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1 s partially attributable to shared polygenic liability.
2  for increasing ethanol intake and addiction liability.
3  encourage quality of care through threat of liability.
4 ly mediated through the individual's genetic liability.
5 ve relatives acted additively on adoptee AUD liability.
6 ed (with other antiplatelet agents) bleeding liability.
7 try efforts were directed at addressing this liability.
8 variation explained directly by variation in liability.
9 al stimuli on the expression of that genetic liability.
10 ed in sludge becoming an economic and social liability.
11 n drugs for QT prolonging and arrhythmogenic liability.
12 ust pharmacokinetic profile without any PDE6 liability.
13 es and accounting for 23% of the variance in liability.
14  to predict QT prolonging and arrhythmogenic liability.
15 availability and reduced cardiac ion channel liability.
16 lite, and hence presented a potential safety liability.
17 es not reflect a single dimension of genetic liability.
18  for CD do not reflect a single dimension of liability.
19  P2Y1 has the potential for reduced bleeding liability.
20  account for at least 32% of the variance in liability.
21 eptance are hindered by their own high-abuse liability.
22 physiological traits of heightened addiction liability.
23 ht represent early manifestations of genetic liability.
24 ope of care, quality, and responsibility and liability.
25 etabolite levels are associated with illness liability.
26  that lacks tolerance, dependence, and abuse liability.
27  how the chemical modifications affect abuse liability.
28 ld contribute to altered gene expression and liability.
29 ume and cortical thickness, to schizophrenia liability.
30 hared with genetic variance in schizophrenia liability.
31 phrenia and FTND/CPD/COT shared some genetic liability.
32 ht represent early manifestations of genetic liability.
33  twins (24 pairs) informative for depression liability.
34 al factors on brain connectivity and disease liability.
35 ic-like effects with reduced sedative/ataxic liabilities.
36 ger than the correlations of overall disease liabilities.
37 ating evidence indicates some shared genetic liabilities.
38 ofiles and were devoid of the aforementioned liabilities.
39  of these compounds exhibited potential hERG liabilities.
40 lated behavior without sedative or addictive liabilities.
41  of long half-life, however, carries with it liabilities.
42 n exposure, and CYP inhibition and induction liabilities.
43 smodial agents but present several stability liabilities.
44 Y12 antagonists in terms of reduced bleeding liabilities.
45 ut means to reveal gross in vivo proteolytic liabilities.
46 h comparable PDE10A potency devoid of efflux liabilities.
47 d rational engineering to reduce hydrophobic liabilities.
48 es concerns about potential cross-resistance liabilities.
49 selectivity as well as a reduction in safety liabilities.
50 could offer equivalent efficacy with reduced liabilities.
51 ility, yet their contribution to variance in liability, 2.6%, is modest compared to that for heritabl
52 haracterized by partially distinct polygenic liabilities and may represent more homogeneous phenotype
53 fy potential chemical targets, toxicological liabilities and mechanisms useful for elucidating advers
54 lar statement about the relationship between liability and BV.
55 s as well as twin studies suggest a familial liability and consequently different genes were investig
56 ecular basis of this sex-based difference in liability and demonstrated an excess of deleterious auto
57 hose predisposing factors, including genetic liability and early family environment, that are shared
58 to test for the presence of a shared genetic liability and examined potential differences between low
59 and allosteric agonism to the adverse effect liability and neurotoxicity associated with this class o
60 s improvement of N-glucuronidation metabolic liability and off-target pharmacology.
61 PK1 inhibitor 32, which does not have a hERG liability and possesses a favorable pharmacokinetic prof
62  of both the complex genetic architecture of liability and the influences of environmental stimuli on
63 s between inflammatory pain and opioid abuse liability, and should help to facilitate the development
64  - specifically, the heritability of disease liability, approximate heritability, sibling recurrence
65 e more effective, safer, and devoid of abuse liabilities are desperately needed.
66 cetyltransferase (HAT) inhibitors with these liabilities are now routinely used to probe epigenetic p
67                                   Vasoactive liabilities are typically assayed using wire myography,
68  because of parental divorce or high genetic liability are more sensitive to the pathogenic effects o
69  of the RNA interference (RNAi) pathway, but liabilities arising from the native RNA structure necess
70 h in turn moderates the emergence of general liability as individual risk for mental illness.
