ライフサイエンスコーパス: protocadherin

1 etalloproteinase, hemicentin, and a fat-like protocadherin).

2 Here we describe recent studies of the Fat1 protocadherin.

3 ibosome function, DNA binding, and clustered protocadherins.

4 including the large family of cadherins and protocadherins.

5 neurons exhibit signal for subsets of delta-protocadherins.

6 We report here that protocadherin 10 (Pcdh10), an autism-spectrum disorders

7 eletions implicated genes, including PCDH10 (protocadherin 10) and DIA1 (deleted in autism1, or c3orf

8 Protocadherin-10 (Pcdh10) is an adhesion molecule found

9 nked proteins important in brain development-protocadherin 11 Y-linked (PCDH11Y) and neuroligin 4 Y-l

10 rmed by a tetramer of two cadherin proteins: protocadherin 15 (PCDH15) and cadherin 23 (CDH23), which

11 entous tip links, consisting of the proteins protocadherin 15 (PCDH15) and cadherin 23 (CDH23), whose

12 ents that consist of cadherin 23 (CDH23) and protocadherin 15 (PCDH15) and connect the stereocilia of

13 iated with deafness and hair bundle defects, protocadherin 15 (PCDH15) and myosin VIIa (MYO7A), into

14 e a static composition of the tip link, with protocadherin 15 (PCDH15) at the lower and cadherin 23 (

15 The tip link protein protocadherin 15 (PCDH15) is a central component of the

16 Protocadherin 15 (PCDH15) is expressed in hair cells of

17 Protocadherin 15 (PCDH15) is required for mechanotransdu

18 ch of these links comprises two molecules of protocadherin 15 (PCDH15) joined to two of cadherin 23 (

19 hair cells show that cadherin 23 (CDH23) and protocadherin 15 (PCDH15) localize to the upper and lowe

20 mains of cadherin 23 (CDH23), which binds to protocadherin 15 (PCDH15) to form tip links of mechanose

21 One component of tip links is Protocadherin 15 (PCDH15).

22 ts formed by two atypical cadherins known as protocadherin 15 and cadherin 23 (refs 4, 5).

23 utations in genes coding for cadherin 23 and protocadherin 15 cause deafness in both mice and humans.

24 full-length proteins; HCN1 can interact with protocadherin 15 CD3 and F-actin-binding filamin A formi

25 interact with HCN2 forming a complex without protocadherin 15 CD3 but including F-actin-binding fasci

26 ding sites for HCN1, with binding of HCN1 to protocadherin 15 CD3 favored between 26.5 and 68 microm

27 t interaction of the organ of Corti HCN1 and protocadherin 15 CD3 is mediated by amino-terminal seque

28 Binding by deletion mutants of protocadherin 15 CD3 pointed to amino acids 158-179 (Gen

29 calcium chelators, binding between HCN1 and protocadherin 15 CD3 was characterized by a K(D) = 2.39

30 Specific binding between HCN1 and protocadherin 15 CD3 was confirmed with pull-down assays

31 nteraction between HCN1 and tip-link protein protocadherin 15 CD3, a protein-protein interaction for

32 id analysis to bind the carboxyl terminus of protocadherin 15 CD3, a tip link protein implicated in m

33 [Ca(2+)] than for the HCN1 interaction with protocadherin 15 CD3.

34 of an heterotypic complex of cadherin 23 and protocadherin 15 ectodomain dimers, connect each stereoc

35 We originally showed that the protocadherin 15 gene (Pcdh15) is necessary for hearing

36 rom our study show that both mouse and human protocadherin 15 genes have complex genomic structures a

37 ween HCN1 and stereociliary tip-link protein protocadherin 15 has been described for a teleost vestib

38 The protocadherin 15 labeling pattern with antisera PB303 in

39 ther components of the MT complex, including protocadherin 15, cadherin 23, lipoma HMGIC fusion partn

40 Mutations of PCDH15, the gene encoding protocadherin 15, cause either nonsyndromic deafness DFN

41 and binding experiments to characterize the protocadherin 15-cadherin 23 bond.

