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1                                              AIP does not affect long-term survival.
2                                              AIP inhibits IRF7 function by antagonizing the nuclear l
3                                              AIP is a rare disease whose recognition and understandin
4                                              AIP is steroid-responsive but maintaining remission cont
5                                              AIP neurons responding to outline shapes also responded
6                                              AIP-1 overexpression also reduced accumulation of Abeta
7                                              AIP-directed mitochondrial import of survivin did not af
8                         Patients with type 1 AIP have a high relapse rate, but patients with type 2 A
9                                       Type 1 AIP is the pancreatic manifestation of a systemic fibroi
10        At presentation, patients with type 1 AIP were older than those with type 2 AIP (62 +/- 14 vs
11  and vital status of 78 patients with type 1 AIP who met the original HISORt criteria and 19 patients
12                                    In type 1 AIP, proximal biliary involvement (hazard ratio [HR], 2.
13 a mutation in Caenorhabditis elegans AIPR-1 (AIP-related-1), which causes profound increases in evoke
14 nd evaluated the inhibitory activities of 10 AIP derivatives based on a truncated AIP analogue that i
15                                Types 1 and 2 AIP have distinct clinical profiles.
16 iles and long-term outcomes of types 1 and 2 AIP.
17 type 1 AIP were older than those with type 2 AIP (62 +/- 14 vs 48 +/- 19 years; P < .0001) and had a
18                                       Type 2 AIP affects younger patients, does not have a gender pre
19 re geared toward diagnosis of type 1; type 2 AIP can be definitively diagnosed only on pancreatic his
20  high relapse rate, but patients with type 2 AIP do not experience relapse.
21 atients with histologically confirmed type 2 AIP.
22 IP receptors AgrC and the AIPs, as AP4-24H11.AIP-4 binding recapitulates features that have been prop
23                                 The agonist, AIP-I, binds AgrC-I noncooperatively in a 2:2 stoichiome
24 es features that have been proposed for AgrC-AIP recognition.
25 AgrC1 loop 2 resulted in conversion of (Ala5)AIP-1 from a potent antagonist to an activator, essentia
26 e was shown by others to be essential for an AIP-1 prolongevity function.
27        Consistent with this, we show that an AIP-1 mutant lacking the predicted farnesylation site fa
28                                Therefore, an AIP-Tom20 recognition contributes to cell survival in de
29  while differential recognition of AIP-1 and AIP-4 depends primarily on three amino acid residues in
30                              Since AIP-1 and AIP-4 only differ by a single amino acid, we compared th
31 pon Staphylococcus lugdunensis AIP-1 (1) and AIP-2 (2) displayed respective IC50 values of 0.2 +/- 0.
32 ) of 0.95], chronic pancreatitis (0.86), and AIP (0.99).
33                    Interestingly, AIRAPL and AIP-1 contain a predicted farnesylation site, which is a
34 mportant roles of both cerebellar cortex and AIP nucleus in eyeblink conditioning were seen.
35 function from thiolactone ring formation and AIP transport.
36 ctrometry and discovered that the AIP-II and AIP-III signals are 12 residues in length, making them t
37 d IRF7 is enhanced upon virus infection, and AIP potently inhibits IRF7-induced type I IFN (IFNalpha/
38 al and anterior intraparietal areas (MIP and AIP), and parietal area PEip; somatosensory areas S1 and
39  detection of early chronic pancreatitis and AIP, risk stratification and application of risk-lowerin
40 mbined group of N, chronic pancreatitis, and AIP was determined.
41 oci methylated at high frequency in PRIM and AIP but rarely in MET.
42 peptide regions important for processing and AIP secretion.
43                            The parietal area AIP operated primarily in a visual mode.
44 rmed by macaque anterior intraparietal area (AIP) and hand area (F5) of the ventral premotor cortex i
45 primates are in anterior intraparietal area (AIP) and ventral premotor cortex (PMv).
46  comprising the anterior intraparietal area (AIP), ventral premotor (PMv), and primary motor cortex (
47 ocated anterior to the angular gyrus such as AIP and VIP are less medially displaced relative to maca
48  the requirements and mechanism of S. aureus AIP biosynthesis.
49                                      Because AIP blocks the degradation of IkappaB, its regulation is
50                       An association between AIP and the human leukocyte antigen (HLA)-DRB1*0405/DQB1
51                      The interaction between AIP and IRF7 is enhanced upon virus infection, and AIP p
52 ed studies confirm the intimate link between AIP production and intracellular AgrD(C) levels.
