Saturday, December 20, 2014

WHAT IS Li-Fi

Li-Fi TECHNOLOGY FOR NEXT GENARATION


Li-Fi is a new paradigm for optical wireless technology to provide unprecedented connectivity within a localized data-centric environment. The increasing demand for higher bandwidths, faster and more secure data transmission as well as environmental and undoubtedly human friendly technology heralds the start of a major shift in wireless technology, a shift from RF to optical technologies.






The Li-Fi Consortium has several purposes:
  • Promote optical wireless communications up to the multi-gigabit range in all their implementations;
  • Inform potential implementers and investors of the companies and resources available to help them achieve their product or investment goals;
  • Create whole solutions in anticipation of customer needs, and
  • Coordinate with standardization groups and other industry organizations to provide OEM customers with a complete ensemble of technical and marketing support.




Li-Fi TECHNOLOGY

As a general rule, all technology shown on this website is developed by one of our members and is open for licensing. We also are able to tailor the Li-Fi technology shown to your specific solution or application. If you are interested, please make contact through our contact page and we can explore possibllities.
During the last few years, we mainly have focused on technology development with respect to data transmission speed. This was done in relation to different user scenarios. We developed new docking technology as well as wireless high speed data transfer for beaming and providing users with wireless data broadcasting and a wireless data hotspot based on high speed Li-Fi technology. For more information about the different technological approaches, please, use the technology links in the sidebar menu on the right.
The table above shows the general landscape of wireless RF (radio frequency) communication technology compared with IR (infra red) communication technology, related to transmission speed and range (distance). The green area indicates the technological abilities of our currently available developments.
This table shows the different data rates of the technological solutions we offer. The related interface and wireless range (distance) provides an insight into the technological abilities of our developed products.



A wireless local area network based on Li-Fi technology needs some additional features to provide the same qualities as an RF-based wireless network, without losing the main advantages Li-Fi technology is able to provide. Here are the missing links for a fully developed Li-Fi WLAN.
The Li-Fi room connector
Optical signals are not able to penetrate walls. This is an advantage in relation to security issues. However, in order to provide an optical wireless local area network, rooms need to be connected with each other. This is achieved via the Li-Fi room connector. The Li-Fi room connector is a replicator which sends the data stream from one side of the wall to the other via an optical fiber cable, which connects the two room connectors on each side of the wall. With smaller rooms, the Li-Fi room connector might be sufficient as the only Li-Fi hotspot in the room.
The Li-Fi router
The Li-Fi router is the networks connection to the external link (fiberoptic cable, DSL, GigE, etc.). The application is mainly useful for small office or home use with cloud & server functions. It connects office and/or entertainment equipment and covers a radius of 20 meters with a 100 Mbps transmission speed. The product is developed to a proof-of-concept stage.
The full features Li-Fi cloud
The Li-Fi cloud is a software solution enabling the user to control all the features within a datacentric Li--Fi environment. Part of this software has been developed already in connection with the developments of the Li-Fi applications we offer today.


OPTICAL MOBILITY TECHNOLOGY

The extended mobility concept of the Li-Fi Consortium is based on state of the art optical receiver chip technology. The architecture of the optical receiver chip is based on a biological design: The eye of a fruit fly. The fly eye design has a revolutionary architecture and impressive capabilities. It uses an optical sensor array, which is faceted like a fly’s eye. It has a wide field of view, implemented with multiple narrow fields of view elements. It is able to read reflections of light and overcomes with that the limitations of the typical optical Line-of-Site connectivity. The chip is able to identify the signal (+ transmitter) position in both angle and range.
With this development, mobile devices do not depend on a line of sight connection between sender and receiver. Fly eye receiver chips will be able to read reflections, also of very weak signals. Its large dynamic range is the basis of our mobility technology. The chip supports multi-channel high-speed communication while also tracking the transmission source electronically, with no moving parts. This enables “communication on the move”: That is a moving transmitter communicating with a fixed or even moving receiver.
This technology has been developed to concept stage and needs investment in chip development.

