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1                                              AID detection via tdTomato expression allowed tracking o
2                                              AID expression is tightly regulated in B cells and its o
3                                              AID is essential for the maturation of antibodies and ca
4                                              AID mediates class-switch recombination (CSR) and somati
5                                              AID was expressed in human primary keratinocytes in an i
6                                              AID-initiated DSBs at targets spread across activated S
7                                              AID-Pol II mutations are strongly favored in WRC and WGC
8                                              AID/APOBEC family enzymes are best known for deaminating
9 n initiation, we characterized the sigma(54) AID by NMR spectroscopy and other biophysical methods an
10 ium fluoride, we studied the NtrC1-sigma(54) AID complex using NMR spectroscopy.
11  construct of the Aquifex aeolicus sigma(54) AID that consists of two predicted helices and retains n
12          We found that deficient pS38 abated AID chromatin association and CSR but not mutation at My
13    In addition, through off-target activity, AID has a much broader effect on genomic instability by
14 frequencies of SHM in memory B cells from AD-AID patients and AID+/- subjects, who were unable to pre
15 ts with autosomal dominant AID mutations (AD-AID), asymptomatic AICDA heterozygotes (AID+/-), and pat
16 irectly or indirectly, potentially affecting AID expression and, consequently, genomic stability in B
17            Mice bearing a mutation in Aicda (AID(G133V)) that disrupts AID-G4 binding modeled the pat
18                         Using lithium and an AID-S38 phospho mutant, we compared the role of pS38 in
19 ility in normal and neoplastic B cells by an AID-dependent mechanism.
20 indings in the clinical setting, we analyzed AID expression and PFs in a CLL cohort before and during
21 ptosis-control genes FAS/CD95, Caspase-2 and AID.
22 on, growth in response to BAFF or APRIL, and AID/Bcl-6 expression, as well as follicular CD4(+) cell
23 equences in regulating Ab gene diversity and AID targeting specificity.
24  wild-type AID localized to MHCII genes, and AID expression correlated with decreased MHCII expressio
25 ssion and translocation frequency to IGH and AID off-target sites in human chronic lymphocytic leukae
26 M in memory B cells from AD-AID patients and AID+/- subjects, who were unable to prevent the accumula
27 inducing both Igh germline transcription and AID expression.
28  end AIDS by 2030, with incidence of HIV and AIDs-related mortality rates both at less than one event
29 ed a mutational signature of BRCA and APOBEC/AID.
30                              To test the ARF-AID system in a quantitative and sensitive manner, we me
31 gradation is substantially faster in the ARF-AID system.
32 ctive capability of a recombinase-associated AID subtype (rAID-1) that is present broadly in Bacteroi
33          Despite the functional link between AID and TET in epigenetic gene regulation, the role of A
34 tifs potentially function as spacers between AID deamination hotspots.
35 h DNA damage, suggesting that factors beyond AID association contribute to mutation targeting.
36 ntact-dependent interbacterial antagonism by AID systems helps to shape human gut microbiome ecology.
37           To directly map uracils created by AID/APOBEC enzymes, here we used uracil-DNA glycosylase
38 chromosome structure of TOP2A degradation by AID.
39  mutation hotspots are largely determined by AID deamination.
40 itch DNA recombination (CSR) is initiated by AID-introduced DSBs in the switch (S) regions targeted f
41                  The mutability modulated by AID hotspots and coldspots changes correlated only weakl
42 anism by which processing of G:U produced by AID at the telomeres can eliminate B cells at risk of ge
43 man B-ALL are not preferentially targeted by AID.
44 biological insights, reporting evidence of c-AID activity among unmutated CLL cases or the absence of
45 ed heightened humoral responses (CD20, CD22, AID) in melanoma.
46 express Cre in germinal center (GC) B cells (AID-Cre).
47 omain of the cardiac L-type calcium channel (AID-TAT) on restoring mitochondrial metabolic activity,
48               In this study, we characterize AID-dependent break formation in J(H) introns from mouse
49       In chronic lymphocytic leukemia (CLL), AID is overexpressed in the proliferative fractions (PFs
50 nduced cytidine deaminase (AID) to construct AID-nCas9-Ung and found that it converts C to A with an
51   Moreover, G4 substrates induce cooperative AID oligomerization.
52 onal interference, and gene deletion (CRISPR-AID) in the yeast Saccharomyces cerevisiae.
53     We demonstrate the application of CRISPR-AID not only to increase the production of beta-carotene
54  compounds in the PubChem bioassay database (AID: 1508591).
