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1 tion index (range 0-1, higher indicates more deprivation).
2 and loss of dendritic spines following sleep deprivation.
3 ependent PDAC cells during Ser/Gly (glycine) deprivation.
4 sporters, occurs in the cht7 mutant during N deprivation.
5 depending on the age and the mode of sensory deprivation.
6 ncreased sensitivity of the cells to glucose deprivation.
7  with progressive neighborhood socioeconomic deprivation.
8 ial for cell survival during chronic glucose deprivation.
9 a proper and complete adaptation to nutrient deprivation.
10 independent of a postcode-derived measure of deprivation.
11 ice that underwent early long-term monocular deprivation.
12 ase II occupancy in cells undergoing glucose deprivation.
13 tion to increased sleep need following sleep deprivation.
14 es impairs the homeostatic response to sleep deprivation.
15 lytic proteins in cells responding to oxygen deprivation.
16 or this interaction increases during glucose deprivation.
17 expression of the sll0944 gene upon nitrogen deprivation.
18  resulting in delayed recovery from nutrient deprivation.
19    Harvested fruit undergo carbon and energy deprivation.
20 segments on apical dendrites following sleep deprivation.
21 ed using the 2011 Scottish Index of Multiple Deprivation.
22  not appear to change in response to sensory deprivation.
23 equired for increased sensitivity to glucose deprivation.
24 Nearly 70% of women lived in areas of social deprivation.
25 taphosphate (pppGpp) in response to nutrient deprivation.
26 ed in acute and chronic mouse models of zinc deprivation.
27 imurium in host tissues by causing magnesium deprivation.
28 I: 2.68, 11.98), homelessness and area-level deprivation.
29 antly reduced after total sleep or REM sleep deprivation.
30 cle progression during conditions of glucose deprivation.
31 y, during hospital bedrest, and during sleep deprivation.
32  dendritic arborization after oxygen-glucose deprivation.
33 OR, by induction of ER stress, or by glucose deprivation.
34 rvival and energy homeostasis under nutrient deprivation.
35 fically regulates odr-10 in response to food deprivation.
36 ostatic regulation of sleep need after sleep deprivation.
37 in, and is a source of energy during glucose deprivation.
38 n D levels, independent of other measures of deprivation.
39 gion, but not mimicry, was affected by sleep deprivation.
40 r replication, and cell division following N deprivation.
41 t mice remained sensitive to brief monocular deprivation.
42 ensor that reprograms metabolism upon carbon deprivation.
43 nic acid, correlating with signs of nitrogen deprivation.
44 ward processing hub sensitive to acute sleep deprivation.
45 emble mean FR induced by prolonged monocular deprivation.
46 scue deficits induced by prolonged monocular deprivation.
47 visual attention defects brought on by sleep deprivation.
48 rd ratio 1.38, 95% CI 1.27-1.51), persistent deprivation (1.77, 1.62-1.93), or loss or threat of loss
49 22-89] and median Scottish Index of Multiple Deprivation 2012 decile of 8 [IQR 6-10]), mean systolic
50         Participants underwent partial sleep deprivation (3 h sleep opportunity at the end of night),
51 mation; sRT; timing and duration of androgen deprivation; 3-y PSA results; and clinical events were d
52                                   Upon serum deprivation, a subset of AEs pre-marked by the activity-
53  cerebrospinal fluid (CSF) and chronic sleep deprivation accelerates the spread of tau protein aggreg
54 ales exhibit high odr-10 expression and food deprivation activates odr-10 in adult males [4-6].
55 y to have high MLVI even after adjusting for deprivation (adjusted odds ratio 4.0 95% confidence inte
56  processing, but it is unclear whether sleep deprivation affects emotional mimicry and contagion.
57                                        B(12) deprivation also caused a substantial increase in reacti
58                     Total sleep or REM sleep deprivation also prevented MD- and FC-induced reduction
59 ectrophysiology, we measured how acute sleep deprivation alters transmission at BLAp-NAc synapses in
60 eria: Loss to follow-up, managed surgically, deprivation amblyopia.
61 of ER-mutant tumor cells to survive estrogen deprivation, anchorage independence, and invasion.