42 Two unconventional cadherins, protocadherin-15 (PCDH15) and cadherin-23 (CDH23), form

43 -terminal domains of cadherin-23 (CDH23) and protocadherin-15 (PCDH15).

44 outer-segment membrane by links composed of protocadherin-15 (USH1F protein).

45 e we report the X-ray crystal structure of a protocadherin-15 + cadherin-23 heterotetrameric complex

46 Protocadherin-15 and cadherin-23, two atypically large c

47 ction channels, is composed of two proteins, protocadherin-15 and cadherin-23, whose mutation causes

48 Protocadherin-15 deficiency, obtained by a knockdown app

49 esolution, depicting a parallel homodimer of protocadherin-15 EC1-3 molecules forming an antiparallel

50 resent the X-ray crystal structures of human protocadherin-15 EC8-EC10 and mouse EC9-EC10, which show

51 which a structurally diverse and multimodal protocadherin-15 ectodomain can act as a stiff or soft g

52 lete high-resolution models of the monomeric protocadherin-15 ectodomain.

53 Cadherin-23 and protocadherin-15 form tip links through a calcium-depend

54 In addition, we report structures for 10 protocadherin-15 fragments used to build complete high-r

55 Protocadherin-15 is therefore associated with the tip-li

56 ropose models for the complete extracellular protocadherin-15 parallel homodimer and the tip-link bon

57 ow cadherin-23 may bind with itself and with protocadherin-15 to form the tip link.

58 Multiple protocadherin-15 transcripts are shown to be expressed i

59 The new structure provides a first view of protocadherin-15's non-canonical EC linkers and suggests

60 d inner-ear sensory perception and elucidate protocadherin-15's structural and adhesive properties re

61 LHFPL5 and TMC1 were shown to interact with protocadherin-15, a component of the tip link, which app

62 rs in the eye, as an avian ortholog of human protocadherin-15, a product of the gene for the deaf/bli

63 proteins-myosin VIIa, harmonin, cadherin-23, protocadherin-15, sans-do not display retinal degenerati

64 ced F-actin content in rods, suggesting that protocadherin-15-containing links are essential for thei

65 , physically interacts with tip link protein protocadherin-15.

66 d proper trafficking of known MET components Protocadherin 15a (Pcdh15a), Lipoma HMGIC fusion partner

67 to the comparable region in trout hair cell protocadherin 15a-like protein, as necessary for binding

68 he cytoplasmic carboxyl-terminal domain of a protocadherin 15a-like protein.

69 distribution expected for tip link sites of protocadherin 15a.

70 d 32 056 controls) revealing brain expressed protocadherin 17 (PCDH17) as a susceptibility gene for m

71 Protocadherin 17 (PCDH17), a neuronal cell adhesion mole

72 in the fish brain, with protocadherin-19 and protocadherin-17 showing much wider and stronger express

73 ession of three cadherins, protocadherin-19, protocadherin-17, and cadherin-6 in adult zebrafish brai

74 otor nuclei) contain protocadherin-19 and/or protocadherin-17-expressing cell.

75 Both protocadherin-19 and protocadherin-17-expressing cells occur throughout the b

76 Protocadherin-18a (Pcdh18a) belongs to the delta 2-proto

77 y, TBR2 directly regulates the expression of Protocadherin 19 (PCDH19), and simultaneous PCDH19 expre

78 In this study, we demonstrate that pcdh 19 (protocadherin 19) acts synergistically with n-cadherin (

79 s of cadherins (N-cadherin, cadherin 11, and protocadherin 19) results in homotypic preference ex viv

80 hanism of adhesion, mediated by a complex of Protocadherin-19 (Pcdh19) and N-cadherin (Ncad).