71 possess the same epileptiform adverse effect liability as mGlu5 ago-PAMs/PAMs and maintain temporal a
72 tive does not display the same level of hERG liability as observed with 1 and represents a promising
73 g good functional activity but displayed new liabilities associated with metabolism and hERG inhibiti
74 r cathepsin G and that mitigated a number of liabilities associated with poor physicochemical propert
75 s conducted to address a potential genotoxic liability associated with an aniline-derived scaffold in
76 ardiovascular drug but lacking its metabolic liability associated with CYP2D6 metabolism.
77 rties with their EPS and prolactin-elevating liabilities at therapeutic doses.
78 dence that volatile solvents have high abuse liability because of their selective effects on critical
79 direction of causation between schizophrenia liability, brain structure and cognition in a pan-Europe
80 as cocaine and amphetamine have a high abuse liability, but not everyone who uses them develops depen
81 is often not desirable and can create safety liabilities by activating native host immune defenses ag
82 ay also serve as a metabolic and therapeutic liability by indicating cancer cell susceptibility to FA
83 tive antitubercular agents, if the metabolic liability can be solved.
84  Although the effect of our PD measure on DA liability cannot be explained by standard measures of co
85 50 value of ca. 2 muM) and limited cytotoxic liability (CC50 > 100 muM) therefore furnishing a select
86 solates but also exhibited limited cytotoxic liability (CC50 > 100 muM).
87 activity (EC50 = 0.8 muM), limited cytotoxic liability (CC50 > 50 muM), and modest in vitro efficacy
88  model to screen for the cardiovascular (CV) liabilities (changes to HR and SNRT) that were responsib
89 nt of dental implants (DIs) and resulting in liability claims (LCs).
90  we review recent national trends in medical liability claims and costs, which indicate a sharp reduc
91               Number of medical professional liability claims involving Mohs surgery for factors incl
92 We tested the hypothesis that shared genetic liability contributes to the high rates of comorbidity b
93                    In some settings, medical liability costs are enormous, human resource shortages a
94 g RRD risk since 27.4% of the underlying RRD liability could be explained by the collective additive
95 tional benefits of Aprokam include increased liability coverage and possible reduction in dilution er
96  GDH2 may be essential to mitigate metabolic liabilities created by IDH1 mutations in glioma, with po
97 s can be exploited or considered a potential liability depending on their intended application and ha
98          This may reflect a specific genetic liability, distinct from that which contributes to basel
99 ict the putative off-targets and address the liability during lead design and optimization phases.
100 Is as anti-HIV-1 agents with fewer long-term liabilities, efficacy on new drug-resistant HIV-1 strain
101 forces likely to shape change in the medical liability environment over the next decade.
102                         We show that genetic liability estimates are primarily driven by SNPs identif
103 ficantly increased the amount of variance in liability explained by GRPS.
104 proposed to estimate the variance in disease liability explained by large sets of genetic markers.
105 mechanisms that may contribute to drug-abuse liability, exploring evidence from opioids, alcohol, and
106 umentation, quality assessment, professional liability, facility safety, patient health information,
107 ft, recent studies have identified a general liability factor for psychopathology-sometimes called th
108 s of DILI than drugs that only have a single liability factor.
109 tinct liability factors rather than a single liability factor.
110 hese were mostly influenced by environmental liability factors (heritability, 29.3% and 2.2%).
111 ed disorders may be influenced by 2 distinct liability factors rather than a single liability factor.
112 t it has been difficult to identify specific liability factors, in part because of both the complex g
113 cence, and to examine whether higher genetic liability for ADHD is correlated with total number of ad
114 ligands as effective analgesics with reduced liability for adverse effects.
115 dings suggest that in healthy young adults a liability for alcohol-induced aggression in a non-provok
116 asting epigenetic signatures associated with liability for attention and cognition, and limited poten
117 he transmission of the general externalizing liability for biological parents (r = 0.27-0.30) but not
118               These effects were specific to liability for bipolar disorder and did not apply to schi
119 dhood adversities and adulthood stressors in liability for bipolar disorder using data from the Natio
120  and neurocognition, in individuals carrying liability for bipolar disorder.
121 nd verbal functioning may be associated with liability for bipolar disorder.
122 e for mechanistic interpretations of genetic liability for brain diseases.
123 siological conditions represents a potential liability for clinical applications.
124  deletions of loop-bound sequences conferred liability for cognitive performance and decreased GRIN2B
125 g of information may contribute to a general liability for common mental disorders.
126 ditive contributions of these factors to the liability for depression, supporting the multiplicative
127  tolerance and mature in the periphery are a liability for developing autoimmunity.
128  abnormalities are influenced by the genetic liability for developing the disease.
129 , suggesting that this region is a potential liability for drug discovery.