62                Areas with less socioeconomic deprivation and a higher concentration of white resident
63 ociations between neighborhood socioeconomic deprivation and an objective surrogate measure of medica
64 lained by its compromised viability during N deprivation and by the occurrence of abortive divisions
65 cascade of changes induced by acute nicotine deprivation and call for further investigation into the
66 ), which has been partly attributed to sleep deprivation and circadian misalignment [1-6].
67 gations have focused on the effects of sleep deprivation and circadian time, little is known about ho
68 en we added adjustment for index of multiple deprivation and ethnicity, and then for a broad range of
69                  These findings link glucose deprivation and H2A ubiquitination to regulation of the
70       AMPK activity is increased by nutrient deprivation and inhibited by overnutrition, inflammation
71  the study of chrono-medical timing of sleep deprivation and light exposure for their positive effect
72 against negative effects of in-person social deprivation and other pandemic-related stress.
73      The review shows that experienced group deprivation and perceived immorality are among the core
74 l associations of neighborhood socioeconomic deprivation and racial segregation on organ donor regist
75      Vigilant attention is impaired by sleep deprivation and restored after rest breaks and (more end
76 ) and 4.62 (95% CI 2.12-10.08) (adjusted for deprivation and self-reported hypertension, heart diseas
77 ations of these with melanoma in addition to deprivation and socio-economic stressors.
78 o the metabolism of IVD cells under nutrient deprivation and the information for developing treatment
79 x (range [0, 1]; higher values indicate more deprivation) and a racial index of concentration at the
80 g for sociodemographic (sex, age, ethnicity, deprivation) and maternity (maternal age, maternal smoki
81 hat RUNX1(+) PLCs are unaffected by androgen deprivation, and do not contribute to the regeneration o
82 nd by patient characteristics, socioeconomic deprivation, and duration of admission.
83 R, CHI3L1, and ISG, arise following estrogen-deprivation, and ER-mutant metastases may respond to imm
84 -related gene expression during nitrogen (N) deprivation, and its predicted protein interaction domai
85 als, inadequate amino acid supplies, glucose deprivation, and lactic acidosis, all of which pose chal
86 isk factors such as ethnicity, socioeconomic deprivation, and obesity, but provide a starting point f
87        Surprisingly, these responses to food deprivation are not triggered by internal metabolic cues
88 experimental manipulations, including visual deprivation, are able to induce critical period-like pla
89                       Furthermore, glutamine deprivation, as well as the antimetabolic drugs 2-deoxyg
90 ikely be poorly adapted to coping with B(12) deprivation, association with B(12)-producers can ensure
91 Deprivation Index characterized neighborhood deprivation at the census tract level.
92 ing non-rapid eye movement sleep after sleep deprivation at the network and single-cell level.
93 synthesis and DNA synthesis, with amino acid deprivation augmenting cisplatin's effects.
94 The three vortex stresses of (a) nutritional deprivation, (b) thermal stress and (c) genetic bottlene
95 lmark of prostate cancer (PCa) with androgen deprivation being standard therapy.
96 djusted for the following major confounders: deprivation, birthweight, maternal age, sex, and multipl
97 cy, adjusting for ethnicity, working status, deprivation, body mass index, and sedentary time.
98 idence interval 1.53-1.65)); greater age and deprivation (both with a strong gradient); diabetes; sev
99         ROS are not just correlates of sleep deprivation but drivers of death: their neutralization p
100 t MiDAS does occur at FRAXA following folate deprivation but proceeds via a pathway that shows some m
101                      Cells react to nutrient deprivation by adapting their metabolism, or, if starvat
102                     Cells adjust to nutrient deprivation by reversible translational shutdown.
103                             Rationale: Sleep deprivation can alter endurance of skeletal muscles, but
104 a coli encountering cell stress and nutrient deprivation can up-regulate and activate DinB/pol IV, th
105                                Partial sleep deprivation caused decreased activation in fusiform gyri
106 In the face of perceived nutrient and oxygen deprivation, cells activate low-energy sensors, which in
107 plitude was significantly lower in the sleep-deprivation condition (4.5 muV [IQR, 2.5-6.4] vs. 7.3 mu
108                                 In the sleep-deprivation condition, preinspiratory motor potential am
109                        Interestingly, in Leu deprivation conditions, the dominant effects on autophag
110 procal connectivity of S1BC after unilateral deprivation consistent with the model that interhemisphe
111                                              Deprivation curiosity (the tendency to seek information
112                                              Deprivation did not disrupt the degree of speed tuning,
113                                       Folate deprivation drives the instability of a group of rare fr
114 NS, which is particularly vulnerable to O(2) deprivation due to high energetic demand.
115 surface area were positively associated with deprivation duration.
