ライフサイエンスコーパス: rhodopsin

1 Stereospecific modulation of dimeric rhodopsin.

2 l fraction of opsin by photobleaching ~1% of rhodopsin.

3 receptor degeneration caused by mislocalized rhodopsin.

4 brane helix 1 and the cytoplasmic helix 8 of rhodopsin.

5 ut compromising the functional properties of rhodopsin.

6 and contributed to a persistent build-up of rhodopsin.

7 ctron resonance measurements of spin-labeled rhodopsin.

8 munohistochemistry analysis of R/G opsin and rhodopsin.

9 ciency of this photoconversion is similar to rhodopsin.

10 rgy diagram for the regeneration reaction of rhodopsin.

11 ne proteins such as peripherin 2 (PRPH2) and rhodopsin.

12 residue to Ile, the corresponding residue in rhodopsin.

13 tor replaced the third intracellular loop of rhodopsin.

14 tors (GPCRs)-the somatostatin receptor 3 and rhodopsin.

15 is Pigmentosa caused by the P23H mutation in rhodopsin.

16 ity, leading to increased phosphorylation of rhodopsin.

17 l for the treatment of adRP caused by mutant rhodopsin.

18 to GPCR activation upon light absorption by rhodopsin.

19 side of arrestin-1 that binds photoactivated rhodopsin.

20 res efficient inactivation of photoactivated rhodopsin.

21 ors or with blue-light-sensitive sensors and rhodopsins.

22 otein, similar to that seen in the microbial rhodopsins.

23 d photostability of fluorescent proteins and rhodopsins.

24 ght its remarkable difference from all known rhodopsins.

25 duced photochemistry of animal and microbial rhodopsins.

26 n kinetics observed between human and bovine rhodopsins.

27 inetically decoupled than in other microbial rhodopsins.

28 d chloride transport mechanisms of microbial rhodopsins.

29 38% of strains of other genera which contain rhodopsins.

30 native proton transport pathway in microbial rhodopsins.

31 dynamics of the UV form of histidine kinase rhodopsin 1 (HKR1) from eukaryotic algae, using femtosec

32 brates generally rely on a single rod opsin [rhodopsin 1 (RH1)] for obtaining visual information.

33 Thus, viral rhodopsins 1 represent a unique, large group of light-ga

34 of the light-driven Na(+) pump Krokinobacter rhodopsin 2 (KR2) at Na(+)-pumping conditions.

35 activated Na(+) pump, Krokinobacter eikastus rhodopsin 2 (KR2), was resolved at atomic resolution.

36 Here, we study Krokinobacter eikastus rhodopsin-2 (KR2), a microbial light-driven sodium or pr

37 In TRPV1-channel rhodopsin-2 mice, light activation of ExPANs induced a p

38 e same time having no effect on the adjacent rhodopsin-5-expressing PRs (Rh5-PRs).

39 Our results indicate that rhodopsin-6-expressing-PRs (Rh6-PRs) and lOLPs are requi

40 mediated by multidendritic neurons, requires rhodopsin 7 and the TRP channel Painless, and is indepen

41 r loop of visual arrestin when it couples to rhodopsin(8).

42 be the secretory route of newly synthesized Rhodopsin, a major rhabdomeric protein.

43 ography has revealed that the visual pigment rhodopsin, a prototypical class A G protein-coupled rece

44 stability of dark-state and light-activated rhodopsin, accelerating the decay of ligand-bound forms.

45 cate that in a native-like lipid environment rhodopsin activation is not analogous to a simple binary

46 lar effects that combine to yield control of rhodopsin activation, and necessitate factors beyond pro

47 vealed a complex, double-square mechanism of rhodopsin activation.

48 ) sensors, donor fluorescence drops when the rhodopsin acts as depolarization-sensitive acceptor.

49 d in the rod outer segment by photoactivated rhodopsin after light excitation.

