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Laser TVs FAQ Reviews - 2009 |More reviews|

2008-2009 - Laser TV Review & Future TV technologies

 

Overview Lazer - Laser TV Reviews - 2008-2009 |Organic -Inorganic Devices |Lamp free projectors|

Laser TV
Mitsubishi 65in LaserTV

73-inch LaserVue is due to be released soon.

Basic Specifications for 65 inch LaserVue model

Weight: 130 pounds (65-inch)

Brightness: 500 nits

Color Gamut: BT.709 (a standard for color measurement in televisions) approximately 200-percent

3D Capability: REALD (3D) chip

Power Consumption: < 200 watts

Viewing Angle: 160 degrees

Other Features: Smooth 120hz and x.v. Color


Optoelectronics combines optics together with electronics for emitting, modulating, transmitting, and sensing light signals in the consumer electronics industry.

Arasor's focus is to enable the optoelectronic solutions that drive laser-based displays for use in flat screen televisions and digital projectors. Working with Novalux Corporation (see http://www.novalux.com ), Arasor's optical chip-set is used to generate the primary colors of red, green and blue, and create the laser light source.

The compactness and efficiency of the laser source will play a pivotal role in the emerging pocket projection market, and will further expand the information revolution by enabling the "pico" or hand-held personal projection display.

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Laser based displays offer significant benefits over traditional light bulb driven displays, the most striking of which is an increased visible color gamut which creates images with richer reds, blues and greens than existing television or lamp projector displays can offer.

Laser display TVs offer significant advantages over Plasma and LCD TVs including:

  • Expanded color range: 200% of NTSC/HDTV
  • Brighter & more vibrant color (Instant on/off, No burn-in)
  • Easy to scale up in screen size
  • Half the manufacture price of same size plasma
  • Significantly longer life and decreased need for power

Laser TV Press

Mitsubishi Digital Electronics America Introduces New Category of Large-Format Televisions with Groundbreaking Laser Technology

Mitsubishi's Revolutionary Laser Television Raises Home Entertainment to a New Level

LAS VEGAS — January 7, 2008 — Mitsubishi Digital Electronics America, Inc. today announced the world premiere of the laser television category during the Consumer Electronics Show in Las Vegas, unveiling a new large-format LaserTV that delivers as much as twice the color of current high-definition televisions.

Mitsubishi has harnessed its worldwide leadership in precision laser technology to produce the first-ever laser-powered television, delivering a range of color never before seen in home entertainment. Precise and focused, the purity of laser light surpasses current high-definition technologies. Today's HDTVs display less than 40 percent of the color spectrum that the eye can see. Now, for the first time ever, laser produces twice the color. Laser beams provide the widest range of rich, complex colors, along with the most clarity and depth of field.

This LaserTV category introduction represents a significant milestone in Mitsubishi's strategy to lead the large-format, high-definition television space and meet the growing consumer demand for a richer entertainment experience. Mitsubishi has long led in large-format and high-definition television innovation with introduction of the big screen category in 1978 and, subsequently, the world's first 50-inch rear projection TV, first 35-inch color TV, and first 1080p DLP® HDTV.

“Mitsubishi has delivered significant technology innovations in the large-format television arena, and the debut of LaserTV further strengthens our position and track record for HDTV leadership,” said Frank DeMartin, vice president, marketing, at Mitsubishi Digital Electronics America. “LaserTV technology creates a portal to an intensely real and vivid world – beyond ordinary flat TV. It's a true dimension experience.”

A New Dimension in Home Theater: LaserTV and 3D
Mitsubishi LaserTVs not only provide the ultimate picture quality, they are also capable of delivering a true 3D viewing experience, demonstrating the company's continued commitment to set the standard for entertainment viewing by partnering with Hollywood on next-generation entertainment solutions. At the LaserTV launch event at the Palms Hotel on Monday, Mitsubishi teamed with leading 3D digital technology provider REAL D to demonstrate the most advanced 3D content available today.

Environmentally friendly
The Mitsubishi large-format LaserTVs provide the highest performance in HDTV, and they do so with low power consumption. While today's flat panel HDTVs consume significantly more energy than the analog TVs that they replace, LaserTVs are energy efficient, consuming less power than comparably sized flat-panel sets.

The unique styling of Mitsubishi's LaserTV allows for easy wall-mounting in a variety of home entertainment settings.

Mitsubishi will ship LaserTVs to authorized retailers in the United States later this year.


Want Laser TV now?
Consider this option for larger sizes..

How did you watch your finals?
Pubs spend $100,000 on a 100 inch plasma when they could have had this at a fraction of the cost..
Unlike a Plasma screen this one lasts forever.

SuperNova!

Actual Image


With a "Daylight Screen" it's like being there, without the parking (Actual Images)


DNP SuperNova Front Daylight Projection Screen, see the SANYO PLV-80 combination for 100 inch plasma performance at 1/5 the cost.

display solutions at AIM..
Need a really big display solution? Call AIM

BUSINESS MODELS - DATA PROJECTORS on-line shop..


Laser TV..

Statements like don't buy anything else and wait for laser TV need to be read with cynicism. Without the DLP chip you have nothing so should it really be called Phaser TV? Sounds even cooler..

Hype is sometimes for the benefited of potential investors. "The unveiling of the laser TV prototype was held on the eve of Arasor's public float on the Australian Stock Exchange next week."


Phaser TV?

FED Field emission display was all the rage and offered most of the claims laser TV now does. From 2001 a company spent $600 million on producing FEDs, later in 2004 sold the farm to Canon then filed for chapter 11 or we're in trouble now.

SED Surface-conduction Electron-emitter Display

Since 1987 it's been the next big thing Canon Inc. and Toshiba Corp. are to launch surface-conduction electron-emitter display (SED) technology, in 2008 which some industry experts are expecting to be the plasma killer.


