Colorimetric Analysis Utilizing Surface Plasmon Resonance of Nanoparticles

Shiwen Wu, Honogzhi Lu, Yaxin Li, Zhiyang Zhang, Shoufang Xu

Prog Chem ›› 2025, Vol. 37 ›› Issue (3) : 351-382.

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Abbreviation (ISO4): Prog Chem      Editor in chief: Jincai ZHAO

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Prog Chem ›› 2025, Vol. 37 ›› Issue (3) : 351-382. DOI: 10.7536/PC240506
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Colorimetric Analysis Utilizing Surface Plasmon Resonance of Nanoparticles

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Abstract

The plasmon resonance LSPR colorimetric sensing based on noble metal nanoparticles has been widely used in many fields such as environment, food safety, and biomedicine due to its advantages of simple operation and low cost. It plays an important role in the detection of important substances such as organic molecules, inorganic ions, DNA, and proteins. In this paper, the principles and applications of two sensing modes based on typical noble metal nanoparticles such as gold nanoparticles, silver nanoparticles, gold nanorods, triangular silver, and gold@silver are summarized: one is LSPR colorimetric sensing based on aggregation; the second is based on the "non aggregation" LSPR sensing caused by etching and growth. At the same time, the response characteristics of noble metal nanoparticles with different chemical composition, size, morphology and surface properties to different analytes were summarized. Aiming at the selectivity problem in colorimetric sensing applications, the construction and use of colorimetric analysis sensor array are briefly introduced. Finally, the problems faced by LSPR colorimetric sensing of nanoparticles are briefly summarized and the research prospects are prospected. In the future, the potential applications of plasma sensors based on noble metal nanoparticles will be further broadened, which will also contribute to the development of simple, sensitive and real-time colorimetric sensing systems.

Contents

1 Introduction

2 Colorimetric sensing based on aggregation

2.1 Colorimetric sensing based on the aggregation of gold nanoparticles (AuNPs) and silver nanoparticles (AgNPs)

2.2 Colorimetric sensing based on aggregation of gold nanorods

3 Colorimetric sensing based on morphology and particle size regulation of metal nanoparticles

3.1 Colorimetric sensing based on the etching of AuNRs

3.2 Colorimetric sensing based on the etching of gold nanobipyramid

3.3 Colorimetric sensing based on the etching of triangular silver (AgNPRs)

3.4 Colorimetric sensing based on the etching of gold-silver bimetallic nanomaterials

3.5 Colorimetric sensing based on nanoparticle growth

4 Colorimetric sensor array

5 Conclusion and outlook

Key words

plasma resonance / colorimetric analysis / aggregation / etching / growth / colorimetric analysis sensor array

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Shiwen Wu , Honogzhi Lu , Yaxin Li , et al . Colorimetric Analysis Utilizing Surface Plasmon Resonance of Nanoparticles[J]. Progress in Chemistry. 2025, 37(3): 351-382 https://doi.org/10.7536/PC240506

