EBOLA<-- POSSIBLY SIDE EFFECT OF NANO TECH FOR BIOMETRICS?? TRACKING THROUGH LED SCREENS!

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Biometric Device Based On Luminescence
US 20080148058 A1
Abstract
The present disclosure relates to an apparatus and/or method of identifying a user comprising illuminating a user with electromagnetic energy to induce luminescence and producing an output data signal. A reference data signal corresponding to the luminescence of a selected user may be identified and compared to the output data signal. In such a manner, an identification may be made as to whether a selected user is present.

[link to www.swri.org] /PatentsDB/SearchResults.asp

1. 8,417,959 4/9/2013 Biometric Device Based on Luminescence
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[link to www.swri.org]

Last Edited by mrsmith006 on 10/29/2014 09:53 AM

DETAILED DESCRIPTION

The present invention relates to a method and/or biometric device that may be used to detect biometric information utilizing luminescent electromagnetic energy reflected and emitted from a substrate presented for identification. The substrate may be tissue, such as a finger, eye, face or other biological information that may be presented for identification. A biometric device may be understood as any device capable of detecting an intrinsic physical or behavioral feature, such as fingerprints, iris patterns, retinal patterns, facial features, hand measurements, vocal patterns, typing patterns, etc.

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Patent No. Date of Issue Title of Invention Inventor(s) Assignee
21. 7,126,528 10/24/2006 Method for Delivering Secondary (Non-Location) Data to a GPS Receiver
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[link to www.swri.org]

In an exemplary embodiment, the device or apparatus herein may be an optical device, however, other devices may be used with such optical device, such as thermal devices, capacitive devices, E-field or linear field technology, etc. An optical biometric device may utilize one or more electromagnetic energy excitation sources. An electromagnetic excitation source may be understood as a source that provides energy transmitted through space or matter in the form of electromagnetic waves. Such source may include an LED or a laser. A LED (light emitting diode) may be understood as a semiconductor diode that includes a p-n junction, which may emit narrow-spectrum light when electrically biased in the forward direction. The LED may provide an excitation generating electromagnetic energy in the range of 200 to 1500 nm, including all values and increments therein, such as 380 nm, 450 nm to 470 nm, etc. A laser (light amplification by stimulated emission of radiation) may be understood as an optical source that may emit photons in a coherent beam and may also have a relatively narrow-spectrum bandwidth. The laser may be a solid state laser, such as a doubled neodymium doped yttrium aluminum garnet (Nd:YAG) laser, which may produce a wavelength of approximately 532 nm, however, other laser sources may be contemplated as well such as gas lasers including helium-neon or argon-ion, or laser diodes. Lasers may provide an excitation generating electromagnetic energy in the range of about 150 to over 3,000 nm, including all values and increments therein, such as 532 nm, 193-351 nm, etc. As alluded to above, however, other optical sources, or excitation sources may be utilized as well.

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How Does a LED TV Work

Like said earlier, a LED TV is an enhanced and improved version of a LCD TV. LED TVs have slimmer and thinner body panel. The back-light intensity and brightness is much more. Pixel clarity is fine and clear.

The baseline functioning of LED is that it illuminates the LCD panels by using LED technology. Light Emitting Diodes are small electrical components of semiconductor. They emit bright light when current is passed through them. This current is specifically passed from one LED anode to another. These anodes are positively charged electrodes and negatively charged cathodes.

LED TVs consume a lot lesser amount of energy giving much more brighter display compared to LCD and Plasma.
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I'm sorry, but i'm convinced this is why the push for hd tv's was pushed by gov funding and also explains why they are pushing for CFL's to be used??

What is the wavelength range of the light radiation that is emitted by CFLs?

Since CFLs are designed to provide general illumination, the majority of the light emitted by CFLs is localized to the visible region of the spectrum (approximately 400-700 nm in wavelength). In addition, typical CFLs emit a small amount of UVB (280-315 nm), UVA (315-400 nm) and infrared (> 700 nm) radiation.

[link to www.fda.gov]

The detection instrumentation may include one or more devices for detecting the various wavelengths or forms electromagnetic energy, such as a photodetector. Photodetectors may include photodiodes or charge coupled devices. A photodiode may be understood as a semiconductor including a p-n junction. When electromagnetic energy of a given wavelength range strikes the photodiode, photons may be absorbed resulting in the production of a photocurrent. The photodiode may be silicon based and may be sensitive to wavelengths in the range of 190 to 1100 nm, including all values and increments therein. A charge coupled device (CCD) may be understood as an image sensor including an integrated circuit containing an array of linked or coupled capacitors or photodiodes sensitive to electromagnetic energy. CCD's may also be sensitive to wavelengths in the range of 150 to 1100 nm, including all values and increments therein.

[link to www.google.com]

Last Edited by mrsmith006 on 10/29/2014 10:12 AM

Nill....in that black to red flesh layer with moisture concenplating unwanted blhblh pffgh a few more tostis but ehr the bread tasted not super and the cheese didn't and pig liver ... Plus old tomato cethup without oxygen pockets.

you, sound as crazy as me

Saur not base acid that resides in the stumach or something

Ah and ...

I like it

WOW it keeps going away from the first page fast.. last few times i'll bump