And this speed, combined with today's high performance micro controllers, allows us to actually simulate, in this piece, over 17,000 LEDs using just 64.

Polymeric light emitting diodes (LEDs) have already achieved performance figures comparable to inorganic LEDs.

These LED's are wired to sensors that detect the presence of odorous molecules in the air.

We can use LEDs.

These blocks represent LEDs.

Most importantly for this, they're faster.

Furthermore, the high level of research and development in the field of GaAlAs technology promised rapid advances in the development of GaAlAs diode laser communications systems.

LEDs are smaller, they're cheaper, they're longer lasting, they're more efficient.

And so we can control that with micro controllers and create a fully volumetric, three dimensional display with just 256 LEDs.

And when it starts flashing, it's just going to be one of the LEDs that's flashing very fast.

The directed energy weapon is mainly an airborne laser (ABL).

Your Blu ray player has a very cheap blue laser.

A. Use of space based lasers in remote sensing, communications and instrumentation 16 19 4

Two Pentium computers, laserjet printer C. Latin America and the Caribbean

The system is composed of a Nd Yag laser, a light beam expander, a telescope, a CCD camera, a photo multiplier and a computer.

It achieves this by rotating LEDs about two axes.

So this robot is actually equipped with a camera and a laser rangefinder, laser scanner.

Laser or particle beams as options for active missile defences or otherwise applied in a nuclear weapons context

A. Use of space based lasers in remote sensing, communications and instrumentation

The laser retroreflector is a passive optical device used as a target by ground based laser ranging stations in order to determine the accurate position of the satellite.1

It's just 16 blue LEDs that we can program to do different types of displays.

The beam splitters and lenses are represented by physical objects, and the system projects down the laser beam path.

Protocol IV on Blinding Laser Weapons (concluded 1995)

C. Protocol on Blinding Laser Weapons (Protocol IV)

Its surface is covered by 426 reflectors to return the laser light back to the observatory.

I've got a little video to show you, but keep in mind that this is with no electronic control, and this is also with only four LEDs.

The utility of a code of conduct that includes elements of no deployment of weapons and use of no harmful lasers (taking into account the fact that not all kind of lasers can be banned).

An example of this is ground and space based kinetic energy and laser weapons.

Laser

At present, the Diet of Japan is deliberating this Revised Protocol II, as well as Protocol IV to the CCW prohibiting blinding laser weapons .

(a) Carbon dioxide laser system with heterodyne detection receiver

Your laser printer has a mirror galvanometer that's used to steer a laser beam very accurately that's what makes those little dots on the page.

Laser

Lasers

Now we have LED, but here you see the latest one, and you see how incredibly small it is.

Apart from the conventional kinetic energy ASAT weapons using land based direct ascent interceptor missiles, a prototype free electron laser at Storozhevaya, a 1MW gas laser at Troisk near Moscow and a major laser complex at Sary Shagan were constructed.

And over to the left is a view master of the CD ROM.

(c) InGaAsP laser system with a neodymium power amplifier and direct detection receiver

Circuit Horizontal Diode

Circuit Vertical Diode

Biodiversity Science and Technologyruic Biotechnology Information and Communication Technologies Energy Technologies Materials Sciences Space Science and Technology Water Science and Technology Post Harvest and Technology Indigenous Knowledge and Technologies Desertification Research Science and Technology for Manufacturing Laser Technology

Minerals Energy

. Major efforts in the development of space based laser systems were devoted to remote sensing instrumentation.

At the Andøya Rocket Range, scientific rockets are launched and the international Arctic Lidar Observatory for Middle Atmosphere Research (ALOMAR) facility uses light detection and ranging (lidars) to study the middle and upper atmosphere.

It disposes of an ultra precise Satellite Laser Ranging System (SLR), a permanently recording Global Positioning System (GPS) receiver, a radar altimeter transponder, software expertise for GPS, laser and altimetry data reduction and processing.