55       Guided by single guide (sg)RNAs, dCas9-AID-P182X (AIDx) directly changed cytidines or guanines
56  Aicda (which encodes the cytidine deaminase AID) and thus silenced B cell-specific gene expression,
57 nary precursors, the antibody gene deaminase AID and the RNA/DNA editing enzyme APOBEC1 (A1).
58 in an activation-induced cytidine deaminase (AID) and H2AX-dependent fashion.
59 ed by activation-induced cytidine deaminase (AID) and requires base excision repair (BER) and mismatc
60  that activation-induced cytidine deaminase (AID) and ten-eleven-translocation (TET) family members r
61 es of activation-induced-cytidine deaminase (AID) and the A-T mutator, DNA polymerase eta, respective
62 on of activation-induced cytidine deaminase (AID) between heterologous challenges of West Nile, Japan
63       Activation-induced cytidine deaminase (AID) converts cytosine into uracil to initiate somatic h
64       Activation-induced cytidine deaminase (AID) generates U:G mismatches in Ig genes that can be co
65 enous activation-induced cytidine deaminase (AID) in engineered cells allowed for Ig class switching
66       Activation-induced cytidine deaminase (AID) initiates both class switch recombination (CSR) and
67       Activation-induced cytidine deaminase (AID) initiates immunoglobulin (Ig) class switch recombin
68       Activation-induced cytidine deaminase (AID) initiates somatic hypermutation and class switch re
69       Activation-induced cytidine deaminase (AID) is a B-cell-specific enzyme that targets immunoglob
70       Activation-induced cytidine deaminase (AID) is a genome-mutating enzyme that initiates class sw
71       Activation-induced cytidine deaminase (AID) is a mutator enzyme that targets immunoglobulin (Ig
72 binds activation-induced cytidine deaminase (AID) that catalyzes SHM, we tested AID interactions with
73  used activation-induced cytidine deaminase (AID) to construct AID-nCas9-Ung and found that it conver
74 human activation-induced cytidine deaminase (AID) to identify genes preventing R loops.
75 nt of activation-induced cytidine deaminase (AID) to Ig switch regions (S regions).
76 ng of activation-induced cytidine deaminase (AID) to immunoglobulin (Ig) loci promotes antibody class
77 9 to recruit variants of cytidine deaminase (AID) with MS2-modified sgRNAs, we can specifically mutag
78 nduce activation-induced cytidine deaminase (AID)(2) and I-promoter transcription, with 3' IgH regula
79 ed by activation-induced cytidine deaminase (AID), the activity of which leads to DNA double-strand b
80       Activation-induced cytidine deaminase (AID), the enzyme responsible for induction of sequence v
81 nzyme activation-induced cytidine deaminase (AID), which is required in affinity maturation.
82 on of activation-induced cytidine deaminase (AID)-instigated DNA double-strand breaks into the IgH lo
83 rgone activation-induced cytidine deaminase (AID)-mediated somatic hypermutation (SHM) following neur
84 e DNA activation-induced cytidine deaminase (AID).
85 nzyme Activation-induced cytidine Deaminase (AID).
86 y the activation-induced cytidine deaminase (AID).
87 il by activation-induced cytidine deaminase (AID).
88 on of activation-induced cytidine deaminase (AID).
89  that activation-induced cytidine deaminase (AID, encoded by AICDA) links chronic inflammation and sk
90 srupt activation-induced cytidine deaminase (AID; Aicda) directly in BXSB zygotes.
91 on of activation-induced cytidine deaminase (AID; also known as AICDA) in precursor B-cells.
92 on of activation-induced cytosine deaminase (AID).
93  Activation-induced deoxycytidine deaminase (AID) initiates somatic hypermutation (SHM) in immunoglob
94 in patterns of activation-induced deaminase (AID) and apolipoprotein B mRNA editing catalytic polypep
95                Activation-induced deaminase (AID) and apolipoprotein B mRNA-editing enzyme catalytic
96                Activation-induced deaminase (AID) can drive lymphomagenesis by generating off-target
97 roteins induce activation-induced deaminase (AID) expression in activated B cells.
98                Activation-induced deaminase (AID) functions by deaminating cytosines and causing U:G
99                Activation-induced deaminase (AID) initiates antibody gene diversification by creating
100 s initiated by activation-induced deaminase (AID), which deaminates cytosine to uracil in DNA.