130                  The genetic contribution to liability for opioid dependence is well established; ide
131       Network analysis revealed that genetic liability for schizophrenia is primarily associated with
132 ntermediate phenotype related to the genetic liability for schizophrenia that manifests as altered re
133       Cognitive deficits lie upstream of the liability for schizophrenia with about a quarter of the
134 r deficient contour perception marks genetic liability for schizophrenia, or is strictly associated w
135 prefrontal cortical surfaces associated with liability for schizophrenia.
136 alities may not be associated with a genetic liability for schizophrenia.
137  of familial coaggregation suggests familial liability for the association between eating disorders a
138 e study was underpowered to explore familial liability for this association.
139 e hERG potassium channel was identified as a liability for this series.
140  reduced host cell uptake and is a worrisome liability for water-soluble antimalarial drugs.
141 tion DPP1 inhibitors free from aorta binding liabilities found for earlier compound series was discov
142 e extent to which IKr blockers with known QT liability generate arrhythmias through this pathway.
143 ewiring, little is known about the metabolic liabilities generated by this reprogramming.
144                             A shared genetic liability has been proposed as one possible mechanism.
145 d suggest a general strategy for identifying liabilities in cancer cells.
146 ssentiality that may aid to unveil metabolic liabilities in cancer.
147 nal gene interactions and genotype-dependent liabilities in cancer.
148 tabolism, and its use for exposing metabolic liabilities in ccRCC, whose emergent metabolic network e
149 ext specificity of metabolic preferences and liabilities in malignant cells.
150 tivation capacity in mice, leading to safety liabilities in murine studies.
151 y the early childhood manifestations of this liability in a UK population-based cohort.
152 ntiated safe opioid analgesics without abuse liability in primates.
153 steroidogenesis, and interference can pose a liability in terms of side effects.
154 of ischemic events with no apparent bleeding liability in this high-risk group.
155 ERG activity and frequencies of other safety liabilities included those that investigated mammalian c
156 1.7 leads that address a number of metabolic liabilities including bioactivation, PXR activation, as
157 our strategies were pursued to address these liabilities including the synthesis of prodrugs, increas
158 eclining levels in compensation payments and liability insurance costs over the last 7 to 10 years.
159  to the job, 15 (21%) had purchased personal liability insurance, and 20 (28%) have defended a lawsui
160                               The IQ-genetic liability interaction arose largely from IQ differences
161 ion to compounds with reduced cardiovascular liabilities is described.
162 ion of these synonymous mutations to disease liability is comparable to de novo protein-truncating mu
163 irst study to demonstrate that schizophrenia liability is expressed partially through cognitive defic
164                                  This shared liability is most consistent with a general risk for sub
165 hat BV changes lie downstream of the disease liability is that the risk loci that influence schizophr
166 ated variants, yet how these variants confer liability is uncertain.
167 er these childhood antecedents index genetic liability is unknown.
168           Although docking retains important liabilities (it cannot calculate affinities accurately n
169 res identified strategies to obviate the DDI liability, leading to compound 16, which exhibits robust
170 activity and, thus, potential cardiovascular liability, LY2119620 surpassed previous congeners in pot
171 ity estimate of 17.4% (s.e. 1.7%) based on a liability model.
172 e the in vivo profile and address off-target liabilities of a series of BACE1 inhibitors represented
173 d pharmacodynamic features that overcome the liabilities of artemisinin derivatives.
174  into the therapeutic potential and possible liabilities of GluN2B antagonists.
175    It also lacks some of the pharmacokinetic liabilities of the clinical agents and appears to have a
176  However, concerns about the pharmacokinetic liabilities of the hydroxamic acid moiety have stimulate
177 utics and in toxicology assays for potential liabilities of therapeutic agents.
178                               The merits and liabilities of these approaches will be discussed in the
179  hold potential as new analgesics with fewer liabilities of use.
180 advances have greatly mitigated any inherent liabilities of yeasts.
181 e long-standing concerns regarding the abuse liability of benzodiazepines, the mechanisms underlying
182                                     A common liability of cancer drugs is toxicity to noncancerous ce
183 thodologies employed to assess proarrhythmia liability of drugs, discuss the challenges involved in t
184         We discovered a potential off-target liability of fenofibrate-related compounds, and in a com
185 -directed T3 action offsets the diabetogenic liability of glucagon, and glucagon-mediated delivery sp
186 ng series is devoid of the CYP2C9 inhibition liability of MRK-560.
