| scholarly article | Q13442814 |
| P50 | author | Steven H. Strogatz | Q1384920 |
| P2093 | author name string | Liu C | |
| Reppert SM | |||
| Weaver DR | |||
| P2860 | cites work | RIGUI, a putative mammalian ortholog of the Drosophila period gene | Q24316037 |
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| GABAA receptor agonist muscimol can reset the phase of neural activity rhythm in the rat suprachiasmatic nucleus in vitro | Q48189179 | ||
| Maternal suprachiasmatic nuclei are necessary for maternal coordination of the developing circadian system | Q48303859 | ||
| The suprachiasmatic nucleus of the golden hamster: immunohistochemical analysis of cell and fiber distribution | Q48619694 | ||
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| Frequency Plateaus in a Chain of Weakly Coupled Oscillators, I | Q64386608 | ||
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| P433 | issue | 6 | |
| P407 | language of work or name | English | Q1860 |
| P921 | main subject | circadian rhythm | Q208353 |
| P304 | page(s) | 855-860 | |
| P577 | publication date | 1997-12-01 | |
| P1433 | published in | Cell | Q655814 |
| P1476 | title | Cellular construction of a circadian clock: period determination in the suprachiasmatic nuclei | |
| P478 | volume | 91 |
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| Q37373255 | A role for the clock gene per1 in prostate cancer |
| Q29615207 | A serum shock induces circadian gene expression in mammalian tissue culture cells |
| Q40836093 | AII amacrine neurons of the rat retina show diurnal and circadian rhythms of parvalbumin immunoreactivity. |
| Q33604201 | Accelerating recovery from jet lag: prediction from a multi-oscillator model and its experimental confirmation in model animals |
| Q51813638 | Activity rhythm of golden hamster (Mesocricetus auratus) can be entrained to a 19-h light-dark cycle. |
| Q47560607 | Aging transition in systems of oscillators with global distributed-delay coupling |
| Q24299368 | Alternative splicing yields novel BMAL2 variants: tissue distribution and functional characterization |
| Q48256679 | An abrupt shift in the day/night cycle causes desynchrony in the mammalian circadian center. |
| Q73555192 | Analysis of clock proteins in mouse SCN demonstrates phylogenetic divergence of the circadian clockwork and resetting mechanisms |
| Q37799147 | Approaching the molecular origins of collective dynamics in oscillating cell populations |
| Q39274167 | Autonomous synchronization of the circadian KaiC phosphorylation rhythm |
| Q36670251 | BK channel inactivation gates daytime excitability in the circadian clock |
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| Q37597772 | Basis of robustness and resilience in the suprachiasmatic nucleus: individual neurons form nodes in circuits that cycle daily |
| Q30545439 | Bioluminescence imaging of individual fibroblasts reveals persistent, independently phased circadian rhythms of clock gene expression |
| Q30310118 | Bulla gouldiana period exhibits unique regulation at the mRNA and protein levels |
| Q48143100 | Calbindin expression in the hamster suprachiasmatic nucleus depends on day-length |
| Q26738550 | Cancer Clocks Out for Lunch: Disruption of Circadian Rhythm and Metabolic Oscillation in Cancer |
| Q37177687 | Cell autonomy and synchrony of suprachiasmatic nucleus circadian oscillators. |
| Q34391826 | Cellular communication and coupling within the suprachiasmatic nucleus |
| Q29616556 | Central and peripheral circadian clocks in mammals |
| Q48525934 | Ceruloplasmin regulates iron levels in the CNS and prevents free radical injury. |
| Q73930242 | Changes in circadian period and morphology of the hypothalamic suprachiasmatic nucleus in fyn kinase-deficient mice |
| Q37232958 | Chimera analysis of the Clock mutation in mice shows that complex cellular integration determines circadian behavior |
| Q30541014 | Chimera states in mechanical oscillator networks |
| Q50560481 | Chimera states in two populations with heterogeneous phase-lag. |
| Q33995017 | Chronic stimulation of the hypothalamic vasoactive intestinal peptide receptor lengthens circadian period in mice and hamsters |
| Q42066350 | Chronotolerance study of the antiepileptic drug valproic acid in mice |
| Q46273899 | Circadian clock cryptochrome proteins regulate autoimmunity |
| Q48353112 | Circadian entrainment to temperature, but not light, in the isolated suprachiasmatic nucleus |
| Q34202092 | Circadian organization and the role of the pineal in birds |
| Q44872967 | Circadian ovulatory rhythms in Japanese quail: role of ocular and extraocular pacemakers |
| Q48409144 | Circadian periods of single suprachiasmatic neurons in rats. |
| Q34473694 | Circadian regulation of food-anticipatory activity in molecular clock-deficient mice |