References

[1]
Cui Y Y Zhao J Li H D. Biosensors202313(8): 801.
[2]
Wang W Z You Y Gunasekaran S. Compr. Rev. Food Sci. Food Saf.202120(6): 5829.
[3]
Sadiq Z Safiabadi Tali S H Hajimiri H Al-Kassawneh M Jahanshahi-Anbuhi S. Crit. Rev. Anal. Chem.202454(7): 2209.
[4]
Sanka I Bartkova S Pata P Ernits M Meinberg M M Agu N Aruoja V Smolander O P Scheler O. Anal. Chim. Acta2023, 1272: 341397.
[5]
Llano-Suárez P Sánchez-Visedo A Ortiz-Gómez I Fernández-Argüelles M T Prado M Costa-Fernández J M Soldado A. Biosensors202414(8): 377.
[6]
Rasheed S Haq M A U Ahmad N, Sirajuddin, Hussain D. Food Chem.2023, 429: 136925.
[7]
Placer L Lavilla I Pena-Pereira F Bendicho C. Sens. Actuat. B Chem.2023, 377: 133109.
[8]
Rasheed S Ahmad N Nafady A Anwar Ul Haq M Kanwal T, Mujeeb-ur-Rehman, Hussain D, Sirajuddin, Ali Soomro R. Measurement2025, 239: 115519.
[9]
Elghanian R Storhoff J J Mucic R C Letsinger R L Mirkin C A. Science1997277(5329): 1078.
[10]
Hatamie A Zargar B Jalali A. Talanta2014, 121: 234.
[11]
Soomro R A Nafady A, Sirajuddin, Memon N Sherazi T H Kalwar N H. Talanta2014, 130: 415.
[12]
Cao R Li B X. Chem. Commun.201147(10): 2865.
[13]
Su H C Fan H Ai S Y Wu N Fan H M Bian P C Liu J C. Talanta201185(3): 1338.
[14]
Can K Can Z Y Üzer A Apak R. Talanta2023, 260: 124585.
[15]
Rohani Bastami T Bayat M Paolesse R. Sensors202222(5): 2072.
[16]
Ma S He J Guo M Z Sun X H Zheng M D Wang Y Y. Colloids Surf. A Physicochem. Eng. Aspects2018, 538: 343.
[17]
Chotchuang T Cheewasedtham W Jayeoye T J Rujiralai T. Microchim. Acta2019186(9): 655.
[18]
Mohammadi S Khayatia G. Spectrochim. Acta A Mol. Biomol. Spectrosc.2017, 185: 27.
[19]
Das U Hoque R Biswas R. Appl. Phys. A2023129(5): 328.
[20]
UshaVipinachandran V Rajendran S Ali H Ashokan I Bhunia S K. New J. Chem.202246(29): 14081.
[21]
Ivrigh Z J Fahimi-Kashani N Hormozi-Nezhad M R. Spectrochim. Acta Part A Mol. Biomol. Spectrosc.2017, 187: 143.
[22]
Chen Y C Lee I L Sung Y M Wu S P. Talanta2013, 117: 70.
[23]
Hu M H Huang W H Suo L L Zhou L H Ma L F Zhu H F. Anal. Methods20179(38): 5598.
[24]
Ruíz del Portal-Vázquez P López-Pérez G Prado-Gotor R Román-Hidalgo C Martín-Valero M J. Materials202013(6): 1373.
[25]
Bhamore J R Gul A R Kailasa S K Kim K W Lee J S Park H Park T J. Sens. Actuat. B Chem.2021, 334: 129685.
[26]
Ratnarathorn N Chailapakul O Dungchai W. Talanta2015, 132: 613.
[27]
Zannotti M Piras S Remia L Appignanesi D Giovannetti R. Chemosensors202412(3): 33.
[28]
Rastogi L Dash K Ballal A. Sens. Actuat. B Chem.2017, 248: 124.
[29]
Gong L L Du B B Pan L Liu Q J Yang K H Wang W Zhao H Wu L He Y J. Microchim. Acta2017184(4): 1185.
[30]
Yao Y Tian D M Li H B. ACS Appl. Mater. Interfaces20102(3): 684.
[31]
Mohammadi S Khayatian G. Spectrochim. Acta Part A Mol. Biomol. Spectrosc.2015, 148: 405.
[32]
Fan P F He S Z Cheng J L Hu C C Liu C Yang S Y Liu J Q. Luminescence202136(3): 698.
[33]
Fu K Y Zheng Y Li J Liu Y S Pang B Song X L Xu K Wang J Zhao C. J. Agric. Food Chem.201866(36): 9516.
[34]