101  (SHM) enzyme, Activation Induced Deaminase (AID), which overlaps the CpG methylation site.
102 es ["activity-regulated inhibitor of death" (AID) genes] including the transcription factor (TF) NPAS
103  of CTNNBL1 with AID, resulting in decreased AID in the nuclei of patient EBV-transformed B cell line
104 hat MMSET-II inactivation leads to decreased AID recruitment and DSBs at the upstream donor Smu regio
105 program, increased cell death, and defective AID expression.
106 currence of acquired interbacterial defence (AID) gene clusters in Bacteroidales species that reside
107  question, we apply an Auxin-Induced Degron (AID) system to distinguish roles of basket nucleoporins
108                  The auxin-inducible degron (AID) system enables rapid depletion of target proteins w
109 on of PICH using the auxin-inducible degron (AID) system resulted in the retention of SUMO2/3-modifie
110 mitosis, we used the auxin-inducible degron (AID) system to rapidly degrade the protein at different
111                  The auxin-inducible degron (AID) system was developed as a tool to achieve rapid and
112 mately 20% of the acute infectious diarrhea (AID) episodes worldwide, often by producing heat-stable
113 equence of treatment for autoimmune disease (AID) and an emerging clinical phenomenon.
114 is (TA) is an even rarer autoimmune disease (AID), both of which present with inflammatory vasculitis
115 ies in autoimmune and inflammatory diseases (AID) have uncovered hundreds of loci mediating risk.
116     The pathogenesis of autoimmune diseases (AIDs) is not only attributed to genetic susceptibilities
117 mutation in Aicda (AID(G133V)) that disrupts AID-G4 binding modeled the pathology of hyper-IgM syndro
118        We found that these earliest-diverged AID orthologs are active cytidine deaminases that exhibi
119 gulatory domains, the autoinhibitory domain (AID) and calmodulin-binding domain (CBD), which block th
120 inal sigma(54) activator interacting domain (AID).
121 t patients, patients with autosomal dominant AID mutations (AD-AID), asymptomatic AICDA heterozygotes
122 -GC B-cell lymphomas, the role of downstream AID-associated DNA repair pathways in the pathogenesis o
123 ngle-stranded, thereby creating an effective AID substrate.
124 e switch (S) region is a much more efficient AID deamination target than the V region.
125     ARF is absent from previously engineered AID systems but is a critical component of native auxin
126  Consistently, PI3Kdelta inhibitors enhanced AID expression and translocation frequency to IGH and AI
127                   In this study, we examined AID footprints across the entire length of an engineered
128                    We find that the existing AID / APOBEC hotspots have a large impact on retrotransp
129 individual B cells that previously expressed AID are located within the LN cortex, in an area close t
130 he proliferation of tumor B cells expressing AID.
131      We demonstrated that Tg mice expressing AID in the skin spontaneously developed skin squamous ce
132               Odds ratio (OR) assessment for AID-directed therapies.
133 ructures are not necessary intermediates for AID access.
134 osis constitute an essential time window for AID-induced deamination, and provide a novel DNA damage
135  a trade-off for its physiological function, AID also contributes to tumor development through its mu
136 direct targeting and induction of functional AID by EBNA3C, suggest a novel role for EBV in the etiol
137 tures of maltose binding protein (MBP)-fused AID alone and in complex with deoxycytidine monophosphat
138 em enables us to easily and rapidly generate AID-based conditional knockout cells in a wide range of
139 lobulin switch regions are particularly good AID substrates in vitro.
140  (AD-AID), asymptomatic AICDA heterozygotes (AID+/-), and patients with uracil N-glycosylase (UNG) de
141  a clinically used therapeutic, induced high AID pS38 levels.
142  to the lungs of patients suffering from HIV/AIDs.
143 cal and/or sexual IPV and emotional IPV, HIV/AIDs knowledge and behaviors, decision-making, and gende
144                                     However, AID also deaminates nonimmunoglobulin genes, and failure
145                                     However, AID is mostly cytoplasmic, and how and exactly when it a
146                                     However, AID occupancy does not directly correlate with DNA damag
147               Here, we produced active human AID and revealed its preferred recognition and deaminati
148 ontrol of another mutagenic deaminase, human AID, and provides a rationale for its regulation.
149 escribed the biochemical properties of human AID and found that it is an unusual enzyme in that it ex
150 o damage from either the expression of human AID or increased oxidative stress.
