FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2226593064> ?p ?o ?g. }

• W2226593064 endingPage "99" @default.
• W2226593064 startingPage "86" @default.
• W2226593064 abstract "Neuronal oscillations are a prominent feature of neuronal population activity. Across populations, oscillations exhibit stable phase relations that can be highly diverse across nearby sites. Phase relation diversity is prominent even for high-frequency (>40 Hz) oscillations during sustained visual stimulation, and is therefore neither restricted to low frequencies nor to periods outside of sensory processing. Arguing for its computation relevance, this diversity is modulated by both sensory and motor events and, for hippocampal theta oscillations, it even allows for reconstructing a rat's location. Phase relation diversity may enhance selectivity of neuronal communication and allow for the concurrent segregation of multiple information streams. This may be particularly relevant for beta oscillations that are coherent across frontal and parietal brain areas. Neuronal oscillations at nearby sites in the brain often show phase relations that are consistent across time, yet diverse across space. We discuss recent demonstrations of this phase relation diversity, and show that, contrary to earlier beliefs, this diversity is a general property of oscillations that is neither restricted to low-frequency oscillations nor to periods outside of stimulus processing. Arguing for the computational relevance of phase relation diversity, we discuss that it can be modulated by sensory and motor events, and put forward the idea that phase relation diversity may support effective neuronal communication by (i) enhancing selectivity and (ii) allowing for the concurrent segregation of multiple information streams. Neuronal oscillations at nearby sites in the brain often show phase relations that are consistent across time, yet diverse across space. We discuss recent demonstrations of this phase relation diversity, and show that, contrary to earlier beliefs, this diversity is a general property of oscillations that is neither restricted to low-frequency oscillations nor to periods outside of stimulus processing. Arguing for the computational relevance of phase relation diversity, we discuss that it can be modulated by sensory and motor events, and put forward the idea that phase relation diversity may support effective neuronal communication by (i) enhancing selectivity and (ii) allowing for the concurrent segregation of multiple information streams. correlation across time between a signal and a time-shifted copy of that same signal. degree to which the phase relations between two signals are consistent across non-overlapping time windows. correlation across time between a signal and a time-shifted copy of another signal. data analytic technique that estimates a variable (e.g., the current position of an animal) on the basis of a set of other variables (e.g., neuronal signals). phase at which a neuron with an oscillating membrane potential has the highest probability of generating an action potential in response to excitatory synaptic input. the difference in electric potential between the interior and the exterior of a cell. The membrane potential is especially relevant for cells with voltage-sensitive ion channels, such as neurons: the more positive the membrane potential, the higher the probability that an excitatory synaptic input results in an action potential (produced by a massive opening of voltage-sensitive sodium channels). neuronal signal with a repeating waveform. Such a signal is also said to exhibit periodicity or rhythmicity, and it is reflected in the fact that the autocorrelogram has multiple peaks. particular relation between a low- and a high-frequency signal component, involving that the time-varying amplitude of the high-frequency component predominantly occurs at a particular phase of the low-frequency component. time relation between two periodic signal components, expressed as the fraction of the repeating waveform by which the signals are shifted. variability across signal pairs with regard to their phase relations. waveform over (as a function of) space that changes its position over time. dye that changes its spectral properties in response to voltage changes, allowing it to be used for optical imaging of potential distributions." @default.
• W2226593064 created "2016-06-24" @default.
• W2226593064 creator A5017790641 @default.
• W2226593064 creator A5065034707 @default.
• W2226593064 creator A5091232686 @default.
• W2226593064 date "2016-02-01" @default.
• W2226593064 modified "2023-09-30" @default.
• W2226593064 title "Diverse Phase Relations among Neuronal Rhythms and Their Potential Function" @default.
• W2226593064 cites W110857096 @default.
• W2226593064 cites W1902335101 @default.
• W2226593064 cites W1941161570 @default.
• W2226593064 cites W1967950674 @default.
• W2226593064 cites W1968344176 @default.
• W2226593064 cites W1971935885 @default.
• W2226593064 cites W1974733263 @default.
• W2226593064 cites W1975612794 @default.
• W2226593064 cites W1979589822 @default.