50 overexpressing P23H rod opsin, and increased rhodopsin aggregation in the P23H-1 rat retina, suggesti

51 -base in bacteriorhodopsin, isorhodopsin and rhodopsin, all of which exhibit similar chromophores but

52 ration of predominantly rods, accompanied by rhodopsin and blue cone opsin mislocalization from 6 to

53 pression of photoreceptor-specific proteins, rhodopsin and cone opsins, decreased expression of the s

54 ently described scramblases including bovine rhodopsin and fungal TMEM16 proteins.

55 compounds that stabilize the visual receptor rhodopsin and modulate the cellular pathways triggering

56 mRNA, but due to cotransport of mislocalized rhodopsin and NKAalpha to lysosomes or autophagolysosome

57 VPA ameliorated RD associated with P23H rhodopsin and promoted clearing of mutant rhodopsin from

58 erpinnings of G-protein activation by visual rhodopsin and shed new light on the role played by Gbeta

59 ed primary cilium enrichment of a chimera of rhodopsin and somatostatin receptor 3, where the dual Ax

60 ng compounds that can activate and attenuate rhodopsin and testing the hypothesis that opsin binds re

61 G protein-coupled receptors (GPCRs), such as rhodopsin and the beta(2) adrenergic receptor, have prov

62 Further, we found nudC interacts with rhodopsin and the small GTPase rab11a.

63 light on a fundamentally distinct branch of rhodopsins and may contribute to the understanding of vi

64 rt of the trafficking pathway for both disc (rhodopsin) and rim (PRPH2/ROM1) components of the OS.

65 perturb the topological energetics of human rhodopsin, and the expression and cellular trafficking o

66 ally linking the therapeutic effects in P23H rhodopsin animals and negative effects in other models w

67 Here conformational substates of the GPCR rhodopsin are investigated in micelles of dodecyl maltos

68 Microbial rhodopsins are a family of photoactive retinylidene prot

69 UV-absorbing rhodopsins are essential for UV vision and sensing in al

70 Overall, 88% of the strains harbouring rhodopsins are isolated from non-aquatic environments.

71 Microbial rhodopsins are photoreceptive membrane proteins that tra

72 Rhodopsins are the most abundant light-harvesting protei

73 The structure and function of viral rhodopsins are unknown.

74 Microbial rhodopsins are versatile and ubiquitous retinal-binding

75 ional cross-linker that preserves the native rhodopsin arrangement by covalently tethering rhodopsins

76 ectron laser (XFEL) crystal structure of the rhodopsin-arrestin complex, in which the phosphorylated

77 Compared with a structure of a rhodopsin-arrestin-1 complex, in our structure arrestin

78 Here, we used the visual receptor rhodopsin as an archetype for understanding membrane lip

79 transmembrane (TM) protein, Anabaena Sensory Rhodopsin (ASR) reconstituted in lipids.

80 integral membrane protein, Anabaena sensory rhodopsin (ASR), reconstituted in a lipid environment.

81 tial of repurposing MTX for the treatment of rhodopsin-associated RP.

82 l that the peaks in green preference require rhodopsin-based visual photoreceptors and are controlled

83 rhodopsin, suggesting a role for RPGRIP1 in rhodopsin-bearing vesicle trafficking.

84 Rhodopsin becomes activated when light isomerizes 11-cis

85 Their archetype rhodopsin becomes naturally light sensitive by binding c

86 hiff base for light absorption, UV-absorbing rhodopsins bind an unprotonated retinal Schiff base.

87 topological energetics and the efficiency of rhodopsin biogenesis, which appears to be limited by the

88 ominant retinal degeneration associated with rhodopsin biosynthesis defects, while frameshift phenoty

89 ctivates a non-canonical pathway mediated by rhodopsin but independent of transducin that sensitizes

90 is more similar to HRs than chloride-pumping rhodopsins, but the overall structure most closely resem

91 rtions and deletions in three genes encoding rhodopsin by co-injection of Cas9 mRNA, eGFP mRNA, and s

92 ble rhodopsin, ruling out transactivation of rhodopsin by opsin.