151                 Finally, using a hyperactive AID variant, we mutagenize loci both upstream and downst
152  and nonclonal mutations arise within non-Ig AID target genes in the combined absence of UNG and MSH2
153 ferred nucleic acid substrates, illuminating AID targeting mechanisms during CSR and SHM.
154                                 Importantly, AID-TAT was rapidly targeted to the heart, and not retai
155 f these effects were completely abrogated in AID-deficient B cells.
156 gs indicate a crucial role for G4 binding in AID targeting and suggest that AID activity may extend b
157 dings, we observe a complete block in CSR in AID(S38A/S38A)MSH2(-/-) mouse B cells that correlates wi
158 d demonstrate that M2 primarily functions in AID-expressing cells to facilitate MHV68 dissemination t
159 b, showed increased somatic hypermutation in AID off-targets.
160 on is almost negligible at the JH4 intron in AID(S38A/S38A)MSH2(-/-) mouse B cells, and, consistent w
161 ith this, NP-specific affinity maturation in AID(S38A/S38A)MSH2(-/-) mice is not significantly elevat
162 spho mutant, we compared the role of pS38 in AID activity at the Ig switch region and off-target Myc
163                    The prolonged survival in AID-deficient BXSB mice appears attributed primarily to
164        Here, we analyzed B cell tolerance in AID-deficient patients, patients with autosomal dominant
165 dies on microbiota-autoimmunity interplay in AIDs are urgently needed and underway to explore novel a
166 wt mice were treated with active or inactive AID-TAT.
167  A eukaryotic transcription system including AID has not been reported previously.
168 nically approved kinase inhibitors, increase AID expression and genomic instability in normal and neo
169       Moreover, although ibrutinib increases AID expression in a CLL cell line, it is unable to do so
170 from idelalisib in their potential to induce AID in treated patients.
171          Moreover, the rate of auxin-induced AID degradation is substantially faster in the ARF-AID s
172 of Sox2 in splenic B cells severely inhibits AID expression and CSR, whereas deletion of Sox2 increas
173  passive transfer of antinucleosome IgG into AID(-/-)MRL/lpr mice elevated autoantibody levels and pr
174 gh-affinity IgA antibodies with mice lacking AID-enabled Ig affinity maturation, we found that IgA de
175                                    Igh locus AID-initiated lesions are processed by error-free and er
176               We discuss possible mechanisms AID and APOBEC viral targets have adopted to escape the
177 sed with Rosa26-loxP-tdTomato reporter mice (AID(Cre)-Rosa26(tdTomato)) to monitor B cells having und
178         Importantly, we analyzed monoallelic AID deamination footprints on both DNA strands occurring
179 ring CSR, as the AID phosphorylation mutant, AID(S38A), cannot interact with APE1, a BER protein.
180 -associated autoinflammatory diseases (NLRP3-AIDs) include conditions of various severities, due to g
181             The phenotypic spectrum of NLRP3-AIDs appears to be related to the germinal/mosaic status
182 ism to limit the tumor promoting activity of AID when it overwhelms uracil excision repair.
183 uses or retrotransposons and, in the case of AID, changing antibody sequences to drive affinity matur
184 omain suppresses constitutive degradation of AID-tagged proteins.
185 ted loop extrusion juxtaposes proper ends of AID-initiated donor and acceptor S-region DSBs for delet
186 extent ibrutinib, enhanced the expression of AID and increased somatic hypermutation and chromosomal
187 d elevation in RAG1 while high expression of AID marked pre-B-ALL lacking common cytogenetic changes.
188  distinct BCR repertoire, high expression of AID, high sensitivity to PAMPs, and the ability to produ
189 portantly, the reduction in the formation of AID-accessible ssDNA in cells lacking H3.3 is independen
190 tors or ibrutinib increased the formation of AID-dependent tumours in pristane-treated mice.
191                            The generation of AID off-target mutagenic activity in precursor B-cells d
192 ines to the other three bases independent of AID hotspot motifs, generating a large repertoire of var
193 nfected primary B cells for the induction of AID mRNA and protein.
194 ivated by functional EBNA3C and induction of AID.
195                                Mechanisms of AID targeting and catalysis remain elusive despite its c
196 lymphocyte populations as in other models of AID deficiency as well as increased populations of CD73(
197 nce of G4 recognition and oligomerization of AID in CSR.