116 cal direction selectivity produced by motion deprivation during development.
117             However, postmenopausal estrogen deprivation during midlife and older age has a detriment
118                      We also found that iron deprivation during T cell stimulation negatively impacts
119                                   Amino acid deprivation enhanced cisplatin's cytotoxicity, increasin
120 but risk remained high, after adjustment for deprivation, ethnicity, smoking and obesity: adjusted HR
121 deprives it of detailed spatial vision (form deprivation, FD).
122 e the standard agents for achieving androgen deprivation for prostate cancer despite the initial test
123 two nights of recovery sleep following sleep deprivation fully restores brain and cognitive function.
124                      In response to nutrient deprivation, Gcn2 phosphorylates eIF2alpha, thereby repr
125 th initiation and intensification: age, sex, deprivation, glycated haemoglobin (HbA1c), body mass ind
126 e to irregular light-dark patterns and sleep deprivation has been associated with beta amyloid peptid
127 rajectory, those who had early-life material deprivation (hazard ratio 1.38, 95% CI 1.27-1.51), persi
128                  In response to severe water deprivation, however, both seed yield and weight were re
129           TyrRII levels rise following sleep deprivation in a Ca(2+)-dependent manner, promoting furt
130  suppress CDCP1 expression and that androgen deprivation in combination with loss of PTEN promotes th
131 from young adults who were exposed to severe deprivation in early childhood in the Romanian orphanage
132 compelling evidence that time-limited severe deprivation in the first years of life is related to alt
133 s, and neutrophils, suggesting that nutrient deprivation in the tumor environment can serve as an ini
134 vival to oxidative stress following nutrient deprivation in three prostate cancer models displaying v
135 g antibodies re-sensitizes tumors to hormone deprivation in vitro and in vivo.
136  prevented apoptosis in response to nutrient deprivation in vitro and promoted tumor aggression, chem
137               Tumour cells adapt to nutrient deprivation in vivo, yet strategies targeting the nutrie
138                                  Acute sleep deprivation increased sucrose self-administration in mic
139 dings from our group reveal that acute sleep deprivation increases levels of tau in mouse brain inter
140 5% increase in MLVI for each 0.1 increase in deprivation index (95% confidence interval, -1% to 11%;
141 : 1.60, 2.16), and neighborhoods with a high deprivation index (fourth quartile vs. first: OR = 1.14,
142  addresses, was a neighborhood socioeconomic deprivation index (range 0-1, higher indicates more depr
143 ciation between a neighborhood socioeconomic deprivation index (range [0, 1]; higher values indicate
144                      Quartiles of the Social Deprivation Index characterized neighborhood deprivation
145                                     The area deprivation index is a publicly available composite scor
146 which was significantly larger than the area deprivation index of patients not readmitted (51.8 [+/-
147                                The mean area deprivation index of patients who were readmitted was 62
148  Black and White patients within each Social Deprivation Index quartile, adjusted for geographic clus
149  (95% CI, 4.1%-9.5%; P<0.0001) across Social Deprivation Index quartiles.
150 d logistic regression models, a greater area deprivation index was significantly associated with read
151 e associations between readmissions and area deprivation index were explored using logistic regressio
152 I), smoking status, alcohol intake, Townsend deprivation index, education level, diabetes status, sph
153 orhood disadvantage scores, such as the area deprivation index, may help to better understand how con
154 s tract level, with each 0.1 decrease in the deprivation index, the organ donor registration rate inc
155 additional adjustment for patient-level area deprivation index.
156 geocoded and linked to their respective area deprivation index.
157 obesity (DIO) and refeeding, whilst nutrient deprivation induced lncRNAs in mouse liver.
