Creation of functional polydiacetylene images on paper using inkjet printing technology

Park, Dong Hoon; Park, Bum Jun; Kim, Jong-Man

doi:10.1007/s13233-016-4129-y

Cited by 14 publications

(6 citation statements)

References 79 publications

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“…Except for its well-known advantages such as low cost, light weight, flexibility, and disposability, which are advantageous for point-of-care and in-field use, a superior feature of using paper as the substrate for sensing is that PDA sensors can be deposited onto paper by an inkjet printing technique. 240 This allows for the large-scale fabrication of desired patterns in an inexpensive manner, greatly broadening the potential applications of PDA sensors. The first report of inkjet-printed PDAs was in 2011, 241 which illustrated that the chromatic properties of PDAs persisted even after mixing with a non-ionic surfactant and being printed on paper.…”

Section: Chemistry Of Materialsmentioning

confidence: 99%

“…Paper is one of the most common materials that we use every day and has been employed to immobilize PDAs for multiple purposes. Except for its well-known advantages such as low cost, light weight, flexibility, and disposability, which are advantageous for point-of-care and in-field use, a superior feature of using paper as the substrate for sensing is that PDA sensors can be deposited onto paper by an inkjet printing technique . This allows for the large-scale fabrication of desired patterns in an inexpensive manner, greatly broadening the potential applications of PDA sensors.…”

Section: Linear Diacetylenes: a Single Polar Headgroup And A Hydropho...mentioning

confidence: 99%

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Recent Developments in Polydiacetylene-Based Sensors

2019

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Conjugated polymers are intriguing materials that have potential practical applications in diverse interdisciplinary subjects. Among them, polydiacetylenes (PDAs) have been extensively studied due to their interesting structural, spectral, and optical features. In particular, the unique colorimetric and fluorescent transition of PDAs in response to different external stimuli makes them a novel class of sensing materials, and numerous applications of PDAs as bio-or chemosensors have been explored in the past few decades. In this review, we summarize the latest developments with regard to the applications of PDAs as a class of sensing materials presented in the literature since 2014. This review is sorted into categories based on the structural differences of diacetylene monomers, from which PDAs are generated. In addition, different forms of PDAs and various methods for improving the sensing performance of PDAs are also emphasized.

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Section: Chemistry Of Materialsmentioning

confidence: 99%

Section: Linear Diacetylenes: a Single Polar Headgroup And A Hydropho...mentioning

confidence: 99%

Recent Developments in Polydiacetylene-Based Sensors

2019

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“…ECDs are particularly interesting for dynamic signage and smart packaging as they offer color change with high optical contrast (40–60 Δ%T) at low operating voltages (1–2 V) . To date, paper‐based ECDs have been successfully demonstrated for a variety of electrochromic materials ranging from inorganic oxides, viologens, redox‐active molecules, and conducting polymers . However, the accessible color space remains dominated by blue‐to‐colorless devices.…”

Section: Introductionmentioning

confidence: 99%

Paper‐Based Electrochromic Devices Enabled by Nanocellulose‐Coated Substrates

Lang

Österholm

Reynolds

2019

Adv Funct Materials

100

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As environmental considerations for both the processing and disposal of electronic devices become increasingly important, the ability to replace plastic and glass substrates with bioderived and biodegradable materials remains a major technological goal. Here, the use of cellulose nanofiber-coated paper is explored as an environmentally benign substrate for preparing low-resistance (460 Ω sq −1 ), colorless (a* = −2.3, b* = −2.7) printed poly-(3,4-ethylenedioxythiophene):poly(styrenesulfonate) (PEDOT:PSS) electrodes. The PEDOT:PSS/paper electrodes support the reversible oxidation of three electrochromic polymers (ECPs) (cyan, magenta, and yellow), affording the possibility for fully printed, color displays on paper. Lateral electrochromic devices (ECDs) incorporating an ion gel electrolyte are demonstrated where a magenta-to-colorless device achieves a color contrast (ΔE*) of 56 owing to a highly color-neutral bleached state of the ECP (a* = −0.5, b* = 2.9). Black-tocolorless devices achieve ΔE* = 29 and are able to retain 86% of their color contrast after 9000 switches. The switching times of these lateral devices are quantified through colorimetric image analysis which shows comparable performance for devices constructed on paper as devices using ITO/glass electrodes (10 Ω sq −1 ). The paper ECDs are then combusted in air leaving 3% of the initial mass at 600 °C, highlighting this approach as a promising route toward disposable displays. Figure 2. Optimization of printed electrodes showing a) reflectance as a function of sheet resistance for printed electrodes on glass, CNF coated paper, and office paper. Photographs of PEDOT:PSS electrodes on CNF coated paper with sheet resistances of b) 5000 Ω sq −1 , c) 460 Ω sq −1 , d) 160 Ω sq −1 , and e) 109 Ω sq −1 . CIELAB color coordinates are labeled below each image. www.afm-journal.de www.advancedsciencenews.com 1903487 (4 of 11)

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“…Paper electronics has received widespread attention and developed fast in recent years as a subject that combines both traditional and new materials. By fabricating triodes, diodes, capacitors, resistors, and other electronic components on the paper, intelligent functions such as foldable display, 1,2 signal transmission, 3 energy conversion and storage, 4,5 sensing detection, 6,7 and smart actuation 8 could be realized. Compared with the traditional electronic devices, the intelligent paper has the advantages of simple processing, low cost, easy scrapping, and environmental friendliness.…”

Section: ■ Introductionmentioning

confidence: 99%

Enhancing the Optical Response Speed of Thermochromic Paper Displays by Heat Exchange Manipulation of Invisible Heaters

Tao

Shi

2023

ACS Appl. Energy Mater.

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Developing invisible heaters is critical to thermochromic paper displays for convenient and low power use. Maintaining high transmittance as well as uniform and widely adjustable resistance remains a challenge for quick and efficient heat exchange in paper displays. Here, through optimizing the spraying process parameters and the dynamic spraying path design on paper, highly uniform and continuously varied film sheet resistance is achieved. Through silver nanowire percolation control, the heat-transfer coefficient is manipulated from 20 to 40 W m–2 K–1. By directly printing high-resolution thermochromic patterns on the invisible heater side, fast and efficient heat transfer is achieved under a voltage lower than 9 V and benefits paper displays with a second-level optical response time and a power consumption below 30 mW cm–2. Large chromatic aberration and discoloration speed are demonstrated from quantitative analysis of both static and dynamic reflection spectra. Guidance for designing thermochromic paper displays with fast response is provided.

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Creation of functional polydiacetylene images on paper using inkjet printing technology

Cited by 14 publications

References 79 publications

Recent Developments in Polydiacetylene-Based Sensors

Recent Developments in Polydiacetylene-Based Sensors

Paper‐Based Electrochromic Devices Enabled by Nanocellulose‐Coated Substrates

Enhancing the Optical Response Speed of Thermochromic Paper Displays by Heat Exchange Manipulation of Invisible Heaters

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