5G


COMMING SOON 5G TECHNOLOGY 2015





Comparison between 4G and 5G Technology 4G 5G Deployment 2007/2014 2014/2015 Bandwidth 200Mbps >1Gbps Technology Unified IP and seamless combo of LAN/ WAN/WLAN 4G+WWWW Service Dynamic Information Acess, Variable devices Dynamic Information Acess, Variable devices with AI capabilities







SMART WATCH PHONE



SMART WATCH PHONE










































Wednesday, November 12, 2014

Philae lander makes historic touchdown on comet

Philae lander makes historic touchdown on comet


Rosetta is a cornerstone mission to chase, go into orbit around, and land on a comet. It is studying the Jupiter-family comet 67P/Churyumov-Gerasimenko with a combination of remote sensing and in situ measurements. The spacecraft arrived at the comet on 6 August 2014 following a 10-year journey through the Solar System. Between August and November, the spacecraft has been orbiting the comet and gathering data to characterise the environment and the comet nucleus. On 12 November 2014, Rosetta's lander Philae will be deployed to the surface. Philae carries a suite of instruments for imaging and sampling the comet nucleus. The Rosetta orbiter will track the comet through perihelion (August 2015), examining its behaviour before, during and after.

The mission was first considered in the late 1970s and developed from a sample-return plan to the plan for a lander. It was approved in November 1993 by ESA’s Science Programme Committee. The original mission target had been comet 46P/Wirtanen, but this was changed to 67P/Churyumov-Gerasimenko when it was clear that the launch would take place in 2004.
The spacecraft was launched from Kourou aboard an Ariane 5G+ on 2 March 2004. It required four gravity assists for its journey, one by Mars and three by Earth. Rosetta had already flown by the asteroids 2867 Steins (in 2008) and 21 Lutetia (in 2010), before entering deep space hibernation in June 2011.

The spacecraft was launched from Kourou aboard an Ariane 5G+ on 2 March 2004. It required four gravity assists for its journey, one by Mars and three by Earth. Rosetta had already flown by the asteroids 2867 Steins (in 2008) and 21 Lutetia (in 2010), before entering deep space hibernation in June 2011.
Rosetta has achieved major milestones in 2014. Following a planned exit from hibernation on 20 January, all of the spacecraft's instruments were checked as it continued on its journey to 67P/Churyumov-Gerasimenko. The first science results were obtained even before the spacecraft arrived at the comet on 6 August 2014. On 12 November 2014, Rosetta's lander Philae will be deployed to the surface.
Here are the key dates of the Rosetta mission:

PHILAE'S INSTRUMENTS (WHITE BACKGROUND)



Date: 02 January 2014
Satellite: Rosetta
Depicts: Philae Lander
Copyright: ESA/ATG medialab
Rosetta will deploy the Philae lander to the surface of comet 67P/Churyumov-Gerasimenko for in situ analysis with its 10 instruments:
APXS: Alpha Proton X-ray Spectrometer (studying the chemical composition of the landing site and its potential alteration during the comet's approach to the Sun)
CIVA: Comet Nucleus Infrared and Visible Analyser (six cameras to take panoramic pictures of the comet surface)
CONSERT: COmet Nucleus Sounding Experiment by Radiowave Transmission (studying the internal structure of the comet nucleus with Rosetta orbiter)
COSAC: The COmetary SAmpling and Composition Experiment (detecting and identifying complex organic molecules)
PTOLEMY: Using MODULUS protocol (Methods Of Determining and Understanding Light elements from Unequivocal Stable isotope compositions) to understand the geochemistry of light elements, such as hydrogen, carbon, nitrogen and oxygen
MUPUS: MUlti-PUrpose Sensors for Surface and Sub-Surface Science (studying the properties of the comet surface and immediate sub-surface)
ROLIS: Rosetta Lander Imaging System (providing the first close-up images of the landing site)
ROMAP: Rosetta Lander Magnetometer and Plasma Monitor (studying the magnetic field and plasma environment of the comet)
SD2: Sampling, drilling and distribution subsystem (drilling up to 23 cm depth and delivering material to onboard instruments for analysis)
SESAME: Surface Electric Sounding and Acoustic Monitoring Experiment (probing the mechanical and electrical parameters of the comet), comprising: CASSE (Comet Acoustic Surface Sounding Experiment), DIM (Dust Impact Monitor), and PP (Permittivity Probe).

