Printed, Flexible and Organic Electronics

Printed, Flexible and Organic Electronics

Printed Electronics, being thin film silicon or inorganic or organic semiconductors, can be used to form Thin Film Transistor Circuits (TFTCs), such as replacing the functionality of simple silicon chips. TFTCs also employ thin film conductors and dielectrics and the ultimate objective is to make many different components at the same time - such as displays, batteries, sensors, microphones etc using the same materials or at least the same deposition techniques thus saving cost and improving reliability. Some TFTCs will be capable of covering large areas to affordably form electronic billboards, smart shelves and so on. They will be lightweight, rugged and mechanically flexible. Often they will be made by rapid, high-volume reel-to-reel processing even forming a part of regular printing processes for graphics. These circuits will be cheap enough to permit electronics where envisaged silicon chips are always or almost always too expensive, where multiple components and needed, and where silicon is impracticle (e.g. not flexible, brittle, thick etc).
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Printed, Flexible and Organic Electronics
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2014
20 Nov 2014

New Energy announces 2014 breakthroughs

New Energy Technologies, Inc, developer of see-through SolarWindow coatings, capable of generating electricity on glass and flexible plastics, has announced that engineers and scientists have achieved important technical milestones in the Company's bid to advance its first-of-its-kind technology towards market-ready, commercial products.
19 Nov 2014

Brunel University London, United Kingdom
19 Nov 2014

Roll-to-Roll Sputter Deposition on Ultra-Thin Flexible Glass Substrate

Kobe Steel Ltd, Japan
19 Nov 2014

Pushing the Limits in Roll to Roll Printing and Coating of Printed Electronics

KROENERT GmbH & Co KG, Germany
19 Nov 2014

Advancements in Electroluminescent Lighting Technology Enabling a Myriad of New Applications

Electro-LuminX (Light Tape), United States
19 Nov 2014

New Low-Cost Fabrication Method for LECs: Create Light in your Living Room

LunaLEC, Sweden
19 Nov 2014

Ultrafast Humidity Sensor Device for Speech Analysis

Brewer Science, United States
19 Nov 2014

Applications for Printed Gas Sensors and Sensor Packaging

KWJ Engineering, Inc.United States
19 Nov 2014

Key Technologies for Commercialization of White OLED for Lighting Application

Panasonic, Japan
19 Nov 2014

Conductive Connectivity to create the Inkernet of Things

T-Ink Inc, United States
19 Nov 2014

Innovations, Open Standard and Eco-system Accelerate Consumer Adoption of Connected Lighting to Internet of Things

Marvell Semiconductor, Inc.United States
19 Nov 2014

Printed Electrochemical Biosensors for Epidermal Integration

Electrozyme LLC, United States
19 Nov 2014

Advances in Additive Manufacturing of Electronics

Soligie, United States
19 Nov 2014

The IoT and Street Lighting: 200k Nodes and Counting

The Technology Partnership plc, United Kingdom
19 Nov 2014

Life in the Neo-Sensor Age

Novasentis, United States
19 Nov 2014

Carbonics revolutionizing wireless technology by employing carbon

Carbonics aims to revolutionize traditional electronics by employing earth-abundant carbon nanomaterials to vastly improve the power consumption and performance of wireless products that include next-generation smartphone and wearable devices.
19 Nov 2014

3D Printing + Hydroponics = 3Dponics

3Dponics, Canada
19 Nov 2014

Powering the Internet of Everything. Using Printed Electronics to Create a Truly Connected World

Thin Film Electronics ASA, United States
19 Nov 2014

Mechanical Force Redistribution (MFR) Pressure Sensing Films—Developing New Markets Through the Transformation of Arbitrarily Large Surfaces into Sensate, Networked, Interactive Surfaces.

Tactonic Technologies, United States
19 Nov 2014

LED lighting: Rethinking the Light Switch

Solid State Lighting Services, United States