198                    Median time from onset of AID to diagnosis of myeloid neoplasm was 8 (interquartil
199 identify a novel role for phosphorylation of AID at serine 38 in mismatch repair-dependent CSR and af
200                           Phosphorylation of AID at serine 38 was previously hypothesized to regulate
201 , our data implicate intrinsic preference of AID for structured substrates and uncover the importance
202             We also analyzed the presence of AID hotspots and coldspots at different points in lineag
203  germinal center B cells but preservation of AID(+) B cells.
204 e investigated the biochemical properties of AID from a sea lamprey, nurse shark, tetraodon, and coel
205                Central to the recruitment of AID to the IgV genes are factors that regulate the gener
206 proteins contribute to optimal resolution of AID-induced DSBs.
207 T in epigenetic gene regulation, the role of AID loss in hematopoiesis and myeloid transformation rem
208        While SBS85 is a denoted signature of AID in lymphoid cells, the etiologies of SBS37 and SBS39
209 ith data in the murine context, silencing of AID in human bone marrow cells skews differentiation tow
210 ently, we solved the functional structure of AID and demonstrated that these properties are due to no
211 nded DNA (ssDNA), the enzymatic substrate of AID Here, we report that chicken DT40 cells lacking vari
212  that telomeres are off-target substrates of AID and that B cell proliferation depends on protective
213                    Preferential targeting of AID-mediated DSBs to S sequences is critical for allowin
214           However, the downstream targets of AID action mediating neuroprotection remained so far unk
215  and SHM are regulated by phosphorylation on AID serine38 (pS38), but the role of pS38 in off-target
216  break (DSB) formation is as low as even one AID deamination event on both DNA strands.
217 sk for GCA and for GCA and TA with any other AID based on the Swedish hospital diagnoses up to years
218 ngs were diagnosed with GCA, TA or any other AID.
219             GCA was associated with 10 other AIDs and TA was associated with 6 other AIDs; both share
220 ther AIDs and TA was associated with 6 other AIDs; both shared associations with polymyalgia rheumati
221  both GCA and TA with such a number of other AIDs provide evidence for polyautoimmunity among these d
222         We next test the effect of premature AID expression from earliest pro-B-cell stages in B-cell
223 , Ninth Revision, coded diagnosis of primary AID who were seen at 2 centers from January 1, 2004, to
224           In a large population with primary AID, azathioprine exposure was associated with a 7-fold
225 ls in the switch region, although processive AID deaminations are evident in some molecules.
226 ubset of patients with evidence of prolonged AID activity during the pre-malignant phase, indicating
227 uggest a role for the HMT MMSET in promoting AID-mediated DNA breaks during CSR.
228                                          RAD-AID's three-pronged integrated strategy for AI adoption
229               This strategy derives from RAD-AID's more-than-a-decade experience as a nonprofit organ
230  infrastructure developments occur while RAD-AID delivers phased introduction, testing, and scaling o
231 gher doses over a broad physiological range, AID and Blimp1 expression, CSR, somatic hypermutation an
232                        Here, we reconstitute AID-catalyzed deamination during Pol II transcription el
233 the CLL PFs and, interestingly, also reduces AID expression, which correlates with dampened AKT and J
234 These results suggest that Sox2 may regulate AID expression in class-switched B cells to suppress gen
235 rally highly toxic, mechanisms that regulate AID expression are of much relevance to CSR and genomic
236 exon sequences and their ability to regulate AID deamination and subsequent repair process.
237 equence-intrinsic properties, which regulate AID deamination and affect the preferential access of do
238  Altering the timing of cell cycle-regulated AID nuclear residence increases DNA damage at off-target
239 3-kinase delta (PI3Kdelta) pathway regulates AID by suppressing its expression in B cells.
240 TNNBL1 plays an important role in regulating AID-dependent antibody diversification in humans.
241       However, precise mechanisms regulating AID deamination frequency remain incompletely understood
242      For use in mammalian cells, we replaced AID with rat APOBEC1 (APOBEC-nCas9-Ung).
243 chemical and structural approaches to report AID-preferred nucleic acid substrates, illuminating AID
244 method that incorporates the super-sensitive AID system and the single-step method provides a powerfu
245                          The super-sensitive AID system enabled more than a 1000-fold reduction of th
246 step method coupled with the super-sensitive AID system enables us to easily and rapidly generate AID
247          Here, we describe a super-sensitive AID system that incorporates the synthetic auxin derivat
248 on frequency to the Igh locus and to several AID off-target sites.
249 age to the B-cell genome during CSR and SHM, AID induces unwanted (and sometimes oncogenic) mutations
250 king the Mlp1/2 nuclear basket proteins show AID-dependent genomic instability and replication defect
251 l knockout mouse strain with the GC-specific AID-Cre transgenic strain.