53 s a survivin 1-141 mutant that does not bind AIP was not imported to mitochondria and failed to inhib
54 grC-I caused the receptor to be activated by AIP-I nearly as well as the wild type AgrC-I receptor.
55 ormation about object properties provided by AIP.
56 with a peptide inhibitor of calcineurin (CaN-AIP); the non-selective PP1/PP2A inhibitors okadaic acid
57 ctrometric analysis identified the S. caprae AIP as an eight-residue peptide (YSTCSYYF).
58  therapeutic efficacy of synthetic S. caprae AIP was evident by a dramatic reduction in both dermonec
59 ering the activation efficacy of the cognate AIP-1.
60 ntial for receptor activation by the cognate AIP.
61                                Consistently, AIP-deficient murine embryonic fibroblasts are highly re
62 led two key structural elements that control AIP-III (and non-native peptide) activity: (1) a tri-res
63    More detailed studies with the convenient AIP model indicated that CSF-1 neutralization led to a r
64 gative I-Abeta chain(-/-) (Ab0) mice develop AIP spontaneously, likely due to dysregulation of CD8(+)
65  HLA-DR*0405 transgenic Ab0 NOD mice develop AIP with high prevalence after sublethal irradiation and
66 icient NOD.CD28KO mice spontaneously develop AIP that closely resembles the human disease.
67  indicate that (1)H NMR can help to diagnose AIP attacks based on the identification of ALA and PBG.
68 groups I-IV), each of which uses a different AIP:AgrC pair.
69 wly published strategies for differentiating AIP from pancreatic cancer are available.
70 ractions [10-12] were modified by disrupting AIP function with theta-burst TMS (cTBS) [13].
71 s explain the chemical principles that drive AIP production, including uncovering a hitherto unknown
72                                       During AIP, delta-aminolevulinic acid (ALA) accumulates and pro
73 d analogue of the Staphylococcus epidermidis AIP-1 (3) elicited an IC50 value of 2.7 +/- 0.1 muM.
74  the minimum effective shape feature evoking AIP responses.
75 aration were significantly reduced following AIP cTBS without directly modifying corticospinal excita
76                         A novel antibody for AIP has recently been identified and its performance nee
77                      Diagnostic criteria for AIP are based on histology, imaging, serology, extrapanc
78 c biopsy of the bile duct was diagnostic for AIP in 88% patients.
79 tion via a thiolactone bond is essential for AIP function; therefore, recognition of the cyclic form
80 nine residues were found to be essential for AIP production and AgrB endopeptidase activity.
81 e appears to be an important risk factor for AIP on the HLA-DRB1*0405/DQB1*0401 haplotype.
82 ne in the rate of operative intervention for AIP, a steroid-responsive disease with propensity for re
83 ponsive genes and suggests that a search for AIP-dependent, AHR-responsive genes may guide us to the
84 orticoids have become a standard therapy for AIP, but the indications requiring treatment as well as
85 oid therapy improve the diagnostic yield for AIP.
86                           When decoding from AIP, F5, and M1 combined, the mean accuracy was 50% (usi
87 R*0405 expression fails to protect mice from AIP, the HLA-DRB1*0405 allele appears to be an important
88 predicted well during movement planning from AIP (medial array) and F5 (lateral array), whereas M1 pr
89 tify and quantify ALA and PBG in urines from AIP patients and (2) to identify metabolites that would
90                                 Furthermore, AIP significantly reduced the level of glutamate-induced
91           However, little is known about how AIP contributes to the processing of grasp-related infor
92                            It is unclear how AIP binding regulates AgrC activity.
93 nfavorable, and therefore, it is unclear how AIP-producing bacteria produce sufficient amounts of the
94 ning the object shape, but it is unknown how AIP neurons actually represent object shape.
95 2_844delGAG) identical to that causing human AIP and two missense mutations, c.250G>A (p.A84T) and c.
96 fe-threatening neurological attacks in human AIP and the evaluation of therapeutic strategies.
97 thologue of BC058385 was methylated in human AIP but not in primary androgen-stimulated prostate canc
98  enzyme and accumulated metabolites in human AIP.
99            We created a mouse model of human AIP by overexpressing lymphotoxin (LT)alpha and beta spe
100 is, diagnostic markers, and therapy of human AIP.
