":125},{"2012":128,"2013":129,"2014":130,"2015":131,"2016":132,"2017":133,"2018":134,"2019":135,"2020":136,"2021":137,"2022":138},{"volume":1340,"pages":1341},{"VOID":1251},{"VOID":1342},"53-59","2018-03-23",2018]