Lee J S Han M S Mirkin C A. Angew. Chem. Int. Ed.200746(22): 4093.
[35]
Aulsebrook M L Watkins E Grace M R Graham B Tuck K L. ChemistrySelect20183(7): 2088.
[36]
Ashif Ikbal M D Kang S K Chen X H Gu L C Wang C. ACS Sens.20238(12): 4696.
[37]
Liu D B Qu W S Chen W W Zhang W Wang Z Jiang X Y. Anal. Chem.201082(23): 9606.
[38]
Gao N Huang P C Wu F Y. Spectrochim. Acta A Mol. Biomol. Spectrosc.2018, 192: 174.
[39]
Huang S X Jin Y N Cao G M Tian Y F Xu K L Hou X D. Microchem. J.2018, 141: 258.
[40]
Liu Q J Han P Gong W W Wang H Feng X Y. Microchim. Acta2018185(7): 354.
[41]
Choi Y Ho N H Tung C H. Angew. Chem. Int. Ed.200746(5): 707.
[42]
Shanmugaraj K Sasikumar T Campos C H Ilanchelian M Mangalaraja R V Torres C C. Spectrochim. Acta Part A Mol. Biomol. Spectrosc.2020, 236: 118281.
[43]
Elavarasi M Rajeshwari A Alex S A Nanda Kumar D Chandrasekaran N Mukherjee A. Anal. Methods20146(14): 5161.
[44]
He Z Y Yin H L Chang C C Wang G Q Liang X G. Biosensors202010(11): 167.
[45]
Gan Y Liang T Hu Q W Zhong L J Wang X Y Wan H Wang P. Talanta2020, 208: 120231.
[46]
Li X Y Cheng R J Shi H J Tang B Xiao H S Zhao G H. J. Hazard. Mater.2016, 304: 474.
[47]
Zhou X T Wang L M Shen G Q Zhang D W Xie J L Mamut A Huang W W Zhou S S. Microchim. Acta2018185(7): 355.
[48]
Shahdordizadeh M Yazdian-Robati R Ansari N Ramezani M Abnous K Taghdisi S M. Microchim. Acta2018185(2): 151.
[49]
Sajed S Kolahdouz M Sadeghi M A Razavi S F. ACS Omega20205(42): 27675.
[50]
Li D Wieckowska A Willner I. Angew. Chem. Int. Ed.200847(21): 3927.
[51]
Li L Li B X Qi Y Y Jin Y. Anal. Bioanal. Chem.2009393(8): 2051.
[52]
Wang Y Yang F Yang X R. Biosens. Bioelectron.201025(8): 1994.
[53]
Xiao W Xiao M Fu Q Q Yu S T Shen H C Bian H F Tang Y. Sensors201616(11): 1871.
[54]
António M Ferreira R Vitorino R Daniel-da-Silva A L. Talanta2020, 214: 120868.
[55]
Ham S H Kim E Han H Lee M G Choi Y J Hahn J. Anal. Methods202416(3): 449.
[56]
Wen L N Du X Y Liu T C Meng W Li T Li M J Zhang M. ACS Omega20238(18): 16000.
[57]
Feng J L Shen Q Wu J J Dai Z Y Wang Y. Food Contr.2019, 98: 333.
[58]
Jia J Yan S Lai X X Xu Y Z Liu T Xiang Y H. Food Anal. Methods201811(6): 1668.
[59]
Wang P L Su X O Shi L Yuan Y W. Microchim. Acta2016183(11): 2899.
[60]
Zou L Li X H Lai Y F. Microchem. J.2021, 162: 105858.
[61]
Wang H Wang Y X Jin J Y Yang R H. Anal. Chem.200880(23): 9021.
[62]
Jalalian S H Lavaee P Ramezani M Danesh N M Alibolandi M Abnous K Taghdisi S M. Spectrochim. Acta Part A Mol. Biomol. Spectrosc.2021, 246: 119062.
[63]
Wu Y G Zhan S S Wang L M Zhou P. Anal.2014139(6): 1550.
[64]
Wu Y G Zhan S S Wang F Z He L Zhi W T Zhou P. Chem. Commun.201248(37): 4459.
[65]
Le Thao Nguyen N Park C Y Park J P Kailasa S K Park T J. New J. Chem.201842(14): 11530.
[66]
Wu Y G Liu L Zhan S S Wang F Z Zhou P. Anal.2012137(18): 4171.
[67]
Ulloa-Gomez A M Lucas A Koneru A Barui A Stanciu L. Biosens. Bioelectron.2023, 221: 114419.
[68]
Wen J H Liu Y M Li J W Lin H Zheng Y R Chen Y Fu X L Chen L X. Anal.2020145(7): 2774.