158 e study protein sequestration during glucose deprivation-induced ATP decline in Saccharomyces cerevis
159 sought to identify the mechanisms in glucose deprivation-induced cancer cell death and then designed
160 ling, we found that cells undergoing glucose deprivation-induced cell death exhibited dramatic accumu
161 ng on this observation, we show that glucose deprivation-induced cell death is driven not by the lack
162 gned inhibitor combinations to mimic glucose deprivation-induced cell death.
163 Slug is required in PDAC cells for glutamine deprivation-induced EMT, cell motility, and nutrient str
164 sustained MET signaling eliminates monocular deprivation-induced ocular dominance plasticity during t
165                                            N deprivation-induced quiescence was accompanied by a stro
166                   Neighborhood socioeconomic deprivation is associated with adverse health outcomes.
167                              Early childhood deprivation is associated with higher rates of neurodeve
168     In addition, a brief period of junk-food deprivation is needed for the synaptic insertion of CP-A
169                                        Sleep deprivation is proposed to inhibit top-down-control in e
170                                     Androgen deprivation is the cornerstone of prostate cancer treatm
171  A lack of basic resources within a society (deprivation) is associated with increased cancer mortali
172 o rewire and recover from injury and sensory deprivation, it can lead to tinnitus as an unwanted side
173 nimals and plants to acutely adapt to oxygen deprivation, its functional and historical roots in hypo
174 re we show, using flies and mice, that sleep deprivation leads to accumulation of reactive oxygen spe
175 how that nutrient stress caused by glutamine deprivation leads to the induction of epithelial-mesench
176  childhood adversities: poverty and material deprivation, loss or threat of loss within the family, a
177                           Long-term estrogen deprivation (LTED) with tamoxifen (TAM) or aromatase inh
178                             Areas of chronic deprivation may indicate within-country poverty traps an
179 aracterize the effects of juvenile monocular deprivation (MD) on the responses of neurons in V1 and t
180 lar dominance plasticity following monocular deprivation (MD).
181  types of stress including hypoxia, nutrient deprivation, metabolic, and oxidative stress.
182 e against a combination of abiotic (nutrient deprivation, metal toxicity) and biotic (pathogens, herb
183                     Furthermore, after sleep deprivation, mice with lesioned VTA(Vgat) neurons did no
184                    Following chronic sensory deprivation, microglia undergo a morphological transitio
185 preventable circadian misalignment and sleep deprivation might underlie MVA risk increases.
186  high expression of m1 and m3 under androgen deprivation mimicking castration and androgen receptor i
187  0.61-0.30]; P = 1.1x10(-8)), greater social deprivation (most significant for GCIPL: -0.28 mum for m
188   Across deprivation sessions, we found that deprivation narrows and focuses the brain's motivational
189                                    Upon food deprivation, odr-10 is directly activated by DAF-16/FoxO
190 o acid deprivation suggest that intermittent deprivation of an essential amino acid could allow dose
191                                              Deprivation of glutamine by glutamine-withdrawal, GLS kn
192 DNA strand breaks in vitro, and intermittent deprivation of lysine combined with a sub-therapeutic do
193          Our analyses demonstrate that B(12) deprivation of metE7 disrupts C1 metabolism, causes an a
194 s ATP production, it remains unclear whether deprivation of mitochondrial TCA substrates alters mitoc
195 cadian-like cycles in primary mouse neurons, deprivation of oxygen and glucose triggered a smaller re
196 ctivity of plasmablasts resulted in nutrient deprivation of the germinal center reaction, limiting th
197 polysaccharide (LPS), KCl and oxygen/glucose deprivation (OGD) that reflect inflammation, depolarizat
198 primary rat neurons following oxygen-glucose deprivation (OGD).
199 imed to investigate effects of partial sleep deprivation on emotional contagion and mimicry in young
200                          Effects of arginine deprivation on osteoclastogenesis are independent of mTO
201 crucial to understanding the impact of sleep deprivation on performance in safety-critical tasks, is
202 ives: We aimed to assess the effect of sleep deprivation on respiratory motor output and inspiratory
203       Recent studies on the effects of sleep deprivation on synaptic plasticity have yielded discrepa
204                      The impact of childhood deprivation on the adult brain and the extent to which s
205 ase, and increased apoptosis following serum deprivation or chemotherapy.
