MA Ya-xing,GU Meng-jie,LI Xu-dong,SHEN Xian-tao.Progress in Microfluidic Paper-based Analytical Devices of Sample Pre-preparation Methods[J].Journal of Instrumental Analysis,2025,44(01):91-98.
MA Ya-xing,GU Meng-jie,LI Xu-dong,SHEN Xian-tao.Progress in Microfluidic Paper-based Analytical Devices of Sample Pre-preparation Methods[J].Journal of Instrumental Analysis,2025,44(01):91-98. DOI: 10.12452/j.fxcsxb.240930431.
Progress in Microfluidic Paper-based Analytical Devices of Sample Pre-preparation Methods
Microfluidic paper-based analytical devices(μPADs) are straightforward,portable testing platforms based on paper materials that demonstrate significant potential for applications in domains such as clinical diagnosis,food quality control,and environmental monitoring. As a rapid detection platform,μPADs need to complete the sample pre-treatment process in addition to the rapid quantification of the target. In recent years,scientists have developed a variety of sample pre-treatment methods based on paper-based chips for the analysis of targets in different samples. Due to the strong compatibility of paper,enhancing the sample pre-treatment function of paper-based chips and linking them with various rapid detection methods can greatly expand the application areas of μPADs. This paper presents a summary of the sample pretreatment methods that including the paper-based chips with self-driving and the paper-based chips with external driving combined self-driving. It also outlines the research progress of paper-based chips in target analytes separation and enrichment,and discusses the advantages and limitations of various paper-based chips pre-treatment methods. Furthermore,this paper looks at the direction of μPADs,which need to be developed commercially to meet the testing needs of various industries,in addition to continuously improving sample preprocessing capabilities to expand their application in sample preparation.
Nguyen M P,Kelly S P,Wydallis J B,Henry C S. Anal. Chim. Acta,2020,1100:156-162.
Mako T L,Levenson A M,Levine M. ACS Sens.,2020,5(4):1207-1215.
Carrell C S,Wydallis R M,Bontha M,Boehle K E,Beveridge J R,Geiss B J,Henry C S. RSC Adv.,2019,9(50):29078-29086.
Srisa-Art M,Boehle K E,Geiss B J,Henry C S. Anal. Chem.,2018,90(1):1035-1043.
Teengam P,Siangproh W,Tontisirin S,Jiraseree-Amornkun A,Chuaypen N,Tangkijvanich P,Henry C S,Ngamrojanavanich N,Chailapakul O. Sens. Actuators B,2021,326:128825.
Liu D,Ju C H,Han C,Shi R,Chen X H,Duan D M,Yan J H,Yan X Y. Biosens. Bioelectron.,2021,173:112817.
Noviana E,Ozer T,Carrell C S,Link J S,McMahon C,Jang I,Henry C S. Chem. Rev.,2021,121(19):11835-11885.
Yu L,Shi Z Z. Lab Chip,2015,15(7):1642-1645.
Asano H,Shiraishi Y. Anal. Chim. Acta,2015,883:55-60.
Carrilho E,Martinez A W,Whitesides G M. Anal. Chem.,2009,81:7091-7095.
Espinosa A,Diaz J,Vazquez E,Acosta L,Santiago A,Cunci L. Talanta Open,2022,6:100142.
Renault C,Koehne J,Ricco A J,Crooks R M. Langmuir,2014,30:7030-7036.
Raj N,Breedveld V,Hess D W. Lab Chip,2019,19(19):3337-3343.
Li X,Tian J F,Nguyen T,Shen W. Anal. Chem.,2008,80:9131-9134.
Deng Y F,Li Q Z,Zhou Y H,Qian J. ACS Appl. Mater. Interfaces,2021,13:57084-57091.
Maejima K,Tomikawa S,Suzuki K,Citterio D. RSC Adv.,2013,3:9258-9263.
Olkkonen J,Lehtinen K,Erho T. Anal. Chem.,2010,82:10246-10250.
Costa-Rama E,Fernández-Abedul M T. Biosensors(Basel),2021,11(2):51.
Curto V F,Lopez-Ruiz N,Capitan-Vallvey L F,Palma A J,Benito-Lopez F,Diamond D. RSC Adv.,2013,3:18811-18816.
Dornelas K L,Dossi N,Piccin E. Anal. Chim. Acta,2015,858:82-90.
Sun H,Li W B,Dong Z Z,Hu C,Leung C H,Ma D L,Ren K G. Biosens. Bioelectron.,2018,99:361-367.
Cai L F,Xu C X,Lin S H,Luo J T,Wu M D,Yang F. Biomicrofluidics,2014,8(5):056504.
Phillips E A,Shen R,Zhao S,Linnes J C. Lab Chip,2016,16(21):4230-4236.
Zhao Y,Zhang P P,Wang J,Zhou L,Yang R F. Biosens. Bioelectron.,2020,152:112037.
Kishnani V,Park S,Nakate U T,Mondal K,Gupta A. Biomed. Microdevices,2021,24(1):2.
Mou L,Jiang X Y. Adv. Healthcare Mater.,2017,6:1601403.
Fu L M,Wang Y N. Trends Anal. Chem.,2018,107:196-211.
Lam T,Devadhasan J P,Howse R. Sci. Rep.,2017,7(1):1188.
Liang S J,Mao J K,Gong C,Yu D D,Zhou J G. Chin. J. Anal. Chem.(梁斯佳,毛基锴,龚晨,于东冬,周建光.分析化学),2019,47(12):1878-1886.
Cui R Y,Li M N,Fang T,Yuan C,Yan D P. Chem. Edu.(崔若宇,李美娜,方婷,袁晨,闫东鹏. 化学教育),2018,39(4):22-24.