[69]
Li X Y Wu Z T Zhou X D Hu J M. Biosens. Bioelectron.2017, 92: 496.
[70]
Wu S Sheng L N Kou G C Tian R Ye Y L Wang W Y Sun J D Ji J Shao J D Zhang Y Z Sun X L. Biosens. Bioelectron.2024, 249: 116005.
[71]
Sato K Hosokawa K Maeda M. J. Am. Chem. Soc.2003125(27): 8102.
[72]
Kanayama N Takarada T Maeda M. Chem. Commun.201147(7): 2077.
[73]
Kanayama N Takarada T Fujita M Maeda M. Chem.201319(33): 10794.
[74]
Akiyama Y Shikagawa H Kanayama N Takarada T Maeda M. Chem.201420(52): 17420.
[75]
Khan S A Singh A K Senapati D Fan Z Ray P C. Chem. Commun.201147(33): 9444.
[76]
Verma M S Chen P Z Jones L Gu F X. RSC Adv.20144(21): 10660.
[77]
Lin G H Xian L B Zhou X M Wang S Shah Z H Edwards S A Gao Y X. ACS Appl. Mater. Interfaces202012(44): 50152.
[78]
Feng Z Q Jia Y Cui H Y. J. Colloid Interface Sci.2024, 672: 1.
[79]
Krpetić Ž Guerrini L Larmour I A Reglinski J Faulds K Graham D. Small20128(5): 707.
[80]
Godakhindi V S Kang P Y Serre M Revuru N A Zou J M Roner M R Levitz R Kahn J S Randrianalisoa J Qin Z P. ACS Sens.20172(11): 1627.
[81]
Guo L H Xu Y Ferhan A R Chen G N Kim D H. J. Am. Chem. Soc.2013135(33): 12338.
[82]
Wang F F Liu S Z Lin M X Chen X Lin S R Du X Z Li H Ye H B Qiu B Lin Z Y Guo L H Chen G N. Biosens. Bioelectron.2015, 68: 475.
[83]
Chen X Y Ha W Shi Y P. Talanta2019, 194: 475.
[84]
Xiong Y M Li M M Liu H Q Xuan Z H Yang J Liu D B. Nanoscale20179(5): 1811.
[85]
Deng H H Huang K Y Fang Q H Lv Y P He S B Peng H P Xia X H Chen W. Sens. Actuat. B Chem.2020, 311: 127925.
[86]
Peng R F He H B Wang Q Yan X X Yu Q W Qin H X Lei Y Y Luo L Q Feng Y Q. Anal. Chim. Acta2018, 1036: 147.
[87]
Mao L H Wang Q Q Luo Y H Gao Y P. Talanta2021, 222: 121506.
[88]
Deng H H Wu C L Liu A L Li G W Chen W Lin X H. Sens. Actuat. B Chem.2014, 191: 479.
[89]
Liu G Y Zhang R N Huang X D Li L Y Liu N X Wang J Xu D H. Sensors201818(5): 1595.
[90]
Li D X Wang S Wang L Zhang H Hu J D. Anal. Bioanal. Chem.2019411(12): 2645.
[91]
Kumar P Kumar P Manhas S Navani N K. Sens. Actuat. B Chem.2016, 233: 157.
[92]
Arumugam S S Varghese A W Suresh Nair S Lee N Y. Anal. Methods202315(43): 5793.
[93]
Yu H Wang M Cao J She Y X Zhu Y A Ye J M Abd El-Aty A M Hacımüftüoğlu A Wang J Lao S B. Food Chem.2021, 364: 130326.
[94]
Zhang K H Luo M Y Rao H H Liu H L Qiang R B Xue X Li J Y Lu X Q Xue Z H. Chem. Commun.202460(20): 2808.
[95]
Su J Zhou W J Xiang Y Yuan R Chai Y Q. Chem. Commun.201349(69): 7659.
[96]
Wai J L New S Y. RSC Adv.202010(2): 1088.
[97]
Zheng H R Li Y Xu J Y Bie J X Liu X Guo J J Luo Y L Shen F Sun C Y Yu Y L. J. Nanosci. Nanotechnol.201717(2): 853.
[98]
Soni G K Wangoo N Sharma R K. Microchem. J.2024, 199: 109906.
[99]
Liu J W Lu Y. Angew. Chem. Int. Ed.200645(1): 90.
[100]
Liu J Lu Y. Adv. Mater.200618(13): 1667.
[101]
Kanaras A G Wang Z X Bates A D Cosstick R Brust M. Angew. Chem. Int. Ed.200342(2): 191.
[102]
Wei H Li B L Li J Dong S J Wang E K. Nanotechnology200819(9): 095501.
[103]
Wang Z D Lee J H Lu Y. Adv. Mater.200820(17): 3263.
[104]
