For indoor applications,
thin flexible devices are particularly interesting because they can be seamlessy integrated on surfaces, even curved ones, although fabrication is complicated by having to maintain processing temperatures below 150 C to avoid deformation of plastic substrates.
Not exact matches
The
device consists of a plastic pouch or bag to hold breast milk or formula attached to
thin,
flexible tubes that run down each breast to the nipple.
The
thin profile and minimal energy requirements of
devices could also make it useful in
flexible displays or as a security measure on credit cards.
And they are already turning some of them into
thin,
flexible, speedy electronic and optical
devices that they hope will form the backbone of industries of the future.
«We already know how to put electronics on the skin in a natural manner — here our challenge was dealing with fluid flow and the collection, storage and analysis of sweat in a
thin, soft and
flexible device,» said Huang, who worked on the
device's design and optimization.
«So we could use it in the future by taking traditional speakers, which are big, bulky and use a lot of power, and replacing them with this very
flexible,
thin, small
device.»
A paper -
thin,
flexible device created at Michigan State University not only can generate energy from human motion, it can act as a loudspeaker and microphone as well, nanotechnology researchers report in the May 16 edition of Nature Communications.
These ultra-
thin carbon filaments have high mobility, high transparency and electric conductivity, making them ideal for performing electronic tasks and making
flexible electronic
devices like
thin film transistors, the on - off switches at the heart of digital electronic systems.
«We are just beginning to realize all of the innovative ways one can use this atomically
thin and
flexible building block to make new materials and
devices.»
Organic electronic
devices such as OLEDs and organic solar cells use
thin films of organic molecules for the electrically active materials, making
flexible and low - cost
devices possible.
Using these advances, solar panels can be
thinner, lighter, cheaper, more
flexible and fundamentally more efficient than current
devices on the market.
Researchers from North Carolina State University have developed a new way to transfer
thin semiconductor films, which are only one atom thick, onto arbitrary substrates, paving the way for
flexible computing or photonic
devices.
The findings, which have been reported in Nature Communications, reveal that the h - BN layers form the strongest
thin insulator available globally and the unique qualities of the material could be used to create
flexible and almost unbreakable smart
devices, as well as scratch - proof paint for cars.
«New way to move atomically
thin semiconductors for use in
flexible devices.»
«The ultimate goal is to use these atomic - layer semiconducting
thin films to create
devices that are extremely
flexible, but to do that we need to transfer the
thin films from the substrate we used to make it to a
flexible substrate,» says Cao, who is senior author of a paper on the new transfer technique.
«The materials are so
thin and
flexible that the
device can be made transparent and can conform to curved surfaces,» said Der - Hsien Lien, a postdoctoral fellow at UC Berkeley and a co-first author along with Matin Amani and Sujay Desai, both doctoral students in the Department of Electrical Engineering and Computer Sciences at Berkeley.
As such, the work shows that graphene (combined with other
flexible 2D materials) is not just limited to simple electronic displays, but could be exploited to create light emitting
devices that are not only incredibly
thin, but
flexible, semi-transparent, and intrinsically bright.
Researchers from South Korea have developed a
thin, highly -
flexible film that could enable a new generation of wearable
devices that wrap around your finger or wrist.
Both are
thin and
flexible T - shaped
devices about half the height of a sugar packet that are inserted directly into the uterus for the long - term prevention of pregnancy.
This is not the first
flexible ePaper display Sony's showcased, the company prototyping a while ago 4.8 - inch e-paper
device with organic TFTs (
thin - film transistors) that use the «PXX,» an organic semiconductor material stable to oxygen, moisture and light.
Unlike typical glass silicon displays, the
flexible plastic substrates used in the reader allow the
device to be both
thinner, lighter and rugged.
Besides the beautiful designs, a
flexible OLED has several advantages especially in mobile
devices - the displays are lighter,
thinner and more durable compared to glass based displays.
This reduced thickness enables
thin, lightweight and conformable
flexible electronic
devices.
But since its
flexible nature mostly comes as a result of it being so
thin, it also has the potential to slim down any
device it's used in.
The
device has a 9.5 - cm (3.74 - inch)
thin film
flexible E-Ink display, underneath which is a
flexible printed circuit incorporating resistive bend sensors.
It uses a large,
flexible electronic paper display based on technology from E Ink (the same company that makes the displays for Amazon.com's Kindle and Sony's Reader), but the
device overall is remarkably
thin and light.
This includes using a smaller battery (better battery life can be easily achieved by Apollo Lake's great overall power); PMIC for cheaper and better power delivery option; solder down Wi - Fi through Intel 802.11 ac Wi - Fi support; solder down eMMC flash storage or M. 2 NAND chips instead of SSDs or HDDs;
flexible memory options (LPDDR3 & LPDDR4 options and DDR3L memory solder down option); and MIPI camera that's consistent with
devices created with
thinner designs.
So like most other Samsung
devices the back of the Galaxy Alpha is plastic — and relatively
thin,
flexible plastic at that.
However, many earlier reports indicate that the function of
flexible displays may have never been to usher in
flexible devices, but rather to allow for much
thinner and lighter, unbreakable
devices, with more room for larger batteries and other updated components.
AMOLED displays, as per a recent report from IHS Markit, will witness a rise in 2017 owing to the introduction of
devices with
flexible display and wearables, while the usage of LCD
Thin Film Transistor (TFT) displays will decline.