206             However, when challenged by food deprivation or harsh environmental conditions, many mamm
207  independently associated with socioeconomic deprivation (OR, 5.39; 95% CI, 1.46-19.89; P = 0.01).
208 ety of stress conditions, including nutrient deprivation, oxidative stress, and pathogen infection.
209     Here we use a noninvasive and reversible deprivation paradigm and converging neural and behaviora
210 evant factors, including ACEs, socioeconomic deprivation, parental substance use, and mental health.
211 m, which triggers the activation of nutrient deprivation pathways to promote cellular homeostasis.
212 ffectively enhanced the efficacy of arginine deprivation (pegylated arginine deiminase) and chemother
213 model of CSR where mice underwent 18-h sleep deprivation per day for 5 consecutive days, we performed
214 d alcohol consumption after repeated alcohol deprivation periods.
215 to RP alone or neoadjuvant CHT with androgen deprivation plus docetaxel (75 mg/m(2) body surface area
216                      Instead, prolonged food deprivation potentiates temperature responses in the AWC
217              Our data suggests that nutrient deprivation primes prostate cancer cells for adaptabilit
218 , and the strongest evidence yet that visual deprivation produces bona fide cortical change.
219 es, new medications, sensory overload, sleep deprivation, prolonged bed rest, malnourishment, and sle
220                                     Nutrient deprivation promoted a tight coupling between glucose up
221       Our results demonstrate that glutamine deprivation promotes CAF migration and invasion, which i
222  interval [95% CI] 1.11-1.13, p < 0.001, per deprivation quintile increase).
223         Children were distributed across all deprivation quintiles (most to least deprived: 22.7%, 20
224                                              Deprivation quintiles were classified using the 2011 Sco
225 umference, waist-hip ratio, and neighborhood deprivation (|r(g)| ~ 0.1-0.3) and positive genetic corr
226 uli, such as amino acid starvation, nutrient deprivation, rapamycin, and lipopolysaccharide.
227 umans and other social species, early social deprivation reduced social preference in juvenile zebraf
228 d trends over time and differences by social deprivation, region, and ethnicity were examined using P
229                                           No deprivation-related effects were observed in limbic regi
230                                          The deprivation-related increase in right inferior temporal
231     Our findings suggest that socio-economic deprivation remains a driver of tuberculosis in England,
232 cellular glutamate to prevent the amino acid deprivation response and cell death.
233 actor PSR1, which is the major mediator of P deprivation responses in Chlamydomonas.
234                           However, monocular deprivation results in adaptive myelin remodeling only i
235 st disadvantaged patients-defined by an area deprivation score in the highest 20% nationally-served a
236                 Neither BMI nor the Townsend deprivation score were predictive in either survival ana
237                           Using the Townsend deprivation score, the most deprived group did not have
238 rotonin and dopamine in the brain upon sleep deprivation (SD).
239  autophagy, protein trafficking, and glucose deprivation sensing.
240                                     Nutrient deprivation sensors are suppressed in states of perceive
241                         These three nutrient deprivation sensors exert striking cardioprotective effe
242                                       Across deprivation sessions, we found that deprivation narrows
243   Therefore, promotion of ketogenic nutrient deprivation signaling by SGLT2 inhibitors may explain th
244                                        Sleep deprivation significantly impairs a range of cognitive a
245 n vitro Although glutamine, but not glucose, deprivation significantly reduced cell viability in MDV-
246 f autophagy in states of nutrient and oxygen deprivation-sirtuin-1 (SIRT1), AMP-activated protein kin
247 suffer from educational difficulties, social deprivation, socio-economic dysfunction, personality pro
248                                      Netrin1 deprivation stimulates MST1 activation and interaction w
249                           By contrast, sleep deprivation studies using approaches avoiding novelty-in
250 chemical and cytotoxic effects by amino acid deprivation suggest that intermittent deprivation of an
251 h during synchronized growth and following N deprivation, suggesting the presence of low abundance su
252 lts in increased vulnerability to amino acid deprivation, susceptibility to retinal degeneration caus
253  8 h, and combining cisplatin and amino acid deprivation synergistically reduced intracellular PRPP.
