AI Chat Paper
Note: Please note that the following content is generated by AMiner AI. SciOpen does not take any responsibility related to this content.
{{lang === 'zh_CN' ? '文章概述' : 'Summary'}}
{{lang === 'en_US' ? '中' : 'Eng'}}
Chat more with AI
Powered by AMiner. Clicking this button will take you away from SciOpen.
Home Journal of Advanced Ceramics Article
PDF (12.8 MB)
Cite
EndNote(RIS) BibTeX
Collect
Submit Manuscript AI Chat Paper
Show Outline
Outline
Show full outline
Hide outline
Outline
Show full outline
Hide outline
Review | Open Access

Revisiting traditional and modern trends in versatile 2D nanomaterials: Synthetic strategies, structural stability, and gas-sensing fundamentals

Mobashar Hassan, Siwei Liu, Zhiping Liang, Shahid Hussain( ), Junlin Liu, Guiwu Liu( ), Guanjun Qiao( )
School of Materials Science and Engineering, Jiangsu University, Zhenjiang 212013, China
Show Author Information

Graphical Abstract

Abstract

Two-dimensional nanomaterials (2DNMs) have attracted significant research interest due to their outstanding structural properties, which include unique electrical nanostructures, large surface areas, and high surface reactivity. These adaptable materials have outstanding physicochemical characteristics, making them useful in a variety of applications such as gas-sensing, electronics, energy storage, and catalysis. Extensive research has been conducted in the pursuit of high-performance room-temperature (RT) gas sensors with good selectivity, high sensitivity, long-term stability, and rapid response/recovery kinetics. Metal oxides, transition metal chalcogenides, MXenes, graphene, phosphorene, and boron nitride have all been discovered as 2DNMs with strong potential for gas sensors. This review presents an in-depth analysis of current advances in 2DNM research. It includes synthetic techniques, structural stabilities, gas-sensing mechanisms, critical performance parameters, and factors influencing gas-sensing capabilities of 2DNMs. Furthermore, the present study emphasizes structural engineering and optimization methodologies that improve gas-sensing performance. It also highlights current challenges and outlines future research directions in the domain of tailoring 2DNMs for advanced RT gas sensors. This systematically designed comprehensive review article aims to provide readers with profound insights into gas detection, thereby inspiring the generation of innovative ideas to develop cutting-edge 2DNMs-based gas sensors.

