Photosensors-based on cadmium sulfide (CdS) nanostructures: a review

다국어 초록 (Multilingual Abstract)

Cadmium sulfi de (CdS) is an II – VI semiconductor with a direct bandgap of 2.4 eV; it has been used for various applications, such as nonlinear optical devices, fl at-panel displays, light-emitting diodes, lasers, logic gates, transistors, photoresistors, solar cells, infrared waveguides, and splitters. CdS nanostructures have been synthesized through two diff erent routes: (1) vapor-phase growth and (2) liquid-phase growth. The vapor-phase growth system can yield highly pure single-crystal nano- structures, and liquid-phase growth has been carried out through chemical or electrochemical reactions in solution with templates. The fabricated nanostructures of CdS showed a relatively low work function, high refractive index, excellent transport properties, good chemical capability, thermal stability, high electronic mobility, and piezoelectric properties. For these reasons, CdS photosensors have been produced using various nanostructures of CdS, such as nanorods, nanoribbons, and nanowires. For the fabrication of CdS nanowire photosensors, many diff erent approaches have been demonstrated to connect nanostructures in devices and circuits using various techniques, such as dry transfer, wet transfer, and contact print- ing. Each method has practical advantages and drawbacks in the implementation of nanostructures in devices. In this article, the synthesis of CdS nanostructures and the fabrication of photosensors based on the CdS nanostructures are reviewed.

참고문헌 (Reference)

• 1 K. J. Lee, "selective transfer of microstructured silicon : a printing-based approach to high-performance thin-fi lm transistors supported on flexible substrates" 17 : 2332-2336, 2005
• 2 Z. Fan, "heterogeneous integration of nanowire arrays for image sensor circuitry" 105 : 11066-11070, 2008
• 3 T. Jia, "ZnSe nanowires grown on the crystal surface by femtosecond laser ablation in air" 89 : 101116-, 2006
• 4 Z. Fan, "Wafer-scale assembly of highly ordered semiconductor nanowire arrays by contact printing" 8 : 20-25, 2008
• 5 강혜림, "Verification of Operating Principle of Nano Field-effect Transistor Biosensor with an Extended Gate Electrode" 한국바이오칩학회 14 (14): 381-389, 2020
• 6 A. R. Wagner, "Vapor–liquid–solid mechanism of single crystal growth" 4 : 89-90, 1964
• 7 Q. Zhang, "Vapor growth and interfacial carrier dynamics of high-quality CdS–CdSSe–CdS axial nanowire heterostructures" 32 : 28-35, 2017
• 8 Z. Lou, "Ultraviolet/visible photodetectors with ultrafast, high photosensitivity based on 1D ZnS/CdS heterostructures" 8 : 5219-5225, 2016
• 9 B. H. Hong, "Ultrathin single-crystalline silver nanowire arrays formed in an ambient solution phase" 294 : 348-351, 2001
• 10 Rinmayee Praharaj, "The structural and bioactive behaviour of strontium‑doped titanium dioxide nanorods" 한국세라믹학회 57 (57): 271-280, 2020
• 11 Y. -K. Chang, "The fabrication of ZnO nanowire fi eld-effect transistors by roll-transfer printing" 20 : 195302-, 2009
• 12 K. -K. Lew, "Template-directed vapor–liquid–solid growth of silicon nanowires" 20 : 389-392, 2002
• 13 C. Schönenberger, "Template synthesis of nanowires in porous polycarbonate membranes : electrochemistry and morphology" 101 : 5497-5505, 1997
• 14 S. Yan, "Synthesis of uniform CdS nanowires in high yield and its single nanowire electrical property" 182 : 2941-2945, 2009
