Construction of a pulse-coupled dipole network capable of fear-like and relief-like responses. Issue 3 (2nd July 2016)

• Record Type: Journal Article
• Authors: Sharma, B. Lungsi
• Is Part Of: Connection science. Volume 28:Issue 3(2016)
• Page Start: 295
• Page End: 310
• Publication Date: 2016-07-02
• Subjects: Embedding field theory -- Eckhorn neural unit -- pulse-coded neural network topology -- minimal method anatomies -- computational neuroscience; Neural computers -- Periodicals; Artificial intelligence -- Periodicals; Cognitive science -- Periodicals; Connectionism -- Periodicals; 006.3
• DOI: 10.1080/09540091.2016.1185393
• Languages: English
• ISSNs: 0954-0091

Abstract

ABSTRACT: The challenge for neuroscience as an interdisciplinary programme is the integration of ideas among the disciplines to achieve a common goal. This paper deals with the problem of deriving a pulse-coupled neural network that is capable of demonstrating behavioural responses (fear-like and relief-like). Current pulse-coupled neural networks are designed mostly for engineering applications, particularly image processing. The discovered neural network was constructed using the method of minimal anatomies approach. The behavioural response of a level-coded activity-based model was used as a reference. Although the spiking-based model and the activity-based model are of different scales, the use of model-reference principle means that the characteristics that is referenced is its functional properties. It is demonstrated that this strategy of dissection and systematic construction is effective in the functional design of pulse-coupled neural network system with nonlinear signalling. The differential equations for the elastic weights in the reference model are replicated in the pulse-coupled network geometrically. The network reflects a possible solution to the problem of punishment and avoidance. The network developed in this work is a new network topology for pulse-coupled neural networks. Therefore, the model-reference principle is a powerful tool in connecting neuroscience disciplines. The continuity of concepts and phenomena is further maintained by systematic construction using methods like the method of minimal anatomies.