0000000001324101

AUTHOR

Jarno M. A. Tanskanen

showing 6 related works from this author

Quantification and automatized adaptive detection of in vivo and in vitro neuronal bursts based on signal complexity.

2015

In this paper, we propose employing entropy values to quantify action potential bursts in electrophysiological measurements from the brain and neuronal cultures. Conventionally in the electrophysiological signal analysis, bursts are quantified by means of conventional measures such as their durations, and number of spikes in bursts. Here our main aim is to device metrics for burst quantification to provide for enhanced burst characterization. Entropy is a widely employed measure to quantify regularity/complexity of time series. Specifically, we investigate the applicability and differences of spectral entropy and sample entropy in the quantification of bursts in in vivo rat hippocampal meas…

Computer scienceQuantitative Biology::Tissues and OrgansAstrophysics::High Energy Astrophysical PhenomenaEntropyCell Culture TechniquesElectrophysiological PhenomenaAction Potentialsta3112HippocampusEntropy (classical thermodynamics)In vivoEntropy (information theory)AnimalsEntropy (energy dispersal)Rats WistarEntropy (arrow of time)ta217NeuronsSignal processingQuantitative Biology::Neurons and Cognitionta213Entropy (statistical thermodynamics)Signal Processing Computer-Assistedadaptive detectionelectrophysiological signal analysisquantificationneuronal burstsElectrophysiological PhenomenaSample entropyElectrophysiologyElectrophysiologyMicroelectrodeBiological systemNeuroscienceMicroelectrodesEntropy (order and disorder)Annual International Conference of the IEEE Engineering in Medicine and Biology Society. IEEE Engineering in Medicine and Biology Society. Annual International Conference
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Spectral entropy based neuronal network synchronization analysis based on microelectrode array measurements

2016

Synchrony and asynchrony are essential aspects of the functioning of interconnected neuronal cells and networks. New information on neuronal synchronization can be expected to aid in understanding these systems. Synchronization provides insight in the functional connectivity and the spatial distribution of the information processing in the networks. Synchronization is generally studied with time domain analysis of neuronal events, or using direct frequency spectrum analysis, e.g., in specific frequency bands. However, these methods have their pitfalls. Thus, we have previously proposed a method to analyze temporal changes in the complexity of the frequency of signals originating from differ…

0301 basic medicineComputer scienceNeuroscience (miscellaneous)ta3112Radio spectrumSynchronizationlcsh:RC321-571Correlation03 medical and health sciencesCellular and Molecular Neuroscience0302 clinical medicineBiological neural networkMethodsTime domainlcsh:Neurosciences. Biological psychiatry. NeuropsychiatrySimulationEvent (probability theory)rat cortical cellsMEAmicroelectrode array213 Electronic automation and communications engineering electronicsspectral entropyInformation processingCorrectiondeveloping neuronal networksMultielectrode array217 Medical engineering030104 developmental biologycorrelationmouse cortical cellsBiological systemsynchronization030217 neurology & neurosurgeryNeuroscienceFrontiers in Computational Neuroscience
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Burst analysis tool for developing neuronal networks exhibiting highly varying action potential dynamics

2012

In this paper we propose a firing statistics based neuronal network burst detection algorithm for neuronal networks exhibiting highly variable action potential dynamics. Electrical activity of neuronal networks is generally analyzed by the occurrences of spikes and bursts both in time and space. Commonly accepted analysis tools employ burst detection algorithms based on predefined criteria. However, maturing neuronal networks, such as those originating from human embryonic stem cells (hESC), exhibit highly variable network structure and time-varying dynamics. To explore the developing burst/spike activities of such networks, we propose a burst detection algorithm which utilizes the firing s…

Computer scienceNeuroscience (miscellaneous)Interval (mathematics)ta3112lcsh:RC321-57103 medical and health sciencesCellular and Molecular Neuroscience0302 clinical medicineMoving averageHistogramBiological neural networkMethods Articleburst analysislcsh:Neurosciences. Biological psychiatry. Neuropsychiatry030304 developmental biology0303 health sciencesspike trainsQuantitative Biology::Neurons and Cognitionmicroelectrode arrayMEAaction potential burstsdeveloping neuronal networksMultielectrode arrayhuman embryonic stem cellsPower (physics)nervous systemSkewnesshESCsSpike (software development)Biological systemNeuroscience030217 neurology & neurosurgeryNeuroscienceFrontiers in Computational Neuroscience
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Corrigendum: Spectral Entropy Based Neuronal Network Synchronization Analysis Based on Microelectrode Array Measurements

2020

Physicsrat cortical cellsSpectral entropyspectral entropyNeuroscience (miscellaneous)developing neuronal networksMultielectrode arraylcsh:RC321-571Cellular and Molecular NeurosciencecorrelationSynchronization (computer science)Biological neural networkmouse cortical cellsBiological systemsynchronizationlcsh:Neurosciences. Biological psychiatry. NeuropsychiatryFrontiers in Computational Neuroscience
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Analyzing the feasibility of time correlated spectral entropy for the assessment of neuronal synchrony

2016

In this paper, we study neuronal network analysis based on microelectrode measurements. We search for potential relations between time correlated changes in spectral distributions and synchrony for neuronal network activity. Spectral distribution is quantified by spectral entropy as a measure of uniformity/complexity and this measure is calculated as a function of time for the recorded neuronal signals, i.e., time variant spectral entropy. Time variant correlations in the spectral distributions between different parts of a neuronal network, i.e., of concurrent measurements via different microelectrodes, are calculated to express the relation with a single scalar. We demonstrate these relati…

0301 basic medicineSpectral power distributionhippocampusta3112Correlation03 medical and health sciences0302 clinical medicineStatisticsBiological neural networkAnimalsEntropy (information theory)Neuronal synchronyAnalysis methodMathematicsta217Quantitative Biology::Neurons and Cognitionta213Spectral entropybiological neural networkselectrodesrats030104 developmental biologycorrelationBiological systementropyprobesMicroelectrodes030217 neurology & neurosurgery
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Burst analysis tool for developing neuronal networks exhibiting highly varying action potential dynamics

2012

In this paper we propose a firing statistics based neuronal network burst detection algorithm for neuronal networks exhibiting highly variable action potential dynamics. Electrical activity of neuronal networks is generally analyzed by the occurrences of spikes and bursts both in time and space. Commonly accepted analysis tools employ burst detection algorithms based on predefined criteria. However, maturing neuronal networks, such as those originating from human embryonic stem cells (hESCs), exhibit highly variable network structure and time-varying dynamics. To explore the developing burst/spike activities of such networks, we propose a burst detection algorithm which utilizes the firing …

purskeanalyysispike trainsQuantitative Biology::Neurons and CognitiontoimintapotentiaalipurskeetMEAmicroelectrode arrayaction potential burstsdeveloping neuronal networksihmisalkion kantasoluhuman embryonic stem cellssoluttoimintapotentiaaliryhmätnervous systemhESCsmikroelektordihilakehittyvät hermoverkotburst analysis
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