| Q33645413 | Circadian regulation of human sleep and age-related changes in its timing, consolidation and EEG characteristics |
| Q33784815 | Circadian rhythm and its role in malignancy |
| Q30416725 | Circadian rhythm generation and entrainment in astrocytes |
| Q48173439 | Circadian rhythm regulation: a central role for the neuropeptide vasoactive intestinal polypeptide |
| Q37556350 | Circadian rhythms and obesity in mammals |
| Q48786020 | Circadian rhythms in firing rate of individual suprachiasmatic nucleus neurons from adult and middle-aged mice |
| Q30308429 | Circadian rhythms in isolated brain regions. |
| Q38110525 | Circadian rhythms in liver physiology and liver diseases |
| Q37917313 | Circadian rhythms, aging, and life span in mammals |
| Q61731526 | Circadian rhythms: A fine c(l)ocktail! |
| Q28141047 | Clock controls circadian period in isolated suprachiasmatic nucleus neurons |
| Q57490706 | Clock-Generated Temporal Codes Determine Synaptic Plasticity to Control Sleep |
| Q92000794 | Clocks in the Wild: Entrainment to Natural Light |
| Q50852672 | Collective phase response curves for heterogeneous coupled oscillators. |
| Q51950093 | Collective synchronization in populations of globally coupled phase oscillators with drifting frequencies. |
| Q26751434 | Collective timekeeping among cells of the master circadian clock |
| Q33936315 | Contribution of circadian physiology and sleep homeostasis to age-related changes in human sleep |
| Q37146498 | Controlling bursting in cortical cultures with closed-loop multi-electrode stimulation |
| Q47266225 | Correlations, fluctuations, and stability of a finite-size network of coupled oscillators |
| Q48546891 | Cryptochrome-deficient mice lack circadian electrical activity in the suprachiasmatic nuclei |
| Q35758660 | Cyanobacterial clock, a stable phase oscillator with negligible intercellular coupling |
| Q41438450 | Delayed Cryptochrome Degradation Asymmetrically Alters the Daily Rhythm in Suprachiasmatic Clock Neuron Excitability |
| Q37024388 | Design principles for phase-splitting behaviour of coupled cellular oscillators: clues from hamsters with 'split' circadian rhythms |
| Q39382511 | Determining the impact of cell mixing on signaling during development |
| Q35288277 | Differentially timed extracellular signals synchronize pacemaker neuron clocks |
| Q33523819 | Distinct functions of Period2 and Period3 in the mouse circadian system revealed by in vitro analysis |
| Q34323488 | Distributed processing in cultured neuronal networks |
| Q34291404 | Diurnal rhythms in neurexins transcripts and inhibitory/excitatory synapse scaffold proteins in the biological clock |
| Q50872956 | Driven synchronization in random networks of oscillators. |
| Q42129434 | Drosophila pacemaker neurons require g protein signaling and GABAergic inputs to generate twenty-four hour behavioral rhythms |
| Q46679677 | Dynamical heterogeneity of suprachiasmatic nucleus neurons based on regularity and determinism |
| Q35742358 | Dynamical signatures of cellular fluctuations and oscillator stability in peripheral circadian clocks |
| Q51591746 | Dynamics of a large ring of coupled active and inactive oscillators. |
| Q33722180 | Effect of feeding regimens on circadian rhythms: implications for aging and longevity |
| Q34197828 | Effect of network architecture on synchronization and entrainment properties of the circadian oscillations in the suprachiasmatic nucleus |
| Q74593918 | Effect of short light-dark cycles on young and adult TGR(mREN2)27 rats |
| Q51774622 | Effects of light on the circadian activity rhythm of Djungarian hamsters (Phodopus sungorus) with delayed activity onset. |
| Q38322135 | Electrical activity can impose time of day on the circadian transcriptome of pacemaker neurons |
| Q48242435 | Electrical activity in endocrine pituitary cells in situ: a support for a multiple-function coding. |
| Q35118258 | Electrophysiology of the circadian pacemaker in mammals. |
| Q47318702 | Emergence of localized patterns in globally coupled networks of relaxation oscillators with heterogeneous connectivity |
| Q27323028 | Emergence of noise-induced oscillations in the central circadian pacemaker |
| Q36654638 | Encoding the ins and outs of circadian pacemaking |
| Q33589926 | Endogenous rhythms in Period1 mutant suprachiasmatic nuclei in vitro do not represent circadian behavior. |
| Q35763348 | Exploring spatiotemporal organization of SCN circuits |
| Q35744463 | Expression of Period genes: rhythmic and nonrhythmic compartments of the suprachiasmatic nucleus pacemaker |
| Q48264383 | Expression of basic helix-loop-helix/PAS genes in the mouse suprachiasmatic nucleus |
| Q34711943 | Extracellular nitric oxide signaling in the hamster biological clock |
| Q46679669 | Fractal stochastic modeling of spiking activity in suprachiasmatic nucleus neurons |
