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1 elated to sex differences in the genetics of gene expression regulation.
2 ing sites is pivotal to our understanding of gene expression regulation.
3 coding RNAs that are extensively involved in gene expression regulation.
4 modulate RNA-protein interactions to affect gene expression regulation.
5 s a new dimension to the characterization of gene expression regulation.
6 des) noncoding endogenous RNAs implicated in gene expression regulation.
7 major bottleneck to a full understanding of gene expression regulation.
8 k between global chromatin changes and local gene expression regulation.
9 ing regions, suggesting their involvement in gene expression regulation.
10 A-to-I editing in microRNA (miRNA)-mediated gene expression regulation.
11 a new insight into chromatin remodeling and gene expression regulation.
12 real biological variation, such as impact on gene expression regulation.
13 diverse, important biological roles through gene expression regulation.
14 cal role of the human TPH2 (hTPH2) 5'-UTR in gene expression regulation.
15 mains for binding TPP to form a platform for gene expression regulation.
16 multiple mRNAs, has revealed a new level of gene expression regulation.
17 ssect the mechanism of this critical step of gene expression regulation.
18 , suggesting a potential role for the PNC in gene expression regulation.
19 CP2 and histone proteins plays a key role in gene expression regulation.
20 ly contribute to transcriptome diversity and gene expression regulation.
21 somatic cells is an important mechanism for gene expression regulation.
22 meric G proteins we have focused recently on gene expression regulation.
23 post-translational modification that guides gene expression regulation.
24 loop formation, disclosing new mechanisms of gene expression regulation.
25 insights into the epitranscriptome layer of gene expression regulation.
26 ations on mRNA represent a critical layer of gene expression regulation.
27 possibility of TIR domain proteins acting in gene expression regulation.
28 (RBPs) on RNA is critical for understanding gene expression regulation.
29 t bursting size was strongly associated with gene expression regulation.
30 non-coding regions, and presumably influence gene expression regulation.
31 ormational switching and fine-tuned roles in gene expression regulation.
32 ually all post-transcriptional mechanisms of gene expression regulation.
33 transcription and translation dynamics, and gene expression regulation.
34 ndscape provides valuable resources to study gene expression regulation.
35 risk genes, ADNP, KDM6B, CHD2, and MED13, in gene expression regulation.
36 latory regions for decoding the mechanism of gene expression regulation.
37 igate the role that genetic variants play in gene expression regulation.
38 (BMDMs) are a widely used model for studying gene expression regulation.
39 nderstand the actual relevance of introns in gene expression regulation.
40 ata define a critical layer of mitochondrial gene expression regulation.
41 ate to determine cell identity by epigenetic gene expression regulation.
42 to study post-transcriptional alteration in gene expression regulation.
43 binding proteins are master orchestrators of gene expression regulation.
44 nt nuclear condensates, to a central role in gene expression regulation.
45 NF-kappaB in innate immune and inflammatory gene expression regulation.
46 ation and genome important for understanding gene expression regulation.
47 mportant role in nucleic acid metabolism and gene expression regulation.
48 ding cargo transport, molecular docking, and gene expression regulation.
49 ss, immune effects, DNA damage responses and gene expression regulation.
50 st-transcriptional control as mechanisms for gene expression regulation.
51 for H3K4 methylation, which is important for gene expression regulation.
52 improves understanding of the complexity of gene expression regulation.
53 anscription and its dynamics are crucial for gene expression regulation.
54 tional regulation is one important aspect of gene expression regulation.
55 ogies for environmental adaption via precise gene expression regulation.
56 nical progression traits and kidney-specific gene expression regulation.
57 thylation are highly heritable mechanisms of gene expression regulation.
58 of this mark with other epigenetic marks in gene expression regulation.
59 CWI perception to cell wall biosynthesis and gene expression regulation.
60 ucture of the genome plays a crucial role in gene expression regulation.
61 es which participate in post-transcriptional gene expression regulation.
62 Pre-mRNA splicing is an important step for gene expression regulation.
63 consequences of the identified mechanisms of gene expression regulation.
64 arget site and enables temporal control over gene expression regulation.
