What makes neuromorphic architectures more efficient (less heat and power consumption) than von Neumann architecture for complex tasks? Except inspiration from biological systems, what are some formal results on this? Any reference to books or articles is appreciated as well.
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$\begingroup$ arxiv.org/abs/1206.3227 $\endgroup$– Bug KillerCommented Nov 17, 2013 at 5:35
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$\begingroup$ The idea of the paper is very interesting, thanks. $\endgroup$– trxwCommented Nov 17, 2013 at 20:01
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$\begingroup$ in a way this is more an EE/physics question. note also youre "comparing apples & oranges" $\endgroup$– vznCommented Nov 18, 2013 at 3:04
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1$\begingroup$ ncbi.nlm.nih.gov/pmc/articles/PMC3181466 (specifically the citations in Figure 1's caption.) The comparison is a bit silly though: they're comparing single neurons, and it isn't clear how many neurons vs. how many digital computations would be required to implement any algorithm other than "simulate the Hodgkin-Huxley system of nonlinear differential equations." To do a real comparison you need to compare a digital circuit of equally low precision and implemented with something like adiabatic charge recovery logic. $\endgroup$– Wandering LogicCommented Nov 18, 2013 at 21:42
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