Intel Announces New Chips, Chipsets
Saud Hakim writes "Intel showed a prototype of an IEEE 802.11a wireless LAN transceiver created by using a 90-nm CMOS (Complementary Metal-Oxide Semiconductor) fabrication. The chip can switch between different networks and frequencies; it is capable of tuning and tweaking itself. It is also capable of detecting what kinds of wireless networks are available nearby and shifting to the frequency that is most appropriate." Reader serox sends more: "Intel has two big news releases today and IntelFanboy has it covered. First up is the new Xeon processors have been released with a list of improvements. Second, Intel has revealed two significant milestones in the development of extreme-ultraviolet (EUV) lithography that will help lead to developing the next generation chip technology."
Yay - now it will be easy for guys like me (lazy people who don't feel like assembling machines by hand anymore) to get an x86-64 box from Dell:
a spx/precn?c=us&cs=04&l=en&s=bsd
http://www1.us.dell.com/content/products/compare.
Or should I say 'Intel® Extended Memory 64 Technology' (whatever guys - everyone knows that it is just AMDs tech)
isn't 802.11a the old one that had a few benefits in certain situations over 802.11b, but is now superceded by 802.11g?
Too bad this type of wireless sytem is not allowed to use in better parts of the world, due to the regulation of radio frequencies. Why not use this adaptive frequency model in CPUs. Let the clockspeed scale with the load on the processor! (I meen scale in 30 MHz increments or something, not step between two speeds like it does now on some CPUs!)
Error #13: No coffee. Operator halted. Please place boot device at bottom.
The specs are publically available. Instead of sitting around whining, why don't you get off your ass and write the drivers yourself?
My very basic understanding of the relationship is this, it takes less power to cause a smaller semiconductor to switch states, however as you move wires closer together you start to have capacitive leakage and inductive effects from the wires. Up until a few years ago, you the former was signficantly larger than the latter, but in recent years they have become more equal in magnitude of effect.
I like to think of semiconductors (and most electrical things) in terms of fluid flow (not ideal but you can get the picture better). Imagine a water valve with both hot and cold water entry and leaving (they share a mixing area). When water arrives some processing is done that assigns it a path and when it hits the gate the force of the water opens the gate, after the water leaves it closes. If we shrink the valve down it will require less water arriving before it opens, however as we move the hot pipe closer to the cold pipe some undesired heat is transfered. This is something similar to the effects designers (and manufacturers are dealing with on semiconductors).
Degaussing scares the bad magnetism out of the monitor and fills it with good karma.