Keywords

2D nanomaterialssynthetic strategiesstructural stabilitygas-sensing mechanism

References

[1]
Kumar R, Jenjeti RN, Sampath S. Two-dimensional, few-layer MnPS3 for selective NO2 gas sensing under ambient conditions. ACS Sens 2020, 5: 404–411.
Crossref Google Scholar
[2]
Tang T, Li Z, Cheng YF, et al. In-situ mechanochemically tailorable 2D gallium oxyselenide for enhanced optoelectronic NO2 gas sensing at room temperature. J Hazard Mater 2023, 451: 131184.
Crossref Google Scholar
[3]
Hakimi Raad N, Manavizadeh N, Frank I, et al. Gas sensing properties of a two-dimensional graphene/h-BN multi-heterostructure toward H2O, NH3 and NO2: A first principles study. Appl Surf Sci 2021, 565: 150454.
Crossref Google Scholar
[4]
Meng FL, Shi X, Yuan ZY, et al. Detection of four alcohol homologue gases by ZnO gas sensor in dynamic interval temperature modulation mode. Sens Actuat B Chem 2022, 350: 130867.
Crossref Google Scholar
[5]
Wen F, Zhu CL, Li LL, et al. Enhanced energy storage performance of polymer nanocomposites using hybrid 2D ZnO@MoS2 semiconductive nano-fillers. Chem Eng J 2022, 430: 132676.
Crossref Google Scholar
[6]
Wang J, Malgras V, Sugahara Y, et al. Electrochemical energy storage performance of 2D nanoarchitectured hybrid materials. Nat Commun 2021, 12: 3563.
Crossref Google Scholar
[7]
Kanaujiya N, Kumar N, Singh M, et al. CoMn2O4 nanoparticles decorated on 2D MoS2 frame: A synergetic energy storage composite material for practical supercapacitor applications. J Energy Storage 2021, 35: 102302.
Crossref Google Scholar
[8]
Kim J, Lee YJ, Kang M, et al. 2D materials for skin-mountable electronic devices. Adv Mater 2021, 33: e2005858.
Crossref Google Scholar
[9]
Zhang H, Yu JR, Yang XX, et al. Ion gel capacitively coupled tribotronic gating for multiparameter distance sensing. ACS Nano 2020, 14: 3461–3468.
Crossref Google Scholar
[10]
Yadav A, Kumar H, Sharma R, et al. Synthesis, processing, and applications of 2D (nano)materials: A sustainable approach. Surf Interfaces 2023, 39: 102925.
Crossref Google Scholar
[11]
Sun GQ, Cheng YH, Ma JL, et al. Strain effect on the phonon transport properties of hydrogenated 2D GaN. Vacuum 2023, 209: 111808.
Crossref Google Scholar
[12]
Qian XY, Xie K, Guo SY, et al. Beneficial restacking of 2D nanomaterials for electrocatalysis: A case of MoS2 membranes. Chem Commun 2020, 56: 7005–7008.
Crossref Google Scholar
[13]
Murali A, Lokhande G, Deo KA, et al. Emerging 2D nanomaterials for biomedical applications. Mater Today 2021, 50: 276–302.
Crossref Google Scholar
[14]
Huang X, Nan ZD. Porous 2D FeS2 nanosheets as a peroxidase mimic for rapid determination of H2O2. Talanta 2020, 216: 120995.
Crossref Google Scholar
[15]
Xu XC, Luo ZJ, Ye K, et al. One-pot construction of acid phosphatase and hemin loaded multifunctional metal-organic framework nanosheets for ratiometric fluorescent arsenate sensing. J Hazard Mater 2021, 412: 124407.
Crossref Google Scholar
[16]
Wang XX, Li Z, Yang Y, et al. 3D substoichiometric MoO3−x/EGaln framework for room temperature NH3 gas sensing. J Alloy Compd 2023, 939: 168690.
Crossref Google Scholar
[17]
Liu B, Zhou K. Recent progress on graphene-analogous 2D nanomaterials: Properties, modeling and applications. Prog Mater Sci 2019, 100: 99–169.
Crossref Google Scholar
[18]
Song RF, Yang J, Wang MY, et al. Theoretical study on P-coordinated metal atoms embedded in arsenene for the conversion of nitrogen to ammonia. ACS Omega 2021, 6: 8662–8671.
Crossref Google Scholar
[19]
Wang D, Pu XX, Yu X, et al. Controlled preparation and gas sensitive properties of two-dimensional and cubic structure ZnSnO3. J Colloid Interface Sci 2022, 608: 1074–1085.
Crossref Google Scholar
[20]
Ikram M, Liu LJ, Liu Y, et al. Controllable synthesis of MoS2@MoO2 nanonetworks for enhanced NO2 room temperature sensing in air. Nanoscale 2019, 11: 8554–8564.
Crossref Google Scholar
[21]
Choi SH, Yun SJ, Won YS, et al. Large-scale synthesis of graphene and other 2D materials towards industrialization. Nat Commun 2022, 13: 1484.
Crossref Google Scholar
[22]
Tang T, Li Z, Cheng YF, et al. Single-step growth of p-type 1D Se/2D GeSexOy heterostructures for optoelectronic NO2 gas sensing at room temperature. J Mater Chem A 2023, 11: 6361–6374.
Crossref Google Scholar
[23]
Hong YL, Liu ZB, Wang L, et al. Chemical vapor deposition of layered two-dimensional MoSi2N4 materials. Science 2020, 369: 670–674.
Crossref Google Scholar
[24]
Qin ZY, Song XX, Wang JY, et al. Development of flexible paper substrate sensor based on 2D WS2 with S defects for room-temperature NH3 gas sensing. Appl Surf Sci 2022, 573: 151535.
Crossref Google Scholar
[25]
Ye W, Zhao LD, Lin HZ, et al. Halide Perovskite glues activate two-dimensional covalent organic framework crystallites for selective NO2 sensing. Nat Commun 2023, 14: 2133.
Crossref Google Scholar
[26]
Wang MM, Song Y, Mu P, et al. Peptoid-based programmable 2D nanomaterial sensor for selective and sensitive detection of H2S in live cells. ACS Appl Bio Mater 2020, 3: 6039–6048.
Crossref Google Scholar
[27]
Lei B, Zhang HW, Zhao Q, et al. Facile synthesis of ZnO/WO3 nanocomposite porous films for high-performance gas sensing of multiple VOCs. Nanomaterials 2023, 13: 733.
Crossref Google Scholar
[28]
Rahman N, Yang J, Sohail M, et al. Insight into metallic oxide semiconductor (SnO2, ZnO, CuO, α-Fe2O3, WO3)-carbon nitride (g-C3N4) heterojunction for gas sensing application. Sens Actuat A Phys 2021, 332: 113128.
Crossref Google Scholar
[29]
Zheng W, Xu YS, Zheng LL, et al. MoS2 van der waals p–n junctions enabling highly selective room-temperature NO2 sensor. Adv Funct Mater 2020, 30: 2000435.
Crossref Google Scholar
[30]
Wang J, Ren Y, Liu H, et al. Ultrathin 2D NbWO6 perovskite semiconductor based gas sensors with ultrahigh selectivity under low working temperature. Adv Mater 2022, 34: e2104958.
Crossref Google Scholar
[31]
Wang XH, Wang SC, Tian J, et al. Synthesis of 1D SnO2 nanorods/2D NiO porous nanosheets p–n heterostructures for enhanced ethanol gas sensing performance. Vacuum 2022, 205: 111399.
Crossref Google Scholar
[32]
Leonardi SG, Wlodarski W, Li YX, et al. Ammonia sensing properties of two-dimensional tin disulphide/tin oxides (SnS2/SnO2-x) mixed phases. J Alloy Compd 2019, 781: 440–449.
Crossref Google Scholar
[33]
Lee SH, Eom W, Shin H, et al. Room-temperature, highly durable Ti3C2Tx MXene/graphene hybrid fibers for NH3 gas sensing. ACS Appl Mater Interfaces 2020, 12: 10434–10442.
Crossref Google Scholar
[34]
Wang MS, Wang YW, Li XJ, et al. WO3 porous nanosheet arrays with enhanced low temperature NO2 gas sensing performance. Sens Actuat B Chem 2020, 316: 128050.
Crossref Google Scholar
[35]
Shafiei M, Bradford J, Khan H, et al. Low-operating temperature NO2 gas sensors based on hybrid two-dimensional SnS2-reduced graphene oxide. Appl Surf Sci 2018, 462: 330–336.
Crossref Google Scholar
[36]
Lee E, Yoon YS, Kim DJ. Two-dimensional transition metal dichalcogenides and metal oxide hybrids for gas sensing. ACS Sens 2018, 3: 2045–2060.
Crossref Google Scholar
[37]
Cheng X, Zang ZH, Yuan K, et al. A hybrid structure light-emitting device based on a CsPbBr3 nanoplate and two-dimensional materials. Appl Phys Lett 2020, 116: 263103.
Crossref Google Scholar
[38]
Zhang YW, Mei J, Yan C, et al. Bioinspired 2D nanomaterials for sustainable applications. Adv Mater 2020, 32: e1902806.
Crossref Google Scholar
[39]
Xiong J, Di J, Xia JX, et al. Surface defect engineering in 2D nanomaterials for photocatalysis. Adv Funct Mater 2018, 28: 1801983.
Crossref Google Scholar
[40]
Bhati VS, Kumar M, Banerjee R. Gas sensing performance of 2D nanomaterials/metal oxide nanocomposites: A review. J Mater Chem C 2021, 9: 8776–8808.
Crossref Google Scholar
[41]
Hess P. Bonding, structure, and mechanical stability of 2D materials: The predictive power of the periodic table. Nanoscale Horiz 2021, 6: 856–892.
Crossref Google Scholar
[42]
Zhao XX, Song P, Wang CC, et al. Engineering covalently bonded 2D layered materials by self-intercalation. Nature 2020, 581: 171–177.
Crossref Google Scholar
[43]
Radisavljevic B, Kis A. Mobility engineering and a metal–insulator transition in monolayer MoS2. Nat Mater 2013, 12: 815–820.
Crossref Google Scholar
[44]
Wang XW, Sun YH, Liu K. Chemical and structural stability of 2D layered materials. 2D Mater 2019, 6: 042001.
Crossref Google Scholar
[45]
Li T, Yin W, Gao SW, et al. The combination of two-dimensional nanomaterials with metal oxide nanoparticles for gas sensors: A review. Nanomaterials 2022, 12: 982.
Crossref Google Scholar
[46]
Tian WD, Wang Y, Zhang Y, et al. WO3 nanoflakes coupled with hexagonal boron nitride nanosheets for triethylamine sensing. ACS Appl Nano Mater 2021, 4: 6316–6327.
Crossref Google Scholar
[47]
Bareza N, Paulillo B, Slipchenko TM, et al. Phonon-enhanced mid-infrared CO2 gas sensing using boron nitride nanoresonators. ACS Photonics 2022, 9: 34–42.
Crossref Google Scholar
[48]
Mawwa J, Shamim SUD, Khanom S, et al. In-plane graphene/boron nitride heterostructures and their potential application as toxic gas sensors. RSC Adv 2021, 11: 32810–32823.
Crossref Google Scholar
[49]
Aaryashree, Shinde PV, Kumar A, et al. Recent advances in 2D black phosphorus based materials for gas sensing applications. J Mater Chem C 2021, 9: 3773–3794.
Crossref Google Scholar
[50]
Xu YL, Li XF, Song YY, et al. End group modification for black phosphorus: Simultaneous improvement of chemical stability and gas sensing performance. ACS Appl Mater Interfaces 2021, 13: 50270–50280.
Crossref Google Scholar
[51]
Basharnavaz H, Habibi-Yangjeh A, Kamali SH. Adsorption performance of SO2 gases over the transition metal/P-codoped graphitic carbon nitride: A DFT investigation. Mater Chem Phys 2020, 243: 122602.
Crossref Google Scholar
[52]
Basivi PK, Pasupuleti KS, Gelija D, et al. UV-light-enhanced room temperature NO2 gas-sensing performances based on sulfur-doped graphitic carbon nitride nanoflakes. New J Chem 2022, 46: 19254–19262.
Crossref Google Scholar
[53]
Sahani S, Park SJ, Myung Y, et al. Enhanced room-temperature ethanol detection by quasi 2D nanosheets of an exfoliated polymeric graphitized carbon nitride composite-based patterned sensor. ACS Omega 2022, 7: 41905–41914.
Crossref Google Scholar
[54]
Gheibi SO, Fallah Shojaei A, Khorshidi A, et al. Synthesis, characterization, and gas sensing properties of Ni–Cr–Al LDH. Appl Phys A 2021, 127: 1–7.
Crossref Google Scholar
[55]
Shinde RB, Patil AS, Sadavar SV, et al. Polyoxotungstate intercalated self-assembled nanohybrids of Zn–Cr–LDH for room temperature Cl2 sensing. Sens Actuat B Chem 2022, 352: 131046.
Crossref Google Scholar
[56]
Shinde RB, Padalkar NS, Sadavar SV, et al. 2D–2D lattice engineering route for intimately coupled nanohybrids of layered double hydroxide and potassium hexaniobate: Chemiresistive SO2 sensor. J Hazard Mater 2022, 432: 128734.
Crossref Google Scholar
[57]
Lee E, VahidMohammadi A, Yoon YS, et al. Two-dimensional vanadium carbide MXene for gas sensors with ultrahigh sensitivity toward nonpolar gases. ACS Sens 2019, 4: 1603–1611.
Crossref Google Scholar
[58]
Lee E, Kim DJ. Recent exploration of two-dimensional MXenes for gas sensing: From a theoretical to an experimental view. J Electrochem Soc 2020, 167: 037515.
Crossref Google Scholar
[59]
Mehdi Aghaei S, Aasi A, Panchapakesan B. Experimental and theoretical advances in MXene-based gas sensors. ACS Omega 2021, 6: 2450–2461.
Crossref Google Scholar
[60]
He TT, Liu W, Lv T, et al. MXene/SnO2 heterojunction based chemical gas sensors. Sens Actuat B Chem 2021, 329: 129275.
Crossref Google Scholar
[61]
Bian G, Yin J, Zhu J. Recent advances on conductive 2D covalent organic frameworks. Small 2021, 17: e2006043.
Crossref Google Scholar
[62]
Yuan HY, Li NX, Linghu JJ, et al. Chip-level integration of covalent organic frameworks for trace benzene sensing. ACS Sens 2020, 5: 1474–1481.
Crossref Google Scholar
[63]
Meng Z, Stolz RM, Mirica KA. Two-dimensional chemiresistive covalent organic framework with high intrinsic conductivity. J Am Chem Soc 2019, 141: 11929–11937.
Crossref Google Scholar
[64]
Liu M, Chen YJ, Huang X, et al. Porphyrin-based COF 2D materials: Variable modification of sensing performances by post-metallization. Angew Chem Int Ed 2022, 61: e202115308.
Crossref Google Scholar
[65]
Chen TW, Ramachandran R, Chen SM, et al. Graphene and perovskite-based nanocomposite for both electrochemical and gas sensor applications: An overview. Sensors 2020, 20: 6755.
Crossref Google Scholar
[66]
