INFO GURU

how to speed up your firefox 10x faster?

1. Type "about:config" into the address bar and hit enter. Scroll down and look for the following entries:

2. Alter the entries as follows:

Set "network.http.pipelining" to "true"
Set "network.http.proxy.pipelining" to "true"

set "network.http.pipelining.maxrequests" to some number like 30. This means it will make 30 requests at once.

3. Lastly right-click anywhere and select New-> Integer. Name it "nglayout.initialpaint.delay" and set its value to "0". This value is the amount of time the browser waits before it acts on information it receives.

Product Description Specifications:
Model: N99
Band: Dual-band, GSM 900 / 1800 MHz
Screen: Resolution: 240 * 320
2.6" Touchscreen LCD / 260K colors TFT
Features: Dual Sim Card & two call standby
Weight: 120g
Dimensions: 106.5 * 51 * 16
Battery: 1150 mAH Li-Battery for EXTRA-LONG battery life
Talk Time: 8 Hours
Standby Time: 400 Hours
Video Camera
Camera: 2 MP camera on back side
Ring tones: 64 bit
Supports Bluetooth
Dual Speakers with 3D sound

Features:
MP3 (mp3, AAc, WAV, AMR, MIDI, & IMDY formats)
MP4
WAP 2.0 (web browsing)
SMS (text messaging)
MMS (multimedia message servicing - send picture, voice, & text messages)
Memory: 256 mb

Supports maximum 2 GB T-flash card
Phone book (stores up to 400 numbers)
Incoming call options (set specific rings, photos, or even videos for individual callers)
Assign MP3 files as ring tones
Languages: English & Chinese (English standard) and other languages.
Call waiting
Voicemail
Pre-loaded games
Calculator
World clock
Unit conversion
Exchange rate conversion
Calendar
Health management function
Memo / To do list
Alarm
Voice Recording
Image Viewer
File management
Key stroke recognition & keyboard input

Package includes:
GSM Dual-Band Cell/Mobile Phone
Lithium Batteries (2 pieces 1800mAh)
Power Adaptor
USB DataCable
256mb TF card (Installed in the phone)
Handwriting Stylus
Earphone
Manual

Here are the made up specs for this made up phone:

• 7.2 mega pixel camera with Carl Zeiss lens
• 5x optical zoom (20x with digital)
• 3.5″ inch touch screen
• integrated GPS receiver
• integrated TNT receiver (Télévision Numérique Terrestre - this is what French call digitally broadcast TV channels)
• Symbian S70 3rd edition
• 3D graphics accelerator
• bluetooth
• Wi-Fi (b,g,n)
• HSDPA
• video recording at 720×576 and 30fps
• Multimedia support

5x optical zoom made us laugh the hardest. It is not mentioned in this list but I’m sure the N98 will be able to handle microSD cards and have a battery that lasts 12 hours on a single charge.

FED means field emission display

A field emission display is a type of flat panel display using field emitting cathodes to bombard phosphor coatings as the light emissive medium.

Field emission displays are very similar to cathode ray tubes, however they are only a few millimeters thick. Instead of a single electron gun, a field emission display (FED) uses a large array of fine metal tips or carbon nanotubes (which are the most efficient electron emitters known), with many positioned behind each phosphor dot, to emit electrons through a process known as field emission. Because of emitter redundancy, FEDs do not display dead pixels like LCDs even if 20% of the emitters fail. Sony is researching FED because it is the flat-panel technology that comes closest to matching the picture of a CRT.

Like LCDs, FEDs are energy efficient and could provide a flat panel technology that features less power consumption than existing LCD and plasma display technologies. They can also be cheaper to make, as they have fewer total components. As of yet, however, there are no consumer production models available in the United States, although small demo panels have been produced.

A field emission display (FED) is a low power, flat cathode ray tube type display that uses a matrix-addressed cold cathode to produce light from a screen coated with phosphor materials. The principle of the field emission display is similar to that of the traditional cathode ray tube display. Field emission displays, like cathode ray tubes, display a color image by emitting light of a predetermined color through the bombardment of electrons onto a field emitter array (FEA) coated with phosphor. They both emit electrons to hit the fluorescent medium on a substrate in vacuum. Electron emission includes field electron emission, secondary electron emission, and photoelectric emission, as well as thermionic emission. A cold cathode is the cathode that performs electron emission by field electron emission, which occurs due to a tunnel effect when a strong electric field is applied to the vicinity of the surface of a substance to lower the potential barrier on the surface. The cathode ray tube display emits electron beams by a single electron gun and controls the direction of the electron beams by using a polarization plate. Instead, the field emission display is composed of hundreds of thousands of active cold emitters, each of which corresponds to a pixel independently, so no polarization plate is needed. Field emission displays (FEDs) apply a strong electric field from a gate to a field emitter disposed on a cathode layer at regular intervals, thereby emitting electrons from the field emitter, colliding the electrons with a phosphor material of an anode layer, and emitting .light The cold cathode electron source is broadly divided into a field emission electron source and a hot electron type electron source. The former includes a spindt type electron source, a surface conduction type electron source and a carbon nanotube type electron source. The latter includes an MIM (metal-insulator-metal) type electron source stacked with metal-insulator-metal and an MIS (metal-insulator-semiconductor) type electron source stacked with metal-insulator-semiconductor. When displaying an image in the field emission display, a driving method called a line sequential scanning scheme is used standardly. Display in each of the frames is performed for each scan line (horizontally). All the cold cathode electron sources corresponding to the number of data lines on the same scan line are operated at the same time.

Field emission display (FED) technology has been proposed as a display technology that enjoys the advantages of allowing for wide viewing angles as well as being thin and light weight. The field emission display has the advantage of high image quality found with the conventional cathode ray tube display. Also, the field emission display has advantages of high yield, fast reacting time, good performance in displaying coordination, having high brightness, light and thin structure, wide range of color temperature, high mobile efficiency, excellent distinguishability of tilted direction, etc. in comparison with the conventional liquid crystal display that has the disadvantages of blurred view angle, limited range of usable temperature, and slow reacting time. Moreover, the field emission display emits light spontaneously. Field emission display has not only soft picture, rapid reaction, and clear brightness like CRT, but also possesses characteristics of lightness of flat display and low performance consumption. FED has advantages of light weight and thin profile, like liquid crystal display (LCD), and advantages of high brightness and self luminescence, like cathode ray tube (CRT). The image quality of the field-emission display is similar to that of the conventional cathode ray tube (CRT) display, while the dimension of the field-emission display is much thinner and lighter compared to the cathode ray tube display. Being self-illuminant, field emission display does not require a back light source like the liquid crystal display. In addition to the better brightness, the viewing angle is broader, power consumption is lower, response speed is faster, and the operation temperature range is larger. Through the construction of a high efficiency fluorescent film, the field emission display provides outstanding brightness performance even outdoors so it is thought as a quite competitive display panel and is even likely to replace the liquid crystal display. Field emission devices are used in a number of different applications, including displays, e-beam lithography, chemical analysis and space propulsion.