• 15 W. T. Yao, "Synthesis of semiconducting functional materials in solution : from II–VI semiconductor to inorganic–organic hybrid semiconductor nanomaterials" 18 : 3357-3366, 2008
• 16 D. Yu, "Synthesis of nano-scale silicon wires by excimer laser ablation at high temperature" 105 : 403-407, 1998
• 17 L. Xi, "Synthesis of monodisperse CdS nanowires and their photovoltaic applications" 517 : 6430-6434, 2009
• 18 R. Ma, "Synthesis of high quality n-type CdS nanobelts and their applications in nanodevices" 89 : 203120-, 2006
• 19 Guk-hyun Kwon, "Synthesis of ZrO2 Nanorods and Their Application as Membrane Materials" 한국세라믹학회 56 (56): 541-548, 2019
• 20 R. Ma, "Synthesis of CdS nanowire networks and their optical and electrical properties" 18 : 205605-, 2007
• 21 S. Liu, "Synthesis and photocatalytic activity of three-dimensional ZnS/CdS composites" 48 : 3328-3334, 2013
• 22 M. I. B. Utama, "Synthesis and optical properties of II–VI 1D nanostructures" 4 : 1422-1435, 2012
• 23 M. Yan, "Synthesis and growth mechanism of triangular Mn doped CdS nanowires" 65 : 2522-2525, 2011
• 24 B. Gates, "Synthesis and characterization of uniform nanowires of trigonal selenium" 12 : 219-227, 2002
• 25 D. H. Kim, "Stretchable electronics : materials strategies and devices" 20 : 4887-4892, 2008
• 26 D. Li, "Solid-state semiconductor optical cryocooler based on CdS nanobelts" 14 : 4724-4728, 2014
• 27 T. -H. Jung, "SnO 2 nanowires bridged across trenched electrodes and their gas-sensing characteristics" 91 : 707-710, 2008
• 28 R. Calarco, "Size-dependent photoconductivity in MBE-grown GaN—nanowires" 5 : 981-984, 2005
• 29 L. Li, "Single-crystalline CdS nanobelts for excellent fi eld-emitters and ultrahigh quantum-efficiency photodetectors" 22 : 3161-3165, 2010
• 30 H. T. Ng, "Single crystal nanowire vertical surround-gate field-effect transistor" 4 : 1247-1252, 2004
• 31 L. Li, "Single CdS nanowire photodetector fabricated by FIB" 126 : 27-30, 2014
• 32 Y. W. Jun, "Shape control of semiconductor and metal oxide nanocrystals through nonhydrolytic colloidal routes" 45 : 3414-3439, 2006
• 33 A. J. Baca, "Semiconductor wires and ribbons for high-performance flexible electronics" 47 : 5524-5542, 2008
• 34 T. Blank, "Semiconductor photoelectric converters for the ultraviolet region of the spectrum" 37 : 999-1030, 2003
• 35 R. Agarwal, "Semiconductor nanowires : optics and optoelectronics" 85 : 209-215, 2006
• 36 W. Lu, "Semiconductor nanowires" 39 : R387-, 2006
• 37 O. Hayden, "Semiconductor nanowire devices" 3 : 12-22, 2008
• 38 S. A. Stauth, "Self-assembled single-crystal silicon circuits on plastic" 103 : 13922-13927, 2006
• 39 D. Xu, "Preparation of CdS single-crystal nanowires by electrochemically induced deposition" 12 : 520-522, 2000
• 40 봉지홍, "Pig Sera-derived Anti-SARS-CoV-2 Antibodies in Surface Plasmon Resonance Biosensors" 한국바이오칩학회 14 (14): 358-368, 2020
• 41 J. S. Lee, "Photoresponses of ZnO nanobridge devices fabricated using a single-step thermal evaporation method" 126 : 73-77, 2007
• 42 J. Jie, "Photoconductive characteristics of single-crystal CdS nanoribbons" 6 : 1887-1892, 2006
• 43 Q. Li, "Optoelectronic characteristics of single CdS nanobelts" 86 : 193109-, 2005
• 44 Y. J. Hsu, "One-step preparation of coaxial CdS–ZnS and Cd 1– x Zn x S–ZnS nanowires" 15 : 1350-1357, 2005
• 45 Y. J. Li, "One-dimensional dielectric/metallic hybrid materials for photonic applications" 11 : 3728-3743, 2015