93 Phosphorylation was detected at rhodopsin C-terminal tail residues T336 and S338.

94 nthetic phosphopeptide analogues of the GPCR rhodopsin C-terminus and determine the ability of these

95 Rhodopsin-catalyzed activation of the G protein transduc

96 Mislocalized rhodopsin causes photoreceptor degeneration in a manner

97 A G90D mutation in rhodopsin causes the receptor to be constitutively activ

98 otes faster clearance of the photoisomerized rhodopsin chromophore.

99 Furthermore, Rab8, the key regulator of rhodopsin ciliary trafficking, was mislocalized in photo

100 revealed no difference in opsin expression, rhodopsin content was decreased in diabetic retinas, as

101 Thus, the inactive and active states of rhodopsin could be differentiated based on the stiffness

102 th our Exoc5 fl/fl mouse line crossed with a rhodopsin-Cre driver line.

103 ng light levels, which they detect through a rhodopsin-cyclic guanosine monophosphate pathway.

104 vated chloride channel activity and improved rhodopsin degradation in an iPSC-RPE model of recessive

105 including methotrexate (MTX), promoted P23H rhodopsin degradation that also cleared out other misfol

106 We showed MTX increased P23H rhodopsin degradation via the lysosomal but not the prot

107 this investigation, we made use of the high rhodopsin density in the native disc membranes and of a

108 ster senses day-night cycles in part through rhodopsin-dependent light reception in the compound eye

109 ction/tracking functions and variance in the Rhodopsin detecting colors in the blue wavelength ranges

110 esent cryo-EM structures of the cross-linked rhodopsin dimer as well as a rhodopsin dimer reconstitut

111 he cross-linked rhodopsin dimer as well as a rhodopsin dimer reconstituted into nanodiscs from purifi

112 We purified cross-linked rhodopsin dimers and reconstituted them into nanodiscs f

113 lastocladiella emersonii, combining a type I rhodopsin domain with a guanylyl cyclase domain.

114 GEVIs containing different voltage sensitive rhodopsin domains and various fluorescent dye and fluore

115 Among all studied rhodopsins DTEF subtype is the most unique one, identifi

116 n, whereas knockdown of ERdj5 increased P23H rhodopsin ER retention and aggregation.

117 In this kinetic scheme, the human rhodopsin exhibited more Schiff base deprotonation than

118 s, known as 'pale' or 'yellow', depending on Rhodopsin expression in R7 and R8.

119 ng factors of a bi-stable loop regulating R8 Rhodopsin expression.

120 On the plasma membrane, mislocalized rhodopsin extracts NKAalpha and sends it to lysosomes wh

121 cargo, including multiple reported and novel rhodopsin family G protein-coupled receptors (GPCRs) and

122 ll models, metformin treatment improved P23H rhodopsin folding and traffic.

123 x, in which the phosphorylated C terminus of rhodopsin forms an extended intermolecular beta sheet wi

124 Biochemical studies on purified rhodopsin from mice indicated that multiple species can

125 3H rhodopsin and promoted clearing of mutant rhodopsin from photoreceptors.

126 Here, we investigate the evolution of rhodopsin function in an Andean mountain catfish system

127 ssful DNA extraction fragment of the nuclear rhodopsin gene (RH1) and 9 microsatellite regions (SSRs)

128 In addition, flavonoids stimulate rhodopsin gene expression.

129 We inserted eGFP or point mutations into rhodopsin genes by co-injection of repair fragments with

130 Vision-associated Rhodopsin genes show conservation of motion detection/tr

131 sed as interesting objects to search for new rhodopsin genes that will provide novel insights into ve

132 A total of 31 rhodopsin genes were identified in 51 analyzed genomes o

133 Recently, two groups of rhodopsin genes were identified in large double-stranded

134 Proteorhodopsin (PR) and Gloeobacter rhodopsin (GR) are retinal-based light-driven proton pum

135 recent studied retinal protein, gloeobacter rhodopsin (gR), functions as a proton pump, and binds th

136 al characterization of two proteins of viral rhodopsin group 1, OLPVR1 and VirChR1.