252                                Surprisingly, AID(S38A/S38A)UNG(-/-) mouse B cells also cannot complet
253             Here we show that, surprisingly, AID genetic deletion does not affect B-ALL development i
254                          Although off-target AID activity also contributes to oncogenic point mutatio
255                                   Off-target AID association also occurs, which causes oncogenic muta
256  marinus cytidine deaminase-based CBE Target-AID(4) induce less editing of RNA.
257 ion-induced cytidine deaminase (nCas9-Target-AID) systems to mutagenize Nicotiana tabacum protoplasts
258 tivated downstream acceptor S-region targets AID-generated deamination lesions at, potentially, any o
259 eaminase (AID) that catalyzes SHM, we tested AID interactions with the CTNNBL1 M466V variant.
260                                We found that AID deamination occurs predominantly at WRC hot spots (w
261                                We found that AID generates few and mostly isolated uracils in the swi
262                  These results indicate that AID and TET2 share common effects on myeloid and erythro
263                              We propose that AID-induced damage at telomeres acts as a fail-safe mech
264                          We also reveal that AID-TAT treatment of precardiomyopathic cTnI-G203S mice,
265            Recent studies have revealed that AID's DNA mutator activity is regulated by the RNA exoso
266                           Here, we show that AID is transiently in spatial contact with genomic DNA f
267 G4 binding in AID targeting and suggest that AID activity may extend beyond Ig loci to regulate the e
268 other types of human cancer, suggesting that AID-mediated, CpG-methylation dependent mutagenesis is a
269                                          The AID / APOBEC genes are a family of cytidine deaminases t
270                                          The AID system is useful for investigating the physiological
271                                          The AID/APOBEC enzymes deaminate cytosines in single-strande
272                                          The AID/APOBEC family enzymes convert cytosines in single-st
273 othesized to regulate BER during CSR, as the AID phosphorylation mutant, AID(S38A), cannot interact w
274 tic modification approach has identified the AID/RAD51 axis as a target for a potentially clinically
275 he CBD common to all isoforms, but lacks the AID.
276 and it was shown that transactivation of the AID gene (AICDA) is associated with EBNA3C binding to hi
277 abled more than a 1000-fold reduction of the AID inducer concentrations in chicken DT40 cells.
278                APOBEC3G (A3G) belongs to the AID/APOBEC protein family of cytidine deaminases (CDA) t
279 t amino acid sequence divergence among these AID orthologs is predicted to manifest as notable struct
280 uggest that infections promote B-ALL through AID-independent mechanisms, providing evidence for a new
281                                        Thus, AID activity can be differentially targeted by phosphory
282 Ab) binding affinity to DIII proteins, timed AID deletion, single-cell RNA sequencing, and lineage tr
283 e in BER and could potentially contribute to AID-initiated antibody diversification through this acti
284 G-quadruplex (G4) nucleic acid structures to AID targeting in vivo.
285 smatch repair or uracil glycosylase (UNG) to AID-initiated U:G mismatches.
286 as systems (SaCas9, Cas12a, and nCas9-Traget AID) using either a one-step or a two-step transfection
287 e-wide analyses also revealed that wild-type AID localized to MHCII genes, and AID expression correla
288                                    Utilizing AID-TAT to modulate cardiac metabolic activity may be be
289 gut microbiota have been reported in various AIDs, and increasing evidence suggests that disturbed gu
290 n be used to investigate how, when and where AID is targeted.
291                                      Whereas AID levels were not altered in Id3-depleted activated B
292 SR) and somatic hypermutation (SHM), whereas AID targeting of non-Ig loci can generate oncogenic DNA
293 (SHM) in B cells, but the mechanism by which AID prevents the accumulation of autoreactive B cells in
294 nd SHM, and had broad defects in genome-wide AID(G133V) chromatin localization.
295                              Consistent with AID, comparable somatic hypermutation frequencies and cl
296 erfered with the association of CTNNBL1 with AID, resulting in decreased AID in the nuclei of patient
297 ammalian genes, suggesting co-evolution with AID / APOBECs may have had an impact on the genomes of t
298       In plants, ARF directly interacts with AID in the absence of auxin, and we found that expressio
299 munomodulating agents to treat patients with AID with the risk for developing myeloid neoplasm.
300  therapeutic interventions for patients with AIDs.

 
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