101   Preliminary characterization of the AgrC-I-AIP-I interaction suggests that ligand specificity may b
102                     Here, we have identified AIP (aryl hydrocarbon receptor interacting protein) as a
103 g peptide (AIP) signals has been identified (AIP-I), and cross talk between agr systems has not been
104               Together, our study identifies AIP as a novel inhibitor of IRF7 and a negative regulato
105 reported a set of analogues of the group-III AIP that are capable of strongly modulating the activity
106                        Our results implicate AIP-1 in the regulation of protein turnover and protecti
107 reversible mislocalization of ductal CFTR in AIP, the association of asymptomatic pancreatic hyperenz
108 mutagenized and screened for deficiencies in AIP production.
109 ral other antibodies have been identified in AIP against pancreas-specific antigens like trypsinogens
110  of grasp-related and spatial information in AIP and F5 suggests at least a supportive role of these
111  to identify amino acid residues involved in AIP recognition.
112 activity from many electrodes in parallel in AIP and F5 while three macaque monkeys (Macaca mulatta)
113  the most homogeneous methylation pattern in AIP and the most heterogeneous pattern in MET.
114 ghout the task, although more prominently in AIP than in F5.
115 predominantly mediate the immune reaction in AIP.
116 k-lowering strategies to prevent relapses in AIP or the development of recurrent (and possibly chroni
117  or management and prevention of relapses in AIP.
118 aze and target positions were represented in AIP and F5 and could be readily decoded from single unit
119             Whether these spatial signals in AIP and F5 also play a causal role for the planning of r
120 1 residues were defective in a later step in AIP biosynthesis, separating the peptidase function from
121 esidues glutamate 34 or leucine 41 inhibited AIP production and AgrB activity.
122  expressing the SR-targeted CaMKII inhibitor AIP, without any significant enhancement of apoptosis vs
123 , and the selective CaMKII peptide inhibitor AIP (autocamtide-2-related inhibitory peptide) (2 microm
124              To better understand inhibitory AIP-AgrC interactions, we aimed to identify the minimal
125   Non-native ligands capable of intercepting AIP:AgrC binding, and thereby QS, in S. aureus have attr
126                               Interestingly, AIP of HIV-1 Env glycoproteins were found to correlate i
127 e we report that the anterior intraparietal (AIP) and the rostral ventral premotor area (F5) in the m
128          The macaque anterior intraparietal (AIP) area has been implicated in the extraction of affor
129 ng activity from the anterior intraparietal (AIP), ventral premotor (F5), and primary motor (M1) cort
130 es were distributed among four laboratories (AIP, NCS, LSPQ, and SSI).
131 2 stoichiometry, while an antagonist ligand, AIP-II, functions as an inverse agonist of the kinase ac
132               Herein, we report amide-linked AIP analogues with greatly enhanced hydrolytic stabiliti
133 logues based upon Staphylococcus lugdunensis AIP-1 (1) and AIP-2 (2) displayed respective IC50 values
134 n the AIP-encoding gene (agrD) that modifies AIP structure must be accompanied by corresponding chang
135                                    NOD mouse AIP was associated with severe periductal and parenchyma
136 e rescued by presynaptic expression of mouse AIP, demonstrating that a conserved function of AIP prot
137 utocamtide-2-related inhibitory peptide (myr-AIP)--but not by inhibition of the activity of protein p
138 ) blockers applied by bath (KN-93, myristoyl-AIP) or expressed selectively in the sensory neurons (AI
139 onal structural analysis of the known native AIP signals (AIPs-I-IV) and several AIP-III analogues wi
140                  A limited set of non-native AIP analogs have been shown to inhibit AgrC receptors; s
141 xpressed selectively in the sensory neurons (AIP) reduced CDF, unlike their inactive analogues.
142 y resulting in the forced evolution of a new AIP group.
143 levations (>140 mg/dl) are seen in 70-80% of AIP patients and also in 5% of normal population and 10%
144 utable to higher-than-normal accumulation of AIP-III in a codY mutant strain, as determined using ult
145 emistry for the diagnosis of acute attack of AIP and identify urinary glycin as a potential marker of
146                          The biosynthesis of AIP requires AgrD, the peptide precursor of AIP, and the
147 ed as a hub that shared the visual coding of AIP only temporarily and switched to highly dominant mot
148 of the severity of a chronic complication of AIP.
149 dressed this by studying the consequences of AIP "virtual lesions" on physiological interactions betw
150 have previously localized the determinant of AIP receptor specificity to the C-terminal half of the A
151 actors that contribute to the development of AIP and new therapeutic strategies.
