Web Components 2016 & Polymer v2
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2016年10月9日に行われた DevFest Tokyo 2016 の Web トラック「Web Components 2016 & Polymer v2」のセッションのスライドです。
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Polymer light emitting diode
PLEDs use semiconducting polymers that emit light when electric current is applied. They provide more efficient LED displays than traditional LEDs, and are useful for portable device displays due to their flexibility and thinness. PLEDs have an anode, cathode, and polymer film sandwiched between them. When voltage is applied, the polymer emits light. PLEDs can be flexible, transparent, or stacked to provide different display types and colors. They have advantages over LCDs like lower power use and wider viewing angles, but shorter lifetimes. PLEDs are being developed for applications like phones, watches, TVs, and more.
light emitting polymer
Light emitting polymers (LEPs) were discovered in 1990 and provide benefits over other displays like LCDs. LEPs use a semiconducting polymer sandwiched between electrodes that emits light when electrons and holes recombine upon application of a voltage. Cambridge Display Technology is developing LEP displays that combine characteristics of CRTs and LCDs with benefits of formability and low power. LEPs are manufactured using spin coating or printer-based techniques like inkjet printing to apply the polymer in thin layers, then electrodes are added to create the final display.
Light Emitting Polymer- By M.S.Koushik
This presentation is about the next Gen display technology Light emitting polymer. It overcomes the disadvantages of LCD's and LED's and take you to to the next level of enjoying this technology.
Polymer Light Emitting Diode
Deals with the basics of operation of PLED, their working phenomenon, fabrication steps, responses, applications and challenges.
Light Emitting Polymers
Light emitting polymers (LEPs) emit light when an electric field is applied. LEPs consist of a thin film of polymer sandwiched between an anode and cathode. When a voltage is applied, electrons are injected from the cathode and holes from the anode, which recombine and emit light radiatively. LEPs have advantages such as low energy consumption, suitability for large area lighting, simple fabrication process, and potential for flexible displays.
Flexible electronic displays
This document discusses flexible electronic displays and organic light emitting diode (OLED) technology. It begins with acknowledgements and outlines the aims and structure of the project. It then discusses what makes flexible displays attractive, describing them as rugged, lightweight, thin, portable and low power. It explains that flexible displays are either reflective like e-paper or emissive like OLEDs. Key types of reflective displays discussed are Gyricon, electrophoretic ink and cholesteric, while OLED displays are described as self-emissive. Advantages of flexible OLEDs include being thinner, lighter, flexible and requiring less power than other display technologies.
light emitting polymers
This document provides an overview of light emitting polymers (LEP) including:
1. LEPs emit light through electroluminescence and are made from semiconducting polymers sandwiched between an anode and cathode.
2. LEP displays use a matrix of pixels that are individually controlled to emit different colors and intensities of light.
3. LEPs have advantages over LCDs like lower power consumption, better viewing angles, and the ability to be made on flexible substrates. However, they also have limitations like degradation over time.
4. LEPs have applications in displays for devices like phones, watches, signs, and vehicles and their use is expected to
Organic Light Emitting Diode
OLED (Organic Light Emitting Diode) is a light emitting diode with an electroluminescent layer made of organic compounds that emit light in response to an electric current. OLEDs were first developed in the 1950s and have several advantages over LCDs like being thinner, more flexible, and requiring less energy. Key applications today include TVs, phones, watches, and more. Research is ongoing to improve OLED efficiency and lifespan for broader adoption.