137 Among the GPCRs, the "light receptor" rhodopsin has been shown to activate with a rearrangemen

138 tion dynamics and mechanisms of UV-absorbing rhodopsins have remained essentially unknown.

139 dopsins (HRs) and bacterial chloride-pumping rhodopsins, have been structurally characterized.

140 A new family of rhodopsins, heliorhodopsins (HeRs), has recently been di

141 cross talk between protomers of a microbial rhodopsin homo-oligomer.

142 n structure of an Organic Lake Phycodnavirus rhodopsin II (OLPVRII) of group 2.

143 Sensory rhodopsin II (pSRII), a retinal-binding photophobic rece

144 -chain dynamics of the alpha-helical sensory rhodopsin II and the beta-barrel outer membrane protein

145 ryo-EM structure of the light-sensitive GPCR rhodopsin in complex with heterotrimeric Gi.

146 contrast, VPA exacerbated RD caused by T17M rhodopsin in light, but had no effect in darkness.

147 nto the ligand-receptor binding reaction for rhodopsin in particular, and for GPCRs more broadly.

148 actin polymerisation and mislocalisation of rhodopsin in photoreceptors.

149 activation of the G protein-coupled receptor rhodopsin in photoreceptors.

150 e first report of the abundance of different rhodopsins in cultivated bacteria isolated from hot and

151 t of research is focused on investigation of rhodopsins in cultivated bacteria isolated from non-aqua

152 of such isolates, the enigmatic role of the rhodopsins in dry ecological niches is still poorly unde

153 f photointermediates of the human and bovine rhodopsins in their native membranes revealed a complex,

154 Unlike in the known rhodopsins, in HeRs the N termini face the cytoplasm.

155 lgae are far more homologous to haloarchaeal rhodopsins, in particular the proton pump bacteriorhodop

156 RP is frequently caused by mutations in Rhodopsin; in some animal models, RD is exacerbated by l

157 an important role for PRCD in regulation of rhodopsin incorporation and packaging density into disc

158 Rhodopsin is a canonical class A photosensitive G protei

159 Rhodopsin is a G protein-coupled receptor found in the r

160 Rhodopsin is a light receptor comprised of an opsin prot

161 The visual photoreceptor rhodopsin is a prototypical G-protein-coupled receptor (

162 Visual rhodopsin is an important archetype for G-protein-couple

163 For example, class I mutant rhodopsin is deficient in the VxPx trafficking signal, m

164 n calorimetry to show that ligand binding in rhodopsin is enthalpy driven with -22 kcal/mol, which is

165 Human rhodopsin is N-glycosylated on Asn(2) and Asn(15), where

166 Rhodopsin is the G protein-coupled receptor in rod photo

167 Rhodopsin is the most frequently mutated protein in this

168 ntal molecular event after photobleaching of rhodopsin is the recombination reaction between its apop

169 The endocytosed rhodopsin is trafficked back to the photosensitive membr

170 rt model showed that ciliary enrichment of a rhodopsin kinase probe occurs via recycling as it perpet

171 ific AAV (adeno-associated virus)-hRK (human rhodopsin kinase)-sh_c-fos or a chemical inhibitor subst

172 n the absorption wavelength of a sodium-pump rhodopsin (KR2) by altering dipole moment of residues ar

173 e combined studies suggest that mislocalized rhodopsin leads to photoreceptor dysfunction through dis

174 creased electroretinogram (ERG) response and rhodopsin level in the retinae of Rho(P23H/+) knock-in m