Memon A G Zhou X H Xing Y P Wang R Y Liu L H Khan M He M. Front. Environ. Sci. Eng.2019, 13: 12.
[105]
Huang Z J Chen J M Luo Z W Wang X Q Duan Y X. Anal. Chem.201991(7): 4806.
[106]
Diao W H Wang G Q Wang L Y Zhang L Ding S S Takarada T Maeda M Liang X G. ACS Appl. Bio Mater.20203(10): 7003.
[107]
Li L Zhang L P Lou T H Chen Z B. Sens. Actuat. B Chem.2017, 252: 663.
[108]
Xi H Y Liu Q Y Chen Z B. Microchim. Acta2018185(2): 88.
[109]
Sun Y F Peng M J Wu A G Zhang Y J. Chem. Commun.202359(81): 12180.
[110]
Li H J Zheng G G Xu L H Su W. Optik2014125(9): 2044.
[111]
Kim F Song J H Yang P D. J. Am. Chem. Soc.2002124(48): 14316.
[112]
Wang Y W Zhou X J Liu Q Jin Y Xu C L Li B X. Gold Bull.202053(3/4): 159.
[113]
Wang L B Zhu Y Y Xu L G Chen W Kuang H Liu L Q Agarwal A Xu C L Kotov N. Angew. Chem. Int. Ed.201049(32): 5472.
[114]
Zhu Y Y Qu C L Kuang H Xu L G Liu L Q Hua Y F Wang L B Xu C L. Biosens. Bioelectron.201126(11): 4387.
[115]
Wang G Q Akiyama Y Kanayama N Takarada T Maeda M. Small201713(44): 1702137.
[116]
Zhang L Zhao C L Zhang Y Wang L Y Wang G Q Kanayama N Takarada T Maeda M Liang X G. Langmuir201935(36): 11710.
[117]
Sudeep P K Shibu Joseph S T Thomas K G. J. Am. Chem. Soc.2005127(18): 6516.
[118]
Liu J M Wang H F Yan X P. Anal.2011136(19): 3904.
[119]
Lu L L Xia Y S. Anal. Chem.201587(16): 8584.
[120]
Selvakannan P R Dumas E Dumur F Péchoux C Beaunier P Etcheberry A Sécheresse F Remita H Mayer C R. J. Colloid Interface Sci.2010349(1): 93.
[121]
Wang Y Li Y F Wang J Sang Y Huang C Z. Chem. Commun.201046(8): 1332.
[122]
Placido T Aragay G Pons J Comparelli R Curri M L Merkoçi A. ACS Appl. Mater. Interfaces20135(3): 1084.
[123]
Chen L Lu L L Wang S F Xia Y S. ACS Sens.20172(6): 781.
[124]
Wang J Zhang P Li J Y Chen L Q Huang C Z Li Y F. Anal.2010135(11): 2826.
[125]
Ge K Liu J M Fang G Z Wang P H Zhang D D Wang S. Sensors201818(7): 2372.
[126]
Cai H H Lin D W Wang J H Yang P H Cai J Y. Sens. Actuat. B Chem.2014, 196: 252.
[127]
Lu M M Su L J Luo Y H Ma X H Duan Z H Zhu D J Xiong Y H. Anal. Methods201911(37): 4829.
[128]
Zhao Y Gui L L Chen Z B. Sens. Actuat. B Chem.2017, 241: 262.
[129]
Kumar V V Anthony S P. Anal. Chim. Acta2014, 842: 57.
[130]
Basiri S Mehdini A Jabbari A. Spectrochim. Acta A Mol. Biomol. Spectrosc.2017, 171: 297.
[131]
Amirjani A Fatmehsari D H. Talanta2018, 176: 242.
[132]
Ma X M He S Qiu B Luo F Guo L H Lin Z Y. ACS Sens.20194(4): 782.
[133]
Zhang Z Y Wang H Chen Z P Wang X Y Choo J Chen L X. Biosens. Bioelectron.2018, 114: 52.
[134]
Shan G Y Zheng S J Chen S P Chen Y W Liu Y C. Colloids Surf. B Biointerfaces2013, 102: 327.
[135]
Zhang Z Y Chen Z P Cheng F B Zhang Y W Chen L X. Biosens. Bioelectron.2016, 89: 932.
[136]
Xiong Y Pei K Wu Y Q Duan H Lai W H Xiong Y H. Sens. Actuat. B Chem.2018, 267: 320.
[137]
Liu Y Lv B J Liu A R Liang G Y Yin L H Pu Y P Wei W Gou S H Liu S Q. Sens. Actuat. B Chem.2018, 265: 675.
[138]
Weng G J Zhao X J Zhao J Li J J Zhu J Zhao J W. Sens. Actuat. B Chem.2019, 299: 126982.
[139]