• 46 J. Jie, "One-dimensional II–VI nanostructures: synthesis, properties and optoelectronic applications" 5 : 313-336, 2010
• 47 T. Zhai, "One-dimensional CdS nanostructures: synthesis, properties, and applications" 2 : 168-187, 2010
• 48 H. Li, "One-dimensional CdS nanostructures : a promising candidate for optoelectronics" 25 : 3017-3037, 2013
• 49 P. Guo, "On-nanowire axial heterojunction design for highperformance photodetectors" 10 : 8474-8481, 2016
• 50 R. S. Chen, "On-chip fabrication of well-aligned and contact-barrier-free GaN nanobridge devices with ultrahigh photocurrent responsivity" 4 : 925-929, 2008
• 51 Z. R. Dai, "Novel nanostructures of functional oxides synthesized by thermal evaporation" 13 : 9-24, 2003
• 52 Y. -F. Lin, "Non-catalytic and template-free growth of aligned CdS nanowires exhibiting high fi eld emission current densities" 22 : 2391-2393, 2006
• 53 Y. -J. Choi, "Network-bridge structure of CdS x Se 1-x nanowire-based optical sensors" 21 : 505605-, 2010
• 54 Y. Li, "Nanowire electronic and optoelectronic devices" 9 : 18-27, 2006
• 55 K. -T. Lin, "Nanocrystallized CdS beneath the surface of a photoconductor for detection of UV light with picowatt sensitivity" 6 : 19866-19875, 2014
• 56 B. Rizal, "Nanocoaxes for optical and electronic devices" 140 : 39-58, 2015
• 57 H. Dedong, "Multicolor photodetector of a single Er3+-doped CdS nanoribbon" 10 : 1-10, 2015
• 58 T. Zhai, "Morphology-dependent stimulated emission and fi eld emission of ordered CdS nanostructure arrays" 3 : 949-959, 2009
• 59 Y. -J. Choi, "Morphological evolution of CdS nanowires to nanosheets" 9 : 4487-4491, 2009
• 60 M.-G. Kang, "Microwave characterization of a fi eld effect transistor with dielectrophoreticallyaligned single silicon nanowire" 49 : 06GG12-, 2010
• 61 J. Yoon, "Materials for sustainable energy: a collection of peer-reviewed research and review articles from Nature Publishing Group" Nature 38-46, 2011
• 62 이명희, "Locally Controlled Diffusive Release of Bone Morphogenetic Protein-2 Using Micropatterned Gelatin Methacrylate Hydrogel Carriers" 한국바이오칩학회 14 (14): 405-420, 2020
• 63 A. Javey, "Layer-bylayer assembly of nanowires for three-dimensional, multifunctional electronics" 7 : 773-777, 2007
• 64 Y. Jiang, "Large scale fabrication of well-aligned CdS/p-Si shell/core nanowire arrays for photodetectors using solution methods" 17 : 16784-16790, 2015
• 65 C. Rao, "Inorganic nanowires" 31 : 5-147, 2003
• 66 J. -H. Im, "In situ-synthesized cadmium sulfi de nanowire photosensor with a parylene passivation layer for chemiluminescent immunoassays" 92 : 221-228, 2017
• 67 B. -G. An, "Highly sensitive photosensor based on in situ synthesized CdS nanowires" 221 : 884-890, 2015
• 68 H. -R. Kim, "Highly sensitive in situ-synthesized cadmium sulfide(CdS)nanowire photosensor for chemiluminescent immunoassays" 133 : 109457-, 2020
• 69 M. C. McAlpine, "Highly ordered nanowire arrays on plastic substrates for ultrasensitive flexible chemical sensors" 6 : 379-384, 2007
• 70 G. Sauer, "Highly ordered monocrystalline silver nanowire arrays" 91 : 3243-3247, 2002
• 71 Y. Ye, "High-performance single CdS nanobelt metal-semiconductor fi eld-effect transistorbased photodetectors" 2 : 2724-2727, 2010
• 72 H. Lee, "High-performance photoconductive channels based on(carbon nanotube)–(CdS nanowire)hybrid nanostructures" 8 : 1650-1656, 2012
