天津科技大学化工与材料学院
纸质出版:2023
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王玄烨, 禚文瀚, 崔悦悦, 等. 基于微流控芯片技术的无创血糖监测综述[J]. 传感器与微系统, 2023,(11):6-10.
王玄烨, 禚文瀚, 崔悦悦, 等. 基于微流控芯片技术的无创血糖监测综述[J]. 传感器与微系统, 2023,(11):6-10. DOI: 10.13873/J.1000-9787(2023)11-0006-05.
近几年微流控芯片技术正逐步发展,在生物医学、化学分析、药物筛选等多个领域中具有较大的潜力。目前在血糖监测方面微流控芯片凭借其高通量、低消耗、快分析等特点得以应用。通过与不同技术集成,实现无创效果,还可与智能设备连接使得日常血糖管理更加简便。综述将从微流控芯片关键技术、在血糖监测上的应用以及相关产品研发现状3个方面对微流控芯片技术原理、集成方法、监测特点及研究进展进行总结,并展望未来的发展趋势。
可穿戴式多生理参数监测设备研制[J]. 李红利;王允;修春波;马利祥.传感器与微系统,2022(11)
基于微流控芯片构建复合力学刺激细胞反应器[J]. 敬灵芝;范苏娜;姚响;张耀鹏.传感器与微系统,2022(08)
基因检测微流控芯片的研究、应用与发展[J]. 刘宇;GIUSEPPINA SIMONE.传感器与微系统,2022(07)
Current development in wearable glucose meters[J]. Qiuyuan Chen;Yan Zhao;Yunqi Liu.Chinese Chemical Letters,2021(12)
医用微流控芯片研究进展[J]. 周钱;郭茂泽;郑青松;高兵兵.中国科学:化学,2022(01)
PMMA微流控芯片最佳注射成型工艺的实验研究[J]. 马秀清;孙凯欣;李瑞;张亚军;范一强.中国塑料,2021(04)
活体监测植物葡萄糖的微型传感器研究[J]. 杨磊;陈达;王成;李爱学.传感器与微系统,2021(03)
基于能量守恒与光谱法的无创血糖检测技术[J]. 陈健;王太宏;段小川.半导体光电,2020(05)
分选循环肿瘤细胞的微流控芯片及临床应用研究[J]. 王艳敏;王浩;金鎏;贾春平;张森;赵建龙.传感器与微系统,2020(08)
基于微流控芯片的纤维蛋白原检测技术与实验研究[J]. 李默;张思祥;周围;竭霞;王哲;朱华波.传感器与微系统,2020(04)
基于CNT/aPDMS柔性干电极的可穿戴电生理信号采集系统[J]. 杨汉嘉;赵楠;高鲲鹏;廖璐璐;刘景全.传感器与微系统,2020(01)
连续血糖检测技术研究进展[J]. 方旭超;张培茗;饶兰;严鑫能.传感器与微系统,2019(08)
基于微球均匀排布的外泌体检测微流控芯片[J]. 王志硕;王琨;毛红菊.传感器与微系统,2019(08)
基于石墨烯晶体管的多巴胺检测微流控芯片[J]. 朱红伟;王昊;张中卫;王国东;张影;石峰.传感器与微系统,2019(03)
Magnetic digital microfluidic manipulation with mobile surface energy traps capable of releasable droplet dispensing[J]. Hu Xuyang;Zhang Yi;Yang Jing;Xiao Kai;Guo Jinhong;Zhang Xiaosheng.Sensors and Actuators: B. Chemical,2023
Nanomaterials integrated with microfluidic paper-based analytical devices for enzyme-free glucose quantification[J]. Khachornsakkul Kawin;Rybicki Frank John;Sonkusale Sameer.Talanta,2023
Fabrication and performance of nickel-based composite mold inserts for micro-injection molding[J]. Wang Yilei;Weng Can;Deng Zijian;Sun Huijie;Jiang Bingyan.Applied Surface Science,2023
Non-invasive monitoring of biochemicals in hydrogel-assisted microfluidic chips.[J]. Zhao Na;Yu Zehua;Huang Jun;Liu Yuxi;Zhao Yifan;Fu Xiangqian;Yang Peihua;Liu Kang.Nanoscale,2023
3D printed microfluidics: advances in strategies, integration, and applications.[J]. Su Ruitao;Wang Fujun;McAlpine Michael C.Lab on a chip,2023
A simple yet multifunctional sensing platform inspired by healing-assembly hydrogels serving motion and sweat monitoring[J]. Hu Yue;Li Jiangwei;Liu Jiang;Yu Xinge;Yang Jiao;Li Yingchun.Sensors and Actuators: B. Chemical,2023
Microfluidic Chip with Fiber-Tip Sensors for Synchronously Monitoring Concentration and Temperature of Glucose Solutions[J]. Qu Jian;Liu Yi;Li Yan;Li Jinjian;Meng Songhe.Sensors,2023
Wearable, nanofiber-based microfluidic systems with integrated electrochemical and colorimetric sensing arrays for multiplex sweat analysis[J]. Mei Xuecui;Yang Jiao;Liu Jiang;Li Yingchun.Chemical Engineering Journal,2023
Foldable paper microfluidic device based on single iron site-containing hydrogel nanozyme for efficient glucose biosensing[J]. Nguyen Quynh Huong;Lee Dong Hoon;Nguyen Phuong Thy;Le Phan Gia;Kim Moon Il.Chemical Engineering Journal,2023
Advances in wearable flexible electrochemical sensors for sweat monitoring: A mini-review[J]. Xu Liping;Zhou Zhibo;Fan Mengdi;Fang Xin.International Journal of Electrochemical Science,2023
A facile integrated microfluidic chip based on Chitosan-Gold Nanoparticles-Anchored Three-Dimensional graphene fiber film for monitoring prostate specific antigen[J]. Zhang Qing;Ma Shangshang;Zhang Keying;Zhang Li;Liu Chao;Shi Hongwei;Wang Cong;Wang Nuonan;Zhu Anqi.Microchemical Journal,2023
A new generation of sensors for non-invasive blood glucose monitoring.[J]. Wu Juncen;Liu Yuqing;Yin Hao;Guo Meng.American journal of translational research,2023