Liu J M Wang X X Li J Cui M L Lin L P Zhang L H Jiang S L. Talanta2013, 116: 199.
[140]
Zhang Z Y Chen Z P Pan D W Chen L X. Langmuir201531(1): 643.
[141]
Lu S M Zhang X Chen L Yang P. Sens. Actuat. B Chem.2018, 259: 1066.
[142]
Ma X M Zhang H Liu J Zhang H F Hu X Wang Y Li X Xu J G. Sens. Actuat. B Chem.2023, 397: 134658.
[143]
Zhang X Yang Q Lang Y H Jiang X Wu P. Anal. Chem.202092(18): 12400.
[144]
Zhu C X Yang H Cao X W Hong Q Xu Y Wang K Y Shen Y F Liu S Q Zhang Y J. Anal. Chem.202395(44): 16407.
[145]
Zhang J N Chen H Y Liu J Gui J L Liu M L Zhang Y Y Yao S Z. Talanta2023, 258: 124458.
[146]
Zhou J Tian F Y Fu R J Yang Y J Jiao B N He Y. ACS Appl. Nano Mater.20203(9): 9016.
[147]
Jiang C L Lai X D Han F Gao Z J Yang H X Zhao X Pang H J Qiao B Pei H Wu Q. RSC Adv.202313(16): 10503.
[148]
Yin X L Liu Y Q Gu H W Zhang Q Zhang Z W Li H Li P W Zhou Y. Microchem. J.2021, 168: 106411.
[149]
Zhou H Y Peng L J Tian T Zhang W Y Chen G Y Zhang H Yang F Q. Microchim. Acta2022189(11): 420.
[150]
Luo Q Lin Y S Cai Q H Luo F Lin C Y Wang J Qiu B Lin Z Y. Anal.2022147(12): 2749.
[151]
Wu R F Li K Shen C Y Huang J Gao Z Y Tang K R Leng Y M Chen Z B. ACS Appl. Nano Mater.20214(8): 8482.
[152]
Chen Z H Chen C Q Huang H W Luo F Guo L H Zhang L Lin Z Y Chen G N. Anal. Chem.201890(10): 6222.
[153]
Zhang Z Y Chen Z P Qu C L Chen L X. Langmuir201430(12): 3625.
[154]
Chen Z P Zhang Z Y Qu C L Pan D W Chen L X. Anal.2012137(22): 5197.
[155]
Li F M Liu J M Wang X X Lin L P Cai W L Lin X Zeng Y N Li Z M Lin S Q. Sens. Actuat. B Chem.2011155(2): 817.
[156]
Zhang Z Y Chen Z P Chen L X. Langmuir201531(33): 9253.
[157]
Zhang Z Y Chen Z P Cheng F B Zhang Y W Chen L X. Anal.2016141(10): 2955.
[158]
Liu J M Li J Cui M L Lin L P Wang X X Zheng Z Y Zhang L H Jiang S L. Sens. Actuators B Chem.2013, 188: 644.
[159]
Cheng X Huang Y Yuan C Dai K Jiang H Ma J M. Sens. Actuat. B Chem.2019, 282: 838.
[160]
Ding C P Li M Chen W W Chen Z K Guo Z H Ben B X Zhang X H Guo Z Y Huang Y J. Chem. Eng. J.2023, 476: 146689.
[161]
Li J Wei Y Y Liu X P Xu Z R. Sens. Actuat. B Chem.2022, 353: 131139.
[162]
Niu X F Xu D Yang Y H He Y. Anal.2014139(11): 2691.
[163]
Wang S Y Lin Q L Filbrun S L Zhou R J An Q X Yin Y Q Xu W Z Xu D Liu C. Sens. Actuat. B Chem.2021, 328: 129073.
[164]
Rex M Hernandez F E Campiglia A D. Anal. Chem.200678(2): 445.
[165]
Chen Y Y Chang H T Shiang Y C Hung Y L Chiang C K Huang C C. Anal. Chem.200981(22): 9433.
[166]
Lan Y J Lin Y W. Anal. Methods20146(18): 7234.
[167]
Park E J Ha T H. Sensors202424(2): 497.
[168]
Xu S H Jiang L P Liu Y Y Liu P P Wang W Luo X L. Anal. Chim. Acta2019, 1071: 53.
[169]
He Z Zhu J Weng G J Li J J Zhao J W. Nanotechnology202031(33): 335505.
[170]
Luo Q Tian M J Luo F Zhao M Lin C Y Qiu B Wang J Lin Z Y. Anal. Chem.202395(4): 2390.
[171]
Aherne D Ledwith D M Gara M Kelly J M. Adv. Funct. Mater.200818(14): 2005.
[172]
Chen Z B Zhang C M Wu Q Li K Tan L L. Sens. Actuat. B Chem.2015, 220: 314.
[173]
Li Y X Chen M Lu H Z Xu S F. J. Lumin.2024, 275: 120755.