Hao G Y,Tian H Y,Zhang Z,Qin X X,Yang T,Yuan L,Yang X B. Microchem. J.,2023,190:108674.
Yuan M,Li C,Zheng Y Z,Cao H,Ye T,Wu X X,Hao L L,Yin F Q,Yu J S,Xu F. Talanta,2024,266(Pt 2):125112.
Liu H,Crooks R M. J. Am. Chem. Soc.,2011,133:17564-17566.
Chinnadayyala S R,Park J,Le H T N,Santhosh M,Kadam A N,Cho S. Biosens. Bioelectron.,2019,126:68-81.
Sun X G,Li B W,Qi A J,Tian C G,Han J L,Shi Y J,Lin B C,Chen L X. Talanta,2018,178:426-431.
Weng X,Ahmed S R,Neethirajan S. Sens. Actuators B,2018,265:242-248.
Govindarajan A V,Ramachandran S,Vigil G D,Yager P,Böhringer K F. Lab Chip,2012,12(1):174-181.
Hoppmann E P,Wei W Y,White I M. IEEE J. Sel. Top. Quantum Electron.,2013,20(3):195-204.
Zhao Y F,Pan X X,Zhang L R,Xu Y Y,Li C H,Wang J D,Ou J Y,Xiu X W,Man B Y,Yang C. RSC Adv.,2017,7(58):36516-36524.
Yang X,Forouzan O,Brown T P,Shevkoplyas S S. Lab Chip,2012,12(2):274-280.
Chiu R Y,Jue E,Yip A T,Berg A R,Wang S J,Kivnick A R,Nguyen P T,Kamei D T. Lab Chip,2014,14(16):3021-3028.
Xu Y Y,Man P H,Huo Y Y,Ning T Y,Li C H,Man B Y,Yang C. Sens. Actuators B,2018,265:302-309.
Yi L L,Zhang J,Wu J D,Zhuang Y,Song Q,Zhao L,Liang M H,Li G Q,Hu B,Yin P J,Castel H,Maciuk A,Figadere B. Biosens. Bioelectron.,2024,264:116665.
Huang Z F,Nagpal A,Siddhanta S,Barman I. J. Raman Spectrosc.,2018,49(9):1552-1558.
Cao R,Pan Z R,Tang H,Wu J,Tian J F,Nilghaz A,Li M. Chem. Eng. J.,2020,391:123522.
Wong S Y,Cabodi M,Rolland J,Klapperich C M. Anal. Chem.,2014,86(24):11981-11985.
Syms R. Biomicrofluidics,2017,11(4):044116.
Chaiyo S,Siangproh W,Apilux A,Chailapakul O. Anal. Chim. Acta,2015,866:75-83.
Duy Vu T,Thang Nguyen D,Yen Thi Nguyen H,Hoang Do H,Duc Pham T,Thanh Le S,Ngoc Vu L. Spectrochim. Acta A,2024,313:124137.
López Marzo A M,Pons J,Blake D A,Merkoçi A. Anal. Chem.,2013,85(7):3532-3538.
Rohrman B,Richards-Kortum R. Anal. Chem.,2015,87(3):1963-1967.
Liu W,Guo Y M,Zhao M,Li H F,Zhang Z J. Anal. Chem.,2015,87(15):7951-7957.
SenGupta S,Parent C A,Bear J E. Nat. Rev. Mol. Cell Biol.,2021,22(8):529-547.
Walsh D I,Lalli M L,Kassas J M,Asthagiri A R,Murthy S K. Anal. Chem.,2015,87(11):5505-5510.
Mosadegh B,Lockett M R,Minn K T,Simon K A,Gilbert K,Hillier S,Newsome D,Li H,Hall A B,Boucher D M,Eustace B K,Whitesides G M. Biomaterials,2015,52:262-271.
Guo S,Xu J,Estell A P,Ivory C F,Du D,Lin Y H,Dong W J. Biosens. Bioelectron.,2020,164:112292.
Moghadam B Y,Connelly K T,Posner J D. Anal. Chem.,2014,86(12):5829-5837.
Rosenfeld T,Bercovici M. Lab Chip,2014,14(23):4465-4474.
Yu S Y,Yan C F,Hu X Q,He B Q,Jiang Y,He Q H. Anal. Bioanal. Chem.,2019,411(21):5415-5422.
Mendes G M,d'Orlye F,Trapiella-Alfonso L,Duarte G R M,Varenne A. J. Chromatogr. A,2024,1732:465222.
Zhang X M,Yao J R,Gong X N,Sun J F,Wang R H,Wang L,Liu L Y,Huang Y Z. Food Chem.,2024,434:137416.
Ren W,Ji B,Kuang Z,Fang F,Guo X L,Wu Z Y. Microchem. J.,2023,187:108380.
Gong M M,Zhang P,MacDonald B D,Sinton D. Anal. Chem.,2014,86(16):8090-8097.
Gong M M,Nosrati R,San Gabriel M C,Zini A,Sinton D. J. Am. Chem. Soc.,2015,137(43):13913-13919.
Pedersen-Bjergaard S,Rasmussen K E. J. Chromatogr. A,2006,1109(2):183-190.
Alidoust M,Yamini Y,Baharfar M. Anal. Chim. Acta,2022,1216:339987.
Alahmad W,Varanusupakul P,Kaneta T,Varanusupakul P. Anal. Chim. Acta,2019,1085:98-106.
Ma Y X,Luo Y Y,Feng X R,Huang C X,Shen X T. Talanta,2023,254:124167.
Ma Y X,Chen L,Luo Y,Huang C X,Shen X T. J. Hazard. Mater.,2024,477:135249.
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