175 Rhodopsin levels and localization were similar to those

176 We observed a significant decrease in rhodopsin levels in Prcd-KO retina prior to photorecepto

177 For cone opsin genes, the rhodopsin-like (Rh2) and long-wave-sensitive (LWS) genes

178 ht activated (lambdamax = 532 nm) with a non-rhodopsin-like action spectrum peaking at 610 nm for sta

179 Orexins are neuropeptides that activate the rhodopsin-like G protein-coupled receptors OX1R and OX2R

180 In contrast to most rhodopsin-like G protein-coupled receptors, the glycopro

181 brane G protein-coupled receptors (class A/1 rhodopsin-like), including receptors for chemokines, PGs

182 gulates photoreceptor disk morphogenesis and rhodopsin localization.

183 ping rhodopsins, the Mastigocladopsis repens rhodopsin (MastR).

184 ing photons, this chromophore contributes to rhodopsin maturation [3, 4], trafficking [3, 4], and sta

185 dings suggest that the marginal stability of rhodopsin may represent an evolved trait.

186 10(6)-fold lower than that of photoactivated rhodopsin (meta II).

187 ent study shows that in photoinducible I307N rhodopsin mice (Translational Vision Research Model 4 [T

188 he creation and interrogation of a microbial rhodopsin mimic, based on an orthogonal protein system,

189 We describe a microbial rhodopsin mimic, created using a small soluble protein a

190 equent single cause of RP in the USA, causes rhodopsin misfolding and induction of the unfolded prote

191 Rhodopsin misfolding caused by the P23H mutation is a ma

192 in the photoreceptor connecting cilia cause rhodopsin mislocalisation and eventual retinal degenerat

193 r understanding of the relationships between rhodopsin mislocalization and photoreceptor dysfunction/

194 Rhodopsin mislocalization is frequently observed in reti

195 arious forms of blinding disorders caused by rhodopsin mislocalization.

196 ted blinding disorder frequently manifesting rhodopsin mislocalization.

197 rs a hitherto uncharacterized consequence of rhodopsin mislocalization: the activation of the lysosom

198 We found that rhodopsin mislocalized to the PM is actively internalize

199 Effects in T4K and Q344ter rhodopsin models were also negative.

200 ptor neurons are irregular, containing fewer rhodopsin molecules and decreased rhodopsin packing dens

201 Live mice regenerate rhodopsin more rapidly in blue light.

202 ne containing the constitutively active G90D rhodopsin mutant or apoprotein opsin revealed that most

203 dation that also cleared out other misfolded rhodopsin mutant proteins.

204 nary night blindness that expresses the G90D rhodopsin mutant was examined to better understand the o

205 est that improving the traffic of misfolding rhodopsin mutants is unlikely to be a practical therapy,

206 Rhodopsin mutation and misfolding is a common cause of a

207 gain of function', such as the dominant P23H rhodopsin mutation that causes retinitis pigmentosa (RP)

208 While many rhodopsin mutations have well-understood consequences th

209 ll death, the disease association of several rhodopsin mutations identified in retinitis pigmentosa p

210 he phytoplankton dynamics encompass genes of rhodopsins of two distinct families.

211 alisation of certain outer segment proteins (rhodopsin, opn1lw, opn1sw1, GNB3 and PRPH2), and disrupt

212 els of both sexes expressing wild-type human rhodopsin or its class I Q344ter mutant fused to Dendra2

213 ning fewer rhodopsin molecules and decreased rhodopsin packing density compared to wild-type discs.

214 For stimuli that photoactivated one rhodopsin per Galphat the rod OS swelling response reach

215 Here we show that a missense mutation in rhodopsin (Phe261Tyr) is an adaptation to the red-shifte

216 t process that is partially modulated by the rhodopsin phosphatase retinal degeneration C (RDGC).