Wearable Healthcare Monitoring Based on a Microfluidic Electrochemical Integrated Device for Sensing Glucose in Natural Sweat[J]. Noura Zouaghi;Shah Imran;Aziz Shahid;Ahmed Aamouche;Jung DongWon;Brahim Lakssir;ElMostafa Ressami.Sensors,2022
A reinforced PDMS mold for hot embossing of cyclic olefin polymer in the fabrication of microfluidic chips.[J]. Qin Yuling;Kreutz Jason E;Schneider Thomas;Yen Gloria S;Shah Eleanor S;Wu Li;Chiu Daniel T.Lab on a chip,2022
A novel photoelectrochemical microfluidic chip for multi-index determination of diabetes and its complications.[J]. Li Jiangwei;Yang Yuxuan;Peng Zhengchun;Yang Jiao;Li Yingchun.Biosensors & bioelectronics,2022
A review of microfluidic-based mixing methods[J]. Li Zhenghua;Zhang Baoliang;Dang Dan;Yang Xieliu;Yang Wenguang;Liang Wenfeng.Sensors and Actuators: A. Physical,2022
Label-free multi-step microfluidic device for mechanical characterization of blood cells: Diabetes type II[J]. Pinho Diana;Faustino Vera;Catarino Susana O.;Pereira Ana I.;Minas Graça;Pinho Fernando T.;Lima Rui.Micro and Nano Engineering,2022
Wearable hydrogel patch with noninvasive, electrochemical glucose sensor for natural sweat detection[J]. Lin Pei-Heng;Sheu Sian-Chen;Chen Chien-Wei;Huang Sheng-Cih;Li Bor-Ran.Talanta,2022
Recent advancement in electrode materials and fabrication, microfluidic designs, and self-powered systems for wearable non-invasive electrochemical glucose monitoring[J]. Sanati Alireza;Esmaeili Yasaman;Bidram Elham;Shariati Laleh;Rafienia Mohammad;Mahshid Sara;Parlak Onur.Applied Materials Today,2022
3D-printed low-cost fabrication and facile integration of flexible epidermal microfluidics platform[J]. Wei Lei;Fang Guoqing;Kuang Zhongwen;Cheng Lin;Wu Huaping;Guo Daoyou;Liu Aiping.Sensors and Actuators: B. Chemical,2022
On the use of fiber lasers in non-invasive blood glucose monitoring[J]. Peng Xi;Yan Yi-Xin;Liu He.Optical Fiber Technology,2022
Performance improvement of a glucose sensor based on fiber optic localized surface plasmon resonance and anti-aggregation of the non-enzymatic receptor[J]. Kim Hyeong-Min;Kim Won-Jung;Kim Kyu-Oh;Park Jae-Hyoung;Lee Seung-Ki.Journal of Alloys and Compounds,2021
A reproducible, low cost microfluidic microcavity array SERS platform prepared by soft lithography from a 2 photon 3D printed template[J]. Šakalys Rokas;Kho Kiang Wei;Keyes Tia E..Sensors and Actuators: B. Chemical,2021
Functionalization of microfluidic devices by microstructures created with proton beam lithography[J]. Nady Emad;Nagy Gyula;Huszánk Róbert.Vacuum,2021
Serpentine square wave microchannel fabrication with WEDM and soft lithography[J]. Mondal Bappa;Pati Sukumar;Patowari Promod Kumar.Materials Today: Proceedings,2021
Glass flow behaviors in micro-channels during hot embossing[J]. Li Kangsen;Xu Gang;Luo Hexi;Liu Xiaohua;Gong Feng.Ceramics International,2020
A novel and flexible processing for hot embossing of glass microfluidic channels[J]. Kai Jiang;Kangsen Li;Gang Xu;Feng Gong;Xiaoyu Wu;Dongfeng Diao;Likuan Zhu.Ceramics International,2020
Separation detection of hemoglobin and glycated hemoglobin fractions in blood using the electrochemical microfluidic channel with a conductive polymer composite sensor[J]. M.D. Mozammal Hossain;Jong-Min Moon;N.G. Gurudatt;Deog-Su Park;Cheol Soo Choi;Yoon-Bo Shim.Biosensors and Bioelectronics,2019
Modified carbon nitride nanozyme as bifunctional glucose oxidase-peroxidase for metal-free bioinspired cascade photocatalysis.[J]. Zhang Peng;Sun Dengrong;Cho Ara;Weon Seunghyun;Lee Seonggyu;Lee Jinwoo;Han Jeong Woo;Kim Dong-Pyo;Choi Wonyong.Nature communications,2019
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