A laser I can afford..
It's been known for a while that lasers can do it all!

Laser-DLP TV works much the same as DLP rear projection TV's except that the light source is lasers rather than a mercury lamp. There is no need for a spinning colour wheel as in single chip DLP projectors etc. 3 lasers or light sources are used and modulated to give the required colour.

All good so far, it gets better on paper.. a much larger colour gamut which means you can see more colours if 16 million or more is not enough.

Points not debated

Lasers used in the current prototype TVs are not as bright so you'll need to use a high gain screen which will restrict viewing angles. That's if you're competing with LCD in a bight room.

Laser TV must draw the colours sequentially i.e. Red then Blue then Green. This is much like a DLP projector and some people get headaches from colour strobes. You may see DLP "Rainbows" too.

Because a colour wheel is replaced by 3 lasers it does not change the fact that unless you also use 3 x DLP chips you must strobe the colours, this also cuts down the brightness.

We're sure Laser TV (or should we say DLP TV with a laser light source) will arrive but what are the drawbacks? It's been our experience that one size never fits all.

-- AIM

Some other Display Technologies

DLP Digital Light Processor

Electronic Ink

FED Field Emission Display

LCD Liquid Chrystal Display

OLED Organic Light Emitting Diode

PDP Plasma Display Panel

PLED polymer organic light-emitting diodes

SED Surface-conduction Electron-emitter Display

Electronic Ink (Could evolve to displays)

Organic or Inorganic?

A flat panel display is an organic light-emitting device that is able to be competitively priced. An organic light-emitting device is capable of being a light, thin, short and small display device since it has a fast response rate, superior luminance and a simple structure compared to a liquid crystal display light receiving device.

A plasma display panel, a liquid crystal display and a light emitting diode display belong to the family of flat panel display devices. Among the displays, the LCD, which is generally utilized, is used as a display for a portable terminal as well as for a desktop computer.

A color plasma display panel is a display in which ultraviolet rays are produced by gas discharge to excite phosphors so that visible lights are emitted therefrom to perform a display operation. Depending upon a discharge mode, the color PDP is classified into an AC (alternating current) or a DC (direct current) type. The AC plasma display is superior to the DC type in luminance, luminous efficiency, and lifetime.

Flat panel display devices have excellent characteristics of light weight and low power consumption. An electroluminescent display (ELD) device is an emissive display device using an electroluminescent (EL) phenomenon that light is emitted from a luminescent layer when an electric field is applied.

The ELD device can be classified into inorganic and organic types according to a source generating an excitation of carriers. Especially, an inorganic type ELD device has been widely used because of its capabilities of displaying full color and moving images, high brightness, and low driving voltage.

The flat panel devices such as LCD devices and ELD devices have a circuit unit and a display panel. The circuit unit converts RGB (red, green, and blue) data and control signals of the external driving system into pertinent electrical signals and the display panel shows images to users by using the electrical signals. The flat panel display receives image signals and horizontal and vertical synchronizing signals from a host. The received image signals are synchronized by the flat panel display according to the horizontal and vertical synchronizing signals and displayed thereby. The image signals generated from the host can have various types of modes according to video cards equipped in the host.

A liquid crystal display device is a flat-panel display device having characteristics of being thin and light-weight, and low power consumption. The liquid display devices provide richer and fuller colors and higher resolutions as compared with conventional display devices. As the result, the liquid display devices have been gaining its popularity among other display devices such as digital cameras, notebook computers, and flat panel television systems.

A liquid crystal display device is composed essentially of two glass substrates that are separated to form a predetermined space into which a layer of liquid crystal is injected. A polymer thin film, called an alignment film, is disposed between the glass substrate and the liquid crystal layer, and the alignment film is processed for aligning the liquid crystal molecules. In the active matrix liquid crystal display device, a plurality of thin film transistors (TFTs) are formed near intersections between scanning lines and signal lines, and used as switching elements each for selectively driving a corresponding one of the pixel electrodes.

Liquid crystal display panels generally operate by having a matrix of electrically controllable liquid crystals that are used to modulate reflected or emitted light. By turning on and off the liquid crystals of the matrix in a particular pattern, an image is rendered across liquid crystal matrix. The liquid crystal display device can display the images according to the changes of the optical characteristics of the liquid crystal cell.

Organic electroluminescent (EL) displays, which originally were thinner than the LCDs, have become larger, and are now commercially available. Following Sony Corp. (Tokyo), which plans to sell an 11 in. organic EL television a 4.3 in. organic EL display and a 7.6 in. display in the first quarter of 2008. The company also demonstrated a prototype of a 25 in. display. Samsung demonstrated a 14 in. organic EL display, but did not disclose the commercialization time.

Organic EL is on the verge of becoming an excellent complementary technology capable of reducing electronic power consumption, particularly as a next-generation display technology.

Features of Organic Electroluminescence (EL) Organic EL is defined as an organic light-emitting diode composed of organic compound films such as polymers and small molecules in its emissive layer. A significant benefit of Organic EL over traditional Liquid Crystals (LCs) is that the former does not require backlights in order to function, thereby saving electricity. Also, compared to LCs, Organic EL has superior luminescence, contrast, resolution, response speed, and wide viewing angle.

Sony became the first company in the world to sell 11-inch (measured diagonally) Organic EL TV named “XEL-1”. The XEL-1 model is just 3 millimetres thin and offers picture quality with extremely high contrast, outstanding brightness, exceptional colour reproduction, and a rapid response time. The OLED display panel in XEL-1 uses extremely low power levels since the light-emitting structure of the panel eliminates the need for a separate light source.

PLED is looking ever more likely to become the next mainstream display technology.

PLED polymer organic light-emitting diodes.

References

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