3D-Printed Electrochemical Sensors: A Comprehensive Review of Clinical Analysis Applications

被引:2
作者
Candido, Thais Cristina de Oliveira [1 ]
da Silva, Daniela Nunes [1 ]
Borges, Marcella Matos Cordeiro [1 ]
Barbosa, Thiago Gabry [1 ]
da Trindade, Scarlat Ohanna Davila [1 ]
Pereira, Arnaldo Cesar [1 ]
机构
[1] Univ Fed Sao Joao del Rei, Nat Sci Dept, 74 Praca Dom Helvecio, BR-36301160 Sao Joao Del Rei, MG, Brazil
来源
ANALYTICA | 2024年 / 5卷 / 04期
关键词
electrochemical sensor; 3D printing; fused deposition modeling; clinical analysis; POLYLACTIC ACID PLA; GRAPHENE ELECTRODES; BIODEGRADATION; METHIONINE; PLATFORM;
D O I
10.3390/analytica5040037
中图分类号
O65 [分析化学];
学科分类号
070302 ; 081704 ;
摘要
Three-dimensional printing technology has emerged as a versatile and cost-effective alternative for the fabrication of electrochemical sensors. To enhance sensor sensitivity and biocompatibility, a diverse range of biocompatible and conductive materials can be employed in these devices. This allows these sensors to be modified to detect a wide range of analytes in various fields. 3D-printed electrochemical sensors have the potential to play a pivotal role in personalized medicine by enabling the real-time monitoring of metabolite and biomarker levels. These data can be used to personalize treatment strategies and optimize patient outcomes. The portability and low-cost nature of 3D-printed electrochemical sensors make them suitable for point-of-care (POC) diagnostics. These tests enable rapid and decentralized analyses, aiding in diagnosis and treatment decisions in resource-limited settings. Among the techniques widely reported in the literature for 3D printing, the fused deposition modeling (FDM) technique is the most commonly used for the development of electrochemical devices due to the easy accessibility of equipment and materials. Focusing on the FDM technique, this review explores the critical factors influencing the fabrication of electrochemical sensors and discusses potential applications in clinical analysis, while acknowledging the challenges that need to be overcome for its effective adoption.
引用
收藏
页码:552 / 575
页数:24
相关论文
共 133 条
[1]   Augmentation of conductive pathways in carbon black/PLA 3D-printed electrodes achieved through varying printing parameters [J].
Abdalla, A. ;
Hamzah, H. H. ;
Keattch, O. ;
Covill, D. ;
Patel, B. A. .
ELECTROCHIMICA ACTA, 2020, 354 (354)
[2]   3D Printed Electrochemical Sensors [J].
Abdalla, Aya ;
Patel, Bhavik Anil .
ANNUAL REVIEW OF ANALYTICAL CHEMISTRY, VOL 14, 2021, 2021, 14 :47-63
[3]   3D-printed electrochemical sensors: A new horizon for measurement of biomolecules [J].
Abdalla, Aya ;
Patel, Bhavik Anil .
CURRENT OPINION IN ELECTROCHEMISTRY, 2020, 20 :78-81
[4]   Additive manufacturing (3D printing) for analytical chemistry [J].
Agrawaal, Harsshit ;
Thompson, J. E. .
TALANTA OPEN, 2021, 3
[5]   Colloidal-gold cysteamine-modified carbon paste electrodes as suitable electrode materials for the electrochemical determination of sulphur-containing compounds -: Application to the determination of methionine [J].
Agüí, L ;
Manso, J ;
Yáñez-Sedeño, P ;
Pingarrón, JM .
TALANTA, 2004, 64 (04) :1041-1047
[6]  
Ahmad M., 2024, INTELL PHARM, V2, P381, DOI [10.1016/j.ipha.2024.02.010, DOI 10.1016/J.IPHA.2024.02.010]
[7]   Additive manufacturing in the aerospace and automotive industries: Recent trends and role in achieving sustainable development goals [J].
Alami, Abdul Hai ;
Olabi, Abdul Ghani ;
Alashkar, Adnan ;
Alasad, Shamma ;
Aljaghoub, Haya ;
Rezk, Hegazy ;
Abdelkareem, Mohammad Ali .
AIN SHAMS ENGINEERING JOURNAL, 2023, 14 (11)
[8]   3D-printing technologies for electrochemical applications [J].
Ambrosi, Adriano ;
Pumera, Martin .
CHEMICAL SOCIETY REVIEWS, 2016, 45 (10) :2740-2755
[9]  
Anwar A.W., 2024, New Advances in Biosensing, P2
[10]   Hantavirus infections [J].
Avsic-Zupanc, T. ;
Saksida, A. ;
Korva, M. .
CLINICAL MICROBIOLOGY AND INFECTION, 2019, 21 :E6-E16