217 activity of this kinase results in enhanced rhodopsin phosphorylation and therefore delays its regen

218 Taken together, these data suggest that rhodopsin phosphorylation/dephosphorylation modulates th

219 utational studies on subnanosecond events in rhodopsins, photoactive yellow proteins, phytochromes, a

220 removal of ARL13B led to mislocalization of rhodopsin, prenylated phosphodiesterase-6 (PDE6), and in

221 O and a therapeutic ABCA4 plasmid containing rhodopsin promoter (pRHO-ABCA4).

222 n rd3/rd3 mouse retinas under control of the rhodopsin promoter, the RD3GFP construct increased RetGC

223 ome induced by Cre recombinase driven by the rhodopsin promoter.

224 psin without an effect on the wild type (WT) rhodopsin protein.

225 al chromophore sterically constrained inside rhodopsin proteins represents an outstanding example of

226 roteins, like photoactive yellow protein and rhodopsin, provide potential strategies for improving th

227 ed into phospholipid/detergent bicelles with rhodopsin reconstituted into detergent micelles.

228 We compared the regeneration of purified rhodopsin reconstituted into phospholipid/detergent bice

229 nematode Caenorhabditis elegans ATR-bearing rhodopsins reported on voltage changes in body wall musc

230 l MMAR-containing holoproteins are the first rhodopsins retaining significant pump activity under nea

231 y showed preserved ONL thickness and reduced rhodopsin retention in the ONL in the injected superior

232 observed absorption maxima in both A1 and A2 rhodopsins, reveal a Barlow-type relationship between th

233 tational studies on coarse-grained models of rhodopsin revealed that the active state of the receptor

234 Vertebrate rhodopsin (Rh) contains 11-cis-retinal as a chromophore

235 Rhodopsin (Rh) is the only GPCR whose native oligomeric

236 t brain clock neurons, whereas six different rhodopsins (RH) are present in the light-sensing organs.

237 Rhodopsin (RH1), the temperature-sensitive visual pigmen

238 activated neurons, one of which depends on a rhodopsin (Rh6) for cool sensation.

239 We found that a rhodopsin, Rh6, is expressed and required in bitter GRNs

240 ere we describe a previously uncharacterized rhodopsin, Rh7, which contributes to circadian light ent

241 The vertebrate visual photoreceptor rhodopsin (Rho) is a unique G protein-coupled receptor a

242 Rhodopsin (Rho) is a visual G protein-coupled receptor e

243 Rhodopsin (Rho), a prototypical G-protein-coupled recept

244 One notable exception was rhodopsin (RHO), which severely mislocalized to inner se

245 RhoGC is a rhodopsin (Rho)-guanylyl cyclase (GC) gene fusion molecu

246 rs caused by diverse mutations, including in rhodopsin (RHO).

247 ) signaling system, in which light-activated rhodopsin (Rho*) is the GPCR catalyzing the exchange of

248 There was no effect on the traffic of rhodopsin, Rom1 or peripherin/rds; however, the retinal

249 observed in rods containing non-activatable rhodopsin, ruling out transactivation of rhodopsin by op

250 Remarkably, an examination of the rhodopsin sequences from 2,056 species of fish revealed

251 ons implying that the degeneration caused by rhodopsin signaling is not mediated through its canonica

252 The mutant quenches light-induced rhodopsin signaling like wild type, demonstrating that i

253 ion-deficient mutant is capable of quenching rhodopsin signaling normally, as judged by electroretino

254 We found that inactivating rhodopsin signaling protected photoreceptors from degene

255 The structure is unique among the known rhodopsins. Structural and functional data and molecular

256 uter segments and display mislocalization of rhodopsin, suggesting a role for RPGRIP1 in rhodopsin-be

257 PK activator metformin could affect the P23H rhodopsin synthesis and folding.

258 for a functional and unusually blue-shifted rhodopsin that is expressed in small single "cones." Mor

259 uced decrease in kinetic rates-properties of rhodopsin that mediate rod sensitivity and visual perfor