| Q29011932 | From Kuramoto to Crawford: exploring the onset of synchronization in populations of coupled oscillators |
| Q91822555 | From clock to functional pacemaker |
| Q36831463 | Functional network inference of the suprachiasmatic nucleus |
| Q52170283 | GABA synchronizes clock cells within the suprachiasmatic circadian clock. |
| Q28366518 | GABA-induced current and circadian regulation of chloride in neurones of the rat suprachiasmatic nucleus |
| Q35895538 | GABA-mediated repulsive coupling between circadian clock neurons in the SCN encodes seasonal time |
| Q48306932 | Gate cells see the light |
| Q35763357 | Gates and oscillators II: zeitgebers and the network model of the brain clock |
| Q40836161 | Gates and oscillators: a network model of the brain clock. |
| Q37005459 | Genetics of circadian rhythms in Mammalian model organisms |
| Q34794282 | Heterogeneity of rhythmic suprachiasmatic nucleus neurons: Implications for circadian waveform and photoperiodic encoding |
| Q50743449 | History-dependent changes in entrainment of the activity rhythm in the Syrian hamster (Mesocricetus auratus). |
| Q27863690 | Human casein kinase Idelta phosphorylation of human circadian clock proteins period 1 and 2. |
| Q28593648 | I(A) channels encoded by Kv1.4 and Kv4.2 regulate neuronal firing in the suprachiasmatic nucleus and circadian rhythms in locomotor activity |
| Q37080755 | IA Channels Encoded by Kv1.4 and Kv4.2 Regulate Circadian Period of PER2 Expression in the Suprachiasmatic Nucleus |
| Q34480043 | Impact of behavior on central and peripheral circadian clocks in the common vole Microtus arvalis, a mammal with ultradian rhythms |
| Q36691419 | In synch but not in step: Circadian clock circuits regulating plasticity in daily rhythms |
| Q31118396 | In vivo monitoring of multi-unit neural activity in the suprachiasmatic nucleus reveals robust circadian rhythms in Period1⁻/⁻ mice. |
| Q30309697 | Interaction of the retina with suprachiasmatic pacemakers in the control of circadian behavior. |
| Q30543329 | Intercellular coupling confers robustness against mutations in the SCN circadian clock network |
| Q90265798 | Ion Channels Controlling Circadian Rhythms in Suprachiasmatic Nucleus Excitability |
| Q50693651 | Kinetic theory of coupled oscillators. |
| Q51059899 | Learning-rate-dependent clustering and self-development in a network of coupled phase oscillators. |
| Q30416917 | Linking neural activity and molecular oscillations in the SCN. |
| Q30486600 | Live imaging of altered period1 expression in the suprachiasmatic nuclei of Vipr2-/- mice. |
| Q48491862 | Long-lived alphaMUPA transgenic mice exhibit pronounced circadian rhythms |
| Q29619081 | Mammalian circadian biology: elucidating genome-wide levels of temporal organization |
| Q36944717 | Mammalian circadian signaling networks and therapeutic targets. |
| Q43965417 | Marker rhythms of circadian system function: a study of patients with metastatic colorectal cancer and good performance status. |
| Q38688778 | Mathematical Frameworks for Oscillatory Network Dynamics in Neuroscience. |
| Q47345333 | Measuring Relative Coupling Strength in Circadian Systems |
| Q39155169 | Membrane Currents, Gene Expression, and Circadian Clocks |
| Q36178428 | Minireview: The neuroendocrinology of the suprachiasmatic nucleus as a conductor of body time in mammals. |
| Q36593216 | Mis-expression of the BK K(+) channel disrupts suprachiasmatic nucleus circuit rhythmicity and alters clock-controlled behavior |
| Q28272329 | Modeling a synthetic multicellular clock: repressilators coupled by quorum sensing |
| Q52082714 | Modeling circadian rhythm generation in the suprachiasmatic nucleus with locally coupled self-sustained oscillators: phase shifts and phase response curves. |
| Q36828471 | Modeling the behavior of coupled cellular circadian oscillators in the suprachiasmatic nucleus |
| Q22008547 | Molecular analysis of mammalian timeless |
| Q64250204 | Molecular and Cellular Networks in The Suprachiasmatic Nuclei |
| Q28297151 | Molecular bases for circadian clocks |
| Q34476774 | Molecular regulation of circadian rhythms in Drosophila and mammals |
| Q37222648 | Mouse chimeras and their application to circadian biology |
| Q34286407 | Multilevel regulation of the circadian clock |
| Q34320731 | Multiple oscillators in the suprachiasmatic nucleus |
| Q73919709 | Multiple oscillators provide metastability in rhythm generation |
| Q24610764 | Nature, nurture, or chance: stochastic gene expression and its consequences |
| Q48018198 | Network Dynamics Mediate Circadian Clock Plasticity |
| Q34491631 | Network-mediated encoding of circadian time: the suprachiasmatic nucleus (SCN) from genes to neurons to circuits, and back. |
