Public speech episodes i.e., particular linguistic utterances or acts of inscription instantiate semantic-conceptual roles by virtue of being regulated by rules governing linguistic responses to nonconceptual stimuli ("language entries"), behavioral responses to conceptual states ("language exits"), and transitions from one linguistic commitment to another ("intralinguistic moves").
The results indicate that the groups did not differ on baseline (i.e. before presentation of the auditory stimuli) magazine entries in either the thermal or visual contexts.
Overall, our behavioral and ERP data provided evidence of a strong 'words superiority effect' (e.g. [ 25, 59]) in a paradigm not requiring semantic categorization, evident as faster or more efficient selection of an orthographic stimulus with an entry in the mental lexicon.
Once a pathway is represented in this way, the probabilities of signal transmission from any entry point (stimulus receptor) in the input layer to any exit point (protein that triggers the response to the stimulus) in the output layer can be calculated, providing the activation state of the nodes connecting them are known.
Neurons respond to excitatory stimuli by initiating calcium entry through plasma membrane channels.
The efficacy of a high fat rodent chow (∼36% fat and 36% carbs) relative to chocolate (26% fat, 67% carbs) as a stimulus for anticipatory food-bin entry and mild anticipatory activity was surprising, given previous work with rats demonstrating that a high carbohydrate meal is a more effective stimulus than is a high fat meal for resetting of food-anticipatory rhythms by a shift of mealtime [30].
Since SOCE plays a key role in cardiomyocyte hypertrophy, and TRPM4 is functionally present in mouse ventricular myocytes, we hypothesized that TRPM4 might also regulate the driving force for Ca2+ entry during hypertrophic stimulus and therefore could regulate cardiomyocyte hypertrophy signaling.
During the pre-diapause phase the individual is sensitive to token environmental cue(s) and in response to appropriate stimuli will initiate preparation for entry into diapause.
Once at the plasma membrane, caveolae are rather stable and become internalized upon specific stimuli, such as during viral entry or loss of cell adhesion (Pelkmans et al., 2002; Pelkmans and Zerial, 2005; del Pozo et al., 2005).
While changes in local neuronal activity elicited by salient environmental stimuli could trigger rapid glucose entry to the brain tissue via an increase in local blood flow, glucose levels in the brain could be affected "passively" by changes in its concentration in peripheral blood ("gradient drive").