152 le of single HLA genes in the development of AIP in transgenic mice.
153 essary and sufficient for the development of AIP.
154 identify recent advances in the diagnosis of AIP and evaluate outcomes with various diagnostic strate
155                  Behaviorally, disruption of AIP was also associated with a relative loss of the gras
156 tural insights may enable the engineering of AIP cross-reactive antibodies or quorum quenching vaccin
157                        (i) The expression of AIP in hepatocytes is essential to maintain high levels
158 l immune-complex deposition, and features of AIP in Ela1-LTab mice.
159 owever, when combined with other features of AIP, it can be of great diagnostic value though its util
160 y in acinar cells of mice causes features of AIP.
161 autoimmune disorder with various features of AIP.
162  were homozygous, a unique recessive form of AIP.
163 , demonstrating that a conserved function of AIP proteins is to inhibit calcium release from ryanodin
164 APL as the functional mammalian homologue of AIP-1.
165                      Mammalian homologues of AIP-1 have been shown to associate with, and regulate th
166  leading us to hypothesize that induction of AIP-1 may be a protective cellular response directed tow
167 uced activation of IFN, whereas knockdown of AIP by siRNA potentiates virally activated IFN productio
168 1 protected against, while RNAi knockdown of AIP-1 exacerbated, Abeta toxicity.
169     Pancreatic and biliary manifestations of AIP mimic pancreaticobiliary cancers.
170 strong structural support for a mechanism of AIP-mediated AgrC activation and inhibition in S. aureus
171               In addition, microinjection of AIP into the PVN significantly reduced arterial blood pr
172                              Misdiagnosis of AIP can result in major surgery for a steroid-responsive
173 he first naturally occurring animal model of AIP in four unrelated cat lines who presented phenotypic
174                            Overexpression of AIP blocks virus-induced activation of IFN, whereas knoc
175 sgenic model, we show that overexpression of AIP-1 protected against, while RNAi knockdown of AIP-1 e
176                          The pathogenesis of AIP remains unclear but a recent report noted that T hel
177  AIP requires AgrD, the peptide precursor of AIP, and the integral membrane endopeptidase AgrB.
178 ospital survey from Japan, the prevalence of AIP was estimated at 0.82 per 100,000 individuals.
179 es further described the clinical profile of AIP and its extrapancreatic manifestations.
180 ess in understanding the clinical profile of AIP but knowledge of pathogenesis remains limited.
181 ealed that while differential recognition of AIP-1 and AIP-4 depends primarily on three amino acid re
182 lycin as a potential marker of recurrence of AIP acute attacks.
183 sociations that may predispose to relapse of AIP were reported.
184 enetic screen may help to predict relapse of AIP.
185                    To understand the role of AIP in adaptive and toxic aspects of AHR signaling, we g
186                                  A subset of AIP neurons is also activated by two-dimensional images
187 design, synthesis, and biological testing of AIP-III mimetics.
188 gress made in the diagnosis and treatment of AIP in the past year.
189 ces in the past year in our understanding of AIP.
190 driven genes show differential dependence on AIP expression.
191              This differential dependence on AIP provides evidence that the mammalian genome contains
192 ide dismutase, whereas its inhibitor KN93 or AIP abolished the arrhythmic phenotype.
193                     Replacement of the P4-P2 AIP reactive loop residues in the alpha1PI exosite varia
194 G4) is a feature of autoimmune pancreatitis (AIP) and IgG4-associated cholangitis (IAC); a >2-fold in
195 isting knowledge of autoimmune pancreatitis (AIP) and to review the progress made in the diagnosis an
196 e concentrations in autoimmune pancreatitis (AIP) by restoring mislocalized CFTR protein to the apica
197 s may differentiate autoimmune pancreatitis (AIP) from pancreatic cancer in select patients.
198                     Autoimmune pancreatitis (AIP) has been divided into subtypes 1 (lymphoplasmacytic
199                     Autoimmune pancreatitis (AIP) is a heterogeneous autoimmune disease in humans cha
200                     Autoimmune pancreatitis (AIP) is a rare and underdiagnosed fibrosclerosing inflam
201                     Autoimmune pancreatitis (AIP) is an increasingly recognized clinical condition.
202                     Autoimmune pancreatitis (AIP) is the pancreatic manifestation of ISD and mimics p
203                     Autoimmune pancreatitis (AIP) underlies 5%-11% of cases of chronic pancreatitis.
204 or the diagnosis of autoimmune pancreatitis (AIP) with the objective of establishing a strategy to di
205 genic mechanisms of autoimmune pancreatitis (AIP), an increasingly recognized, immune-mediated form o
206 es of patients with autoimmune pancreatitis (AIP), and follow-up periods have generally been short.