187 e, novel strategies to predict the potential liability of new entities toward the AOX enzyme are urge
188 gs demonstrate that ACC mediates a metabolic liability of NSCLC and that ACC inhibition by ND-646 is
189 effects have a considerable influence on the liability of postterm birth.
190 emains unknown how pain influences the abuse liability of prescription opioids.
191 iscovery sample as indicators of the genetic liability of schizophrenia.
192 n slice assay was used to assess the seizure liability of subsequent compounds, leading to the identi
193 activity at DAT and NET, and decreases abuse liability of the compounds.
194                                  The kinetic liability of the conformational breadth is minimized by
195                                The addiction liability of these drugs has led to the current epidemic
196 amine the interaction between IQ and genetic liability on risk for schizophrenia.
197 bstantially attenuates the impact of genetic liability on the risk for schizophrenia.
198 ch case it is an environmental and financial liability, or it is used in relatively low value applica
199 umerated compounds, biological activity, and liabilities, over 17 years.
200 OPS (Copy-number alterations Yielding Cancer Liabilities Owing to Partial losS) genes, and spliceosom
201 ntly correlated with increased schizophrenia liability (phenotypic correlation, -0.25; 95% CI, -0.38
202 TMLM, LT-Fam is computed from posterior mean liabilities (PML) under a liability threshold model; how
203 score statistic computed from posterior mean liabilities (PMLs) under the liability-threshold model.
204 riable IKr-blocking potencies and arrhythmia liability produced a range of effects on INa-L, from mar
205 4775) was discovered with an improved PK and liability profile over 1.
206       Odds ratios (ORs), attributable risks, liability R2 values, and proportions mediated.
207 -modifying benefit and could cause cognitive liabilities rather than symptomatic benefit in AD mouse
208 ormance, has been demonstrated as a critical liability region in schizophrenia.
209 rmen, 30 (42%) were concerned about personal liability related to the job, 15 (21%) had purchased per
210                                The VCPs cite liability risk (for reporting [24.2%] and for not report
211                       This article discusses liability risks associated with the disclosure of signif
212 gher proportion of variance explained on the liability scale (improvementtarget= 50%; improvementrepl
213  component and non-additive residuals on the liability scale and (2) the Levene's test to assess equa
214  non-additive environmental residuals on the liability scale and secondly using the Levene's (Brown-F
215 ke pseudo-R(2) and variance explained on the liability scale were calculated.
216                 Firstly, we show that on the liability scale, common variants collectively explain at
217 ntrol phenotypes and then transformed to the liability scale.
218 ng multiplicative interactive effects on the liability scale.
219 mated with a multivariate Gibbs sampler; the liability-scale phenotypic covariance matrix is based on
220 stemizole competitive binding assay for hERG liability screening.
221 psychotics devoid of extrapyramidal symptoms liability, sedation, and catalepsy.
222  (4.2 log at 10 muM), and marginal cytotoxic liability (selectivity index, SI approximately 24).
223        Exposure to drugs with high metabolic liability should be minimised, and both psychiatric prov
224 erties such as enumerated compounds, but not liabilities, show statistically significant increasing t
225 mmarize the structure-activity and structure-liability studies leading to the discovery of 31 and the
226 ntal influences on the general externalizing liability than previously detected in twin studies and i
227 r improved mode of action, but also revealed liabilities that allowed us to discern two properties of
228 ing and its potential to induce biosynthetic liabilities that can be exploited for glioma therapy.
229 f these adaptations might reveal cancer cell liabilities that can be exploited for therapeutic benefi
230  for desirable ADMET properties or suspected liabilities that may require significant optimization.
231  compounds that, like 2, were free of the CV liabilities that resulted in the discontinuation of BMS-
232 M1 activation contributes to the cholinergic liabilities that were previously attributed to activatio
233  Tourette syndrome (rather than OCD) genetic liability that is not captured by traditional DSM-based
234 ck the kinase-independent function of AKT, a liability that limits their effectiveness compared to al
235 de attempt through a general psychopathology liability, this dimension should be considered as an imp
236        We performed joint continuous-ordinal liability threshold model fitting using the full informa
237                                            A liability threshold model that contemplates misclassific
238 rom posterior mean liabilities (PML) under a liability threshold model; however, LT-Fam uses publishe
239      The data were analyzed using univariate liability threshold modeling, stratified by sex and age,
240                                              Liability threshold models adjusting for censoring with
241 luding univariate and bivariate twin models, liability threshold models, DeFries-Fulker extremes anal
242                  Previously, we introduced a liability threshold-based mixed model association statis
243                               We introduce a liability-threshold mixed linear model (LTMLM) associati
244  posterior mean liabilities (PMLs) under the liability-threshold model.
