CINET: A Brain-Inspired Deep Learning Context-Integrating Neural Network Model for Resolving Ambiguous Stimuli

The brain uses contextual information to uniquely resolve the interpretation of ambiguous stimuli. This paper introduces a deep learning neural network classification model that emulates this ability by integrating weighted bidirectional context into the classification process. The model, referred t...

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Main Authors: Rajesh Amerineni, Resh S. Gupta, Lalit Gupta
Format: Article
Language:English
Published: MDPI AG 2020-01-01
Series:Brain Sciences
Subjects:
Online Access:https://www.mdpi.com/2076-3425/10/2/64
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spelling doaj-9e85ed27d6e34612b2e6b18c6db156572020-11-25T01:38:58ZengMDPI AGBrain Sciences2076-34252020-01-011026410.3390/brainsci10020064brainsci10020064CINET: A Brain-Inspired Deep Learning Context-Integrating Neural Network Model for Resolving Ambiguous StimuliRajesh Amerineni0Resh S. Gupta1Lalit Gupta2Department of Electrical & Computer Engineering, Southern Illinois University, Carbondale, IL 62901, USAVanderbilt Brain Institute, Vanderbilt University, Nashville, TN 37232, USADepartment of Electrical & Computer Engineering, Southern Illinois University, Carbondale, IL 62901, USAThe brain uses contextual information to uniquely resolve the interpretation of ambiguous stimuli. This paper introduces a deep learning neural network classification model that emulates this ability by integrating weighted bidirectional context into the classification process. The model, referred to as the CINET, is implemented using a convolution neural network (CNN), which is shown to be ideal for combining target and context stimuli and for extracting coupled target-context features. The CINET parameters can be manipulated to simulate congruent and incongruent context environments and to manipulate target-context stimuli relationships. The formulation of the CINET is quite general; consequently, it is not restricted to stimuli in any particular sensory modality nor to the dimensionality of the stimuli. A broad range of experiments is designed to demonstrate the effectiveness of the CINET in resolving ambiguous visual stimuli and in improving the classification of non-ambiguous visual stimuli in various contextual environments. The fact that the performance improves through the inclusion of context can be exploited to design robust brain-inspired machine learning algorithms. It is interesting to note that the CINET is a classification model that is inspired by a combination of brain’s ability to integrate contextual information and the CNN, which is inspired by the hierarchical processing of information in the visual cortex.https://www.mdpi.com/2076-3425/10/2/64context effectdeep learningconvolution neural networksambiguous stimuli
collection DOAJ
language English
format Article
sources DOAJ
author Rajesh Amerineni
Resh S. Gupta
Lalit Gupta
spellingShingle Rajesh Amerineni
Resh S. Gupta
Lalit Gupta
CINET: A Brain-Inspired Deep Learning Context-Integrating Neural Network Model for Resolving Ambiguous Stimuli
Brain Sciences
context effect
deep learning
convolution neural networks
ambiguous stimuli
author_facet Rajesh Amerineni
Resh S. Gupta
Lalit Gupta
author_sort Rajesh Amerineni
title CINET: A Brain-Inspired Deep Learning Context-Integrating Neural Network Model for Resolving Ambiguous Stimuli
title_short CINET: A Brain-Inspired Deep Learning Context-Integrating Neural Network Model for Resolving Ambiguous Stimuli
title_full CINET: A Brain-Inspired Deep Learning Context-Integrating Neural Network Model for Resolving Ambiguous Stimuli
title_fullStr CINET: A Brain-Inspired Deep Learning Context-Integrating Neural Network Model for Resolving Ambiguous Stimuli
title_full_unstemmed CINET: A Brain-Inspired Deep Learning Context-Integrating Neural Network Model for Resolving Ambiguous Stimuli
title_sort cinet: a brain-inspired deep learning context-integrating neural network model for resolving ambiguous stimuli
publisher MDPI AG
series Brain Sciences
issn 2076-3425
publishDate 2020-01-01
description The brain uses contextual information to uniquely resolve the interpretation of ambiguous stimuli. This paper introduces a deep learning neural network classification model that emulates this ability by integrating weighted bidirectional context into the classification process. The model, referred to as the CINET, is implemented using a convolution neural network (CNN), which is shown to be ideal for combining target and context stimuli and for extracting coupled target-context features. The CINET parameters can be manipulated to simulate congruent and incongruent context environments and to manipulate target-context stimuli relationships. The formulation of the CINET is quite general; consequently, it is not restricted to stimuli in any particular sensory modality nor to the dimensionality of the stimuli. A broad range of experiments is designed to demonstrate the effectiveness of the CINET in resolving ambiguous visual stimuli and in improving the classification of non-ambiguous visual stimuli in various contextual environments. The fact that the performance improves through the inclusion of context can be exploited to design robust brain-inspired machine learning algorithms. It is interesting to note that the CINET is a classification model that is inspired by a combination of brain’s ability to integrate contextual information and the CNN, which is inspired by the hierarchical processing of information in the visual cortex.
topic context effect
deep learning
convolution neural networks
ambiguous stimuli
url https://www.mdpi.com/2076-3425/10/2/64
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AT reshsgupta cinetabraininspireddeeplearningcontextintegratingneuralnetworkmodelforresolvingambiguousstimuli
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