• 73 L. Li, "Hierarchical CdS nanowires based rigid and flexible photodetectors with ultrahigh sensitivity" 7 : 23507-23514, 2015
• 74 B. M. Kayes, "Growth of vertically aligned Si wire arrays over large areas(> 1 cm 2)with Au and Cu catalysts" 91 : 103110-, 2007
• 75 N. Wang, "Growth of nanowires" 60 : 1-51, 2008
• 76 L. Vayssieres, "Growth of arrayed nanorods and nanowires of ZnO from aqueous solutions" 15 : 464-466, 2003
• 77 D. Moore, "Growth of anisotropic one-dimensional ZnS nanostructures" 16 : 3898-3905, 2006
• 78 J. Liu, "Growth of Si whiskers on Au/Si(1 1 1)substrate by gas source molecular beam epitaxy(MBE)" 200 : 106-111, 1999
• 79 K. -K. Lew, "Growth characteristics of silicon nanowires synthesized by vapor–liquid–solid growth in nanoporous alumina templates" 254 : 14-22, 2003
• 80 X. Ji, "Growth and photoluminescence of CdS and CdS : Mn nanoribbons" 65 : 2776-2778, 2011
• 81 L. Zhao, "Growth and device application of CdSe nanostructures" 22 : 1551-1566, 2012
• 82 X. Duan, "General synthesis of compound semiconductor nanowires" 12 : 298-302, 2000
• 83 Hadiyan Moein, "Gas sensing behavior of Cu2O and CuO/Cu2O composite nanowires synthesized by template-assisted electrodeposition" 한국세라믹학회 58 (58): 94-105, 2021
• 84 Y. Cui, "Functional nanoscale electronic devices assembled using silicon nanowire building blocks" 291 : 851-853, 2001
• 85 H. -C. Yuan, "Flexible photodetectors on plastic substrates by use of printing transferred single-crystal germanium membranes" 94 : 013102-, 2009
• 86 Z. Liu, "Flexible electronics based on inorganic nanowires" 44 : 161-192, 2015
• 87 배준원, "Flexible Chemical Sensors Using Signal Generation from Cyclodextrin-Analyte Interactions on Polymer Composites" 한국바이오칩학회 14 (14): 251-257, 2020
• 88 Jang Jongmoon, "Fatigue study and durability improvement of piezoelectric single crystal macro-fiber composite energy harvester" 한국세라믹학회 57 (57): 645-650, 2020
• 89 김효영, "Fabrication of the novel Fe2+αO3+α–CoFe2O4 composite fibers and their magnetic properties" 한국세라믹학회 57 (57): 423-431, 2020
• 90 F. Patolsky, "Fabrication of silicon nanowire devices for ultrasensitive, label-free, real-time detection of biological and chemical species" 1 : 1711-, 2006
• 91 A. Kawahara, "Fabrication of semiconductor oxide thick fi lms by slide-offtransfer printing and their NO 2-sensing properties" 49 : 273-278, 1998
• 92 M. Lei, "Fabrication of CdS/Cd–Sn heterostructure nanowires and their photoluminescence property" 487 : 568-571, 2009
• 93 X. Y. Zhang, "Fabrication and magnetic properties of ultrathin Fe nanowire arrays" 83 : 3341-3343, 2003
• 94 T. Whitney, "Fabrication and magnetic properties of arrays of metallic nanowires" 261 : 1316-1319, 1993
• 95 D. Routkevitch, "Electrochemical fabrication of CdS nanowire arrays in porous anodic aluminum oxide templates" 100 : 14037-14047, 1996
• 96 A. Dorn, "Electrically controlling and monitoring InP nanowire growth from solution" 3 : 3260-3265, 2009
• 97 B. Ghosh, "Electrical contacts for II–VI semiconducting devices" 86 : 2187-2206, 2009
• 98 C. -C. Huang, "Directed integration of ZnO nanobridge sensors using photolithographically patterned carbonized photoresist" 21 : 195307-, 2010
• 99 E. C. Greyson, "Directed growth of ordered arrays of small-diameter ZnO nanowires" 16 : 1348-1352, 2004
• 100 Y. Huang, "Directed assembly of one-dimensional nanostructures into functional networks" 291 : 630-633, 2001
