Literature DB >> 27048921

3D-printing technologies for electrochemical applications.

Adriano Ambrosi1, Martin Pumera.   

Abstract

Since its conception during the 80s, 3D-printing, also known as additive manufacturing, has been receiving unprecedented levels of attention and interest from industry and research laboratories. This is in addition to end users, who have benefited from the pervasiveness of desktop-size and relatively cheap printing machines available. 3D-printing enables almost infinite possibilities for rapid prototyping. Therefore, it has been considered for applications in numerous research fields, ranging from mechanical engineering, medicine, and materials science to chemistry. Electrochemistry is another branch of science that can certainly benefit from 3D-printing technologies, paving the way for the design and fabrication of cheaper, higher performing, and ubiquitously available electrochemical devices. Here, we aim to provide a general overview of the most commonly available 3D-printing methods along with a review of recent electrochemistry related studies adopting 3D-printing as a possible rapid prototyping fabrication tool.

Year:  2016        PMID: 27048921     DOI: 10.1039/c5cs00714c

Source DB:  PubMed          Journal:  Chem Soc Rev        ISSN: 0306-0012            Impact factor:   54.564


  52 in total

1.  Printed microfluidic filter for heparinized blood.

Authors:  Stanley E R Bilatto; Nouran Y Adly; Daniel S Correa; Bernhard Wolfrum; Andreas Offenhäusser; Alexey Yakushenko
Journal:  Biomicrofluidics       Date:  2017-05-02       Impact factor: 2.800

2.  Soft tubular microfluidics for 2D and 3D applications.

Authors:  Wang Xi; Fang Kong; Joo Chuan Yeo; Longteng Yu; Surabhi Sonam; Ming Dao; Xiaobo Gong; Chwee Teck Lim
Journal:  Proc Natl Acad Sci U S A       Date:  2017-09-18       Impact factor: 11.205

Review 3.  Advances in Optical Sensing and Bioanalysis Enabled by 3D Printing.

Authors:  Alexander Lambert; Santino Valiulis; Quan Cheng
Journal:  ACS Sens       Date:  2018-11-30       Impact factor: 7.711

Review 4.  3D Bioprinting for Organ Regeneration.

Authors:  Haitao Cui; Margaret Nowicki; John P Fisher; Lijie Grace Zhang
Journal:  Adv Healthc Mater       Date:  2016-12-20       Impact factor: 9.933

5.  Simple, fast, and instrumentless fabrication of paper analytical devices by novel contact stamping method based on acrylic varnish and 3D printing.

Authors:  Tatiane Alfonso de Araujo; Natália Canhete de Moraes; Jacqueline Marques Petroni; Valdir Souza Ferreira; Bruno Gabriel Lucca
Journal:  Mikrochim Acta       Date:  2021-11-27       Impact factor: 5.833

6.  Additively manufactured carbon/black-integrated polylactic acid 3Dprintedsensor for simultaneous quantification of uric acid and zinc in sweat.

Authors:  Vanessa N Ataide; Diego P Rocha; Abner de Siervo; Thiago R L C Paixão; Rodrigo A A Muñoz; Lucio Angnes
Journal:  Mikrochim Acta       Date:  2021-10-19       Impact factor: 5.833

7.  3D-printed miniaturized fluidic tools in chemistry and biology.

Authors:  C K Dixit; K Kadimisetty; J Rusling
Journal:  Trends Analyt Chem       Date:  2018-07-05       Impact factor: 12.296

8.  High Performance, Low Cost Carbon Nanotube Yarn based 3D Printed Electrodes Compatible with a Conventional Screen Printed Electrode System.

Authors:  Cheng Yang; B Jill Venton
Journal:  IEEE Int Symp Med Meas Appl       Date:  2017-07-20

Review 9.  Additive Manufacturing: Unlocking the Evolution of Energy Materials.

Authors:  Adilet Zhakeyev; Panfeng Wang; Li Zhang; Wenmiao Shu; Huizhi Wang; Jin Xuan
Journal:  Adv Sci (Weinh)       Date:  2017-07-25       Impact factor: 16.806

Review 10.  How 3D printing can boost advances in analytical and bioanalytical chemistry.

Authors:  Adriano Ambrosi; Alessandra Bonanni
Journal:  Mikrochim Acta       Date:  2021-07-21       Impact factor: 5.833

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