245 hanced by the elimination of pharmacological liabilities through medicinal chemistry efforts.
246 lity to limit IDH1(R132H)-mediated metabolic liabilities, thus promoting glioma growth in this contex
247                With growing awareness of the liabilities to maintaining the food system of today, eff
248  considerably by the assignment of unlimited liabilities to the shareholders.
249 counted for by the transmission of a general liability to a spectrum of externalizing disorders.
250 due to the genetic transmission of a general liability to a spectrum of externalizing disorders.
251 bjects with schizophrenia might increase the liability to adverse outcomes with cannabis use is consi
252                                          The liability to ASD and a more broadly defined high-level a
253  discover common genetic variants conferring liability to ASD.
254 enetic risk for AUD reflects both a specific liability to AUD and to other externalizing disorders.
255  the importance of genetic influences on the liability to autism and related traits.
256 signature of reduced penetrance of inherited liability to autism spectrum disorder among females.
257 as been proposed whereby factors influencing liability to bipolar disorder confer certain traits with
258  test may be used as a method to predict the liability to deamidation of therapeutic antibodies in vi
259       Together, these loci explain 9% of the liability to developing this condition.
260 strong, accounting for 4% of the variance in liability to diabetes.
261 substance dependence, including extension of liability to illicit drug dependence.
262 the first genetic factor reflected a general liability to internalizing disorders, while the third ge
263 ors differed across sexes in their impact on liability to major depression.
264 ing the symptoms, which show gender-specific liability to mutational burden.
265 athies, including hereditary neuropathy with liability to pressure palsies (HNPP) caused by PMP22 def
266 opathies, such as hereditary neuropathy with liability to pressure palsies or demyelinating forms of
267 22 (PMP22) causes hereditary neuropathy with liability to pressure palsies, a peripheral nerve lesion
268 MPZ mutation, and hereditary neuropathy with liability to pressure palsy/PMP22 deletion.
269                             Genetic risk for liability to recurrent MDD was partitioned using sparse
270  robust interaction was seen between genetic liability to schizophrenia and IQ in predicting schizoph
271 enia with about a quarter of the variance in liability to schizophrenia explained by variation in cog
272  mediating the link between cannabis use and liability to schizophrenia.
273  of nonshared environment than those for the liability to schizophrenia.
274 n within MYO16 may contribute to the genetic liability to schizophrenia.
275 arge effects are superimposed on a polygenic liability to schizophrenia.
276 CpG sites were significantly associated with liability to T2D, fasting blood glucose and insulin resi
277 t up-to-date computational method to predict liability toward human AOX (hAOX), for applications in d
278 gy of schizophrenia; however, shared genetic liability toward infections and schizophrenia could infl
279 ment practice must shift from treatment of a liability toward recovery of the embedded energy and che
280 ons of their therapeutic potential and abuse liability, two specific areas that are of significant pu
281      Mitigation of a potential Ames and hERG liability ultimately led to two promising compounds, one
282                            The proportion of liability variance explained by GPRSs for each MDD subgr
283 n a chemotype class lacking overt structural liabilities was a critical milestone in the effort to re
284 new round of optimization addressing the key liabilities was performed and led to discovery of compou
285 nship between BV deviation and schizophrenia liability was more limited.
286                                     Bleeding liability was reduced in the rat wire coil model, more r
287 in a series of HCV NS5B inhibitors, the hERG liability was reduced.
288 nitive impairment is causal to schizophrenia liability, we are not in a position to make a similar st
289                         Based on this shared liability, we identified multiple long non-coding RNAs a
290  understand the neurobiology underlying such liability, we investigate how early adolescent cocaine e
291                   To overcome this potential liability, we investigated two prodrug strategies, 1,4,2
292              This scaffold suffers from hERG liabilities which were not remedied through this round o
293 pes of opioid medication, their benefits and liabilities will ultimately need to be determined by the
294 t the risk loci that influence schizophrenia liability will thereafter influence BV and to a lesser e
295                In contrast to the off-target liabilities with 1, no blood pressure increase was obser
296              Furthermore, they display fewer liabilities with CYP-metabolizing enzymes and hERG compa
297 airments in 4 domains known to share genetic liability with ADHD: IQ, social communication, pragmatic
298   BV changes lay downstream of schizophrenia liability, with 4% of BV variation explained directly by
299 dentifying neural correlates of this general liability would substantiate its importance in character
300 tions contribute substantially to individual liability, yet their contribution to variance in liabili

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