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1 : smaller molecular size may lead to quicker taste perception.
2 al (TRP) channels play a significant role in taste perception.
3 G protein-coupled receptor involved in sweet-taste perception.
4 channel required for sweet, bitter and umami taste perception.
5 hormones may be affecting FI by influencing taste perception.
6 omain, indicative of their potential role in taste perception.
7 rent metabolites may be associated with host taste perception.
8 tion of worldwide differences in human sweet taste perception.
9 s receptor likely contributes to human umami taste perception.
10 mportant insights into taste recognition and taste perception.
11 rences than with genetically inferred bitter taste perception.
12 lved in caffeine-related pathways but not in taste perception.
13 pled receptor (GPCR) initially identified in taste perception.
14 nted by glutamic acid, involved in the umami taste perception.
15 salivary properties importantly affect sour taste perception.
16 or genes involved in pheromone detection and taste perception.
17 food involves brain regions associated with taste perception.
18 tion of electrical signals that lead to sour taste perception.
20 eeding behavior: reward valuation based upon taste perception (AIC) vs switching between ingestive an
22 a strong inverse association between greater taste perception and body weight, body mass index, and w
23 ontribute to the association between altered taste perception and conditions like neurodegeneration,
24 t mice to investigate VIP's specific role in taste perception and connection to energy regulation.
25 bitter taste receptor that influences bitter taste perception and diet and is also found in intestina
39 dding maltose to fluid samples enhanced sour taste perception, and increasing fluid viscosity general
40 n accounts for the variation in human bitter taste perception, and to relate to dietary intake of bit
42 et and lifestyle behaviors related to bitter taste perception, and were not seen for variants in othe
46 vant behavioral assays developed to quantify taste perception at the organismal level and a short ove
47 significantly affect the temporal profile of taste perception, at least to sweet and salty compounds.
48 des information relating chemical stimuli to taste perception, beginning with transduction mechanisms
51 Literature is inconclusive as to whether taste perception correlates with fungiform papillae dens
52 Most participants noted changes in their taste perception, cravings, and enjoyment of flavors aft
55 ng whole-blood transcriptome profiles, of 28 taste perception genes, from a combined cohort of 475 Af
56 gh investigation on the TO's implications in taste perception has been expanding rapidly, the sensill
58 , we then examined a fundamental question in taste perception: how taste modalities are encoded at th
60 e is known about the molecular mechanisms of taste perception in animals, particularly the initial ev
61 w study shows that they are also involved in taste perception in fruit flies, significantly expanding
63 hypothesized that a disruption of the sweet-taste perception in the brain could have a key role in t
64 examine the molecular and cellular basis of taste perception in the Drosophila larva through a compr
65 esent an update on progress in understanding taste perception in the model fruit fly Drosophila melan
66 effect of sweet tastants on the dynamic sour taste perception in thickened fluids and its underpinnin
67 evidence implicates gut-related hormones in taste perception, including glucagon-like peptide 1 and
72 t over time, but it is unclear whether sweet taste perception is modulated by reduced sugar intake.
73 statory receptors, it also demonstrates that taste perception is much more complex than anticipated.
78 f our findings to the mechanism of trehalose taste perception modification, and point to necessary fu
80 ponsible in part for the variation in bitter taste perception of 6-n-propylthiouracil (PROP) and stru
81 that were preferentially affected during the taste perception of a liquid meal by 11 right-handed, le
82 uperior temporal gyrus may contribute to the taste perception of a liquid meal perceived as pleasant.
87 cognitive distraction during consumption on taste perception, particularly in relation to weight sta
88 search has shown the potential links between taste perception pathways and brain-related conditions,
93 ological dysfunctions regulated by the sweet-taste perception system, we hypothesized that a disrupti
94 In reality, there are multiple links between taste perceptions, taste preferences, food preferences,
95 uncovered a noncanonical mechanism for sweet taste perception that evolved in hummingbirds since thei
96 pe is a marker for individual differences in taste perception that influence food preferences and die
98 ere is strong evidence that CTX affects NaCl taste perception, these findings indicate that, under ce
100 suggest activities of TAS2R14 beyond bitter taste perception via intracellular allosteric tastants.
101 as transepithelial salt and water movement, taste perception, volume regulation, nociception, neuron
104 e of olfactory dysfunction on any measure of taste perception was found when the effects of sex, age,
105 Qualitative and quantitative assessment of taste perception was performed on 6 patients with unilat
106 ssible link between these enzymes and bitter taste perception, we demonstrate that salivary glutathio
108 lls of the circumvallate papilla involved in taste perception would express genes that are not expres
109 s the primary cortical substrate involved in taste perception, yet some question remains as to whethe