Nanowires Four Times Faster Than Silicon
evileyetmc writes "Advances in nanowires have shown that they may be the future in cheap, high-performance electronics. Researchers at Harvard have shown that nanowire transistors are are least four times faster than existing silicon ones. These nanowires show promise in being able to be embedded in plastics, and could lead to devices such as flexible displays that process information in the screen itself."
Why do breast implants have to be faster?
Integrated with things like electronic paper, this would be brilliant - it would eliminate the need for a bulky separate processing unit. Imagine being able to hold a piece of paper that acts as a (very) basic computer...
I have talked with engineers at Tokyo University about this technology, and they are very confident that nanotube transistors are the future of electronics, not only because of speed, but also because they have fewer heat dissipation problems. And the prospect of having technology for electronic displays that can be rolled up like paper for easy transport just r0x0rz!!!
If video games are created by teams of designers and artists, how are they not art??? www.skylarscaling.com
Now the signal doesn't just get decrypted in the monitor, it doesn't even get decrypted and displayed until it reaches the display surface itself. Still doesn't close the analog hole, though...
PHEM - party like it's 1997-2003!
I'm not an EE, so I might be wrong about some of this, but this is how I understand things - please corroborate or correct as appropriate.
If the "hardware" is actually 4x faster than silicon, then that's a 4x increase for similarly scaled systems, right? The thing is that this technology can generate huge improvements in one of the primary focal points in chip design (aside from materials) over the last couple decades: smaller scale. There are several advantages to this: speed, heat, and power consumption, to name the top 3.
If you only have to send a signal 1/10th the distance to get it processed, that's a 10x increase in the throughput. If the processing also takes place in an area 1/10th the size, that's a full 10x increase in speed for the same construction material. (I pulled that 1/10th out of the air for ease of use, I realize nanowires could potentially construct circuits much smaller than this scale compared to current silicon architecture.)
Now, make that material 4x faster on top of the scaling improvements, and you have, not a 4x improvement, but a 40x improvement, right? Is there some glaring technical detail I'm missing?
... since whenever I get frustrated with buggy code I'll just crumple up the monitor and throw it away.