Mat Yunin MYA, Mohd Adenam N, Khairul WM, et al. Effect of stability of two-dimensional (2D) aminoethyl methacrylate perovskite using lead-based materials for ammonia gas sensor application. Polymers 2022, 14: 1853.
Crossref Google Scholar
[67]
Wang L, Zhang Y, Chen L, et al. Polymers as emerging materials for photocatalytic overall water splitting. Adv Mater 2018, 30: 1801955.
Crossref Google Scholar
[68]
Wang X, Qin JQ, Hu Q, et al. Multifunctional mesoporous polyaniline/graphene nanosheets for flexible planar integrated microsystem of zinc ion microbattery and gas sensor. Small 2022, 18: e2200678.
Crossref Google Scholar
[69]
Yang K, Yuan WJ, Hua ZQ, et al. Triazine-based two-dimensional organic polymer for selective NO2 sensing with excellent performance. ACS Appl Mater Interfaces 2020, 12: 3919–3927.
Crossref Google Scholar
[70]
Bisht P, Kumar A, Ghosh A, et al. Tailoring the vertical and planar growth of 2D WS2 thin films using pulsed laser deposition for enhanced gas sensing properties. ACS Appl Mater Interfaces 2022, 14: 36789–36800.
Crossref Google Scholar
[71]
Alfalasi W, Feng YP, Tit N. Designing a functionalized 2D-TMD (MoX2, X = S, Se) hosting half-metallicity for selective gas-sensing applications: Atomic-scale study. Acta Mater 2023, 246: 118655.
Crossref Google Scholar
[72]
Kim Y, Kang SK, Oh NC, et al. Improved sensitivity in Schottky contacted two-dimensional MoS2 gas sensor. ACS Appl Mater Interfaces 2019, 11: 38902–38909.
Crossref Google Scholar
[73]
Abun A, Huang BR, Saravanan A, et al. Exfoliated MoSe2 nanosheets doped on the surface of ZnO nanorods for hydrogen sensing applications. ACS Appl Nano Mater 2020, 3: 12139–12147.
Crossref Google Scholar
[74]
Li Y, Xiao AS, Zou B, et al. Advances of metal-organic frameworks for gas sensing. Polyhedron 2018, 154: 83–97.
Crossref Google Scholar
[75]
Zhang R, Lu LH, Chang YY, et al. Gas sensing based on metal-organic frameworks: Concepts, functions, and developments. J Hazard Mater 2022, 429: 128321.
Crossref Google Scholar
[76]
Huang XY, Gong ZJ, Lv Y. Advances in metal-organic frameworks-based gas sensors for hazardous substances. Trac Trends Anal Chem 2022, 153: 116644.
Crossref Google Scholar
[77]
Yuan HY, Li NX, Fan WD, et al. Metal-organic framework based gas sensors. Adv Sci 2022, 9: e2104374.
Crossref Google Scholar
[78]
Cho SR, Kim DH, Jeon M, et al. Overlaying monolayer metal–organic framework on PtSe2-based gas sensor for tuning selectivity. Adv Funct Mater 2022, 32: 2207265.
Crossref Google Scholar
[79]
Jian YY, Hu WW, Zhao ZH, et al. Gas sensors based on chemi-resistive hybrid functional nanomaterials. Nano-Micro Lett 2020, 12: 71.
Crossref Google Scholar
[80]
Anichini C, Samorì P. Graphene-based hybrid functional materials. Small 2021, 17: e2100514.
Crossref Google Scholar
[81]
Dong XS, Chen T, Liu GG, et al. Multifunctional 2D g-C4N3/MoS2 vdW heterostructure-based nanodevices: Spin filtering and gas sensing properties. ACS Sens 2022, 7: 3450–3460.
Crossref Google Scholar
[82]
Hashtroudi H, MacKinnon IDR, Shafiei M. Emerging 2D hybrid nanomaterials: Towards enhanced sensitive and selective conductometric gas sensors at room temperature. J Mater Chem C 2020, 8: 13108–13126.
Crossref Google Scholar
[83]
Geng DC, Yang HY. Recent advances in growth of novel 2D materials: Beyond graphene and transition metal dichalcogenides. Adv Mater 2018, 30: e1800865.
Crossref Google Scholar
[84]
Chen Y, Fan ZX, Zhang ZC, et al. Two-dimensional metal nanomaterials: Synthesis, properties, and applications. Chem Rev 2018, 118: 6409–6455.
Crossref Google Scholar
[85]
Kiani M, Rehman MU, Tian XQ, et al. Two-dimensional nanomaterials for the development of efficient gas sensors: Recent advances, challenges, and future perspectives. Adv Mater Technol 2022, 7: 2101252.
Crossref Google Scholar
[86]
Yap SHK, Chan KK, Yeh CH, et al. Two-dimensional MoS2 nanosheet-functionalized optical microfiber for room-temperature volatile organic compound detection. ACS Appl Nano Mater 2021, 4: 13440–13449.
Crossref Google Scholar
[87]
Ouyang C, Chen YX, Qin ZY, et al. Two-dimensional WS2-based nanosheets modified by Pt quantum dots for enhanced room-temperature NH3 sensing properties. Appl Surf Sci 2018, 455: 45–52.
Crossref Google Scholar
[88]
Lazanas AC, Prodromidis MI. Two-dimensional inorganic nanosheets: Production and utility in the development of novel electrochemical (bio)sensors and gas-sensing applications. Mikrochim Acta 2021, 188: 6.
Crossref Google Scholar
[89]
Yang RJ, Mei L, Zhang QY, et al. High-yield production of mono- or few-layer transition metal dichalcogenide nanosheets by an electrochemical lithium ion intercalation-based exfoliation method. Nat Protoc 2022, 17: 358–377.
Crossref Google Scholar
[90]
Wang JZ, Manga KK, Bao QL, et al. High-yield synthesis of few-layer graphene flakes through electrochemical expansion of graphite in propylene carbonate electrolyte. J Am Chem Soc 2011, 133: 8888–8891.
Crossref Google Scholar
[91]
Zeng ZY, Yin ZY, Huang X, et al. Single-layer semiconducting nanosheets: High-yield preparation and device fabrication. Angew Chem Int Ed 2011, 50: 11093–11097.
Crossref Google Scholar
[92]
Zeng ZY, Sun T, Zhu JX, et al. An effective method for the fabrication of few-layer-thick inorganic nanosheets. Angew Chem Int Ed 2012, 51: 9052–9056.
Crossref Google Scholar
[93]
Fujita T, Ito Y, Tan YW, et al. Chemically exfoliated ReS2 nanosheets. Nanoscale 2014, 6: 12458–12462.
Crossref Google Scholar
[94]
Viculis LM, Mack JJ, Mayer OM, et al. Intercalation and exfoliation routes to graphite nanoplatelets. J Mater Chem 2005, 15: 974–978.
Crossref Google Scholar
[95]
Dines MB. Lithium intercalation via n-Butyllithium of the layered transition metal dichalcogenides. Mater Res Bull 1975, 10: 287–291.
Crossref Google Scholar
[96]
Gui JC, Han L, Cao WY. Lamellar MXene: A novel 2D nanomaterial for electrochemical sensors. J Appl Electrochem 2021, 51: 1509–1522.
Crossref Google Scholar
[97]
Paolucci V, De Santis J, Lozzi L, et al. Layered amorphous a-SnO2 gas sensors by controlled oxidation of 2D-SnSe2. Sens Actuat B Chem 2022, 350: 130890.
Crossref Google Scholar
[98]
Soltani R, Shahvar A, Dinari M, et al. Environmentally-friendly and ultrasonic-assisted preparation of two-dimensional ultrathin Ni/Co–NO3 layered double hydroxide nanosheet for micro solid-phase extraction of phenolic acids from fruit juices. Ultrason Sonochem 2018, 40: 395–401.
Crossref Google Scholar
[99]
Zakaria SA, Ahmadi SH, Amini MH. Chemiresistive gas sensors based on layered double hydroxides (LDHs) structures: A review. Sens Actuat A Phys 2022, 346: 113827.
Crossref Google Scholar
[100]
Coelho J, Mendoza-Sánchez B, Pettersson H, et al. Manganese oxide nanosheets and a 2D hybrid of graphene–manganese oxide nanosheets synthesized by liquid-phase exfoliation. 2D Mater 2015, 2: 025005.
Crossref Google Scholar
[101]
Ma RZ, Sasaki T. Two-dimensional oxide and hydroxide nanosheets: Controllable high-quality exfoliation, molecular assembly, and exploration of functionality. Acc Chem Res 2015, 48: 136–143.
Crossref Google Scholar
[102]
Geng FX, Ma RZ, Ebina Y, et al. Gigantic swelling of inorganic layered materials: A bridge to molecularly thin two-dimensional nanosheets. J Am Chem Soc 2014, 136: 5491–5500.
Crossref Google Scholar
[103]
Alam S, Asaduzzaman Chowdhury M, Shahid A, et al. Synthesis of emerging two-dimensional (2D) materials-Advances, challenges and prospects. FlatChem 2021, 30: 100305.
Crossref Google Scholar
[104]
Kim TW, Oh EJ, Jee AY, et al. Soft-chemical exfoliation route to layered cobalt oxide monolayers and its application for film deposition and nanoparticle synthesis. Chemistry 2009, 15: 10752–10761.
Crossref Google Scholar
[105]
Tan CL, Zhang H. Wet-chemical synthesis and applications of non-layer structured two-dimensional nanomaterials. Nat Commun 2015, 6: 7873.
Crossref Google Scholar
[106]
Lee YH, Zhang XQ, Zhang WJ, et al. Synthesis of large-area MoS2 atomic layers with chemical vapor deposition. Adv Mater 2012, 24: 2320–2325.
Crossref Google Scholar
[107]
Yan Z, Peng ZW, Tour JM. Chemical vapor deposition of graphene single crystals. Acc Chem Res 2014, 47: 1327–1337.
Crossref Google Scholar
[108]
Yin J, Li JD, Hang Y, et al. Boron nitride nanostructures: Fabrication, functionalization and applications. Small 2016, 12: 2942–2968.
Crossref Google Scholar
[109]
Reina A, Jia XT, Ho J, et al. Large area, few-layer graphene films on arbitrary substrates by chemical vapor deposition. Nano Lett 2009, 9: 30–35.
Crossref Google Scholar
[110]
Wang J, Hou YF, Zhang XZ, et al. Tailoring the sensing capability of 2H-MoSe2 via 3d transition metal decoration. Appl Surf Sci 2023, 610: 155399.
Crossref Google Scholar
[111]
Gong YJ, Lin JH, Wang XL, et al. Vertical and in-plane heterostructures from WS2/MoS2 monolayers. Nat Mater 2014, 13: 1135–1142.
Crossref Google Scholar
[112]
Li XF, Lin MW, Lin JH, et al. Two-dimensional GaSe/MoSe2 misfit bilayer heterojunctions by van der waals epitaxy. Sci Adv 2016, 2: e1501882.
Crossref Google Scholar
[113]
Fu L, Sun YY, Wu N, et al. Direct growth of MoS2/h-BN heterostructures via a sulfide-resistant alloy. ACS Nano 2016, 10: 2063–2070.
Crossref Google Scholar
[114]
Yan Z, Lin J, Peng ZW, et al. Toward the synthesis of wafer-scale single-crystal graphene on copper foils. ACS Nano 2012, 6: 9110–9117.
Crossref Google Scholar
[115]
Lee YH, Yu LL, Wang H, et al. Synthesis and transfer of single-layer transition metal disulfides on diverse surfaces. Nano Lett 2013, 13: 1852–1857.
Crossref Google Scholar
[116]
Yu JX, Li J, Zhang WF, et al. Synthesis of high quality two-dimensional materials via chemical vapor deposition. Chem Sci 2015, 6: 6705–6716.
Crossref Google Scholar
[117]
Gan L, Luo ZT. Turning off hydrogen to realize seeded growth of subcentimeter single-crystal graphene grains on copper. ACS Nano 2013, 7: 9480–9488.
Crossref Google Scholar
[118]
Sahoo PK, Memaran S, Xin Y, et al. One-pot growth of two-dimensional lateral heterostructures via sequential edge-epitaxy. Nature 2018, 553: 63–67.
Crossref Google Scholar
[119]
Zhang ZW, Chen P, Duan XD, et al. Robust epitaxial growth of two-dimensional heterostructures, multiheterostructures, and superlattices. Science 2017, 357: 788–792.
Crossref Google Scholar
[120]
Zheng BY, Ma C, Li D, et al. Band alignment engineering in two-dimensional lateral heterostructures. J Am Chem Soc 2018, 140: 11193–11197.
Crossref Google Scholar
[121]
Ma T, Ren WC, Liu ZB, et al. Repeated growth-etching-regrowth for large-area defect-free single-crystal graphene by chemical vapor deposition. ACS Nano 2014, 8: 12806–12813.
Crossref Google Scholar
[122]
Chen JY, Wen YG, Guo YL, et al. Oxygen-aided synthesis of polycrystalline graphene on silicon dioxide substrates. J Am Chem Soc 2011, 133: 17548–17551.
Crossref Google Scholar
[123]
Gong YP, Zhang XM, Liu GT, et al. Layer-controlled and wafer-scale synthesis of uniform and high-quality graphene films on a polycrystalline nickel catalyst. Adv Funct Mater 2012, 22: 3153–3159.
Crossref Google Scholar
[124]
Samad L, Bladow SM, Ding Q, et al. Layer-controlled chemical vapor deposition growth of MoS2 vertical heterostructures via van der Waals epitaxy. ACS Nano 2016, 10: 7039–7046.
Crossref Google Scholar
[125]
Jeon J, Jang SK, Jeon SM, et al. Layer-controlled CVD growth of large-area two-dimensional MoS2 films. Nanoscale 2015, 7: 1688–1695.
Crossref Google Scholar
[126]
Paul RK, Badhulika S, Saucedo NM, et al. Graphene nanomesh as highly sensitive chemiresistor gas sensor. Anal Chem 2012, 84: 8171–8178.
Crossref Google Scholar
[127]
Chen CW, Hung SC, Yang MD, et al. Oxygen sensors made by monolayer graphene under room temperature. Appl Phys Lett 2011, 99: 243502.
Crossref Google Scholar
[128]
Salehi-Khojin A, Estrada D, Lin KY, et al. Polycrystalline graphene ribbons as chemiresistors. Adv Mater 2012, 24: 53–57.
Crossref Google Scholar
[129]
Alexeev AM, Barnes MD, Nagareddy VK, et al. A simple process for the fabrication of large-area CVD graphene based devices via selective in situ functionalization and patterning. 2D Mater 2016, 4: 011010.
Crossref Google Scholar
[130]
Sun ZQ, Liao T, Dou YH, et al. Generalized self-assembly of scalable two-dimensional transition metal oxide nanosheets. Nat Commun 2014, 5: 3813.
Crossref Google Scholar
[131]
Yoo D, Kim M, Jeong S, et al. Chemical synthetic strategy for single-layer transition-metal chalcogenides. J Am Chem Soc 2014, 136: 14670–14673.
Crossref Google Scholar
[132]
Son JS, Yu JH, Kwon SG, et al. Colloidal synthesis of ultrathin two-dimensional semiconductor nanocrystals. Adv Mater 2011, 23: 3214–3219.
Crossref Google Scholar
[133]
Du YP, Yin ZY, Zhu JX, et al. A general method for the large-scale synthesis of uniform ultrathin metal sulphide nanocrystals. Nat Commun 2012, 3: 1177.