81 Mutations in the X-linked gene Protocadherin-19 (Pcdh19) cause female-limited epilepsy

82 s genetic studies revealed that mutations in protocadherin-19 (Pcdh19) lead to an epilepsy syndrome w

83 Mutations in protocadherin-19 (PCDH19) result in a female-limited, in

84 t expression pattern in the fish brain, with protocadherin-19 and protocadherin-17 showing much wider

85 Both protocadherin-19 and protocadherin-17-expressing cells o

86 r, abducens, and vagal motor nuclei) contain protocadherin-19 and/or protocadherin-17-expressing cell

87 Interference with Protocadherin-19 function with antisense morpholino olig

88 We have identified the zebrafish homolog of protocadherin-19, a member of the cadherin superfamily,

89 esults provide the first functional data for protocadherin-19, demonstrating an essential role in ear

90 examine mRNA expression of three cadherins, protocadherin-19, protocadherin-17, and cadherin-6 in ad

91 herin 7, contactin 3, netrin G2, cadherin 6, protocadherin 20, retinoid-related orphan receptor beta,

92 on studies showed that PROM1 interacted with protocadherin 21 (PCDH21), a photoreceptor-specific cadh

93 Intermicrovillar links are composed of protocadherin-24 and mucin-like protocadherin, which tar

94 ied GluN1-NTD protein as a bait, we identify Protocadherin 7 (PCDH7) as a potential interacting prote

95 d mouse breast and lung cancer cells express protocadherin 7 (PCDH7), which promotes the assembly of

96 14, located next to the region harboring the protocadherin 7 gene, PCDH7.

97 Here we show that protocadherin-8 (PCDH8), the human ortholog of PAPC, is

98 Clustered protocadherins, a large family of paralogous proteins th

99 on profiles are observed for all eight delta-protocadherins along the dorsoventral, mediolateral, and

100 show that conditional deletion of the mouse protocadherin alpha (Pcdhalpha) gene cluster in serotone

101 For the protocadherin alpha cluster genes PCDHA7 and PCDHA8, we

102 large tandem-arrayed gene family, the human protocadherin alpha cluster, on chromosome 5.

103 logy downstream of lowered expression of key Protocadherin alpha genes as compared to healthy control

104 Furthermore, knockdown of Protocadherin alpha genes directly regulated iPSC-derive

105 P-containing loss-of-function alleles in the protocadherin alpha, beta and gamma gene clusters (Pcdha

106 as gene promoters, particularly those of the protocadherin alpha, beta, and gamma gene families.

107 WS) locus on chromosome 7 and genes from the protocadherin-alpha and -beta clusters.

108 Mice lacking protocadherin-alpha showed defective arborization and sy

109 gulation of the 5-HT axon arborization gene, Protocadherin-alphac2, during postnatal development of f

110 e 3D single particle structures of clustered protocadherin, an elongated particle with previously elu

111 oteins PCDH-J and FAT-J were classified into protocadherin and FAT-like subfamilies, respectively, ba

112 y curated protein-coding genes including the protocadherin and interleukin gene families.

113 o at certain monoallelic neural genes (e.g., protocadherins and olfactory receptors).

114 matrix metalloproteinase, CDH-3, a Fat-like protocadherin, and hemicentin, a fibulin family extracel

115 proteins that includes classical cadherins, protocadherins, and atypical cadherins (Fat, Dachsous, a

116 Proteins called gamma-protocadherins are essential for the establishment of wo

117 Additionally, zebrafish protocadherins are far more prone to homogenizing gene c

118 Non-clustered delta-protocadherins are homophilic cell adhesion molecules es

119 The protocadherins are the largest subgroup within this supe

120 d sensory epithelial cells employ homologous protocadherin-based adhesion complexes to remodel their

121 ial cells shape apical specializations using protocadherin-based adhesion.

122 intermicrovillar adhesion complex (IMAC), a protocadherin-based complex found at the tips of brush b

123 a subgroup of the cadherin superfamily, the protocadherin beta (Pcdhbeta) cluster, was up-regulated

124 We show that loss of the apically localized protocadherin Cad99C rescues the SG defects, suggesting

125 In contrast to the two protocadherins, cadherin-6 expression is much weaker and

126 re transcriptionally regulated by HLH-2: the protocadherin cdh-3, and two genes encoding secreted ext

127 Composed of protocadherins CDHR2 and CDHR5, adhesion links are stabi

128 These results demonstrate that the protocadherin Celsr3 gene is essential for both tangenti

129 results are consistent with a model in which protocadherin cis-dimers engage in a head-to-tail intera

130 in diversified ectodomains drives vertebrate protocadherin cluster evolution.