207 ronic pancreatitis, autoimmune pancreatitis (AIP), and healthy controls (N).
208 allel in macaque premotor (F5) and parietal (AIP) cortices during a delayed grasping task revealed th
209 eria, agr encodes an autoactivating peptide (AIP) that is the inducing ligand for AgrC, the agr signa
210 tive inhibitors of the autoinducing peptide (AIP) activated AgrC receptor, by altering the activation
211 um sensing in which an autoinducing peptide (AIP) activates AgrC, a histidine protein kinase.
212 ine kinase detects its autoinducing peptide (AIP) ligand and generates an intracellular signal result
213 duction and sensing of autoinducing peptide (AIP) signal molecules by the agr locus.
214 s, but only one of the autoinducing peptide (AIP) signals has been identified (AIP-I), and cross talk
215 pathogen that utilizes autoinducing peptide (AIP) signals to mediate QS and thereby regulate virulenc
216 ning peptide called an autoinducing peptide (AIP) that is biosynthesized from the AgrD precursor by t
217 ted that the S. caprae autoinducing peptide (AIP) was responsible, and mass spectrometric analysis id
218 e synthesizes a cyclic autoinducing peptide (AIP) with a distinct sequence that activates its cognate
219 ctone signal called an autoinducing peptide (AIP).
220  analogues of a native autoinducing peptide (AIP-III) signal that can inhibit AgrC-type QS receptors
221 or autocamtide-2-related inhibitory peptide (AIP) inhibited NFkappaB activation in the retina.
222 sed in FRD-SR-autocamide inhibitory peptide (AIP) mice, expressing the SR-targeted CaMKII inhibitor A
223 or autocamtide-2-related inhibitory peptide (AIP) normalized the increased amplitude of NMDAR-EPSCs a
224 ed autocamtide-2-related inhibitory peptide (AIP) was used in a rat in vivo model of retinal toxicity
225 questers the secreted agr-signaling peptide (AIP).
226                   In Ag-induced peritonitis (AIP), thioglycolate-induced peritonitis, and LPS-induced
227  the inferior parietal lobe such as PF, PFG, AIP, and the tip of the IPS.
228  patients with acute intermittent porphyria (AIP) and porphyria cutanea tarda (PCT).
229  patients with acute intermittent porphyria (AIP), an inherited metabolic disorder of heme biosynthes
230          Human acute intermittent porphyria (AIP), the most common acute hepatic porphyria, is an aut
231  patients with acute intermittent porphyria (AIP).
232          The Arabidopsis information portal (AIP), a resource expected to provide access to all commu
233 t to uncover the anterior intestinal portal (AIP) endoderm as a putative heart organizer.
234 d fuse above the anterior intestinal portal (AIP) to form the heart tube.
235 d tested their apoptosis-inducing potential (AIP).
236 tios of aqueous-inlet to oil-inlet pressure (AIP/OIP), yielding a linear relationship between muaq an
237 ytes (Ela1-LTab/Ccr2(-/-)) failed to prevent AIP but prevented early pancreatic tissue damage.
238           The Arctic Investigations Program (AIP) began surveillance for invasive group A streptococc
239 ) and Alaska (Arctic Investigations Program [AIP]).
240 yl hydrocarbon receptor-interacting protein (AIP), a survivin-associated immunophilin, causes embryon
241 yl hydrocarbon receptor-interacting protein (AIP), also known as ARA9 and XAP2.
242 n E3 ligases atrophin-1-interacting protein (AIP)4 and AIP5.
243 uitin ligase atrophin-1 interacting protein (AIP)4 to bind, ubiquitinate, and stabilize Amot130.
244 In import assays using recombinant proteins, AIP directly mediated the import of survivin to mitochon
245            The Cyp1b1 and Ahrr genes require AIP expression for normal up-regulation by dioxin, where
246                                     At rest, AIP virtual lesions did not modify PMv-M1 interactions.
247 n native AIP signals (AIPs-I-IV) and several AIP-III analogues with varied biological activities usin
248                                          SHG-AIP with two symmetrical spots is found to be a signatur
249 on of second-order nonlinear emitters on SHG-AIP is highlighted.