| Q92690625 | Non-coding cis-element of Period2 is essential for maintaining organismal circadian behaviour and body temperature rhythmicity |
| Q36328425 | Olfactory bulb neurons express functional, entrainable circadian rhythms |
| Q22337327 | Orchestrating time: arrangements of the brain circadian clock |
| Q48430298 | Per and neuropeptide expression in the rat suprachiasmatic nuclei: compartmentalization and differential cellular induction by light |
| Q36628463 | Period-2: a tumor suppressor gene in breast cancer. |
| Q35680557 | Pharmacological modulation of circadian rhythms: a new drug target in psychotherapeutics |
| Q48694082 | Phase differences in electrical discharge rhythms between neuronal populations of the left and right suprachiasmatic nuclei |
| Q35763364 | Phase resetting light pulses induce Per1 and persistent spike activity in a subpopulation of biological clock neurons |
| Q48487171 | Phase shifting of circadian rhythms and depression of neuronal activity in the rat suprachiasmatic nucleus by neuropeptide Y: mediation by different receptor subtypes. |
| Q36222062 | Photic resetting and entrainment in CLOCK-deficient mice |
| Q58045973 | Physical approaches to the dynamics of genetic circuits: a tutorial |
| Q37776089 | Physiology of circadian entrainment |
| Q34441312 | Picking out parallels: plant circadian clocks in context |
| Q47450410 | Plasticity of circadian behavior and the suprachiasmatic nucleus following exposure to non-24-hour light cycles |
| Q42210551 | Population encoding by circadian clock neurons organizes circadian behavior |
| Q35296574 | Primary cell culture of suprachiasmatic nucleus |
| Q30946744 | Quantification of circadian rhythms in single cells |
| Q27324051 | Quantitative analysis of phase wave of gene expression in the mammalian central circadian clock network |
| Q43737214 | Regional pacemakers composed of multiple oscillator neurons in the rat suprachiasmatic nucleus |
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| Q51821776 | Renormalization of oscillator lattices with disorder. |
| Q39288102 | Resilience of circadian pacemaker development in hamsters |
| Q47259077 | Resilient circadian oscillator revealed in individual cyanobacteria |
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| Q45014698 | Rhythmic regulation of membrane potential and potassium current persists in SCN neurons in the absence of environmental input |
| Q34450045 | Robust circadian clocks from coupled protein-modification and transcription-translation cycles. |
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| Q47559603 | Synchronization scenarios in the Winfree model of coupled oscillators |
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| Q43835830 | Temporal reorganization of the suprachiasmatic nuclei in hamsters with split circadian rhythms. |
| Q36455066 | The Circadian Clock Gene Period1 Connects the Molecular Clock to Neural Activity in the Suprachiasmatic Nucleus |
| Q87909579 | The Circadian Clock in White and Brown Adipose Tissue: Mechanistic, Endocrine, and Clinical Aspects |
| Q42549600 | The Development of Circadian Rhythms: From Animals To Humans |
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| Q34346806 | The neuropeptide pigment-dispersing factor coordinates pacemaker interactions in the Drosophila circadian system. |
| Q24816019 | The period length of fibroblast circadian gene expression varies widely among human individuals |
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| Q37054435 | The synchronization of neuronal oscillators determined by the directed network structure of the suprachiasmatic nucleus under different photoperiods |
| Q48925861 | The tau mutation in the Syrian hamster differentially reprograms the circadian clock in the SCN and peripheral tissues. |
| Q34571113 | The transcription factor Runx2 is under circadian control in the suprachiasmatic nucleus and functions in the control of rhythmic behavior |
| Q47877188 | Three period homologs in mammals: differential light responses in the suprachiasmatic circadian clock and oscillating transcripts outside of brain. |
| Q38199823 | Time-restricted feeding and the realignment of biological rhythms: translational opportunities and challenges |
| Q48921599 | Topographic organization of suprachiasmatic nucleus projection neurons |
| Q28486182 | Transcription fluctuation effects on biochemical oscillations |
| Q48673225 | Transcription-based oscillator model for light-induced splitting as antiphase circadian gene expression in the suprachiasmatic nuclei. |
| Q27867706 | Two period homologs: circadian expression and photic regulation in the suprachiasmatic nuclei. |
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| Q34499332 | Weakly circadian cells improve resynchrony |
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