Crossref Google Scholar
[134]
Han JH, Lee S, Cheon J. Synthesis and structural transformations of colloidal 2D layered metal chalcogenide nanocrystals. Chem Soc Rev 2013, 42: 2581–2591.
Crossref Google Scholar
[135]
Kong DS, Koski KJ, Cha JJ, et al. Ambipolar field effect in Sb-doped Bi2Se3 nanoplates by solvothermal synthesis. Nano Lett 2013, 13: 632–636.
Crossref Google Scholar
[136]
Sun P, Zhao W, Cao Y, et al. Porous SnO2 hierarchical nanosheets: Hydrothermal preparation, growth mechanism, and gas sensing properties. CrystEngComm 2011, 13: 3718–3724.
Crossref Google Scholar
[137]
Wang J, Zeng W, Wang ZC. Assembly of 2D nanosheets into 3D flower-like NiO: Synthesis and the influence of petal thickness on gas-sensing properties. Ceram Int 2016, 42: 4567–4573.
Crossref Google Scholar
[138]
Miao RY, Zeng W, Gao Q. SDS-assisted hydrothermal synthesis of NiO flake-flower architectures with enhanced gas-sensing properties. Appl Surf Sci 2016, 384: 304–310.
Crossref Google Scholar
[139]
Guo J, Zhang J, Gong HB, et al. Au nanoparticle-functionalized 3D SnO2 microstructures for high performance gas sensor. Sens Actuat B Chem 2016, 226: 266–272.
Crossref Google Scholar
[140]
Zhang WH, Zhang WD. Biomolecule-assisted synthesis and gas-sensing properties of porous nanosheet-based corundum In2O3 microflowers. J Solid State Chem 2012, 186: 29–35.
Crossref Google Scholar
[141]
Matsumoto M, Saito Y, Park C, et al. Ultrahigh-throughput exfoliation of graphite into pristine ‘single-layer’ graphene using microwaves and molecularly engineered ionic liquids. Nat Chem 2015, 7: 730–736.
Crossref Google Scholar
[142]
Li YG, Wang HL, Xie LM, et al. MoS2 nanoparticles grown on graphene: An advanced catalyst for the hydrogen evolution reaction. J Am Chem Soc 2011, 133: 7296–7299.
Crossref Google Scholar
[143]
Zhan MM, Ge CX, Hussain S, et al. Enhanced NO2 gas-sensing performance by core–shell SnO2/ZIF-8 nanospheres. Chemosphere 2022, 291: 132842.
Crossref Google Scholar
[144]
Cao HL, Zhou XF, Zheng C, et al. Two-dimensional porous micro/nano metal oxides templated by graphene oxide. ACS Appl Mater Interfaces 2015, 7: 11984–11990.
Crossref Google Scholar
[145]
Zhu YJ, Chen F. Microwave-assisted preparation of inorganic nanostructures in liquid phase. Chem Rev 2014, 114: 6462–6555.
Crossref Google Scholar
[146]
Kuang Y, Feng G, Li PS, et al. Single-crystalline ultrathin nickel nanosheets array from in situ topotactic reduction for active and stable electrocatalysis. Angew Chem Int Ed 2016, 55: 693–697.
Crossref Google Scholar
[147]
Zhu JB, Bai LF, Sun YF, et al. Topochemical transformation route to atomically thick Co3O4nanosheets realizing enhanced lithium storage performance. Nanoscale 2013, 5: 5241–5246.
Crossref Google Scholar
[148]
Inyawilert K, Wisitsoraat A, Liewhiran C, et al. H2 gas sensor based on PdOx-doped In2O3 nanoparticles synthesized by flame spray pyrolysis. Appl Surf Sci 2019, 475: 191–203.
Crossref Google Scholar
[149]
Bunpang K, Wisitsoraat A, Tuantranont A, et al. Highly selective and sensitive CH4 gas sensors based on flame-spray-made Cr-doped SnO2 particulate films. Sens Actuat B Chem 2019, 291: 177–191.
Crossref Google Scholar
[150]
Sun SB, Wang MW, Chang XT, et al. W18O49/Ti3C2Tx Mxene nanocomposites for highly sensitive acetone gas sensor with low detection limit. Sens Actuat B Chem 2020, 304: 127274.
Crossref Google Scholar
[151]
Zhang B, Liu YD, Liang TT, et al. Activating the basal plane of defective SnS2 nanosheets for NH3 gas sensing. ACS Appl Nano Mater 2020, 3: 4642–4653.
Crossref Google Scholar
[152]
Wang CH, Zhang SD, Qiu L, et al. Ru-decorated WO3 nanosheets for efficient xylene gas sensing application. J Alloy Compd 2020, 826: 154196.
Crossref Google Scholar
[153]
Liu X, Zhang HM, Song Y, et al. Facile solvothermal synthesis of ZnO/Ti3C2Tx MXene nanocomposites for NO2 detection at low working temperature. Sens Actuat B Chem 2022, 367: 132025.
Crossref Google Scholar
[154]
Choi MS, Kim MY, Mirzaei A, et al. Selective, sensitive, and stable NO2 gas sensor based on porous ZnO nanosheets. Appl Surf Sci 2021, 568: 150910.
Crossref Google Scholar
[155]
Wang P, Song T, Gao GG, et al. SnO2 clusters embedded in TiO2 nanosheets: Heterostructures and gas sensing performance. Sens Actuat B Chem 2022, 357: 131433.
Crossref Google Scholar
[156]
Lin G, Wang H, Lai XY, et al. Co3O4/N-doped RGO nanocomposites derived from MOFs and their highly enhanced gas sensing performance. Sens Actuat B Chem 2020, 303: 127219.
Crossref Google Scholar
[157]
Kong DH, Han JY, Gao YB, et al. Lower coordination Co3O4 mesoporous hierarchical microspheres for comprehensive sensitization of triethylamine vapor sensor. J Hazard Mater 2022, 430: 128469.
Crossref Google Scholar
[158]
Li Y, Shan LX, Wang RC, et al. Enhanced n-butanol sensing performance of SnO2/ZnO nanoflowers fabricated via a facile solvothermal method. Ceram Int 2022, 48: 22426–22434.
Crossref Google Scholar
[159]
Wang Q, Huang JY, Zhou JX, et al. Different nanostructured tungsten oxides synthesized by facile solvothermal route for chlorine gas sensing. Sens Actuat B Chem 2018, 275: 306–311.
Crossref Google Scholar
[160]
Sun HM, Liu L. Metal-organic frameworks-derived 2D spindle-like Sn-doped Co3O4 porous nanosheets as efficient materials for TEA detection. Sens Actuat B Chem 2021, 338: 129825.
Crossref Google Scholar
[161]
Chen XW, Wang S, Su C, et al. Two-dimensional Cd-doped porous Co3O4 nanosheets for enhanced room-temperature NO2 sensing performance. Sens Actuat B Chem 2020, 305: 127393.
Crossref Google Scholar
[162]
Eom TH, Cho SH, Suh JM, et al. Substantially improved room temperature NO2 sensing in 2-dimensional SnS2 nanoflowers enabled by visible light illumination. J Mater Chem A 2021, 9: 11168–11178.
Crossref Google Scholar
[163]
Wang ZS, Hu M, Wei YL, et al. Low-temperature NO2-sensing properties and morphology-controllable solvothermal synthesis of tungsten oxide nanosheets/nanorods. Appl Surf Sci 2016, 362: 525–531.
Crossref Google Scholar
[164]
Ou JZ, Ge WY, Carey B, et al. Physisorption-based charge transfer in two-dimensional SnS2 for selective and reversible NO2 gas sensing. ACS Nano 2015, 9: 10313–10323.
Crossref Google Scholar
[165]
Song ZL, Wei ZR, Wang BC, et al. Sensitive room-temperature H2S gas sensors employing SnO2 quantum wire/reduced graphene oxide nanocomposites. Chem Mater 2016, 28: 1205–1212.
Crossref Google Scholar
[166]
Su PG, Peng SL. Fabrication and NO2 gas-sensing properties of reduced graphene oxide/WO3 nanocomposite films. Talanta 2015, 132: 398–405.
Crossref Google Scholar
[167]
Cui SM, Wen ZH, Huang XK, et al. Stabilizing MoS2 nanosheets through SnO2 nanocrystal decoration for high-performance gas sensing in air. Small 2015, 11: 2305–2313.
Crossref Google Scholar
[168]
Kuru CH, Choi D, Kargar A, et al. High-performance flexible hydrogen sensor made of WS2 nanosheet-Pd nanoparticle composite film. Nanotechnology 2016, 27: 195501.
Crossref Google Scholar
[169]
Ye ZB, Tai HL, Xie T, et al. Room temperature formaldehyde sensor with enhanced performance based on reduced graphene oxide/titanium dioxide. Sens Actuat B Chem 2016, 223: 149–156.
Crossref Google Scholar
[170]
Karthik P, Gowthaman P, Venkatachalam M, et al. Propose of high performance resistive type H2S and CO2 gas sensing response of reduced graphene oxide/titanium oxide (rGO/TiO2) hybrid sensors. J Mater Sci Mater Electron 2020, 31: 3695–3705.
Crossref Google Scholar
[171]
Hau HH, Duong TTH, Man NK, et al. Enhanced NO2 gas-sensing performance at room temperature using exfoliated MoS2 nanosheets. Sens Actuat A Phys 2021, 332: 113137.
Crossref Google Scholar
[172]
Qin ZY, Zeng DW, Zhang J, et al. Effect of layer number on recovery rate of WS2 nanosheets for ammonia detection at room temperature. Appl Surf Sci 2017, 414: 244–250.
Crossref Google Scholar
[173]
Qin ZY, Xu K, Yue HC, et al. Enhanced room-temperature NH3 gas sensing by 2D SnS2 with sulfur vacancies synthesized by chemical exfoliation. Sens Actuat B Chem 2018, 262: 771–779.
Crossref Google Scholar
[174]
Huang L, Wang ZP, Zhang JK, et al. Fully printed, rapid-response sensors based on chemically modified graphene for detecting NO2 at room temperature. ACS Appl Mater Interfaces 2014, 6: 7426–7433.
Crossref Google Scholar
[175]
Singh S, Sharma S, Singh RC, et al. Hydrothermally synthesized MoS2-multi-walled carbon nanotube composite as a novel room-temperature ammonia sensing platform. Appl Surf Sci 2020, 532: 147373.
Crossref Google Scholar
[176]
Li TM, Zeng W, Long HW, et al. Nanosheet-assembled hierarchical SnO2 nanostructures for efficient gas-sensing applications. Sens Actuat B Chem 2016, 231: 120–128.
Crossref Google Scholar
[177]
Fang HR, Li S, Zhao HM, et al. Enhanced NO2 gas sensing performance by hierarchical CuO–Co3O4 spheres. Sens Actuat B Chem 2022, 352: 131068.
Crossref Google Scholar
[178]
Yang C, Xiao F, Wang JD, et al. 3D flower- and 2D sheet-like CuO nanostructures: Microwave-assisted synthesis and application in gas sensors. Sens Actuat B Chem 2015, 207: 177–185.
Crossref Google Scholar
[179]
Zhang ZY, Wen Z, Ye ZZ, et al. Gas sensors based on ultrathin porous Co3O4 nanosheets to detect acetone at low temperature. RSC Adv 2015, 5: 59976–59982.
Crossref Google Scholar
[180]
Shewale PS, Yun KS. Synthesis and characterization of Cu-doped ZnO/RGO nanocomposites for room-temperature H2S gas sensor. J Alloy Compd 2020, 837: 155527.
Crossref Google Scholar
[181]
Hu PF, Gong GD, Zhan FY, et al. The hydrothermal evolution of the phase and shape of ZnS nanostructures and their gas-sensing properties. Dalton Trans 2016, 45: 2409–2416.
Crossref Google Scholar
[182]
Yan HH, Song P, Zhang S, et al. Dispersed SnO2 nanoparticles on MoS2 nanosheets for superior gas-sensing performances to ethanol. RSC Adv 2015, 5: 79593–79599.
Crossref Google Scholar
[183]
Zhang DZ, Sun YE, Jiang CX, et al. Room temperature hydrogen gas sensor based on palladium decorated tin oxide/molybdenum disulfide ternary hybrid via hydrothermal route. Sens Actuat B Chem 2017, 242: 15–24.
Crossref Google Scholar
[184]
Xiao Y, Yang QY, Wang ZY, et al. Improvement of NO2 gas sensing performance based on discoid tin oxide modified by reduced graphene oxide. Sens Actuat B Chem 2016, 227: 419–426.
Crossref Google Scholar
[185]
Yan H, Chu LH, Li Z, et al. 2H-MoS2/Ti3C2Tx MXene composites for enhanced NO2 gas sensing properties at room temperature. Sens Actuat Rep 2022, 4: 100103.
Crossref Google Scholar
[186]
Zhang J, Zeng DW, Zhao SQ, et al. Room temperature NO2 sensing: What advantage does the rGO–NiO nanocomposite have over pristine NiO? Phys Chem Chem Phys 2015, 17: 14903–14911.
Crossref Google Scholar
[187]
Li ZJ, Wang NN, Lin ZJ, et al. Room-temperature high-performance H2S sensor based on porous CuO nanosheets prepared by hydrothermal method. ACS Appl Mater Interfaces 2016, 8: 20962–20968.
Crossref Google Scholar
[188]
Kuang DL, Wang L, Guo XZ, et al. Facile hydrothermal synthesis of Ti3C2Tx–TiO2 nanocomposites for gaseous volatile organic compounds detection at room temperature. J Hazard Mater 2021, 416: 126171.
Crossref Google Scholar
[189]
Gu FB, Nie R, Han DM, et al. In2O3–graphene nanocomposite based gas sensor for selective detection of NO2 at room temperature. Sens Actuat B Chem 2015, 219: 94–99.
Crossref Google Scholar
[190]
Wang ZY, Zhang Y, Liu S, et al. Preparation of Ag nanoparticles–SnO2 nanoparticles-reduced graphene oxide hybrids and their application for detection of NO2 at room temperature. Sens Actuat B Chem 2016, 222: 893–903.
Crossref Google Scholar
[191]
Chen FJ, Zhang Y, Wang DY, et al. High performance ammonia gas sensor based on electrospinned Co3O4 nanofibers decorated with hydrothermally synthesized MoTe2 nanoparticles. J Alloy Compd 2022, 923: 166355.
Crossref Google Scholar
[192]
Yan WY, Zhou Q, Chen X, et al. C-doped and N-doped reduced graphene oxide/TiO2 composites with exposed (001) and (101) facets controllably synthesized by a hydrothermal route and their gas sensing characteristics. Sens Actuat B Chem 2016, 230: 761–772.
Crossref Google Scholar
[193]
Gasso S, Mahajan A. Development of highly sensitive and humidity independent room temeprature NO2 gas sensor using two dimensional Ti3C2Tx nanosheets and one dimensional WO3 nanorods nanocomposite. ACS Sens 2022, 7: 2454–2464.
Crossref Google Scholar
[194]
Chen DL, Hou XX, Wen HJ, et al. The enhanced alcohol-sensing response of ultrathin WO3 nanoplates. Nanotechnology 2010, 21: 035501.
Crossref Google Scholar
[195]
