We present a mathematical model for calcium oscillations in the cilia of olfactory sensory neurons. The underlying mechanism is based on direct negative regulation of cyclic nucleotide-gated channels by calcium/calmodulin and does not require any autocatalysis such as calcium-induced calcium release. The model is in quantitative agreement with available experimental data, both with respect to oscillations and to fast adaptation. We give predictions for the ranges of parameters in which oscillations should be observable. Relevance of the model to calcium oscillations in other systems is discussed
Background: In any fine sensory organelle, a small influx of Ca2+ can quickly elevate cytoplasmic Ca...
<div><p>We developed a mathematical model of a hypothetical neuronal signal transduction pathway to ...
AbstractLaser scanning confocal microscopy in combination with the fluorescent calcium indicators Fl...
AbstractWe present a mathematical model for calcium oscillations in the cilia of olfactory sensory n...
We present a mathematical model for calcium oscillations in the cilia of olfactory sensory neurons. ...
The odorant-induced Ca2+ increase inside the cilia of vertebrate olfactory sensory neurons controls ...
Olfactory sensory neurons respond to odorants increasing Ca2+ concentrations in their chemosensory c...
Olfactory transduction exhibits two distinct types of adaptation, which we denote multipulse and ste...
In vertebrate olfactory receptor neurons, sensory cilia transduce odor stimuli into changes in neuro...
We developed a mathematical model of a hypothetical neuronal signal transduction pathway to better u...
The external stimulation of many cells by a hormone, for example, often leads to an oscillating cyto...
We developed a mathematical model of a hypothetical neuronal signal transduction pathway to better u...
AbstractOlfactory transduction exhibits two distinct types of adaptation, which we denote multipulse...
SummaryCa2+/calmodulin-mediated negative feedback is a prototypical regulatory mechanism for Ca2+-pe...
Vertebrate olfactory sensory neurons rapidly adapt to repetitive odorant stimuli. Previous studies h...
Background: In any fine sensory organelle, a small influx of Ca2+ can quickly elevate cytoplasmic Ca...
<div><p>We developed a mathematical model of a hypothetical neuronal signal transduction pathway to ...
AbstractLaser scanning confocal microscopy in combination with the fluorescent calcium indicators Fl...
AbstractWe present a mathematical model for calcium oscillations in the cilia of olfactory sensory n...
We present a mathematical model for calcium oscillations in the cilia of olfactory sensory neurons. ...
The odorant-induced Ca2+ increase inside the cilia of vertebrate olfactory sensory neurons controls ...
Olfactory sensory neurons respond to odorants increasing Ca2+ concentrations in their chemosensory c...
Olfactory transduction exhibits two distinct types of adaptation, which we denote multipulse and ste...
In vertebrate olfactory receptor neurons, sensory cilia transduce odor stimuli into changes in neuro...
We developed a mathematical model of a hypothetical neuronal signal transduction pathway to better u...
The external stimulation of many cells by a hormone, for example, often leads to an oscillating cyto...
We developed a mathematical model of a hypothetical neuronal signal transduction pathway to better u...
AbstractOlfactory transduction exhibits two distinct types of adaptation, which we denote multipulse...
SummaryCa2+/calmodulin-mediated negative feedback is a prototypical regulatory mechanism for Ca2+-pe...
Vertebrate olfactory sensory neurons rapidly adapt to repetitive odorant stimuli. Previous studies h...
Background: In any fine sensory organelle, a small influx of Ca2+ can quickly elevate cytoplasmic Ca...
<div><p>We developed a mathematical model of a hypothetical neuronal signal transduction pathway to ...
AbstractLaser scanning confocal microscopy in combination with the fluorescent calcium indicators Fl...