254 ailure was significantly shorter after sleep deprivation than after normal sleep: (30 min [interquart
255  thaliana and the root microbiota under iron deprivation that is dependent on the secretion of plant-
256 ients will initially respond to the androgen deprivation, the disease often progresses to castrate-re
257                            Following glucose deprivation, the import of l-cystine and its subsequent
258 se were all prescribed 24 months of androgen deprivation therapy (ADT) and had lymph node irradiation
259 ding the influence of sequencing of androgen deprivation therapy (ADT) and radiotherapy (RT) on outco
260 se-escalated radiotherapy (RT) with androgen-deprivation therapy (ADT) is a standard definitive treat
261    Radiotherapy in combination with androgen deprivation therapy (ADT) is a standard treatment option
262                                     Androgen deprivation therapy (ADT) is still a mainstay of treatme
263 ocrine prostate cancer (NEPC) after androgen-deprivation therapy (ADT) is well-known.
264 ed prostate cancer, the addition of androgen-deprivation therapy (ADT) or a brachytherapy boost (BT)
265 y androgens, and this suggests that androgen-deprivation therapy (ADT) would lead to hyperactivity of
266 transrectal US-guided biopsy, prior androgen deprivation therapy (ADT), and any prior CT results were
267 pic change of prostate cancer after androgen deprivation therapy (ADT), and it ultimately develops in
268                        Intermittent androgen deprivation therapy (IADT) is an attractive treatment fo
269 rostatectomy (n = 402) or EBRT with androgen deprivation therapy (n = 217) for men with unfavorable-r
270  overall survival than placebo plus androgen-deprivation therapy among men with nonmetastatic, castra
271 y Gleason score, and prior therapy (androgen deprivation therapy and external-beam radiation therapy)
272 on therapy in 19.3% of patients and androgen-deprivation therapy in 7.4%.
273 metastatic disease (n = 103), after androgen deprivation therapy only (n = 16), after surgery and wit
274 at chemohormonal therapy (CHT) with androgen-deprivation therapy plus docetaxel before RP would impro
275 umors that have become resistant to androgen deprivation therapy represent the major challenge in tre
276                   Enzalutamide plus androgen-deprivation therapy resulted in longer median overall su
277 erapy and lower rates of additional androgen deprivation therapy than those with extrafossa disease.
278                         Patients on androgen deprivation therapy were excluded.
279 ths) who were continuing to receive androgen-deprivation therapy were randomly assigned (in a 2:1 rat
280 herapy (79.1% vs. 82.1%, P = 0.55), androgen deprivation therapy within the 6 mo preceding imaging (8
281  prostate cancer patients receiving androgen deprivation therapy, highlighting the evolutionary conse
282 inical trial of neoadjuvant intense androgen deprivation therapy.
283 sitized ASS1-abundant L3.3 cells to arginine deprivation therapy.
284 c antigen (PSA) levels while taking androgen-deprivation therapy.
285 tate cancer undergoing intermittent androgen deprivation therapy.
286  individual's chronotype and degree of sleep deprivation to answer these questions.
287 5, p < 0.001, compared to <35 years), social deprivation (Townsend score quintile 5/most deprived, aO
288                                         Food-deprivation transiently activates male odr-10 expression
289  effective to sensitize PC cells to arginine deprivation treatment and chemotherapy through targeting
290 f these 'unassigned' fish was higher in food deprivation treatments, but lower in warm treatments.
291  deficits following one night of total sleep deprivation (TSD) in 39 healthy adults in a controlled i
292 r rates of psychiatric illness, neighborhood deprivation, unemployment, social welfare, early retirem
293 fore, the antitumor effect associated to SHH deprivation, usually thought to be a consequence of the
294 t to determine if neighborhood socioeconomic deprivation was associated with adherence to immunosuppr
295                                Socioeconomic deprivation was significantly associated with lower upta
296       Monitoring cells before and after zinc deprivation we found the position of cells within the ce
297 manian adoptees (with between 3 and 41 mo of deprivation) were compared with 21 nondeprived UK adopte
298 nic proteins expression after oxygen-glucose deprivation, whereas lentiviral overexpression of the mi
299  unchanged at P28 and P104 following sensory deprivation, whereas nrg3 expression by excitatory neuro
300 MJD3 signaling epigenetically links nutrient deprivation with hepatic autophagy and lipid degradation

 
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