Leangtanom P, Wisitsoraat A, Jaruwongrungsee K, et al. Highly sensitive and selective ethylene gas sensors based on CeOx–SnO2 nanocomposites prepared by a co-precipitation method. Mater Chem Phys 2020, 254: 123540.
Crossref Google Scholar
[196]
Cheng PF, Dang F, Wang YL, et al. Gas sensor towards n-butanol at low temperature detection: Hierarchical flower-like Ni-doped Co3O4 based on solvent-dependent synthesis. Sens Actuat B Chem 2021, 328: 129028.
Crossref Google Scholar
[197]
Jayababu N, Poloju M, Shruthi J, et al. Semi shield driven p-n heterostructures and their role in enhancing the room temperature ethanol gas sensing performance of NiO/SnO2 nanocomposites. Ceram Int 2019, 45: 15134–15142.
Crossref Google Scholar
[198]
Kumar U, Hsieh HW, Liu YC, et al. Revealing a highly sensitive sub-ppb-level NO2 gas-sensing capability of novel architecture 2D/0D MoS2/SnS heterostructures with DFT interpretation. ACS Appl Mater Interfaces 2022, 14: 32279–32288.
Crossref Google Scholar
[199]
Kanaparthi S, Govind Singh S. Highly sensitive and ultra-fast responsive ammonia gas sensor based on 2D ZnO nanoflakes. Mater Sci Energy Technol 2020, 3: 91–96.
Crossref Google Scholar
[200]
Adimule V, Revaigh MG, Adarsha HJ. Synthesis and fabrication of Y-doped ZnO nanoparticles and their application as a gas sensor for the detection of ammonia. J Mater Eng Perform 2020, 29: 4586–4596.
Crossref Google Scholar
[201]
Molavi R, Sheikhi MH. Facile wet chemical synthesis of Al doped CuO nanoleaves for carbon monoxide gas sensor applications. Mater Sci Semicond Process 2020, 106: 104767.
Crossref Google Scholar
[202]
Jing ZH, Zhan JH. Fabrication and gas-sensing properties of porous ZnO nanoplates. Adv Mater 2008, 20: 4547–4551.
Crossref Google Scholar
[203]
Zhao CH, Fu JC, Zhang ZX, et al. Enhanced ethanol sensing performance of porous ultrathin NiO nanosheets with neck-connected networks. RSC Adv 2013, 3: 4018–4023.
Crossref Google Scholar
[204]
Choi SY, Kim Y, Chung HS, et al. Effect of Nb doping on chemical sensing performance of two-dimensional layered MoSe2. ACS Appl Mater Interfaces 2017, 9: 3817–3823.
Crossref Google Scholar
[205]
Fan K, Guo J, Cha LM, et al. Atomic layer deposition of ZnO onto Fe2O3 nanoplates for enhanced H2S sensing. J Alloy Compd 2017, 698: 336–340.
Crossref Google Scholar
[206]
Lou CM, Yang C, Zheng W, et al. Atomic layer deposition of ZnO on SnO2 nanospheres for enhanced formaldehyde detection. Sens Actuat B Chem 2021, 329: 129218.
Crossref Google Scholar
[207]
Ko KY, Song JG, Kim Y, et al. Improvement of gas-sensing performance of large-area tungsten disulfide nanosheets by surface functionalization. ACS Nano 2016, 10: 9287–9296.
Crossref Google Scholar
[208]
Pyeon JJ, Baek IH, Song YG, et al. Highly sensitive flexible NO2 sensor composed of vertically aligned 2D SnS2 operating at room temperature. J Mater Chem C 2020, 8: 11874–11881.
Crossref Google Scholar
[209]
Sajjad M, Morell G, Feng P. Advance in novel boron nitride nanosheets to nanoelectronic device applications. ACS Appl Mater Interfaces 2013, 5: 5051–5056.
Crossref Google Scholar
[210]
Bisht P, Kumar A, Jensen IT, et al. Enhanced gas sensing response for 2D α-MoO3 layers: Thickness-dependent changes in defect concentration, surface oxygen adsorption, and metal-metal oxide contact. Sens Actuat B Chem 2021, 341: 129953.
Crossref Google Scholar
[211]
Kumar N, Srivastava AK, Patel HS, et al. Facile synthesis of ZnO–reduced graphene oxide nanocomposites for NO2 gas sensing applications. Eur J Inorg Chem 2015, 2015: 1912–1923.
Crossref Google Scholar
[212]
Guo DM, Cai PJ, Sun J, et al. Reduced-graphene-oxide/metal-oxide p-n heterojunction aerogels as efficient 3D sensing frameworks for phenol detection. Carbon 2016, 99: 571–578.
Crossref Google Scholar
[213]
Long H, Harley-Trochimczyk A, Pham T, et al. High surface area MoS2/graphene hybrid aerogel for ultrasensitive NO2 detection. Adv Funct Mater 2016, 26: 5158–5165.
Crossref Google Scholar
[214]
Suh JM, Lee TH, Hong K, et al. Extremely sensitive and selective NO2 detection at relative humidity 90% in 2-dimensional tin sulfides/SnO2 nanorod heterostructure. Sens Actuat B Chem 2022, 369: 132319.
Crossref Google Scholar
[215]
Baek J, Yin DM, Liu N, et al. A highly sensitive chemical gas detecting transistor based on highly crystalline CVD-grown MoSe2 films. Nano Res 2017, 10: 1861–1871.
Crossref Google Scholar
[216]
Wu YC, Joshi N, Zhao SL, et al. NO2 gas sensors based on CVD tungsten diselenide monolayer. Appl Surf Sci 2020, 529: 147110.
Crossref Google Scholar
[217]
Barone V, Hod O, Scuseria GE. Electronic structure and stability of semiconducting graphene nanoribbons. Nano Lett 2006, 6: 2748–2754.
Crossref Google Scholar
[218]
Ouyang FP, Ni X, Yang ZX, et al. Effects of edge hydrogenation on structural stability, electronic, and magnetic properties of WS2 nanoribbons. J Appl Phys 2013, 114: 213701.
Crossref Google Scholar
[219]
Island JO, Steele GA, van der Zant HSJ, et al. Environmental instability of few-layer black phosphorus. 2D Mater 2015, 2: 011002.
Crossref Google Scholar
[220]
Topsakal M, Aktürk E, Ciraci S. First-principles study of two- and one-dimensional honeycomb structures of boron nitride. Phys Rev B 2009, 79: 115442.
Crossref Google Scholar
[221]
Liz-Marzán LM, Grzelczak M. Growing anisotropic crystals at the nanoscale. Science 2017, 356: 1120–1121.
Crossref Google Scholar
[222]
Huang X, Li SZ, Huang YZ, et al. Synthesis of hexagonal close–packed gold nanostructures. Nat Commun 2011, 2: 292.
Crossref Google Scholar
[223]
Huang XQ, Tang SH, Liu BJ, et al. Enhancing the photothermal stability of plasmonic metal nanoplates by a core–shell architecture. Adv Mater 2011, 23: 3420–3425.
Crossref Google Scholar
[224]
Zhang Q, Ge JP, Pham T, et al. Reconstruction of silver nanoplates by UV irradiation: Tailored optical properties and enhanced stability. Angew Chem Int Ed 2009, 48: 3516–3519.
Crossref Google Scholar
[225]
Tang B, Xu SP, An J, et al. Kinetic effects of halide ions on the morphological evolution of silver nanoplates. Phys Chem Chem Phys 2009, 11: 10286–10292.
Crossref Google Scholar
[226]
Kan CX, Wang GH, Zhu XG, et al. Structure and thermal stability of gold nanoplates. Appl Phys Lett 2006, 88: 071904.
Crossref Google Scholar
[227]
Eda G, Fujita T, Yamaguchi H, et al. Coherent atomic and electronic heterostructures of single-layer MoS2. ACS Nano 2012, 6: 7311–7317.
Crossref Google Scholar
[228]
Chhowalla M, Shin HS, Eda G, et al. The chemistry of two-dimensional layered transition metal dichalcogenide nanosheets. Nat Chem 2013, 5: 263–275.
Crossref Google Scholar
[229]
Joensen P, Frindt RF, Morrison SR. Single-layer MoS2. Mater Res Bull 1986, 21: 457–461.
Crossref Google Scholar
[230]
Wilson JA, Yoffe AD. The transition metal dichalcogenides discussion and interpretation of the observed optical, electrical and structural properties. Adv Phys 1969, 18: 193–335.
Crossref Google Scholar
[231]
Tan SJR, Abdelwahab I, Ding ZJ, et al. Chemical stabilization of 1T’ phase transition metal dichalcogenides with giant optical kerr nonlinearity. J Am Chem Soc 2017, 139: 2504–2511.
Crossref Google Scholar
[232]
Huang X, Li H, Li SZ, et al. Synthesis of gold square-like plates from ultrathin gold square sheets: The evolution of structure phase and shape. Angew Chem Int Ed 2011, 50: 12245–12248.
Crossref Google Scholar
[233]
Xu MS, Liang T, Shi MM, et al. Graphene-like two-dimensional materials. Chem Rev 2013, 113: 3766–3798.
Crossref Google Scholar
[234]
Qian XF, Liu JW, Fu L, et al. Quantum spin Hall effect in two-dimensional transition metal dichalcogenides. Science 2014, 346: 1344–1347.
Crossref Google Scholar
[235]
Duerloo KAN, Li Y, Reed EJ. Structural phase transitions in two-dimensional Mo- and W-dichalcogenide monolayers. Nat Commun 2014, 5: 4214.
Crossref Google Scholar
[236]
Li Y, Duerloo KAN, Wauson K, et al. Structural semiconductor-to-semimetal phase transition in two-dimensional materials induced by electrostatic gating. Nat Commun 2016, 7: 10671.
Crossref Google Scholar
[237]
Hromadová L, Martoňák R, Tosatti E. Structure change, layer sliding, and metallization in high-pressure MoS2. Phys Rev B 2013, 87: 144105.
Crossref Google Scholar
[238]
Feng LP, Wang ZQ, Liu ZT. First-principles calculations on mechanical and elastic properties of 2H- and 3R-WS2 under pressure. Solid State Commun 2014, 187: 43–47.
Crossref Google Scholar
[239]
Chi ZH, Zhao XM, Zhang HD, et al. Pressure-induced metallization of molybdenum disulfide. Phys Rev Lett 2014, 113: 036802.
Crossref Google Scholar
[240]
Liu B, Han YH, Gao CX, et al. Pressure induced semiconductor-semimetal transition in WSe2. J Phys Chem C 2010, 114: 14251–14254.
Crossref Google Scholar
[241]
Endo S, Akahama Y, Terada SI, et al. Growth of large single crystals of black phosphorus under high pressure. Jpn J Appl Phys 1982, 21: L482.
Crossref Google Scholar
[242]
Fujihisa H, Akahama Y, Kawamura H, et al. Incommensurate structure of phosphorus phase IV. Phys Rev Lett 2007, 98: 175501.
Crossref Google Scholar
[243]
Zhu Z, Tománek D. Semiconducting layered blue phosphorus: A computational study. Phys Rev Lett 2014, 112: 176802.
Crossref Google Scholar
[244]
Kang YM, Najmaei S, Liu Z, et al. Plasmonic hot electron induced structural phase transition in a MoS2 monolayer. Adv Mater 2014, 26: 6467–6471.
Crossref Google Scholar
[245]
Enyashin AN, Yadgarov L, Houben L, et al. New route for stabilization of 1T-WS2 and MoS2 phases. J Phys Chem C 2011, 115: 24586–24591.
Crossref Google Scholar
[246]
Cheng YW, Qiu CC, Ma HY, et al. Unusual corrosion process of gold nanoplates and the mechanism study. Nanoscale 2010, 2: 685–688.
Crossref Google Scholar
[247]
Liu LJ, Burnyeat CA, Lepsenyi RS, et al. Mechanism of shape evolution in Ag nanoprisms stabilized by thiol-terminated poly(ethylene glycol): An in situ kinetic study. Chem Mater 2013, 25: 4206–4214.
Crossref Google Scholar
[248]
Xue C, Chen X, Hurst S , et al. Self-assembled monolayer mediated silica coating of silver triangular nanoprisms. Adv Mater 2007, 19: 4071–4074.
Crossref Google Scholar
[249]
Shahjamali MM, Salvador M, Bosman M, et al. Edge-gold-coated silver nanoprisms: Enhanced stability and applications in organic photovoltaics and chemical sensing. J Phys Chem C 2014, 118: 12459–12468.
Crossref Google Scholar
[250]
Gao CB, Lu ZD, Liu Y, et al. Highly stable silver nanoplates for surface plasmon resonance biosensing. Angew Chem Int Ed 2012, 51: 5629–5633.
Crossref Google Scholar
[251]
Wang J, Shen HC, Xia Y, et al. Light-activated room-temperature gas sensors based on metal oxide nanostructures: A review on recent advances. Ceram Int 2021, 47: 7353–7368.
Crossref Google Scholar
[252]
Šutka A, Eglitis R, Kuzma A, et al. Photodoping-inspired room-temperature gas sensing by anatase TiO2 quantum dots. ACS Appl Nano Mater 2021, 4: 2522–2527.
Crossref Google Scholar
[253]
Shi L, Li Q, Ouyang YX, et al. Effect of illumination and Se vacancies on fast oxidation of ultrathin gallium selenide. Nanoscale 2018, 10: 12180–12186.
Crossref Google Scholar
[254]
Son Y, Kozawa D, Liu AT, et al. A study of bilayer phosphorene stability under MoS 2-passivation. 2D Mater 2017, 4: 025091.
Crossref Google Scholar
[255]
Doganov RA, O'Farrell ECT, Koenig SP, et al. Transport properties of pristine few-layer black phosphorus by van der Waals passivation in an inert atmosphere. Nat Commun 2015, 6: 6647.
Crossref Google Scholar
[256]
Wood JD, Wells SA, Jariwala D, et al. Effective passivation of exfoliated black phosphorus transistors against ambient degradation. Nano Lett 2014, 14: 6964–6970.
Crossref Google Scholar
[257]
Kim JS, Liu YN, Zhu WN, et al. Toward air-stable multilayer phosphorene thin-films and transistors. Sci Rep 2015, 5: 8989.
Crossref Google Scholar
[258]
Gillgren N, Wickramaratne D, Shi YM, et al. Gate tunable quantum oscillations in air-stable and high mobility few-layer phosphorene heterostructures. 2D Mater 2014, 2: 011001.
Crossref Google Scholar
[259]
Liu H, Neal AT, Zhu Z, et al. Phosphorene: An unexplored 2D semiconductor with a high hole mobility. ACS Nano 2014, 8: 4033–4041.
Crossref Google Scholar
[260]
Li P, Zhang DZ, Liu JJ, et al. Air-stable black phosphorus devices for ion sensing. ACS Appl Mater Interfaces 2015, 7: 24396–24402.
Crossref Google Scholar
[261]
Sirota B, Glavin N, Krylyuk S, et al. Hexagonal MoTe2 with amorphous BN passivation layer for improved oxidation resistance and endurance of 2D field effect transistors. Sci Rep 2018, 8: 8668.
Crossref Google Scholar
[262]
Ahn S, Kim G, Nayak PK, et al. Prevention of transition metal dichalcogenide photodegradation by encapsulation with h-BN layers. ACS Nano 2016, 10: 8973–8979.
Crossref Google Scholar
[263]