260 K is part of a protective response to mutant rhodopsin that ultimately limits photoreceptor cell deat

261 tics to optically control neuronal activity, rhodopsins that function with longer-wavelength light ar

262 ght-driven sodium pumps (NaRs) are microbial rhodopsins that utilize light energy to actively transpo

263 Upon photoactivation of rhodopsin, the heterotrimeric G protein (transducin) is

264 FD-AFM was applied to rhodopsin, the light receptor and a prototypical GPCR, e

265 Mutations in rhodopsin, the light-sensitive protein of rod cells, are

266 Rhodopsins, the major light-detecting molecules of anima

267 nobacterial chloride and sulfate ion-pumping rhodopsins, the Mastigocladopsis repens rhodopsin (MastR

268 hile rods in the mammalian retina regenerate rhodopsin through a well-characterized pathway in cells

269 more broadly the most red-shifted microbial rhodopsins thus far reported.

270 We show that the dissociation reaction of rhodopsin to 11CR and opsin has a 25-pM equilibrium diss

271 ng cascade that conveys photon absorption by rhodopsin to a change in current at the rod photorecepto

272 We sought to impart the logic of rhodopsin to light-insensitive Family A GPCRs in order t

273 /dephosphorylation modulates the recovery of rhodopsin to the ground state and rod dark adaptation.

274 Notably, impaired rhodopsin trafficking is also characteristic of recessiv

275 ts into the gross conformational features of rhodopsin-transducin interactions and setting the stage

276 in the connecting cilium, thus facilitating rhodopsin transport to photoreceptor outer segments.

277 that approximately 80 water molecules flood rhodopsin upon light absorption to form a solvent-swolle

278 oltage indicators (GEVIs) based on microbial rhodopsins utilize the voltage-sensitive fluorescence of

279 Such MMAR-based rhodopsin variants present very promising opportunities

280 This analogue red-shifted all of the rhodopsin variants tested, accompanied by a strong broad

281 hodopsin arrangement by covalently tethering rhodopsins via Lys residue side chains.

282 arious members of the GPCR family, including rhodopsin (visual receptor), opioid receptors, adrenergi

283 Rhodopsin was depleted from primary cilia but gained acc

284 Visual rhodopsin was recombined with lipids varying in their de

285 In the presence of either missense variant, rhodopsin was sequestered to the photoreceptor rod inner

286 The metformin-rescued P23H rhodopsin was still intrinsically unstable and led to in

287 outer segment membrane protein 1 (ROM1), and rhodopsin were mislocalized along the microtubules to th

288 ucture on the kinetics, the human and bovine rhodopsins were inserted into 1-palmitoyl-2-oleoyl-sn-gl

289 j5 in vitro enhanced the degradation of P23H rhodopsin, whereas knockdown of ERdj5 increased P23H rho

290 disrupt the structure of the visual receptor rhodopsin, whereas sites in packing cluster 1 (e.g., pos

291 of experiments, we found that class I mutant rhodopsin, which causes NKAalpha downregulation, also ca

292 d more Schiff base deprotonation than bovine rhodopsin, which could arise from the approximately 7% s

293 By contrast, rhodopsin, which is similar in sensitivity but slower in

294 xpressing human P23H, T17M, T4K, and Q344ter rhodopsins, which are associated with RP in humans.

295 Unlike the well-known visible-absorbing rhodopsins, which bind a protonated retinal Schiff base

296 and site-specific bioorthogonal labeling of rhodopsin with Alexa488 to enable, to our knowledge, a n

297 fuses Ace2N, a voltage-sensitive inhibitory rhodopsin, with mScarlet, a bright red fluorescent prote

298 s inverted with respect to visible-absorbing rhodopsins, with an optically forbidden low-lying S(1) e

299 motif, required for efficient enrichment of rhodopsin within rod photoreceptor sensory cilia, inhibi

300 that selectively reduced the misfolded P23H rhodopsin without an effect on the wild type (WT) rhodop