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It's funny, last weekend I went on a research spree learning about SPPs and plasmonic metamaterials after stumbling upon them while studying acoustic metamateri
by kakarot 8y ago
It's funny, last weekend I went on a research spree learning about SPPs and plasmonic metamaterials after stumbling upon them while studying acoustic metamaterials with a negative diffraction index.
Here is some further reading on Wikipedia if you're interested:
https://en.wikipedia.org/wiki/Plasmonic_metamaterial#Microscopy https://en.wikipedia.org/wiki/Plasmonic_metamaterial#Microsc...
- Asooka 8y agoCan you say if this technology will enable another ten or hundredfold increase in GHz and decrease in memory latency, giving us faster variants of our current technology, or if it will require an entirely new computing paradigm like with quantum computing?
- neltnerb 8y agoThe paper is entirely theoretical and controls the polarity by mechanically changing the distance between mirrors. I would say that this has a roughly 0% chance of having any direct practical impact in the next 20 years. Here's an introduction to what the general field might give you: http://nelson.mit.edu/blog/terahertz-polaritonics-and-technique-development http://nelson.mit.edu/blog/terahertz-polaritonics-and-techni... This field is pretty new relative to other options which have similar technological advantages, the stuff I learned about plasmonics in grad school was quite primitive despite being the state of the art 15 years ago. Whereas photonics and spintronics are much better established. I'd personally focus on graphene, single electron transistors, and photonics (with perhaps plasmonics for interfacing) as the most likely candidates for real-world improvements in the next 10 years.