Xi XX, Wang ZF, Zhao WW, et al. Ising pairing in superconducting NbSe2 atomic layers. Nat Phys 2016, 12: 139–143.
Crossref Google Scholar
[264]
Huang B, Clark G, Klein DR, et al. Electrical control of 2D magnetism in bilayer CrI3. Nat Nanotechnol 2018, 13: 544–548.
Crossref Google Scholar
[265]
Miller DL, Chen RT, Elliott K, et al. Molecular-beam-epitaxy GaAs regrowth with clean interfaces by arsenic passivation. J Appl Phys 1985, 57: 1922–1927.
Crossref Google Scholar
[266]
Virwani K, Harrison SE, Pushp A, et al. Controlled removal of amorphous Se capping layer from a topological insulator. Appl Phys Lett 2014, 105: 241605.
Crossref Google Scholar
[267]
Park JH, Vishwanath S, Liu XY, et al. Scanning tunneling microscopy and spectroscopy of air exposure effects on molecular beam epitaxy grown WSe2 monolayers and bilayers. ACS Nano 2016, 10: 4258–4267.
Crossref Google Scholar
[268]
Pei JJ, Gai X, Yang J, et al. Producing air-stable monolayers of phosphorene and their defect engineering. Nat Commun 2016, 7: 10450.
Crossref Google Scholar
[269]
Yue DW, Lee D, Jang YD, et al. Passivated ambipolar black phosphorus transistors. Nanoscale 2016, 8: 12773–12779.
Crossref Google Scholar
[270]
Wang XW, Fan W, Fan ZW, et al. Substrate modified thermal stability of mono- and few-layer MoS2. Nanoscale 2018, 10: 3540–3546.
Crossref Google Scholar
[271]
Kim SY, Kwak J, Kim JH, et al. Substantial improvements of long-term stability in encapsulation-free WS2 using highly interacting graphene substrate. 2D Mater 2016, 4: 011007.
Crossref Google Scholar
[272]
Liu XL, Balla I, Bergeron H, et al. Rotationally commensurate growth of MoS2 on epitaxial graphene. ACS Nano 2016, 10: 1067–1075.
Crossref Google Scholar
[273]
Gusmão R, Sofer Z, Pumera M. Black phosphorus rediscovered: From bulk material to monolayers. Angew Chem Int Ed 2017, 56: 8052–8072.
Crossref Google Scholar
[274]
Chen PF, Li N, Chen XZ, et al. The rising star of 2D black phosphorus beyond graphene: Synthesis, properties and electronic applications. 2D Mater 2017, 5: 014002.
Crossref Google Scholar
[275]
Feng XW, Kulish VV, Wu P, et al. Anomalously enhanced thermal stability of phosphorene via metal adatom doping: An experimental and first-principles study. Nano Res 2016, 9: 2687–2695.
Crossref Google Scholar
[276]
Delamar M, Hitmi R, Pinson J, et al. Covalent modification of carbon surfaces by grafting of functionalized aryl radicals produced from electrochemical reduction of diazonium salts. J Am Chem Soc 1992, 114: 5883–5884.
Crossref Google Scholar
[277]
Ryder CR, Wood JD, Wells SA, et al. Covalent functionalization and passivation of exfoliated black phosphorus via aryl diazonium chemistry. Nat Chem 2016, 8: 597–602.
Crossref Google Scholar
[278]
Sinitskii A, Dimiev A, Corley DA, et al. Kinetics of diazonium functionalization of chemically converted graphene nanoribbons. ACS Nano 2010, 4: 1949–1954.
Crossref Google Scholar
[279]
Grimme S, Mück-Lichtenfeld C, Antony J. Noncovalent interactions between graphene sheets and in multishell (hyper)fullerenes. J Phys Chem C 2007, 111: 11199–11207.
Crossref Google Scholar
[280]
Ryder CR, Wood JD, Wells SA, et al. Chemically tailoring semiconducting two-dimensional transition metal dichalcogenides and black phosphorus. ACS Nano 2016, 10: 3900–3917.
Crossref Google Scholar
[281]
Abellán G, Lloret V, Mundloch U, et al. Noncovalent functionalization of black phosphorus. Angew Chem Int Ed 2016, 55: 14557–14562.
Crossref Google Scholar
[282]
Ballester L, Gil AM, Gutiérrez A, et al. Delocalized TCNQ stacks in nickel and copper tetraazamacrocyclic systems. Inorg Chem 2000, 39: 2837–2842.
Crossref Google Scholar
[283]
Hong S, Shin J, Hong Y, et al. Observation of physisorption in a high-performance FET-type oxygen gas sensor operating at room temperature. Nanoscale 2018, 10: 18019–18027.
Crossref Google Scholar
[284]
Wang PP, Wang D, Zhang ML, et al. ZnO nanosheets/graphene oxide nanocomposites for highly effective acetone vapor detection. Sens Actuat B Chem 2016, 230: 477–484.
Crossref Google Scholar
[285]
Wang T, Guo YL, Wan PB, et al. Flexible transparent electronic gas sensors. Small 2016, 12: 3748–3756.
Crossref Google Scholar
[286]
Lee K, Gatensby R, McEvoy N, et al. High-performance sensors based on molybdenum disulfide thin films. Adv Mater 2013, 25: 6699–6702.
Crossref Google Scholar
[287]
Li H, Wu HQ, Yuan SG, et al. Synthesis and characterization of vertically standing MoS2 nanosheets. Sci Rep 2016, 6: 21171.
Crossref Google Scholar
[288]
Hong S, Wu ML, Hong Y, et al. FET-type gas sensors: A review. Sens Actuat B Chem 2021, 330: 129240.
Crossref Google Scholar
[289]
Singh A, Uddin A, Sudarshan T, et al. Tunable reverse-biased graphene/silicon heterojunction Schottky diode sensor. Small 2014, 10: 1555–1565.
Crossref Google Scholar
[290]
Ren Q, Cao YQ, Arulraj D, et al. Resistive-type hydrogen sensors based on zinc oxide nanostructures. J Electrochem Soc 2020, 167: 067528.
Crossref Google Scholar
[291]
Kim HJ, Lee JH. Highly sensitive and selective gas sensors using p-type oxide semiconductors: Overview. Sens Actuat B Chem 2014, 192: 607–627.
Crossref Google Scholar
[292]
Rai P, Majhi SM, Yu YT, et al. Noble metal@metal oxide semiconductor core@shell nano-architectures as a new platform for gas sensor applications. RSC Adv 2015, 5: 76229–76248.
Crossref Google Scholar
[293]
Balasubramani V, Sureshkumar S, Rao TS, et al. Impedance spectroscopy-based reduced graphene oxide-incorporated ZnO composite sensor for H2S investigations. ACS Omega 2019, 4: 9976–9982.
Crossref Google Scholar
[294]
Zhang J, Liu XH, Neri G, et al. Nanostructured materials for room-temperature gas sensors. Adv Mater 2016, 28: 795–831.
Crossref Google Scholar
[295]
Schedin F, Geim AK, Morozov SV, et al. Detection of individual gas molecules adsorbed on graphene. Nat Mater 2007, 6: 652–655.
Crossref Google Scholar
[296]
Choi YR, Yoon YG, Choi KS, et al. Role of oxygen functional groups in graphene oxide for reversible room-temperature NO2 sensing. Carbon 2015, 91: 178–187.
Crossref Google Scholar
[297]
Zhao SJ, Xue JM, Kang W. Gas adsorption on MoS2 monolayer from first-principles calculations. Chem Phys Lett 2014, 595–596: 35–42.
Crossref Google Scholar
[298]
Chen CC, Aykol M, Chang CC, et al. Graphene-silicon Schottky diodes. Nano Lett 2011, 11: 1863–1867.
Crossref Google Scholar
[299]
Tricoli A, Righettoni M, Teleki A. Semiconductor gas sensors: Dry synthesis and application. Angew Chem Int Ed 2010, 49: 7632–7659.
Crossref Google Scholar
[300]
Nadargi DY, Umar A, Nadargi JD, et al. Gas sensors and factors influencing sensing mechanism with a special focus on MOS sensors. J Mater Sci 2023, 58: 559–582.
Crossref Google Scholar
[301]
Walker JM, Akbar SA, Morris PA. Synergistic effects in gas sensing semiconducting oxide nano-heterostructures: A review. Sens Actuat B Chem 2019, 286: 624–640.
Crossref Google Scholar
[302]
Pasupuleti KS, Nam DJ, Bak NH, et al. Highly sensitive g-C3N4 nanosheets as a potential candidate for the effective detection of NO2 gas via langasite-based surface acoustic wave gas sensor. J Mater Chem C 2022, 10: 160–170.
Crossref Google Scholar
[303]
Faglia G, Ferroni M, Le Dang TT, et al. Vertically coupling ZnO nanorods onto MoS2 flakes for optical gas sensing. Chemosensors 2020, 8: 19.
Crossref Google Scholar
[304]
Duong TTH, Hau HH, Hong LT, et al. PtO2-decorated MoS2 ultrathin nanostructures for enhanced NH3 gas sensing properties. Mater Sci Semicond Process 2022, 151: 106990.
Crossref Google Scholar
[305]
Shah S, Han S, Hussain S, et al. NO2 gas sensing responses of In2O3 nanoparticles decorated on GO nanosheets. Ceram Int 2022, 48: 12291–12298.
Crossref Google Scholar
[306]
Zhang Y, Han S, Wang MY, et al. Electrospun Cu-doped In2O3 hollow nanofibers with enhanced H2S gas sensing performance. J Adv Ceram 2022, 11: 427–442.
Crossref Google Scholar
[307]
Liang ZP, Zhang XZ, Yang J, et al. Facile fabrication of nanoflower-like WO3/WS2 heterojunction for highly sensitive NO2 detection at room temperature. J Hazard Mater 2023, 443: 130316
Crossref Google Scholar
[308]
Liu SW, Wang MY, Ge CX, et al. Enhanced room-temperature NO2 sensing performance of SnO2/Ti3C2 composite with double heterojunctions by controlling co-exposed{221}and{110}facets of SnO2. Sens Actuat B Chem 2022, 365: 131919.
Crossref Google Scholar
[309]
Hwang J, Ejsmont A, Freund R, et al. Controlling the morphology of metal–organic frameworks and porous carbon materials: Metal oxides as primary architecture-directing agents. Chem Soc Rev 2020, 49: 3348–3422.
Crossref Google Scholar
[310]
Zhang J, Wang SR, Xu MJ, et al. Hierarchically porous ZnO architectures for gas sensor application. Cryst Growth Des 2009, 9: 3532–3537.
Crossref Google Scholar
[311]
Meng FL, Hou NN, Ge S, et al. Flower-like hierarchical structures consisting of porous single-crystalline ZnO nanosheets and their gas sensing properties to volatile organic compounds (VOCs). J Alloy Compd 2015, 626: 124–130.
Crossref Google Scholar
[312]
Zhang DD, Fang Z, Wang L, et al. Controllable growth of single-crystalline zinc oxide nanosheets under ambient condition toward ammonia sensing with ultrahigh selectivity and sensitivity. J Adv Ceram 2022, 11: 1187–1195.
Crossref Google Scholar
[313]
Wang MS, Luo Q, Hussain S, et al. Sharply-precipitated spherical assembly of ZnO nanosheets for low temperature H2S gas sensing performances. Mater Sci Semicond Process 2019, 100: 283–289.
Crossref Google Scholar
[314]
Shah S, Hussain S, Qiao GJ, et al. Decorating spherical In2O3 nanoparticles onto ZnO nanosheets for outstanding gas-sensing performances. J Mater Sci Mater Electron 2020, 31: 3924–3933.
Crossref Google Scholar
[315]
Zhang LX, Yin YY. Hierarchically mesoporous SnO2 nanosheets: Hydrothermal synthesis and highly ethanol-sensitive properties operated at low temperature. Sens Actuat B Chem 2013, 185: 594–601.
Crossref Google Scholar
[316]
Gao LP, Cheng ZX, Xiang Q, et al. Porous corundum-type In2O3 nanosheets: Synthesis and NO2 sensing properties. Sens Actuat B Chem 2015, 208: 436–443.
Crossref Google Scholar
[317]
Yu TT, Cheng XL, Zhang XF, et al. Highly sensitive H2S detection sensors at low temperature based on hierarchically structured NiO porous nanowall arrays. J Mater Chem A 2015, 3: 11991–11999.
Crossref Google Scholar
[318]
Choi SJ, Kim ID. Recent developments in 2D nanomaterials for chemiresistive-type gas sensors. Electron Mater Lett 2018, 14: 221–260.
Crossref Google Scholar
[319]
Cho B, Hahm MG, Choi M, et al. Charge-transfer-based gas sensing using atomic-layer MoS2. Sci Rep 2015, 5: 8052.
Crossref Google Scholar
[320]
Li H, Yin ZY, He QY, et al. Fabrication of single- and multilayer MoS2 film-based field-effect transistors for sensing NO at room temperature. Small 2012, 8: 63–67.
Crossref Google Scholar
[321]
Perkins FK, Friedman AL, Cobas E, et al. Chemical vapor sensing with monolayer MoS2. Nano Lett 2013, 13: 668–673.
Crossref Google Scholar
[322]
Jian YY, Hu WW, Zhao ZH, et al. Gas sensors based on chemi-resistive hybrid functional nanomaterials. Nano-Micro Lett 2020, 12: 71.
Crossref Google Scholar
[323]
Ma DW, Ju WW, Li TX, et al. The adsorption of CO and NO on the MoS2 monolayer doped with Au, Pt, Pd, or Ni: A first-principles study. Appl Surf Sci 2016, 383: 98–105.
Crossref Google Scholar
[324]
Niu Y, Jiao WC, Wang RG, et al. Hybrid nanostructures combining graphene–MoS2 quantum dots for gas sensing. J Mater Chem A 2016, 4: 8198–8203.
Crossref Google Scholar
[325]
Sarkar D, Xie XJ, Kang JH, et al. Functionalization of transition metal dichalcogenides with metallic nanoparticles: Implications for doping and gas-sensing. Nano Lett 2015, 15: 2852–2862.
Crossref Google Scholar
[326]
Yan HH, Song P, Zhang S, et al. Facile synthesis, characterization and gas sensing performance of ZnO nanoparticles-coated MoS2 nanosheets. J Alloy Compd 2016, 662: 118–125.
Crossref Google Scholar
[327]
Huo NJ, Yang SX, Wei ZM, et al. Photoresponsive and gas sensing field-effect transistors based on multilayer WS2 nanoflakes. Sci Rep 2014, 4: 5209.
Crossref Google Scholar
[328]
Zhang DZ, Yang ZM, Li P, et al. Flexible self-powered high-performance ammonia sensor based on Au-decorated MoSe2 nanoflowers driven by single layer MoS2-flake piezoelectric nanogenerator. Nano Energy 2019, 65: 103974.
Crossref Google Scholar
[329]
Huo NJ, Yang SX, Wei ZM, et al. Photoresponsive and gas sensing field-effect transistors based on multilayer WS2 nanoflakes. Sci Rep 2014, 4: 5209.
Crossref Google Scholar
[330]
Meng Z, Stolz RM, Mendecki L, et al. Electrically-transduced chemical sensors based on two-dimensional nanomaterials. Chem Rev 2019, 119: 478–598.