65 -oncogene, but not much is known about AGAP2 gene expression regulation.
66 ybrids have played a key role in research on gene expression regulation.
67 ion factors (TFs) is crucial to the study of gene expression regulation.
68 for understanding their functional roles in gene expression regulation.
69 This pause is a key component of metazoan gene expression regulation.
70 from the same gene and thus is important in gene expression regulation.
71 eins, they play numerous functional roles in gene expression regulation.
72 ic function of DNMT3B and DNA methylation in gene expression regulation.
73 RNAs (miRNAs) have emerged as key factors in gene expression regulation.
74 rform dual roles in mRNA quality control and gene expression regulation.
75 s; all of which play immense roles in global gene expression regulation.
76 ny viruses to provide an additional layer of gene expression regulation.
77 es in influencing complex phenotypes through gene expression regulation.
78 rges as an abundant modification involved in gene expression regulation.
79 ovide new insights into our understanding of gene expression regulation.
80 A as a new mechanism of post-transcriptional gene expression regulation.
81 ing an important role of nuclear speckles in gene expression regulation.
82 y of the interplay between genome layout and gene expression regulation.
83 ith several pathological conditions and with gene expression regulation.
84 play important biological functions such as gene expression regulation.
85 ost-transcriptional regulatory mechanism for gene expression regulation.
86 oviding unprecedented opportunities to study gene expression regulation.
87 rovide a tight spatial and temporal level of gene expression regulation.
88 ve as important hubs for posttranscriptional gene expression regulation.
89 criptome in the cell is an important form of gene-expression regulation.
90 ative and positive lenses) bidirectional BMP gene expression regulation, 2) open-loop, form-deprivati
91 igenetic mechanisms are widely implicated in gene expression regulation, a definitive link between ch
92 ally map variation in chromatin structure to gene-expression regulation across conditions, environmen
93 ditions in genes related to stress response, gene expression regulation, actin regulation, developmen
94 d as an important mode of epitranscriptional gene expression regulation affecting many biological pro
95 RT(2) Profiler PCR Arrays were used to study gene expression regulation after PRP treatment and resul
97 re of chromosomes plays an important role in gene expression regulation and also influences the repai
98 al information for a better understanding of gene expression regulation and antigenic variation in ma
102 entiation and establish a role for Nup210 in gene expression regulation and cell fate determination.
103 We focused on chromatin marks linked to gene expression regulation and cell identity: histone H3
105 rovides a critical foundation to investigate gene expression regulation and cellular homeostasis.
106 kinase, MutL (GHKL)-type ATPases involved in gene expression regulation and chromatin compaction.
107 histone acetyltransferase MOF, orchestrates gene expression regulation and chromatin interaction.
109 ng of chromatin structure has been linked to gene expression regulation and correct developmental pro
110 ute to a better understanding of protein and gene expression regulation and could find applications i
113 tic variants, advancing our understanding of gene expression regulation and its implications for dise
114 the importance of studying context-specific gene expression regulation and provide insights into the
115 ical and direct role for TARBP2 in mammalian gene expression regulation and reveal that regulated RNA
117 ) specificity is important for understanding gene expression regulation and RNA-mediated enzymatic pr
118 This suggests that under complex conditions, gene expression regulation and signal integration have b
119 ritability of epigenetic marks important for gene expression regulation and the maintenance of cellul
120 lysine residues is an essential component of gene expression regulation and there is considerable int
121 ly reflect phenotypes, provide insights into gene expression regulations and mechanisms underlying al
122 ch span humans and NHPs and aim to integrate gene expression, regulation and genetics data across dev
125 or for several cellular functions, including gene expression regulation, and has also been linked wit
127 of variants in the 109 genes, cis- and trans-gene expression regulation, and performed enrichment and
128 nucleotides represents an important layer of gene expression regulation, and perturbation of the RNA
129 ficant role in several biochemical pathways, gene expression regulation, and phosphate homeostasis.
