Fully-Connected Neural Network

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A Fully-Connected Neural Network is an Artificial Neural Network that is composed solely of Fully-Connected Neural Network Layers.



References

2017a

2017b

Left: A 2-layer Neural Network (one hidden layer of 4 neurons (or units) and one output layer with 2 neurons), and three inputs. Right: A 3-layer neural network with three inputs, two hidden layers of 4 neurons each and one output layer. Notice that in both cases there are connections (synapses) between neurons across layers, but not within a layer.

2017c

  • (Wikipedia, 2017) ⇒ https://en.wikipedia.org/wiki/Network_topology#Fully_connected_network Retrieved:2017-12-17.
    • In a fully connected network, all nodes are interconnected. (In graph theory this is called a complete graph.) The simplest fully connected network is a two-node network. A fully connected network doesn't need to use packet switching or broadcasting. However, since the number of connections grows quadratically with the number of nodes: This kind of topology does not trip and affect other nodes in the network [math]\displaystyle{ c= \frac{n(n-1)}{2}.\, }[/math] This makes it impractical for large networks.

2016

arch

1990

  • (Hsu et al., 1990) ⇒ Hsu, K. Y., Li, H. Y., & Psaltis, D. (1990). Holographic implementation of a fully connected neural network. Proceedings of the IEEE, 78(10), 1637-1645 DOI: 10.1109/5.58357.
    • ABSTRACT : A holographic implementation of a fully connected neural network is presented. This model has a simple structure and is relatively easy to implement, and its operating principles and characteristics can be extended to other types of networks, since any architecture can be considered as a fully connected network with some of its connections missing. The basic principles of the fully connected network are reviewed. The optical implementation of the network is presented. Experimental results which demonstrate its ability to recognize stored images are given, and its performance and analysis are discussed based on a proposed model for the system. Special attention is focused on the dynamics of the feedback loop and the tradeoff between distortion tolerance and image-recognition capability of the associative memory.