• W2226593064 cites W1983813797 @default.
• W2226593064 cites W1987485108 @default.
• W2226593064 cites W2002815682 @default.
• W2226593064 cites W2003882951 @default.
• W2226593064 cites W2004473225 @default.
• W2226593064 cites W2013281964 @default.
• W2226593064 cites W2013689304 @default.
• W2226593064 cites W2017227000 @default.
• W2226593064 cites W2021039798 @default.
• W2226593064 cites W2027278504 @default.
• W2226593064 cites W2032289449 @default.
• W2226593064 cites W2036216984 @default.
• W2226593064 cites W2041782669 @default.
• W2226593064 cites W2046700922 @default.
• W2226593064 cites W2046943246 @default.
• W2226593064 cites W2051508348 @default.
• W2226593064 cites W2052515926 @default.
• W2226593064 cites W2057000565 @default.
• W2226593064 cites W2060544899 @default.
• W2226593064 cites W2063803645 @default.
• W2226593064 cites W2064790617 @default.
• W2226593064 cites W2070027623 @default.
• W2226593064 cites W2070716084 @default.
• W2226593064 cites W2072041430 @default.
• W2226593064 cites W2072307422 @default.
• W2226593064 cites W2077527065 @default.
• W2226593064 cites W2079294029 @default.
• W2226593064 cites W2086846635 @default.
• W2226593064 cites W2088631692 @default.
• W2226593064 cites W2088955805 @default.
• W2226593064 cites W2094817712 @default.
• W2226593064 cites W2099610690 @default.
• W2226593064 cites W2100631580 @default.
• W2226593064 cites W2102584403 @default.
• W2226593064 cites W2104731571 @default.
• W2226593064 cites W2107433900 @default.
• W2226593064 cites W2111177605 @default.
• W2226593064 cites W2112332687 @default.
• W2226593064 cites W2114136809 @default.
• W2226593064 cites W2115265203 @default.
• W2226593064 cites W2116797486 @default.
• W2226593064 cites W2129684561 @default.
• W2226593064 cites W2131367668 @default.
• W2226593064 cites W2133947591 @default.
• W2226593064 cites W2137107462 @default.
• W2226593064 cites W2143665560 @default.
• W2226593064 cites W2143836515 @default.
• W2226593064 cites W2145935269 @default.
• W2226593064 cites W2148351310 @default.
• W2226593064 cites W2157024373 @default.
• W2226593064 cites W2158371371 @default.
• W2226593064 cites W2160996295 @default.
• W2226593064 cites W2163982115 @default.
• W2226593064 cites W2165125969 @default.
• W2226593064 cites W2169183612 @default.
• W2226593064 cites W2170814877 @default.
• W2226593064 cites W2171523413 @default.
• W2226593064 cites W2172274087 @default.
• W2226593064 cites W4212952892 @default.
• W2226593064 doi "https://doi.org/10.1016/j.tins.2015.12.004" @default.
• W2226593064 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/26778721" @default.
• W2226593064 hasPublicationYear "2016" @default.
• W2226593064 type Work @default.
• W2226593064 sameAs 2226593064 @default.
• W2226593064 citedByCount "101" @default.
• W2226593064 countsByYear W22265930642016 @default.
• W2226593064 countsByYear W22265930642017 @default.
• W2226593064 countsByYear W22265930642018 @default.
• W2226593064 countsByYear W22265930642019 @default.
• W2226593064 countsByYear W22265930642020 @default.
• W2226593064 countsByYear W22265930642021 @default.
• W2226593064 countsByYear W22265930642022 @default.
• W2226593064 countsByYear W22265930642023 @default.
• W2226593064 crossrefType "journal-article" @default.
• W2226593064 hasAuthorship W2226593064A5017790641 @default.
• W2226593064 hasAuthorship W2226593064A5065034707 @default.
• W2226593064 hasAuthorship W2226593064A5091232686 @default.
• W2226593064 hasConcept C144024400 @default.
• W2226593064 hasConcept C148762608 @default.
• W2226593064 hasConcept C149923435 @default.
• W2226593064 hasConcept C15744967 @default.

• next