Crossref Google Scholar
[331]
Zhou AG, Liu Y, Li SB, et al. From structural ceramics to 2D materials with multi-applications: A review on the development from MAX phases to MXenes. J Adv Ceram 2021, 10: 1194–1242.
Crossref Google Scholar
[332]
Gogotsi Y, Anasori B. The Rise of MXenes. ACS Nano 2019, 13: 8491–8494.
Crossref Google Scholar
[333]
Bhargava Reddy MS, Kailasa S, Marupalli BCG, et al. A family of 2D-MXenes: Synthesis, properties, and gas sensing applications. ACS Sens 2022, 7: 2132–2163.
Crossref Google Scholar
[334]
Khazaei M, Mishra A, Venkataramanan NS, et al. Recent advances in MXenes: From fundamentals to applications. Curr Opin Solid State Mater Sci 2019, 23: 164–178.
Crossref Google Scholar
[335]
Yu XF, Li YC, Cheng JB, et al. Monolayer Ti2CO2: A promising candidate for NH3 sensor or capturer with high sensitivity and selectivity. ACS Appl Mater Interfaces 2015, 7: 13707–13713.
Crossref Google Scholar
[336]
Li L, Cao HH, Liang ZS, et al. First-principles study of Ti-deficient Ti3C2 MXene nanosheets as NH3 gas sensors. ACS Appl Nano Mater 2022, 5: 2470–2475.
Crossref Google Scholar
[337]
Chen WY, Lai SN, Yen CC, et al. Surface functionalization of Ti3C2Tx MXene with highly reliable superhydrophobic protection for volatile organic compounds sensing. ACS Nano 2020, 14: 11490–11501.
Crossref Google Scholar
[338]
Xiao B, Li YC, Yu XF, et al. MXenes: Reusable materials for NH3 sensor or capturer by controlling the charge injection. Sens Actuat B Chem 2016, 235: 103–109.
Crossref Google Scholar
[339]
Wang DY, Zhang DZ, Yang Y, et al. Multifunctional latex/polytetrafluoroethylene-based triboelectric nanogenerator for self-powered organ-like MXene/metal-organic framework-derived CuO nanohybrid ammonia sensor. ACS Nano 2021, 15: 2911–2919.
Crossref Google Scholar
[340]
Collins P, Bradley K, Ishigami M, et al. Extreme oxygen sensitivity of electronic properties of carbon nanotubes. Science 2000, 287: 1801–1804.
Crossref Google Scholar
[341]
Peng Y, Li JH. Ammonia adsorption on graphene and graphene oxide: A first-principles study. Front Environ Sci Eng 2013, 7: 403–411.
Crossref Google Scholar
[342]
Wang T, Huang D, Yang Z, et al. A review on graphene-based gas/vapor sensors with unique properties and potential applications. Nano Micro Lett 2016, 8: 95–119.
Crossref Google Scholar
[343]
Lu GH, Ocola LE, Chen JH. Gas detection using low-temperature reduced graphene oxide sheets. Appl Phys Lett 2009, 94: 083111.
Crossref Google Scholar
[344]
Kim K, Lee HBR, Johnson RW, et al. Selective metal deposition at graphene line defects by atomic layer deposition. Nat Commun 2014, 5: 4781.
Crossref Google Scholar
[345]
Meng FL, Guo Z, Huang XJ. Graphene-based hybrids for chemiresistive gas sensors. Trac Trends Anal Chem 2015, 68: 37–47.
Crossref Google Scholar
[346]
Luo H, Cao YJ, Zhou J, et al. Adsorption of NO2, NH3 on monolayer MoS2 doped with Al, Si, and P: A first-principles study. Chem Phys Lett 2016, 643: 27–33.
Crossref Google Scholar
[347]
Bai SL, Du L, Sun JH, et al. Preparation of reduced graphene oxide/Co3O4 composites and sensing performance to toluene at low temperature. RSC Adv 2016, 6: 60109–60116.
Crossref Google Scholar
[348]
Srivastava V, Jain K. At room temperature graphene/SnO2 is better than MWCNT/SnO2 as NO2 gas sensor. Mater Lett 2016, 169: 28–32.
Crossref Google Scholar
[349]
Jiang ZX, Li J, Aslan H, et al. A high efficiency H2S gas sensor material: Paper like Fe2O3/graphene nanosheets and structural alignment dependency of device efficiency. J Mater Chem A 2014, 2: 6714–6717.
Crossref Google Scholar
[350]
Paolucci V, De Santis J, Ricci V, et al. Bidimensional engineered amorphous a-SnO2 interfaces: Synthesis and gas sensing response to H2S and humidity. ACS Sens 2022, 7: 2058–2068.
Crossref Google Scholar
[351]
Mansha M, Qurashi A, Ullah N, et al. Synthesis of In2O3/graphene heterostructure and their hydrogen gas sensing properties. Ceram Int 2016, 42: 11490–11495.
Crossref Google Scholar
[352]
Liu S, Yu B, Zhang H, et al. Enhancing NO2 gas sensing performances at room temperature based on reduced graphene oxide-ZnO nanoparticles hybrids. Sens Actuat B Chem 2014, 202: 272–278.
Crossref Google Scholar
[353]
Xia Y, Wang J, Xu JL, et al. Confined formation of ultrathin ZnO nanorods/reduced graphene oxide mesoporous nanocomposites for high-performance room-temperature NO2 sensors. ACS Appl Mater Interfaces 2016, 8: 35454–35463.
Crossref Google Scholar
[354]
Van Quang V, Van Dung N, Sy Trong N, et al. Outstanding gas-sensing performance of graphene/SnO2 nanowire Schottky junctions. Appl Phys Lett 2014, 105: 013107.
Crossref Google Scholar
[355]
Kim HY, Lee K, McEvoy N, et al. Chemically modulated graphene diodes. Nano Lett 2013, 13: 2182–2188.
Crossref Google Scholar
[356]
Zhu M, Li XM, Chung S, et al. Photo-induced selective gas detection based on reduced graphene oxide/Si Schottky diode. Carbon 2015, 84: 138–145.
Crossref Google Scholar
[357]
Tang Q, Zhou Z. Graphene-analogous low-dimensional materials. Prog Mater Sci 2013, 58: 1244–1315.
Crossref Google Scholar
[358]
Lin Y, Connell JW. Advances in 2D boron nitride nanostructures: Nanosheets, nanoribbons, nanomeshes, and hybrids with graphene. Nanoscale 2012, 4: 6908–6939.
Crossref Google Scholar
[359]
Harley-Trochimczyk A, Pham T, Chang J, et al. Platinum nanoparticle loading of boron nitride aerogel and its use as a novel material for low-power catalytic gas sensing. Adv Funct Mater 2016, 26: 433–439.
Crossref Google Scholar
[360]
Rohaizad N, Mayorga-Martinez CC, Fojtů M, et al. Two-dimensional materials in biomedical, biosensing and sensing applications. Chem Soc Rev 2021, 50: 619–657.
Crossref Google Scholar
[361]
Yang J, Li Y, Zheng YY, et al. Versatile aerogels for sensors. Small 2019, 15: e1902826.
Crossref Google Scholar
[362]
Wang MY, Li LH, Zhao GH, et al. Influence of the surface decoration of phosphorene with Ag nanoclusters on gas sensing properties. Appl Surf Sci 2020, 504: 144374.
Crossref Google Scholar
[363]
Liu H, Du YC, Deng YX, et al. Semiconducting black phosphorus: Synthesis, transport properties and electronic applications. Chem Soc Rev 2015, 44: 2732–2743.
Crossref Google Scholar
[364]
Wang MY, Xu ZW, Zhang XZ, et al. B-modified phosphorene for N2 fixation: A highly efficient metal-free photocatalyst. Appl Surf Sci 2021, 554: 149614.
Crossref Google Scholar
[365]
Cho SY, Lee YH, Koh HJ, et al. Superior chemical sensing performance of black phosphorus: Comparison with MoS2 and graphene. Adv Mater 2016, 28: 7020–7028.
Crossref Google Scholar
[366]
Kou LZ, Frauenheim T, Chen CF. Phosphorene as a superior gas sensor: Selective adsorption and distinct I–V response. J Phys Chem Lett 2014, 5: 2675–2681.
Crossref Google Scholar
[367]
Cui SM, Pu HH, Wells SA, et al. Ultrahigh sensitivity and layer-dependent sensing performance of phosphorene-based gas sensors. Nat Commun 2015, 6: 8632.
Crossref Google Scholar
[368]
Abbas AN, Liu BL, Chen L, et al. Black phosphorus gas sensors. ACS Nano 2015, 9: 5618–5624.
Crossref Google Scholar
[369]
Donarelli M, Ottaviano L. 2D materials for gas sensing applications: A review on graphene oxide, MoS2, WS2 and phosphorene. Sensors 2018, 18: 3638.
Crossref Google Scholar
[370]
Mahabal MS, Deshpande MD, Hussain T, et al. Sensing characteristics of phosphorene monolayers toward PH3 and AsH3 gases upon the introduction of vacancy defects. J Phys Chem C 2016, 120: 20428–20436.
Crossref Google Scholar
[371]
Comini E, Faglia G, Sberveglieri G, et al. Stable and highly sensitive gas sensors based on semiconducting oxide nanobelts. Appl Phys Lett 2002, 81: 1869–1871.
Crossref Google Scholar
[372]
Kannan PK, Late DJ, Morgan H, et al. Recent developments in 2D layered inorganic nanomaterials for sensing. Nanoscale 2015, 7: 13293–13312.
Crossref Google Scholar
[373]
Korotcenkov G, Cho BK. Engineering approaches for the improvement of conductometric gas sensor parameters. Sens Actuat B Chem 2013, 188: 709–728.
Crossref Google Scholar
[374]
Liu YX, Parisi J, Sun XC, et al. Solid-state gas sensors for high temperature applications-a review. J Mater Chem A 2014, 2: 9919–9943.
Crossref Google Scholar
[375]
Zhang XX, Sun JH, Tang KS, et al. Ultralow detection limit and ultrafast response/recovery of the H2 gas sensor based on Pd-doped rGO/ZnO–SnO2 from hydrothermal synthesis. Microsyst Nanoeng 2022, 8: 67.
Crossref Google Scholar
[376]
Liu BL, Chen L, Liu G, et al. High-performance chemical sensing using Schottky-contacted chemical vapor deposition grown monolayer MoS2 transistors. ACS Nano 2014, 8: 5304–5314.
Crossref Google Scholar
[377]
Basu S, Bhattacharyya P. Recent developments on graphene and graphene oxide based solid state gas sensors. Sens Actuat B Chem 2012, 173: 1–21.
Crossref Google Scholar
[378]
Yavari F, Koratkar N. Graphene-based chemical sensors. J Phys Chem Lett 2012, 3: 1746–1753.
Crossref Google Scholar
[379]
Some S, Xu Y, Kim Y, et al. Highly sensitive and selective gas sensor using hydrophilic and hydrophobic graphenes. Sci Rep 2013, 3: 1868.
Crossref Google Scholar
[380]
Ma R, Bando Y, Zhang L, et al. Layered MnO2 nanobelts: Hydrothermal synthesis and electrochemical measurements. Adv Mater 2004, 16: 918–922.
Crossref Google Scholar
[381]
Kim HW, Na HG, Kwon YJ, et al. Microwave-assisted synthesis of graphene–SnO2 nanocomposites and their applications in gas sensors. ACS Appl Mater Interfaces 2017, 9: 31667–31682.
Crossref Google Scholar
[382]
Fortin E, Sears WM. Photovoltaic effect and optical absorption in MoS2. J Phys Chem Solids 1982, 43: 881–884.
Crossref Google Scholar
[383]
Heilig A, Barsan N, Weimar U, et al. Selectivity enhancement of SnO2 gas sensors: Simultaneous monitoring of resistances and temperatures. Sens Actuat B Chem 1999, 58: 302–309.
Crossref Google Scholar
[384]
Umar A, Ammar HY, Kumar R, et al. Efficient H2 gas sensor based on 2D SnO2 disks: Experimental and theoretical studies. Int J Hydrog Energy 2020, 45: 26388–26401.
Crossref Google Scholar
[385]
Takada T. A new method for gas identification using a single semiconductor sensor. Sens Actuat B Chem 1998, 52: 45–52.
Crossref Google Scholar
[386]
Suematsu K, Oyama T, Mizukami W, et al. Selective detection of toluene using pulse-driven SnO2 micro gas sensors. ACS Appl Electron Mater 2020, 2: 2913–2920.
Crossref Google Scholar
[387]
Wang J, Deng HY, Li X, et al. Visible-light photocatalysis enhanced room-temperature formaldehyde gas sensing by MoS2/rGO hybrids. Sens Actuat B Chem 2020, 304: 127317.
Crossref Google Scholar
[388]
Cavicchi RE, Suehle JS, Kreider KG, et al. Fast temperature programmed sensing for micro-hotplate gas sensors. IEEE Electron Device Lett 1995, 16: 286–288.
Crossref Google Scholar
[389]
Chen GG, Paronyan TM, Pigos EM, et al. Enhanced gas sensing in pristine carbon nanotubes under continuous ultraviolet light illumination. Sci Rep 2012, 2: 343.
Crossref Google Scholar
[390]
Wang MS, Zhu YC, Luo Q, et al. Below-room-temperature solution-grown ZnO porous nanosheet arrays with ppb-level NO2 sensitivity under intermittent UV irradiation. Appl Surf Sci 2021, 566: 150750.
Crossref Google Scholar
[391]
Li WW, Guo JH, Cai L, et al. UV light irradiation enhanced gas sensor selectivity of NO2 and SO2 using rGO functionalized with hollow SnO2 nanofibers. Sens Actuat B Chem 2019, 290: 443–452.
Crossref Google Scholar
[392]
Zhou Y, Gao C, Guo YC. UV assisted ultrasensitive trace NO2 gas sensing based on few-layer MoS2 nanosheet–ZnO nanowire heterojunctions at room temperature. J Mater Chem A 2018, 6: 10286–10296.
Crossref Google Scholar
[393]
Voiculescu I, Zaghloul M, Narasimhan N. Microfabricated chemical preconcentrators for gas-phase microanalytical detection systems. Trac Trends Anal Chem 2008, 27: 327–343.
Crossref Google Scholar
[394]
Kim M, Mitra S. A microfabricated microconcentrator for sensors andgas chromatography. J Chromatogr A 2003, 996: 1–11.
Crossref Google Scholar
[395]
Król S, Zabiegała B, Namieśnik J. Monitoring VOCs in atmospheric air I. On-line gas analyzers. Trac Trends Anal Chem 2010, 29: 1092–1100.
Crossref Google Scholar
[396]
Król S, Zabiegała B, Namieśnik J. Monitoring VOCs in atmospheric air II. Sample collection and preparation. Trac Trends Anal Chem 2010, 29: 1101–1112.
Crossref Google Scholar
[397]
Lu N, Fan SR, Zhao YX, et al. A selective methane gas sensor with printed catalytic films as active filters. Sens Actuat B Chem 2021, 347: 130603.
Crossref Google Scholar
[398]
van den Broek J, Weber IC, Güntner AT, et al. Highly selective gas sensing enabled by filters. Mater Horiz 2021, 8: 661–684.
Crossref Google Scholar
[399]