[174]
Wu D Lu H F Xie H Wu J Wang C M Zhang Q L. Sens. Actuat. B Chem.2015, 221: 1433.
[175]
Xia Y S Ye J J Tan K H Wang J J Yang G. Anal. Chem.201385(13): 6241.
[176]
Yoon S J Nam Y S Lee H J Lee Y Lee K B. Sens. Actuat. B Chem.2019, 300: 127045.
[177]
Liang J J Yao C Z Li X Q Wu Z Huang C H Fu Q Q Lan C F Cao D L Tang Y. Biosens. Bioelectron.2015, 69: 128.
[178]
Yang X J Yu Y B Gao Z Q. ACS Nano20148(5): 4902.
[179]
Tan K H Yang G Chen H D Shen P F Huang Y C Xia Y S. Biosens. Bioelectron.2014, 59: 227.
[180]
An J Tang B Zheng X L Zhou J Dong F X Xu S P Wang Y Zhao B Xu W Q. J. Phys. Chem. C2008112(39): 15176.
[181]
Tsai C M Hsu M S Chen J C Huang C-L. J. Phys. Chem. C2012116(1): 461.
[182]
Chen S Tang J Kuang Y F Fu L L Ma F F Yang Y Y Chen G F Long Y F. Sens. Actuat. B Chem.2015, 221: 1182.
[183]
Zhang P Wang L Zeng J Tan J Long Y F Wang Y. Microchim. Acta2020187(2): 107.
[184]
Zhang C H Jiang X K Yu F H Liu Y Yue Q Yang P Liu Y C. Sens. Actuat. B Chem.2021, 344: 130304.
[185]
Zandi A Amjadi M Hallaj T. Food Chem.2022, 369: 130967.
[186]
He M Q Ai Y J Hu W T Jia X M Wu L Ding M Y Liang Q L. Anal. Chem.202395(14): 6130.
[187]
Chen S Y Zheng Y Gong J Y Mo S H Ren Y C Xu J R Lu M S. Int. J. Biol. Macromol.2024, 260: 129626.
[188]
Zhang M Shi X Y Zhang G P Xu C L Li B X. Spectrochim. Acta Part A Mol. Biomol. Spectrosc.2024, 309: 123874.
[189]
Magdy G Aboelkassim E Abd Elhaleem S M Belal F. Microchem. J.2024, 196: 109615.
[190]
Pellas V Hu D Mazouzi Y Mimoun Y Blanchard J Guibert C Salmain M Boujday S. Biosensors202010(10): 146.
[191]
Xue Y X Ma X Y Feng X Roberts S Zhu G Y Huang Y Fan X F Fan J Chen X F. ACS Appl. Nano Mater.20236(13): 11572.
[192]
Yu C D Huang Z Q Ping T Su H Yang Q L Wu W. LWT2023, 184: 115007.
[193]
Zhong Y Yu X Y Fu W Y Chen Y W Shan G Y Liu Y C. Microchim Acta.2019, 186: 802.
[194]
Zhang X H Wei M Lv B J Liu Y J Liu X Wei W. RSC Adv.20166(41): 35001.
[195]
Zeng J B Cao Y Y Chen J J Wang X D Yu J F Yu B B Yan Z F Chen X. Nanoscale20146(17): 9939.
[196]
Li Y R Wang Q R Zhou X M Wen C Y Yu J F Han X G Li X Y Yan Z F Zeng J B. Sens. Actuat. B Chem.2016, 228: 366.
[197]
Lu M J Fu X J Xie H H Liu M Wei P Zhang W D Xie Y H Qi Y. J. Food Compos. Anal.2023, 120: 105363.
[198]
Qi Y Zhao J Weng G J Li J J Zhu J Zhao J W. Sens. Actuat. B Chem.2018, 267: 181.
[199]
Liu S S Wang X F Zou C Y Zhou J Yang M Zhang S Y Huo D Q Hou C J. Anal. Chim. Acta2021, 1149: 238141.
[200]
Weng G J Shen X Li J J Wang J Y Zhu J Zhao J W. Anal. Chim. Acta2022, 1221: 340129.
[201]
Yang R Song D Wang C W Zhu A N Xiao R Liu J Q Long F. RSC Adv.20155(124): 102542.
[202]
Zhu J Zhao B Z Qi Y Li J J Li X Zhao J W. Sens. Actuat. B Chem.2018, 255: 2927.
[203]
Zeng J B Cao Y Y Lu C H Wang X D Wang Q R Wen C Y Qu J B Yuan C G Yan Z F Chen X. Anal. Chim. Acta2015, 891: 269.
[204]
Qi Y Zhu J Li J J Zhao J W. Sens. Actuat. B Chem.2017, 253: 612.
[205]
Wang X K Chen L Chen L X. Microchim. Acta2014181(1/2): 105.
[206]