  
EventNominal date
Launch2 March 2004
First Earth gravity assist4 March 2005
Mars gravity assist25 February 2007
Second Earth gravity assist13 November 2007
Asteroid Steins flyby5 September 2008
Third Earth gravity assist13 November 2009
Asteroid Lutetia flyby10 July 2010
Enter deep space hibernation8 June 2011
Exit deep space hibernation20 January 2014
Rendezvous manoeuvres begin7 May 2014
Arrive at comet 6 August 2014
Start global mapping10 September 2014
Lander delivery12 November 2014
Perihelion passage13 August 2015
End of mission31 December 2015

Monday, October 13, 2014

Blu-ray (not Blue-ray)



Blu-ray Disc



Blu-ray Disc Blu-ray (not Blue-ray) also known as Blu-ray Disc (BD), is the name of a new optical disc format jointly developed by the Blu-ray Disc Association (BDA), a group of the world's leading consumer electronics, personal computer and media manufacturers (including Apple, Dell, Hitachi, HP, JVC, LG, Mitsubishi, Panasonic, Pioneer, Philips, Samsung, Sharp, Sony, TDK and Thomson). The format was developed to enable recording, rewriting and playback of high-definition video (HD), as well as storing large amounts of data. The format offers more than five times the storage capacity of traditional DVDs and can hold up to 25GB on a single-layer disc and 50GB on a dual-layer disc. This extra capacity combined with the use of advanced video and audio codecs will offer consumers an unprecedented HD experience.

Friday, September 26, 2014

OLED panels in cars

OLED panels in cars


OLED is a new display and lighting technology - used to create thin, efficient and bright displays and lighting panels. OLEDs can be made flexible, and transparent, and so open the way for new, exciting display applications. One of the possible markets for OLEDs is the automotive industry.




Where will OLED be used in future cars?


We can see several applications for OLED displays and lighting systems in cars:
  • Dashboard displays (instrument clusters, navigation, media)
  • Heads up displays
  • Internal lighting
  • External lighting (tail lights, turn indicators)
  • Digital rear-view internal mirrors
  • More application we cannot think about today!



OLED displays for cars today



Currently we know of several car models that includes small PMOLED displays in the dashboard. The Lexus 2010 RX for example has a white OLED display, supplementing the main 8" display.


Kia's 2015 Soul EV uses a 3.5" white PMOLED display


Kia announced a new electric car, the 2015 Soul EV. The vehicle has a 109 bhp engine and a 27 kWh L-ion battery that gives it a range of 93 miles. This environmental friendly car uses 23 kg of plant-based interior plastics (made from cellulose and sugar cane base).


Kia Soul EV offers up to 93-mile range, available for $26,200


transparent Head-Up Display (HUD)




Transparent Head-Up Display (HUD)















Tech specification

5.1" wide transparent Head-Up Display (HUD)
High quality projector
IR camera for touchless gesture control
Accelerometer, e-compass, ambient light sensor
WiFi (802.11 b/g/n), Bluetooth 4.0/LE
Audio out via Bluetooth or 3.5mm minijack,
mini-USB port
Internal speaker and microphone with
noise canceling DSP
Dual core processor running Android 4.4
OBD-II power and data connection to car
computer, with optional 12 volt power adapter
Portable, bendable, non-marking, powered friction
mount, with magnetic connection to the device
Dimensions (excluding mount): width: 130mm,
depth: 140mm, height: 95mm (including display)