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1 tiety cues may prevent at-risk children from overeating.
2 t overall energy intake at meals and promote overeating.
3 hysiology of food that may predispose toward overeating.
4 ouths' social network is likely to reinforce overeating.
5 e, physiological satiety signals and promote overeating.
6 vidual differences in the susceptibility for overeating.
7 eating disorders and more moderate forms of overeating.
8 d alpha-MSH secretion in an attempt to limit overeating.
9 susceptibility to weight gain in response to overeating.
10 otential treatment of excessive appetite and overeating.
11 ed asprosin-induced AgRP(ARH) activation and overeating.
12 voke food cravings and may lead to unhealthy overeating.
13 by creating foods that decrease the risk of overeating.
14 ed with lower locomotor activity rather than overeating.
15 increased risk for early- and mid-childhood overeating.
16 dysfunctional reward-seeking behavior, as in overeating.
17 table food cues, which may serve to maintain overeating.
18 g and reward systems differently to moderate overeating.
19 ls in the lateral hypothalamus that promotes overeating.
20 d cues, which might decrease risk for future overeating.
21 in responsivity may result from a period of overeating.
22 ture rather than the induction of compulsive overeating.
23 ve neurons in adult mice caused obesity from overeating.
24 eward region responsivity increases risk for overeating.
25 dency toward certain foods may contribute to overeating.
26 bitory control signalling, which facilitates overeating.
27 vulnerability factor or a result of previous overeating.
28 if it exists, innate or does it develop with overeating?
29 lsive behavior as it applies to pathological overeating: (1) habitual overeating; (2) overeating to r
30 ies to pathological overeating: (1) habitual overeating; (2) overeating to relieve a negative emotion
32 ributions of hedonic and hormonal factors to overeating after sleep loss are a matter of ongoing cont
34 arting to binge drink frequently, while both overeating and binge eating predicted starting to use ma
35 isorders, including eating disorders such as overeating and binge-eating disorder, but the brain stru
39 cond, stress can affect behavior by inducing overeating and consumption of foods that are high in cal
41 during prolonged oxidative stress, to avoid overeating and destruction of essential cellular compone
42 fying subpopulations with increased risk for overeating and dietary obesity and detecting early signs
44 The role of diet composition in response to overeating and energy dissipation in humans is unclear.
48 ng that dietary patterns high in UPF promote overeating and increase the risk of overweight and obesi
50 with food addiction engage more in emotional overeating and less cognitive control and homeostatic pr
52 Our results may have implications for why overeating and obesity are common in modern food environ
55 g problems facing contemporary society, from overeating and obesity to impulsive sexual behavior and
56 elated and addictive disorders contribute to overeating and obesity, and 3) food industry practices a
57 sistent with data on neural underpinnings of overeating and obesity, and makes further experimental p
67 nally representative US sample suggests that overeating and oversleeping can be used to identify an a
69 atiety insecurity is an unexamined driver of overeating and partially explains why food insecurity mo
72 urrent theories consider obesity a result of overeating and sedentary life style and most efforts to
73 s that obesity does not have to be caused by overeating and sedentary life-style but may be the resul
74 sexual cues is associated with indulgence in overeating and sexual activity, respectively, and provid
75 de that unrestricted access to food promotes overeating and that requiring a simple action such as a
76 diets is important for these diets to induce overeating and that requiring mice to perform small amou
77 ivity of reward circuitry increases risk for overeating and that this overeating may further attenuat
80 gested that insufficient sleep may stimulate overeating and thus play a role in the current epidemic
81 -Acb or intra-vmPFC mu-OR stimulation causes overeating and vigorous responding for food rewards.
82 ptin levels, a consequence which may lead to overeating and weight gain in individuals or populations
86 ), interact with the environment and lead to overeating and weight gain; the regulation of cues (ROC)
87 nditure by doubly labeled water prior to the overeating and weight stabilization periods and at weeks
88 se studies can increase our understanding of overeating and, perhaps in some cases, the development o
89 nt of acute energy needs, thereby promoting "overeating" and the consequent development of an energy
90 atment for chronic food cravings, compulsive overeating, and binge eating that may represent a phenot
92 ed or having little energy, poor appetite or overeating, and having little interest in doing things w
93 es override signals from the body to promote overeating, and indicate OX1R antagonism as a potential
95 t in adipose tissue; increased with feeding, overeating, and obesity; decreased with fasting, exercis
97 epts that obesity is merely a consequence of overeating, and that metabolic health then reflects obes
100 Dysregulation in both these systems leads to overeating, as seen in genetic syndromes and environment
101 r psychological factors, suggesting that the overeating associated with weight gain might be physiolo
102 fancy, evidence of learning disabilities and overeating behavior due to an abnormal satiety response
106 lamus are well known for producing long-term overeating, but past research has excluded this site as
107 n diet-induced obese (DIO) mice and promotes overeating by a mechanism that includes inhibiting gut-b
108 ves to maintain energy homeostasis; however, overeating can result in obesity, which is associated wi
110 ific genetic strains or mutations that cause overeating consume a diet enriched with fat, modest amou
111 w the evidence that some forms of obesity or overeating could be considered a food addiction and argu
112 eating, recurrent and persistent episodes of overeating coupled with a lack of control over eating, a
114 dipose tissue occurs in response to cold and overeating (diet induced), and there is an inverse relat
119 l studies showing gross nutrient imbalances; overeating driven by high energy density, hyper-palatabi
124 e commonly accepted explanation is pervasive overeating: ever-increasing energy intake as the populat
125 somatosensory brain regions, contributing to overeating, few studies have examined the relative role
126 f substance use and relapse and is linked to overeating, gambling, and other maladaptive behaviors.