131 ation in copy number and sequence content of protocadherin cluster genes among vertebrate species cou

132 Here we show that protocadherin cluster genes in human, mouse, rat, and ze

133 bclusters, alpha, beta, and gamma, as the 54 protocadherin cluster genes in human.

134 We found that coelacanth has 49 protocadherin cluster genes organized in the same three

135 We have completed an analysis of zebrafish protocadherin cluster genes.

136 protocadherin gamma A (PCDHGA) genes of the protocadherin cluster on chromosome 5q31.

137 em duplications have generated two zebrafish protocadherin clusters comprised of at least 97 genes.

138 Zebrafish have two unlinked protocadherin clusters, DrPcdh1 and DrPcdh2.

139 Like mammalian protocadherin clusters, DrPcdh1 has both alpha and gamma

140 , a synergistic underexpression of the gamma-protocadherin complex, located at Chr5q31 is also shown.

141 delta-Protocadherins comprise a family of neural adhesion mole

142 The protocadherins comprise the largest subgroup within the

143 Protocadherins constitute the largest subfamily of cadhe

144 In the mammalian genome, the clustered protocadherin (cPCDH) locus provides a paradigm for stoc

145 ere, we report that members of the clustered Protocadherins (cPCDHs) control GABAergic interneuron su

146 ed that a proximal to distal gradient of the protocadherin Dachsous (Ds) acts as a cue for planar cel

147 Hippo activity, probably via binding to the protocadherin Dachsous.

148 The protocadherins Dachsous and Fat initiate a signaling pat

149 nt studies in Drosophila melanogaster of the protocadherins Dachsous and Fat suggest that they act as

150 polarity proteins, and another utilizing the protocadherins Dachsous and Fat, and the atypical myosin

151 e of a putative binding partner of Fat4, the protocadherin Dchs1.

152 rprisingly, O-mannosylation of cadherins and protocadherins does not require POMT1 and/or POMT2 in co

153 olation(15,17-20), structures of full-length protocadherin ectodomains have not been determined, and

154 lecular arrangement of full-length clustered protocadherin ectodomains in single-isoform self-recogni

155 s showed that each of the investigated delta-protocadherins exhibits a spatially restricted and tempo

156 lved before the divergence of these distinct protocadherin families.

157 Although the protocadherin family of cell surface receptors is widely

158 odel of interaction energy for the clustered protocadherin family that measures the contributions of

159 The giant Drosophila protocadherin Fat (Ft) affects planar cell polarity (PCP

160 The Drosophila protocadherin Fat (Ft) regulates growth, planar cell pol

161 Signaling via the large protocadherin Fat (Ft), regulated in part by its binding

162 teractions by inhibiting the activity of the protocadherin Fat (Ft).

163 Here, we report that the protocadherin Fat acts as an upstream component in the H

164 recent studies taken together show that the protocadherin Fat can regulate Warts in two different wa

165 y (PCP) signaling mediated by the Drosophila protocadherin Fat depends on its ability to change the s

166 The large protocadherin Fat functions to promote Hippo pathway act

167 The protocadherin Fat is known as a tumor suppressor regulat

168 The protocadherins Fat (Ft) and Dachsous (Ds) are required f

169 he spatial distribution of bonds between the protocadherins Fat (Ft) and Dachsous (Ds), which form he

170 show that signaling interactions between the protocadherins Fat and Dachsous, organized by the morpho

171 The protocadherin Fat4 influences signaling from stromal to

172 The protocadherins Fat4 and Dchs1 act as a receptor-ligand p

173 In human, mutations of the protocadherins FAT4 and DCHS1 result in Van Maldergem sy

174 The seven-transmembrane protocadherin, Flamingo, functions in a number of proces

175 ed one of these genes, a member of the gamma-protocadherins for further study to determine the basis

176 Protocadherins form isoform-promiscuous cis dimers and i

177 In the enterocyte brush border, protocadherin function requires a complex of cytoplasmic

178 whether oligomerization also plays a role in protocadherin function.

