Fabrication of ZnSnO3 based humidity sensor onto arbitrary substrates by micro-Nano scale transfer printing

Aziz, Shahid; Bum, Kim Go; Yang, Young Jin; Yang, Bong-Su; Kang, Chul Ung; Doh, Yang Hoi; Choi, Kyung Hyun; Kim, Hyung Chan

doi:10.1016/j.sna.2016.04.059

Cited by 39 publications

(15 citation statements)

References 31 publications

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“…Many researchers are focusing on transferable, wearable, and implantable electronic devices on thin substrates, which are highly flexible and light in weight 31 . Moreover, such substrates are used only to support device printed on them with no sensing properties and additional sensing layer is required to be top printed on electrodes.…”

Section: Introductionmentioning

confidence: 99%

Bio-compatible organic humidity sensor based on natural inner egg shell membrane with multilayer crosslinked fiber structure

Khan

Hassan

Bae

2019

Sci Rep

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In this paper, we propose a novel bio-compatible organic humidity sensor based on natural inner egg shell membrane (IESM) with multilayer cross linked fiber structure that can be used as a substrate as well as a sensing active layer. To fabricate the proposed sensors, two different size inter digital electrodes (IDEs) with 10 mm × 4 mm for sensor 1 and 12 mm × 6 mm for sensor 2 are printed on the surface of the IESM through Fujifilm Dimatix DMP 3000 inkjet material printing setup, which have finger width of 100 μm and space of 100 μm. The fabricated sensors stably operates in a relative humidity (RH) range between 0% RH to 90% RH, and its output impedance and capacitance response are recorded at 1 kHz and 10 kHz. The response time (T res ) and recovery time (T rec ) of sensor 1 are detected as ~1.99 sec and ~8.76 sec, respectively and the T res and T rec of sensor 2 are recorded as ~2.32 sec and ~9.21 sec, respectively. As the IESM for the humidity sensor, the natural materials can be implemented in our daily life as they open a new gate way for bio-compatible devices.

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Section: Introductionmentioning

confidence: 99%

Bio-compatible organic humidity sensor based on natural inner egg shell membrane with multilayer crosslinked fiber structure

Khan

Hassan

Bae

2019

Sci Rep

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“…(For additional information, please see references [141,144,145,148,150,151,156,160]). [183][184][185] Quartz Crystal Microbalances Piezoelectric [14,114,130,146,[186][187][188][189][190][191][192] Microfluidic devices Optical [27,128,150,[193][194][195]] Electrical [148,190] Modified electrodes Electrochemical [26,99,[152][153][154][155][196][197][198][199][200][201][202] Sensory chips Optical [161,[193][194][195] Table 2. Cont.…”

Section: New Micro and Nano Sensory Devices Based On Smart Polymersmentioning

confidence: 99%

Smart Polymers in Micro and Nano Sensory Devices

et al. 2018

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The present review presents the most recent developments concerning the application of sensory polymers in the detection and quantification of different target species. We will firstly describe the main polymers that are being employed as sensory polymers, including, for example, conducting or acrylate-based polymers. In the second part of the review, we will briefly describe the different mechanisms of detection and the target species, such as metal cations and anions, explosives, and biological and biomedical substances. To conclude, we will describe the advancements in recent years concerning the fabrication of micro and nano sensory devices based on smart polymers, with a bibliographic revision of the research work published between 2005 and today, with special emphasis on research work presented since 2010. A final section exposing the perspectives and challenges of this interesting research line will end the present review article.

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“…In 2008, transfer deposition of 0D and 1D nanostructures as well as atomically thin sheets of 2D materials onto flat substrates was demonstrated using poly(methyl methacrylate) (PMMA) as the sacrificial layer (SF). Subsequently, this strategy was adapted for printing of nanostructures onto 3D objects using PMMA and other SFs such as polyvinyl alcohol (PVA) and silk‐fibroin . Very recently, Saada et al used inkjet‐printed commercial silver inks to demonstrate patterns onto 3D objects by transfer printing using a PVA film as the SF .…”

Section: Introductionmentioning

confidence: 99%

Conformal Printing of Graphene for Single‐ and Multilayered Devices onto Arbitrarily Shaped 3D Surfaces

Zhu

et al. 2019

Adv Funct Materials

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Printing has drawn a lot of attention as a means of low per-unit cost and high throughput patterning of graphene inks for scaled-up thin-form factor device manufacturing. However, traditional printing processes require a flat surface and are incapable of achieving patterning onto 3D objects. Here, a conformal printing method is presented to achieve functional graphene-based patterns onto arbitrarily shaped surfaces. Using experimental design, a water-insoluble graphene ink with optimum conductivity is formulated. Then single-and multilayered electrically functional structures are printed onto a sacrificial layer using conventional screen printing. The print is then floated on water, allowing the dissolution of the sacrificial layer, while retaining the functional patterns. The single-and multilayer patterns can then be directly transferred onto arbitrarily shaped 3D objects without requiring any postdeposition processing. Using this technique, conformal printing of single-and multilayer functional devices that include joule heaters, resistive deformation sensors, and proximity sensors on hard, flexible, and soft substrates, such as glass, latex, thermoplastics, textiles, and even candies and marshmallows, is demonstrated. This simple strategy promises to add new device and sensing functionalities to previously inert 3D surfaces.

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Fabrication of ZnSnO3 based humidity sensor onto arbitrary substrates by micro-Nano scale transfer printing

Cited by 39 publications

References 31 publications

Bio-compatible organic humidity sensor based on natural inner egg shell membrane with multilayer crosslinked fiber structure

Bio-compatible organic humidity sensor based on natural inner egg shell membrane with multilayer crosslinked fiber structure

Smart Polymers in Micro and Nano Sensory Devices

Conformal Printing of Graphene for Single‐ and Multilayered Devices onto Arbitrarily Shaped 3D Surfaces

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