250           SHG angular intensity pattern (SHG-AIP) of healthy and proteolysed muscle tissues are simul
251                        We also show that SHG-AIP provides information on the three-dimensional struct
252 be a signature of healthy muscle whereas SHG-AIP with one centered spot in pathological mdx muscle is
253        When an extracellular peptide signal (AIP-III in strain UAMS-1, used for these experiments) re
254                                        Since AIP-1 and AIP-4 only differ by a single amino acid, we c
255 this spontaneous pancreatic amylase-specific AIP in regulatory T cell-deficient NOD.CD28KO mice provi
256 gnificant enhancement of apoptosis vs. CD-SR-AIP mice.
257 oxidative stress but not apoptosis in FRD-SR-AIP mice, in which a CaMKII inhibitor is targeted to the
258 eractions between the cognate staphylococcal AIP receptors AgrC and the AIPs, as AP4-24H11.AIP-4 bind
259                                    The term 'AIP' appears to encompass at least two distinct subtypes
260 ariance explained) significantly better than AIP (6%).
261 ion of variability in trial-to-trial RT than AIP.
262 effect on trial-to-trial RT variability than AIP.
263                       Results confirmed that AIP fully attenuates caspase-3 activation for at least 8
264                  Our study demonstrates that AIP of HIV-1 Env and IA collectively determine CD4 loss
265  a lead-in to this study, we discovered that AIP type I could be generated in Escherichia coli throug
266 that active endodermal shortening around the AIP accounts for most of the heart field motion towards
267 d throughout the central region encoding the AIP signal.
268 , we demonstrate two important roles for the AIP protein in AHR biology.
269 n December 2011 proposed a structure for the AIP to provide a framework for the minimal components of
270                               Neurons in the AIP area respond during visually guided grasping and to
271   We now invite broader participation in the AIP development process so that the resource can be impl
272  frequently associated with mutations in the AIP gene and are sometimes associated with hypersecretio
273 wered inflammatory macrophage number; in the AIP model, this reduced number was not due to suppressed
274 with each of the four amide nitrogens in the AIP-4 macrocyclic ring.
275  to retain functionality, any changes in the AIP-encoding gene (agrD) that modifies AIP structure mus
276 s challenge the current understanding of the AIP area as a critical stage in the dorsal stream for th
277                     This minimization of the AIP pharmacophore also may have therapeutic relevance as
278                       (ii) Expression of the AIP protein is essential for dioxin-induced hepatotoxici
279                            The design of the AIP will provide core functionality while remaining flex
280 this binding motif, (R/K)R(I/A/V) (L/P), the AIP box for Asf1-Interacting Protein box.
281 lethal dose of S. aureus by sequestering the AIP signal.
282                             We show that the AIP can induce cardiac identity from non-cardiac mesoder
283 ng mass spectrometry and discovered that the AIP-II and AIP-III signals are 12 residues in length, ma
284 d into four groups (I-IV) according to their AIP signal and cognate extracellular receptor, AgrC.
285      We structurally characterized all three AIP types using mass spectrometry and discovered that th
286 tabolites that would predict the response to AIP crisis treatment and reflect differential metabolic
287 T cells; we compared their susceptibility to AIP with HLA-DQ8 or HLA-DR*0401 (single) transgenic, or
288 s of 10 AIP derivatives based on a truncated AIP analogue that inhibits all four agr types.
289 AMP tumors (PRIM, late-stage primary tumors; AIP, androgen-independent primary tumors; and MET, metas
290                                       Unique AIP and AgrC variants exist within and between species,
291  transgenic mice can also develop unprovoked AIP, whereas HLA-DR*0401, HLA-DQ8, and HLA-DR*0405/DQ8 t
292 ial variability and movement timing, whereas AIP might be more closely linked to overall movement int
293 ructure of the AP4-24H11 Fab in complex with AIP-4 at 2.5 A resolution to determine its mechanism of
294 beta in this model, which is consistent with AIP-1 enhancing protein degradation.
295   We analyzed data from 122 individuals with AIP who were followed from 2003 to 2013 and genotyped fo
296 ns-autophosphorylation upon interaction with AIP.
297 sed in pancreatic tissues from patients with AIP, compared with controls, and expression of chemokine
298 ligands might be used to treat patients with AIP.
299                               Treatment with AIP also normalized the higher frequency of NMDAR-mediat
300 serum samples from patients with and without AIP.

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