179 , but little is known about the mechanism of protocadherin function.

180 pecies could reflect adaptive differences in protocadherin function.

181 Little is known about how protocadherins function in cell adhesion and tissue deve

182 cadherins in the mouse, i.e., the clustered protocadherins, functions in an analogous fashion to pro

183 We screened for variation in the 12 protocadherin gamma A (PCDHGA) genes of the protocadheri

184 enes, (Ring1 and YY1 binding protein (RYBP); protocadherin gamma subfamily C,3 (PCDHGC3); and signal

185 The 22 gamma-Protocadherin (gamma-Pcdh) adhesion molecules encoded by

186 The gamma-protocadherins (gamma-Pcdhs) are a family of 22 adhesion

187 The 22 gamma-protocadherins (gamma-Pcdhs) potentially specify thousan

188 Here we show that the gamma-protocadherins (gamma-Pcdhs), a family of 22 neuronal ad

189 ion molecule family encoded by the 22-member protocadherin-gamma (Pcdh-gamma) gene cluster in its con

190 Twenty-two tandemly arranged protocadherin-gamma (Pcdh-gamma) genes encode transmembr

191 rmine the crystal structure of the clustered protocadherin gammaB4 ectodomain, which reveals a zipper

192 -electron tomography, we show that clustered protocadherin gammaB6 ectodomains tethered to liposomes

193 gamma2-GABA(A)R) specifically interacts with protocadherin-gammaC5 (Pcdh-gammaC5) in the rat brain.

194 aptic cell adhesion molecules encoded by the protocadherin gene cluster are hypothesized to provide a

195 e by complete sequencing and analysis of the protocadherin gene cluster of the Indonesian coelacanth,

196 lso observed structural heterogeneity of the protocadherin gene cluster.

197 Protocadherin gene clusters on chromosome 5q31 may act a

198 Because a precise pattern of protocadherin gene expression is required for neuronal d

199 t we examined in greater detail involved the protocadherin gene family clusters on chromosome 5 (PCDH

200 gamma and PCDH-alpha suggests that dozens of protocadherins generated by Pcdh-alpha and Pcdh-gamma ge

201 he combinatorial expression of the clustered protocadherin genes (Pcdhalpha, -beta, and -gamma).

202 rin 23, but differs significantly from other protocadherin genes, such as Pcdhalpha, beta, or gamma.

203 ophrenia cINs had dysregulated expression of protocadherin genes, which lie within documented schizop

204 tion of cyclic AMP signaling, cell death and protocadherin genes.

205 creased in expression and included clustered protocadherin genes.

206 Protocadherins have been implicated in synapse developme

207 Protocadherins have been shown to regulate cell adhesion

208 Among genes implicated by the top DMRs were protocadherins, homeobox genes, MAPKs and ryanodine rece

209 of sCAMs, including neurexins, neuroligins, protocadherins, immunoglobulin superfamily proteins, and

210 PCNS (Protocadherin in Neural crest and Somites), a novel Pcdh

211 The cytoplasmic domains of microvillar protocadherins interact with the scaffolding protein, ha

212 n adhesive function by local expression of a protocadherin is a novel mechanism for controlling cell

213 Expression of these two protocadherins is similar in the ventromedial telencepha

214 res for the EC1-EC3 domain regions from four protocadherin isoforms representing the alpha, beta, and

215 mammalian genome has more than 50 clustered protocadherin isoforms, which have remarkable homophilic

216 that encompasses >70 genes at the clustered protocadherin locus (hereafter referred to as cPcdh).