130 ts such as precursor messenger RNA splicing, gene expression regulation, and ribosomal RNA processing
131 ) pathways, ion-channel activity modulation, gene expression regulation, and the interface with other
132 he key molecules responsible for controlling gene expression regulation, and visualizing individual R
133 a species in the same family, unveiling the gene expression, regulation, and conservation of the pat
134 ation is a fascinating new approach by which gene expression, regulation, and function can be studied
135 le the temporal and spatial investigation of gene expression, regulation, and function during embryon
137 nonredundant and condition-specific roles in gene-expression regulation, arguing against a generic ge
138 one lysine residues plays important roles in gene expression regulation as well as cancer initiation.
139 pression variation, revealed new hotspots of gene expression regulation associated with trait variati
140 e PNC in cancer cells and may play a role in gene expression regulation at the DNA locus that associa
141 for heart formation and critical for cardiac gene expression regulation at the early stages of heart
142 croRNAs (miRNAs) are essential components of gene expression regulation at the post-transcriptional l
143 ected, including transcription, translation, gene expression regulation, autophagy and stress resista
144 HOS related genes and provided an example of gene expression regulation based on the final protein ar
145 d the origins of this proposed difference in gene expression regulation between natural variants and
146 ted microbiologists in the area of microbial gene expression, regulation, biogenesis, pathogenicity,
147 tion antitermination is a common strategy of gene expression regulation, but only a few transcription
148 istinct proteins, plays an essential role in gene expression regulation by acting as a bridge between
149 igenetic modifications play crucial roles in gene expression regulation by altering the architecture
150 In particular, the cytotoxicity and global gene expression regulation by AS6 were compared in human
152 has been recognized as a key contributor of gene expression regulation by generating different trans
159 how the interplay between different steps of gene expression regulation can contribute to development
160 es and their consequences for the control of gene expression regulation, cellular plasticity, and beh
161 of chromatin, which plays important roles in gene expression regulation, DNA replication and repair e
162 ve RNA splicing is an important mechanism of gene expression regulation downstream of PI3K/Akt-mediat
163 emales are likely rooted from the sex-biased gene expression regulation during brain development.
164 ional splicing has emerged as a key layer of gene expression regulation during development, stress re
167 ate an evolutionarily conserved mechanism of gene expression regulation during generative cells devel
168 howed a dual role for HDA-2 in T. atroviride gene expression regulation during its interaction with p
169 ng various biological processes, we show the gene expression regulation during RNA synthesis, process
170 NA decay acts as an additional mechanism for gene expression regulation during the cell cycle in huma
172 he field to highlight the role of cohesin in gene expression regulation during transcriptional shifts
173 le of BIR1, the molecular mechanisms of BIR1 gene expression regulation during viral infections, and
174 As (mRNAs) are subject to multiple layers of gene expression regulation, enabling the production of a
177 ar, circuit implementations commonly rely on gene expression regulation for information processing us
178 lization is a conserved and integral part of gene expression regulation from prokaryotic to eukaryoti
181 The biogenesis of tsRNAs and their role in gene expression regulation has not yet been fully unders
183 te that it is possible to model HM-modulated gene expression regulation in a highly accurate, yet int
186 esign to expand our knowledge and control of gene expression regulation in any desired organism, cond
187 ate the impact of RNA secondary structure on gene expression regulation in Arabidopsis thaliana.
189 king of DNA, histones, and RNA is central to gene expression regulation in development and disease.
190 Translation control is a prevalent form of gene expression regulation in developmental and stem cel
191 different genes, bringing new insights into gene expression regulation in dopaminergic cells and the
194 lays a crucial role in protein diversity and gene expression regulation in higher eukaryotes, and mut
195 lications for understanding the structure of gene expression regulation in human brain, and important
196 ed the resources available for investigating gene expression regulation in human cancers, leading to
197 d that P57 and PL have consistent effects on gene expression regulation in hypothalamus, and they may
198 aims to unveil effects of AGE and FruArg on gene expression regulation in LPS stimulated BV-2 cells.
202 veals critical features that may function in gene expression regulation in mouse pluripotent cells.
203 ood model for understanding the evolution of gene expression regulation in polyploid vertebrates.