Weber IC, Güntner AT. Catalytic filters for metal oxide gas sensors. Sens Actuat B Chem 2022, 356: 131346.
Crossref Google Scholar
[400]
Park SY, Kim Y, Kim T, et al. Chemoresistive materials for electronic nose: Progress, perspectives, and challenges. InfoMat 2019, 1: 289–316.
Crossref Google Scholar
[401]
Arroyo P, Meléndez F, Suárez JI, et al. Electronic nose with digital gas sensors connected via bluetooth to a smartphone for air quality measurements. Sensors 2020, 20: 786.
Crossref Google Scholar
[402]
Aronova MA, Chang KS, Takeuchi I, et al. Combinatorial libraries of semiconductor gas sensors as inorganic electronic noses. Appl Phys Lett 2003, 83: 1255–1257.
Crossref Google Scholar
[403]
Seesaard T, Goel N, Kumar M, et al. Advances in gas sensors and electronic nose technologies for agricultural cycle applications. Comput Electron Agric 2022, 193: 106673.
Crossref Google Scholar
[404]
Persaud KC, Wareham P, Pisanelli AM, et al. ‘Electronic nose’—New condition monitoring devices for environmental applications. Chem Senses 2005, 30: i252–i253.
Crossref Google Scholar
[405]
Semancik S, Cavicchi RE, Wheeler MC, et al. Microhotplate platforms for chemical sensor research. Sens Actuat B Chem 2001, 77: 579–591.
Crossref Google Scholar
[406]
Sysoev VV, Strelcov E, Sommer M, et al. Single-nanobelt electronic nose: Engineering and tests of the simplest analytical element. ACS Nano 2010, 4: 4487–4494.
Crossref Google Scholar
[407]
Xu ZW, Song RF, Wang MY, et al. Single atom-doped arsenene as electrocatalyst for reducing nitrogen to ammonia: A DFT study. Phys Chem Chem Phys 2020, 22: 26223–26230.
Crossref Google Scholar
[408]
Chen H, Zhao YF, Shi L, et al. Revealing the relationship between energy level and gas sensing performance in heteroatom-doped semiconducting nanostructures. ACS Appl Mater Interfaces 2018, 10: 29795–29804.
Crossref Google Scholar
[409]
Zhang YQ, Liu YY, Zhou LS, et al. The role of Ce doping in enhancing sensing performance of ZnO-based gas sensor by adjusting the proportion of oxygen species. Sens Actuat B Chem 2018, 273: 991–998.
Crossref Google Scholar
[410]
Dhawale DS, Gujar TP, Lokhande CD. TiO2 nanorods decorated with Pd nanoparticles for enhanced liquefied petroleum gas sensing performance. Anal Chem 2017, 89: 8531–8537.
Crossref Google Scholar
[411]
Patil VL, Vanalakar SA, Tarwal NL, et al. Construction of Cu doped ZnO nanorods by chemical method for Low temperature detection of NO2 gas. Sens Actuat A Phys 2019, 299: 111611.
Crossref Google Scholar
[412]
Sankar Ganesh R, Patil VL, Durgadevi E, et al. Growth of Fe doped ZnO nanoellipsoids for selective NO2 gas sensing application. Chem Phys Lett 2019, 734: 136725.
Crossref Google Scholar
[413]
Chen H, Hu JB, Li GD, et al. Porous Ga–In bimetallic oxide nanofibers with controllable structures for ultrasensitive and selective detection of formaldehyde. ACS Appl Mater Interfaces 2017, 9: 4692–4700.
Crossref Google Scholar
[414]
Wei DD, Jiang WH, Gao HY, et al. Facile synthesis of La-doped In2O3 hollow microspheres and enhanced hydrogen sulfide sensing characteristics. Sens Actuat B Chem 2018, 276: 413–420.
Crossref Google Scholar
[415]
Wang C, Cui XB, Liu JY, et al. Design of superior ethanol gas sensor based on Al-doped NiO nanorod-flowers. ACS Sens 2016, 1: 131–136.
Crossref Google Scholar
[416]
Zhu L, Zeng W, Yang JD, et al. Unique hierarchical Ce-doped NiO microflowers with enhanced gas sensing performance. Mater Lett 2019, 251: 61–64.
Crossref Google Scholar
[417]
Yang S, Liu YL, Chen T, et al. Zn doped MoO3 nanobelts and the enhanced gas sensing properties to ethanol. Appl Surf Sci 2017, 393: 377–384.
Crossref Google Scholar
[418]
Jiang WH, Meng LL, Zhang SF, et al. Design of highly sensitive and selective xylene gas sensor based on Ni-doped MoO3 nano-pompon. Sens Actuat B Chem 2019, 299: 126888.
Crossref Google Scholar
[419]
Zhu KM, Ma SY, Tie Y, et al. Highly sensitive formaldehyde gas sensors based on Y-doped SnO2 hierarchical flower-shaped nanostructures. J Alloy Compd 2019, 792: 938–944.
Crossref Google Scholar
[420]
Wang X, Wang TK, Si GK, et al. Oxygen vacancy defects engineering on Ce-doped α-Fe2O3 gas sensor for reducing gases. Sens Actuat B Chem 2020, 302: 127165.
Crossref Google Scholar
[421]
Xue DP, Wang PT, Zhang ZY, et al. Enhanced methane sensing property of flower-like SnO2 doped by Pt nanoparticles: A combined experimental and first-principle study. Sens Actuat B Chem 2019, 296: 126710.
Crossref Google Scholar
[422]
Liu XH, Ma TT, Xu YS, et al. Rolled-up SnO2 nanomembranes: A new platform for efficient gas sensors. Sens Actuat B Chem 2018, 264: 92–99.
Crossref Google Scholar
[423]
Zhou R, Lin XP, Xue DY, et al. Enhanced H2 gas sensing properties by Pd-loaded urchin-like W18O49 hierarchical nanostructures. Sens Actuat B Chem 2018, 260: 900–907.
Crossref Google Scholar
[424]
Liu B, Xu YM, Li K, et al. Pd-catalyzed reaction-producing intermediate S on a Pd/In2O3 surface: A key to achieve the enhanced CS2-sensing performances. ACS Appl Mater Interfaces 2019, 11: 16838–16846.
Crossref Google Scholar
[425]
Kim JY, Lee JH, Kim JH, et al. Realization of H2S sensing by Pd-functionalized networked CuO nanowires in self-heating mode. Sens Actuat B Chem 2019, 299: 126965.
Crossref Google Scholar
[426]
Wang P, Dong T, Jia CC, et al. Ultraselective acetone-gas sensor based ZnO flowers functionalized by Au nanoparticle loading on certain facet. Sens Actuat B Chem 2019, 288: 1–11.
Crossref Google Scholar
[427]
Zhao SK, Shen YB, Zhou PF, et al. Design of Au@WO3 core–shell structured nanospheres for ppb-level NO2 sensing. Sens Actuat B Chem 2019, 282: 917–926.
Crossref Google Scholar
[428]
Chava RK, Oh SY, Yu YT. Enhanced H2 gas sensing properties of Au@In2O3 core–shell hybrid metal-semiconductor heteronanostructures. CrystEngComm 2016, 18: 3655–3666.
Crossref Google Scholar
[429]
Mohammad-Yousefi S, Rahbarpour S, Ghafoorifard H. Describing the effect of Ag/Au modification on operating temperature and gas sensing properties of thick film SnO2 gas sensors by gas diffusion theory. Mater Chem Phys 2019, 227: 148–156.
Crossref Google Scholar
[430]
Wei Y, Wang XD, Yi GY, et al. Hydrothermal synthesis of Ag modified ZnO nanorods and their enhanced ethanol-sensing properties. Mater Sci Semicond Process 2018, 75: 327–333.
Crossref Google Scholar
[431]
Chen HI, Hsiao CY, Chen WC, et al. Characteristics of a Pt/NiO thin film-based ammonia gas sensor. Sens Actuat B Chem 2018, 256: 962–967.
Crossref Google Scholar
[432]
Cho HJ, Chen VT, Qiao SP, et al. Pt-functionalized PdO nanowires for room temperature hydrogen gas sensors. ACS Sens 2018, 3: 2152–2158.
Crossref Google Scholar
[433]
Zhang SD, Yang MJ, Liang KY, et al. An acetone gas sensor based on nanosized Pt-loaded Fe2O3 nanocubes. Sens Actuat B Chem 2019, 290: 59–67.
Crossref Google Scholar
[434]
Liu B, Cai DP, Liu Y, et al. Improved room-temperature hydrogen sensing performance of directly formed Pd/WO3 nanocomposite. Sens Actuat B Chem 2014, 193: 28–34.
Crossref Google Scholar
[435]
Gao X, Zhang T. An overview: Facet-dependent metal oxide semiconductor gas sensors. Sens Actuat B Chem 2018, 277: 604–633.
Crossref Google Scholar
[436]
Kaneti YV, Zhang ZJ, Yue J, et al. Crystal plane-dependent gas-sensing properties of zinc oxide nanostructures: Experimental and theoretical studies. Phys Chem Chem Phys 2014, 16: 11471–11480.
Crossref Google Scholar
[437]
Han XG, He HZ, Kuang Q, et al. Controlling morphologies and tuning the related properties of nano/microstructured ZnO crystallites. J Phys Chem C 2009, 113: 584–589.
Crossref Google Scholar
[438]
Li ZJ, Li H, Wu ZL, et al. Advances in designs and mechanisms of semiconducting metal oxide nanostructures for high-precision gas sensors operated at room temperature. Mater Horiz 2019, 6: 470–506.
Crossref Google Scholar
[439]
Lee W, Bonyani M, Lee JK, et al. Volatile organic compound sensing properties of MoO3–ZnO core–shell nanorods. Curr Appl Phys 2018, 18: S60–S67.
Crossref Google Scholar
[440]
Chen KQ, Chen SJ, Pi MY, et al. SnO2 nanoparticles/TiO2 nanofibers heterostructures: in situ fabrication and enhanced gas sensing performance. Solid State Electron 2019, 157: 42–47.
Crossref Google Scholar
[441]
Wang Y, Zhou Y, Meng CM, et al. A high-response ethanol gas sensor based on one-dimensional TiO2/V2O5 branched nanoheterostructures. Nanotechnology 2016, 27: 425503.
Crossref Google Scholar
[442]
Ponmudi S, Sivakumar R, Sanjeeviraja C, et al. Tuning the morphology of Cr2O3:CuO (50:50) thin films by RF magnetron sputtering for room temperature sensing application. Appl Surf Sci 2019, 466: 703–714.
Crossref Google Scholar
[443]
Chen KW, Tsai JH, Chen CH. NiO functionalized Co3O4 hetero-nanocomposites with a novel apple-like architecture for CO gas sensing applications. Mater Lett 2019, 255: 126508.
Crossref Google Scholar
[444]
Wang YF, Qu FD, Liu J, et al. Enhanced H2S sensing characteristics of CuO–NiO core–shell microspheres sensors. Sens Actuat B Chem 2015, 209: 515–523.
Crossref Google Scholar
[445]
Zhu L, Zeng W, Yang JD, et al. Fabrication of hierarchical hollow NiO/ZnO microspheres for ethanol sensing property. Mater Lett 2018, 230: 297–299.
Crossref Google Scholar
[446]
Majhi SM, Lee HJ, Choi HN, et al. Construction of novel hybrid PdO–ZnO p–n heterojunction nanostructures as a high-response sensor for acetaldehyde gas. CrystEngComm 2019, 21: 5084–5094.
Crossref Google Scholar
[447]
Xiao XY, Zhou XR, Ma JH, et al. Rational synthesis and gas sensing performance of ordered mesoporous semiconducting WO3/NiO composites. ACS Appl Mater Interfaces 2019, 11: 26268–26276.
Crossref Google Scholar
[448]
Zhang BW, Fu WY, Meng XW, et al. Synthesis of actinomorphic flower-like SnO2 nanorods decorated with CuO nanoparticles and their improved isopropanol sensing properties. Appl Surf Sci 2018, 456: 586–593.
Crossref Google Scholar
[449]
Tao JN, Wang MY, Liu GW, et al. Efficient photocatalytic hydrogen evolution coupled with benzaldehyde production over 0D Cd0.5Zn0.5S/2D Ti3C2 Schottky heterojunction. J Adv Ceram 2022, 11: 1117–1130.
Crossref Google Scholar
[450]
Kumar M, Singh Bhati V, Ranwa S, et al. Pd/ZnO nanorods based sensor for highly selective detection of extremely low concentration hydrogen. Sci Rep 2017, 7: 236.
Crossref Google Scholar
[451]
Liu SW, Wang MY, Liu GW, et al. Enhanced NO2 gas-sensing performance of 2D Ti3C2/TiO2 nanocomposites by in situ formation of Schottky barrier. Appl Surf Sci 2021, 567: 150747.
Crossref Google Scholar
[452]
Huang JR, Tao JN, Liu GW, et al. In situ construction of 1D CdS/2D Nb2CTx MXene Schottky heterojunction for enhanced photocatalytic hydrogen production activity. Appl Surf Sci 2022, 573: 151491.
Crossref Google Scholar
[453]
Liu SW, Wang MY, Ge CX, et al. ZnO/Ti3C2 composite with oxygen vacancies and Schottky barrier for effective detection of ppb-level NO2 at room temperature. Appl Surf Sci 2023, 610: 155440.
Crossref Google Scholar
[454]
Wei TY, Yeh PH, Lu SY, et al. Gigantic enhancement in sensitivity using Schottky contacted nanowire nanosensor. J Am Chem Soc 2009, 131: 17690–17695.
Crossref Google Scholar
[455]
Suehiro J, Imakiire H, Hidaka SI, et al. Schottky-type response of carbon nanotube NO2 gas sensor fabricated onto aluminum electrodes by dielectrophoresis. Sens Actuat B Chem 2006, 114: 943–949.
Crossref Google Scholar
[456]
Skucha K, Fan ZY, Jeon K, et al. Palladium/silicon nanowire Schottky barrier-based hydrogen sensors. Sens Actuat B Chem 2010, 145: 232–238.
Crossref Google Scholar
[457]
Ramgir NS, Sharma PK, Datta N, et al. Room temperature H2S sensor based on Au modified ZnO nanowires. Sens Actuat B Chem 2013, 186: 718–726.
Crossref Google Scholar
Journal of Advanced Ceramics
Volume 12 Issue 12,
December 2023
Pages 2149-2246
DOI: 10.26599/JAC.2023.9220810
Cite this article:
Hassan M, Liu S, Liang Z, et al. Revisiting traditional and modern trends in versatile 2D nanomaterials: Synthetic strategies, structural stability, and gas-sensing fundamentals. Journal of Advanced Ceramics, 2023, 12(12): 2149-2246. https://doi.org/10.26599/JAC.2023.9220810

2668

Views

384

Downloads

27

Crossref

22

Web of Science

26

Scopus

0

CSCD

Altmetrics
Received: 11 July 2023
Revised: 13 September 2023
Accepted: 26 September 2023
Published: 25 December 2023
© The Author(s) 2023.

Open Access This article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made.

The images or other third party material in this article are included in the article’s Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article’s Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder.

To view a copy of this licence, visit http://creativecommons.org/licenses/by/4.0/.
Return