217 isoform-mismatch chain-termination model of protocadherin-mediated self-recognition, which depends o

218 ndrome lacking harmonin exhibits microvillar protocadherin mislocalization and severe defects in brus

219 d in the interneuron module, as well as in a protocadherin module.

220 tion factor Cdx2 activates expression of the protocadherin Mucdhl, which interacts with beta-catenin

221 e transcription of the gene that encodes the protocadherin Mucdhl.

222 Here, we demonstrate the requirement for NF-protocadherin (NFPC) and its cytosolic partner TAF1/Set

223 The homophilic cell adhesion molecule NF-protocadherin (NFPC) is expressed in the mid-dorsal opti

224 functionally interacts with Ror2 to regulate protocadherin papc expression and morphogenesis.

225 65% amino acid identity to Xenopus paraxial protocadherin (PAPC) and 42-49% amino acid identity to P

226 Paraxial protocadherin (PAPC) controls cell sorting and morphogen

227 Paraxial protocadherin (PAPC) is an adhesion protein with six cad

228 We previously showed that Xenopus paraxial protocadherin (PAPC) mediates cell sorting and morphogen

229 g, and demonstrated that it enables paraxial protocadherin (PAPC) to promote tissue separation throug

230 iated by Wnt signaling, Snail1, and paraxial protocadherin (PAPC).

231 llowed by the transmembrane protein paraxial protocadherin (PAPC).

232 Here, we focused on the role of paraxial protocadherin (PAPC/Pcdh8) in this process.

233 odulating complexes (AMCs) with the paraxial protocadherin (PAPC; denoted as AMCP) and C-cadherin (de

234 pus and zebrafish have demonstrated that the protocadherin, papc, is expressed in an anterior-specifi

235 Here we show that the expression of delta-protocadherins partitions the zebrafish optic tectum int

236 protein kinase C, a downstream kinase in the protocadherin pathway.

237 The mouse protocadherin (Pcdh) -alpha, -beta, and -gamma gene clus

238 The mammalian Protocadherin (Pcdh) alpha, beta, and gamma gene cluster

239 Stochastic activation of clustered Protocadherin (Pcdh) alpha, beta, and gamma genes genera

240 hromatin looping in mammalian genomes, using protocadherin (Pcdh) and beta-globin as model genes.

241 The vertebrate clustered protocadherin (Pcdh) cell surface proteins are encoded b

242 nd that Celsr3, a member of the nonclustered protocadherin (Pcdh) family, is predominantly expressed

243 The majority of vertebrate protocadherin (Pcdh) genes are clustered in a single gen

244 Fifty-eight cadherin-related protocadherin (Pcdh) genes are tandemly arrayed in three

245 This region encompasses 53 individual protocadherin (PCDH) genes divided among three gene clus

246 f) binding sites, for example, the clustered protocadherin (Pcdh) genes, where we show Smchd1 and Ctc

247 recently demonstrated that initiation of cdh/protocadherin (pcdh) O-Man glycosylation is not dependen

248 A large number of neural transmembrane protocadherin (Pcdh) proteins is encoded by three closel

249 stinct repertoires of alpha, beta, and gamma protocadherin (Pcdh) proteins, which function in neural

250 ingle nucleotide polymorphisms (SNPs) in the protocadherin (PCDH)-alpha, -beta and -gamma gene cluste

251 The clustered protocadherins (Pcdh) are encoded by three closely linke

252 Genetic studies demonstrate that gamma-protocadherins (PCDH-gamma) are required for the surviva

253 gamma-Protocadherins (PCDH-gamma) regulate neuronal survival i

254 d that the combinatorial expression of gamma-protocadherins (Pcdh-gammas) and other clustered protoca

255 gamma-Protocadherins (Pcdh-gammas) are involved in cell-cell i

256 It has been proposed that gamma-protocadherins (Pcdh-gammas) are involved in the establi

257 ic approach to investigate the role of gamma-protocadherins (Pcdh-gammas) in hypothalamic neuronal ci

258 h4, Cdh6, Cdh7, Cdh8, Cdh11) and eight delta-protocadherins (Pcdh1, Pcdh7, Pcdh8, Pcdh9, Pcdh10, Pcdh

259 d99C, the Drosophila ortholog of human Usher protocadherin PCDH15, is expressed in several embryonic

260 and cell type specific expression of a novel protocadherin, PCDH20, in the olfactory system.