130 ely, unraveling the neurobiological basis of overeating holds promise for addressing the pressing pub
131 gs suggest that FF commercials contribute to overeating in adolescents through reward mechanisms.
132 Is starvation in anorexia nervosa (AN) or overeating in bulimia nervosa (BN) a form of addiction?
133 accurately recognize hunger signals, whereas overeating in bulimia nervosa could represent an exagger
136 ested that higher levels of binge eating and overeating in males at age 13 y likely cause higher BMI
140 eural network that mediates this cue-induced overeating in sated rats include lateral hypothalamus, a
141 ll activity is essential for ethanol-induced overeating in the absence of societal factors, in single
143 ad necessary for the genetic and environment overeating-induced increase of the gut absorptive capaci
147 seful for short periods when difficulty with overeating is anticipated, such as during vacations.
149 highly palatable food is readily available, overeating is often driven by motivational, rather than
152 sivity of these regions may increase risk of overeating, it is unclear whether this is an initial vul
156 ing worldwide trend in obesity, suggest that overeating may be the largest avoidable cause of cancer
158 decreased reward sensitivity, implying that overeating may contribute to reduced striatal responsivi
159 increases risk for overeating and that this overeating may further attenuate responsivity of reward
160 uggest that initiating a prolonged period of overeating may increase striatal responsivity to food cu
161 Reward deficits, resulting from repeated overeating, may in turn contribute to the perpetuation o
162 e inhibitory inputs to the VP might exist in overeating mice even before exposure to HFHS, thus makin
164 e explore the intricate relationship between overeating, obesity, and the underlying neurobiological
167 aberrant eating, which posits that recurrent overeating of palatable food is similar to addictive beh
168 ntermittent access to palatable food exhibit overeating of palatable food upon renewed access and an
170 may play a significant role in promoting the overeating of palatable food.SIGNIFICANCE STATEMENT In m
171 induced HP food motivation and engagement in overeating of such foods to enhance risk of weight gain
173 often narrows to the question of whether the overeating of these foods causes the same long-term neur
176 Discontinuing unhealthy behaviors, such as overeating or drug use, depends upon an individual's abi
177 l variant frontotemporal dementia identified overeating or increased sweet food preference in 80 (78%
178 re a result of maladaptive eating behaviors (overeating or undereating) and are associated with life-
180 a relatively low protein intake would cause overeating or would be the effect of overeating of carbo
182 s in glucose levels might reduce the risk of overeating, particularly in environments inundated with
183 adult brain induced a hitherto unrecognized overeating phenotype and caused overweight that was prev
186 may not be initial vulnerability factors, as overeating reduces D2 receptor density, D2 sensitivity,
187 ogical factors necessary for ethanol-induced overeating remain unclear, and societal causes have been
189 ognized that some lifestyle patterns such as overeating result in metabolic syndrome, which may play
191 den of disease is associated with behaviors--overeating, smoking, excessive alcohol consumption, and
192 erved between perceived stress and emotional overeating; stronger among urban (r = 0.32), female (r =
193 eward region responsivity increases risk for overeating, suggesting qualitatively distinct reward sur
194 ble foods may explain, at least in part, why overeating tasty foods is so irresistible even in the fa
195 gion responsivity to food, which may lead to overeating that produces blunted dopamine signaling and
196 en processing of palatable foods can promote overeating, the neurobiological mechanisms that underlie
198 ht- and eating-related phenotypes (e.g. BMI, overeating), three phenotypes related to caregiver somat
199 , and low mu-opioid availability may promote overeating to compensate decreased hedonic responses in
200 cal overeating: (1) habitual overeating; (2) overeating to relieve a negative emotional state; and (3
201 ciate longitudinal trajectories of childhood overeating, undereating, and fussy eating with metabolic
202 is increasing evidence that the pathological overeating underlying some forms of obesity is compulsiv
203 One potentially important difference between overeating versus drug abuse refers to the sensory stimu
204 fully adjusted models, binge eating, but not overeating, was associated with incident overweight/obes
205 ely causes higher levels of binge eating and overeating, weight and shape concerns, and weight-contro
206 ponsiveness, enjoyment of food and emotional overeating) were positively associated with infancy and
207 od insecurity promotes opportunistic eating (overeating when food is available), contributing to obes
208 rceived hedonic qualities of food as driving overeating, whereas subliminal signals arising from the
209 d to a chronic food restriction challenge by overeating, which resulted in prerestriction, rather tha
210 crease their susceptibility to opportunistic overeating while at the same time making food intake les
211 lation causing DRD2-dependent inhibition and overeating, while stronger stimulation causing DRD1-depe