• 101 Y. Zhang, "Diameter modifi cation of silicon nanowires by ambient gas" 75 : 1842-1844, 1999
• 102 T. Zhai, "Design and fabrication of rocketlike tetrapodal CdS nanorods by seed-epitaxial metal—organic chemical vapor deposition" 7 : 488-491, 2007
• 103 Y. Sun, "Crystalline silver nanowires by soft solution processing" 2 : 165-168, 2002
• 104 A. I. Hochbaum, "Controlled growth of Si nanowire arrays for device integration" 5 : 457-460, 2005
• 105 Q. An, "Controllable growth of single crystalline CdS nanotubes by thermal evaporation" 136 : 55-58, 2014
• 106 T. Takahashi, "Contact printing of compositionally graded CdS x Se 1-x nanowire parallel arrays for tunable photodetectors" 23 : 045201-, 2012
• 107 B. -G. An, "Chemiluminescent lateral-flow immunoassays by using in-situ synthesis of CdS NW photosensor" 927 : 99-106, 2016
• 108 T. Zhai, "Characterization, cathodoluminescence, and fi eld-emission properties of morphology-tunable CdS micro/nanostructures" 19 : 2423-2430, 2009
• 109 Y. Pei, "CdSnanowires flexible photo-detector with Ag-nanowires electrode based on non-transfer process" 6 : 1-10, 2016
• 110 T. Gao, "CdS nanobelts as photoconductors" 86 : 173105-, 2005
• 111 M. Zhang, "Carbonassisted morphological manipulation of CdS nanostructures and their cathodoluminescence properties" 182 : 3188-3194, 2009
• 112 G. Che, "Carbon nanotubule membranes for electrochemical energy storage and production" 393 : 346-349, 1998
• 113 N. Hullavarad, "Cadmium sulphide(CdS)nanotechnology : synthesis and applications" 8 : 3272-3299, 2008
• 114 윤석영, "Biologically Benign Multi-functional Mesoporous Silica Encapsulated Gold/Silver Nanorods for Anti-bacterial Applications by On-demand Release of Silver Ions" 한국바이오칩학회 13 (13): 362-369, 2019
• 115 J. -H. Ahn, "Bendable integrated circuits on plastic substrates by use of printed ribbons of single-crystalline silicon" 90 : 213501-, 2007
• 116 Y. -J. Choi, "Band gap modulation in CdS x Se 1-x nanowires synthesized by a pulsed laser ablation with the Au catalyst" 17 : 3775-, 2006
• 117 C. J. Murphy, "Anisotropic metal nanoparticles: synthesis, assembly, and optical applications" 109 : 13857-13870, 2005
• 118 김홍래, "An On-chip Chemiluminescent Immunoassay for Bacterial Detection using in Situ-synthesized Cadmium Sulfide Nanowires with Passivation Layers" 한국바이오칩학회 14 (14): 268-278, 2020
• 119 Q. An, "Aligned arrays of CdS nanotubes for highperformance fully nanostructured photodetector with higher photosensitivity" 27 : 11952-11960, 2016
• 120 Y. Wang, "A solution-phase, precursor route to polycrystalline SnO 2 nanowires that can be used for gas sensing under ambient conditions" 125 : 16176-16177, 2003
• 121 E. Menard, "A printable form of silicon for high performance thin fi lm transistors on plastic substrates" 84 : 5398-5400, 2004
• 122 J. Miao, "A novel carbon nanotube structure formed in ultra-long nanochannels of anodic aluminum oxide templates" 110 : 2080-2083, 2006
• 123 A. M. Morales, "A laser ablation method for the synthesis of crystalline semiconductor nanowires" 279 : 208-211, 1998
• 124 J. Zhan, "A chemical solution transport mechanism for one-dimensional growth of CdS nanowires" 220 : 231-234, 2000
• 125 V. Logeeswaran, "A 14-ps full width at half maximum high-speed photoconductor fabricated with intersecting InP nanowires on an amorphous surface" 91 : 1-5, 2008