261 es are free to make junctions containing the protocadherin, PCDH21, with the inner segment plasma mem

262 tosis-selective cell surface localization of protocadherin PCDH7, a member of a family with anti-adhe

263 turn activates multiple genes including the protocadherin pcdh8l (PCNS).

264 The alpha-, beta-, and gamma-protocadherins (Pcdhalpha, Pcdhbeta, and Pcdhgamma) comp

265 Here, we show that loss of clustered gamma protocadherins (Pcdhg), but not of genes in the alpha or

266 etion of the gene cluster encoding the gamma-Protocadherins (Pcdhgs) from developing GABAergic neuron

267 Cs, both processes are mediated by the gamma-protocadherins (Pcdhgs), a family of 22 recognition mole

268 he cadherin superfamily, the clustered gamma-Protocadherins (PCDHGs), regulate the survival of inhibi

269 Clustered protocadherins (Pcdhs) are a family of cadherin-like mol

270 The clustered protocadherins (Pcdhs) are a large family of cadherin-li

271 Clustered protocadherins (Pcdhs) are arranged in gene clusters (al

272 Protocadherins (Pcdhs) are cell adhesion and signaling p

273 Here we demonstrate roles for the clustered protocadherins (Pcdhs) in dendritic self-avoidance and s

274 Clustered protocadherins (Pcdhs) mediate numerous neural patternin

275 ocadherins (Pcdh-gammas) and other clustered protocadherins (Pcdhs) provides a code of molecular iden

276 ession of alpha-, beta-, and gamma-clustered protocadherins (Pcdhs) provides vertebrate neurons with

277 Protocadherins (Pcdhs), a major subfamily of cadherins,

278 sively, much less is known about the related protocadherins (Pcdhs), which together make up the major

279 , Drosophila Dscams and vertebrate clustered protocadherins (Pcdhs).

280 A consensus protocadherin promoter motif sequence identified in mamm

281 hastic single-neuron expression of clustered protocadherin protein isoforms.

282 Clustered protocadherin proteins (alpha-, beta-, and gamma-Pcdhs)

283 are apparent between zebrafish and mammalian protocadherin proteins.

284 erved between neurons that express identical protocadherin repertoires(2,5), and single-isoform diffe

285 on of ordered linear assemblies by clustered protocadherins represents the initial self-recognition s

286 Derepression of germline genes, protocadherins, Rhox genes, and endogenous retroviral el

287 ely 120 diverse membrane proteins, including protocadherins, ROBOs, netrin receptors, neuroligins, GP

288 nt to both non-clustered delta and clustered protocadherin subfamilies.

289 study, we cloned eight members of the delta-protocadherin subfamily of cadherins (Pcdh1, Pcdh7, Pcdh

290 spatiotemporal expression patterns of delta-protocadherins suggest that they have multiple and diver

291 izing gene conversion events than coelacanth protocadherins, suggesting that recombination- and dupli

292 soforms of alpha-, beta- and gamma-clustered protocadherin that provide mammalian neurons with single

293 B interacts with USH1C and MYO7B, which link protocadherins to the actin cytoskeleton.

294 functions of O-Man glycans on cadherins and protocadherins, we used a combinatorial gene-editing str

295 Genes encoding stochastically expressed protocadherins were transcribed by increased numbers of

296 composed of protocadherin-24 and mucin-like protocadherin, which target to microvillar tips and inte

297 adherin-18a (Pcdh18a) belongs to the delta 2-protocadherins, which constitute the largest subgroup wi

298 to be uniquely enlarged in vertebrates: the protocadherins, which regulate neuronal development, and

299 We propose a model in which association of a protocadherin with Ncad acts as a switch, converting bet

300 The gene pair protocadherin X and Y within this region is under new se