Recommended
Polymer light emitting diode
PLEDs use semiconducting polymers that emit light when electric current is applied. They provide more efficient LED displays than traditional LEDs, and are useful for portable device displays due to their flexibility and thinness. PLEDs have an anode, cathode, and polymer film sandwiched between them. When voltage is applied, the polymer emits light. PLEDs can be flexible, transparent, or stacked to provide different display types and colors. They have advantages over LCDs like lower power use and wider viewing angles, but shorter lifetimes. PLEDs are being developed for applications like phones, watches, TVs, and more.
light emitting polymer
Light emitting polymers (LEPs) were discovered in 1990 and provide benefits over other displays like LCDs. LEPs use a semiconducting polymer sandwiched between electrodes that emits light when electrons and holes recombine upon application of a voltage. Cambridge Display Technology is developing LEP displays that combine characteristics of CRTs and LCDs with benefits of formability and low power. LEPs are manufactured using spin coating or printer-based techniques like inkjet printing to apply the polymer in thin layers, then electrodes are added to create the final display.
Light Emitting Polymer- By M.S.Koushik
This presentation is about the next Gen display technology Light emitting polymer. It overcomes the disadvantages of LCD's and LED's and take you to to the next level of enjoying this technology.
Polymer Light Emitting Diode
Deals with the basics of operation of PLED, their working phenomenon, fabrication steps, responses, applications and challenges.
Light Emitting Polymers
Light emitting polymers (LEPs) emit light when an electric field is applied. LEPs consist of a thin film of polymer sandwiched between an anode and cathode. When a voltage is applied, electrons are injected from the cathode and holes from the anode, which recombine and emit light radiatively. LEPs have advantages such as low energy consumption, suitability for large area lighting, simple fabrication process, and potential for flexible displays.
Flexible electronic displays
This document discusses flexible electronic displays and organic light emitting diode (OLED) technology. It begins with acknowledgements and outlines the aims and structure of the project. It then discusses what makes flexible displays attractive, describing them as rugged, lightweight, thin, portable and low power. It explains that flexible displays are either reflective like e-paper or emissive like OLEDs. Key types of reflective displays discussed are Gyricon, electrophoretic ink and cholesteric, while OLED displays are described as self-emissive. Advantages of flexible OLEDs include being thinner, lighter, flexible and requiring less power than other display technologies.
light emitting polymers
This document provides an overview of light emitting polymers (LEP) including:
1. LEPs emit light through electroluminescence and are made from semiconducting polymers sandwiched between an anode and cathode.
2. LEP displays use a matrix of pixels that are individually controlled to emit different colors and intensities of light.
3. LEPs have advantages over LCDs like lower power consumption, better viewing angles, and the ability to be made on flexible substrates. However, they also have limitations like degradation over time.
4. LEPs have applications in displays for devices like phones, watches, signs, and vehicles and their use is expected to
Organic Light Emitting Diode
OLED (Organic Light Emitting Diode) is a light emitting diode with an electroluminescent layer made of organic compounds that emit light in response to an electric current. OLEDs were first developed in the 1950s and have several advantages over LCDs like being thinner, more flexible, and requiring less energy. Key applications today include TVs, phones, watches, and more. Research is ongoing to improve OLED efficiency and lifespan for broader adoption.
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ReonHata_便利の副作用に気づかせるための発想支援手法の評価---行為の増減の提示による気づきへの影響---
我々はこれまで，新たなモノを産出する過程において「便利にすること」によって副次的に生じる課題を「便利の副作用」と定義し，その低減を目的としてアイディアの発想支援手法を提案してきた．
これまでの研究では，便利前後の行為の増減に着目することにより便利の副作用への気づきの誘発が示唆されたものの，行為の増減の提示による便利の副作用への気づきへの影響は十分に検討できていなかった．
そのため，本稿では行為の提示により便利の副作用に気づき，それを防いだアイディアの発想の支援が可能かの検証を目的として実験を行い，その有効性について検証する．
実験では，行為の増減の提示の有無によりアイディア発想にどのような影響を与えるか検証を行う．
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Generating Automatic Feedback on UI Mockups with Large Language Models
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ReonHata_便利の副作用に気づかせるための発想支援手法の評価---行為の増減の提示による気づきへの影響---
ReonHata_便利の副作用に気づかせるための発想支援手法の評価---行為の増減の提示による気づきへの影響---