Liang X Y Du X Liu A Cai Z X Li J W Zhang M S Wang Q X Zeng J B. Chin. Chem. Lett.202334(3): 107491.
[207]
Cao J F Ouyang M Xu C Li H C Chen Z H Chen L Xu D. Sens. Actuat. B Chem.2024, 410: 135635.
[208]
Radhakumary C Sreenivasan K. Anal.2012137(22): 5387.
[209]
Hajizadeh S Farhadi K Forough M Sabzi R E. Anal. Methods20113(11): 2599.
[210]
Aliakbarpour S Amjadi M Hallaj T. Food Chem.2024, 432: 137273.
[211]
Xiang Y J Wu X C Liu D F Li Z Y Chu W G Feng L L Zhang K Zhou W Y Xie S S. Langmuir200824(7): 3465.
[212]
Wang G Q Chen Z P Chen L X. Nanoscale20113(4): 1756.
[213]
Fu H J Luo L Wang Y Wang C L Wang H Shen Y D Lei H T Hildebrandt N Xu Z L. ACS Appl. Nano Mater.20225(9): 12915.
[214]
Wu C L Xu Q H. Langmuir200925(16): 9441.
[215]
Wang C Ma Z Wang T Su Z. Adv. Funct. Mater.200616(13): 1673.
[216]
Pellas V Sallem F Blanchard J Miche A Concheso S M Méthivier C Salmain M Boujday S. Talanta2023, 255: 124245.
[217]
Pellas V Blanchard J Guibert C Krafft J M Miche A Salmain M Boujday S. ACS Appl. Nano Mater.20214(9): 9842.
[218]
Xu S H Ouyang W J Xie P S Lin Y Qiu B Lin Z Y Chen G N Guo L H. Anal. Chem.201789(3): 1617.
[219]
Zhang Q T Yu Y Y Yun X J Luo B Jiang H R Chen C Z Wang S F Min D Y. ACS Appl. Nano Mater.20203(6): 5212.
[220]
Orouji A Ghasemi F Hormozi-Nezhad M R. Anal. Chem.202395(26): 10110.
[221]
Guo Y H Wu J Li J Ju H X. Biosens. Bioelectron.2016, 78: 267.
[222]
Lin T R Wu Y R Li Z H Song Z P Guo L Q Fu F F. Anal. Chem.201688(22): 11022.
[223]
Xianyu Y L Sun J S Li Y X Tian Y Wang Z Jiang X Y. Nanoscale20135(14): 6303.
[224]
Duan W Liu A Li Q Li Z W Wen C Y Cai Z X Tang S M Li X Y Zeng J B. Anal.2019144(15): 4582.
[225]
Hu H Xia J Ding N S Xiong Y H Xing K Y Fang B L Huo X Lai W H. J. Hazard. Mater.2022, 431: 128498.
[226]
Wang Z W Li X T Zhang F Gao Y Cheng J T Fu F F. Anal. Chem.202395(27): 10438.
[227]
Wang Z W Chen Q Zhong Y Y Yu X H Wu Y N Fu F F. Anal. Chem.202092(1): 1534.
[228]
Liang D W Wang Y W Ma L R Liu Y L Fu R J Liu H R Peng Y L Zhang Y H Wang C Q Jiao B N He Y. ACS Appl. Nano Mater.20225(11): 16978.
[229]
Li B Y Li X Z Dong Y H Wang B Li D Y Shi Y M Wu Y Y. Anal. Chem.201789(20): 10639.
[230]
Zhao T Liang X C Guo X J Yang X J Guo J L Zhou X Huang X Q Zhang W Q Wang Y Q Liu Z W Jiang Z J Zhou H K Zhou H B. Food Chem.2023, 404: 134768.
[231]
Keshavarzi P Abbasi-Moayed S Khodabakhsh M Unal U Hormozi-Nezhad M R. Talanta2023, 259: 124528.
[232]
Zhou Y Huang W He Y. Sens. Actuat. B Chem.2018, 270: 187.
[233]
Wenck C Leopoldt D Habib M Hegermann J Stiesch M Doll-Nikutta K Heisterkamp A Torres-Mapa M L. Nanoscale Adv.20246(5): 1447.
[234]
Verma M S Chen P Z Jones L X Gu F X. Biosens. Bioelectron.2014, 61: 386.
[235]
Abbasi-Moayed S Orouji A Hormozi-Nezhad M R. Biosensors202313(8): 803.

Funding

National Natural Science Foundation of China(21777065)
Youth Innovation Project for Colleges of Shandong Province(2019KJA021)
Natural Science Foundation of Shandong Province(ZR2020KE002)

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