204 and microRNAs, provided valuable insight to gene expression regulation in response to drought stress
207 echanisms required for basophil function and gene expression regulation in this context remain unclea
208 y that addresses the epigenetic mechanism of gene expression regulation in various postmitotic neuron
209 tute arenavirus RNA synthesis initiation and gene expression regulation in vitro using purified compo
210 rt from various modalities of protein-coding gene expression regulation, including microRNA repressio
211 r good examples linking neuronal activity to gene expression/regulation involved in synaptic plastici
215 Understanding the mechanisms that determine gene expression regulation is an important and challengi
216 ges in protein-coding genes, suggesting that gene expression regulation is an important driver of bra
217 results show that the bacterial single-cell gene expression regulation is distinct across different
219 e-mRNA-splicing-induced post-transcriptional gene expression regulation is one of the pathways for tu
220 ucleotides, which plays an important role in gene expression regulation, is one of the most studied e
221 es affected included chromatin modification, gene-expression regulation, macromolecular metabolism, a
222 y realistic evolutionary model that includes gene expression, regulation, metabolism and biosynthesis
223 rylation of an RNA-binding protein underlies gene expression regulation necessary for mammalian crani
224 ll protein concentration, with >70% of yeast gene expression regulation occurring through mRNA-direct
225 ypanosoma brucei and related kinetoplastids, gene expression regulation occurs mostly posttranscripti
228 3K/MAPK/mTOR) signaling-pathways, and by the gene-expression regulation of key receptors/transcriptio
229 variants exhibited functional signatures of gene expression regulation or transcription factor bindi
230 delineating three-dimensional mechanisms of gene expression regulation, our studies identify lineage
231 rotein interactions are essential for proper gene expression regulation, particularly in neurons with
232 one modifications in neuronal signal-induced gene expression regulation, plasticity, and survival and
234 olysis, and the direct roles for caspases in gene expression regulation, remain largely unclear.
235 ulatory elements and revealing their role in gene expression regulation remains a central goal of pla
237 key question is how morphogen diffusion and gene expression regulation shape positional information
238 in multiple datasets, with a risk-associated gene expression regulation specific to oligodendrocytes.
239 contribute to dendritic cell and macrophage gene expression regulation, subtype specification, and r
240 of high confidence ASD genes associated with gene expression regulation, such as CTNNB1 and SMARCA4.
242 ges and represent a fascinating new layer of gene expression regulation that has only recently been a
243 s of small RNAs and uncover another layer of gene expression regulation that involves crosstalk among
244 m(6)A in mRNA, and uncover another layer of gene expression regulation that involves crosstalk betwe
245 lved in alternative splicing, a mechanism of gene expression regulation that is increasingly recogniz
246 DNA methylation plays important functions in gene expression regulation that is involved in individua
247 new dimension in tamoxifen action, involving gene expression regulation that is tamoxifen preferentia
248 ibed here indicate an intricate mechanism of gene expression regulation that may be relevant in the c
249 profiles described here provide insight into gene expression regulation that may underlie the adverse
250 ups play an evolutionarily conserved role in gene expression regulation that, in metazoans, extends i
253 inted in the genome that might contribute to gene expression regulation through an indirect reading m
254 that offers a valuable resource for studying gene expression regulation through its intuitive and fle
255 ure and participate in many other aspects of gene expression regulation through mechanisms that are n
256 yltransferase and demonstrate a mechanism of gene expression regulation through PCIF1-mediated m6Am m
257 MicroRNAs (miRNAs) play crucial roles in gene expression regulation through RNA cleavage or trans
259 f Plasmodium falciparum requires coordinated gene expression regulation to allow host cell invasion,
260 derstand the molecular mechanisms underlying gene expression regulation under adverse environmental c
261 hio cultivars provides valuable knowledge on gene expression regulation under salt stress condition.
262 Here, we examine the requirement for FOXP1 gene expression regulation underlying the production of
263 equired for mRNA surveillance and eukaryotic gene expression regulation. UPF3 exists as two paralogs
264 er future avenues to map the architecture of gene expression regulation using data from cells in pert
265 rom small-world network theory, and we model gene expression regulation using stochastic differential
267 characteristics of chromatin interactions in gene expression regulation, which is crucial for underst
268 utant allows us to test the role of Fgfr1 in gene expression regulation without disturbing limb bud g