Real-time decoding of arm kinematics during grasping based on F5 neural spike data

Title Real-time decoding of arm kinematics during grasping based on F5 neural spike data
Author Ashena, Narges, Papadourakis, V., Raos, V., Öztop, Erhan
Publication Date: 2017
Publication Place - Springer International Publishing
Subject Arm kinematics, Grasping Image processing, Neural decoding, Ventral premotor cortex (F5)
Type Document
Language English
Digital Yes
Manuscript No
Library: Özyeğin University
Library Asset ID 978-331959071-4
Record ID 1c7d6251-10b7-42dc-afca-429e28ede61d
Library Location Computer Science
Date 2017
Notes Due to copyright restrictions, the access to the full text of this article is only available via subscription.
Sample Text Several studies have shown that the information related to grip type, object identity and kinematics of monkey grasping actions is available in macaque cortical areas of F5, MI, and AIP. In particular, these studies show that the neural discharge patterns of the neuron populations from the aforementioned areas can be used for accurate decoding of action parameters. In this study, we focus on single neuron decoding capacity of neurons in a given region, F5, considering their functional classification, i.e. as to whether they show the mirror property or not. To this end, we recorded neural spike data and arm kinematics from a monkey that performed grasping actions. The spikes were then used as a regressor to predict the kinematic parameters. Results show that single neuron real-time decoding of the kinematics is not perfect, but reasonable performance can be achieved with selected neurons from both populations. Considering the neurons that we have studied (N:32), non-mirror neurons seem to act as better single-neuron decoders. Although it is clear that population-level activity is needed for robust decoding, single-neuron decoding capacity may be used as a quantitative means to classify neurons in a given region.
DOI 10.1007/978-3-319-59072-1_31
Cilt 10261
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Real-time decoding of arm kinematics during grasping based on F5 neural spike data

Author Ashena, Narges, Papadourakis, V., Raos, V., Öztop, Erhan
Publication Date 2017
Publication Place - Springer International Publishing
Subject Arm kinematics, Grasping Image processing, Neural decoding, Ventral premotor cortex (F5)
Type Document
Language English
Digital Yes
Manuscript No
Library Özyeğin University
Library Asset ID 978-331959071-4
Record ID 1c7d6251-10b7-42dc-afca-429e28ede61d
Library Location Computer Science
Date 2017
Notes Due to copyright restrictions, the access to the full text of this article is only available via subscription.
Sample Text Several studies have shown that the information related to grip type, object identity and kinematics of monkey grasping actions is available in macaque cortical areas of F5, MI, and AIP. In particular, these studies show that the neural discharge patterns of the neuron populations from the aforementioned areas can be used for accurate decoding of action parameters. In this study, we focus on single neuron decoding capacity of neurons in a given region, F5, considering their functional classification, i.e. as to whether they show the mirror property or not. To this end, we recorded neural spike data and arm kinematics from a monkey that performed grasping actions. The spikes were then used as a regressor to predict the kinematic parameters. Results show that single neuron real-time decoding of the kinematics is not perfect, but reasonable performance can be achieved with selected neurons from both populations. Considering the neurons that we have studied (N:32), non-mirror neurons seem to act as better single-neuron decoders. Although it is clear that population-level activity is needed for robust decoding, single-neuron decoding capacity may be used as a quantitative means to classify neurons in a given region.
DOI 10.1007/978-3-319-59072-1_31
Cilt 10261
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