ライフサイエンスコーパス: MLR

1 MLR and skin grafting confirmed donor-specific tolerance

2 MLR stimulation below the threshold for overt movement s

3 MLR was significantly associated with number of sites at

4 MLRs are essential for the regulation of the physiology

5 MLRs are plasmalemmal microdomains enriched in sphingoli

6 1 resulted in increased expression of Cav-1, MLRs, and MLR-localization of Cav-1 and tropomyosin-rela

7 most influential sensory predictor of the 28 MLR models was flavour, while the aroma compound most in

8 g CD4+CD25 high FOXP3+ cell development; (4) MLR-generated CD4+CD25 high FOXP3+ cells added as third

9 naive T cells taken from cord blood using a MLR assay.

10 gamma and IL-17 in response to alloantigens (MLR), anti-CD3, and the glycolipid alpha-galactosyl cera

11 d cytolytic activity following an allogeneic MLR in vitro, without increasing autologous MLR activity

12 pon T cell stimulation and during allogeneic MLR.

13 We found mDC function in the allogeneic MLR directly corresponded to the magnitude of skin DTH r

14 ly inactive as stimulators of the allogeneic MLR, in contrast to potent stimulation by noninfected DC

15 oduction of IL-6 and TNF-alpha in allogeneic MLRs, impairing the activation of central and effector m

16 ines do not activate T cells in an allogenic MLR; however, they express low levels of MHC class I mol

17 suppressed T-cell proliferation in allogenic MLR in a dose-dependent manner.

18 ly lower proliferative response in allogenic MLR than the B cells from untreated patients.

19 capacity of AG-stimulated DCs is altered, an MLR with naive Th cells was performed.

20 chantia polymorpha, is also controlled by an MLR and PTI1-like signaling module.

21 N-gamma and inhibited T-cell responses in an MLR culture.

22 In an MLR system using porcine PBMCs, MSC-induced IL-10(+)IFN-

23 interferon secretion by naive T cells in an MLR.

24 d the production of regulatory T cells in an MLR.

25 pact of neuron-targeted overexpression of an MLR scaffold protein, caveolin-1 (Cav-1) (via a synapsin

26 e derived from two different Cre (Le-Cre and MLR-10) transgenic mice in which lens-specific Cre expre

27 ELISA and MLR assays showed that TGF-beta2 was involved in mediati

28 n general, PLS and PCA outperform linear and MLR models.

29 ss in standard cell-mediated lympholysis and MLR assays.

30 However, the effect of MLR and MLR-associated proteins on neuronal aging is unknown.

31 in increased expression of Cav-1, MLRs, and MLR-localization of Cav-1 and tropomyosin-related kinase

32 detect S. oryzae infested rice with PCA and MLR techniques.

33 MLRs (cholera toxin subunit B positive) and MLR-associated TrkB and Cav-1 protein expression.

34 ytokines in the sera of graft recipients and MLR culture supernatants was tested using ELISA.

35 MLR in vitro, without increasing autologous MLR activity.

36 tion, and T cell proliferation in autologous MLRs.

37 locking were tested in vitro by (autologous) MLR.

38 vastatin treatment of stimulated pAEC before MLR reduced proliferation of human PBMC (P<0.05) and CD4

39 Atorvastatin treatment of human PBMC before MLR reduced their response to stimulated WT (P<0.05) and

40 ersistent responsiveness to donor antigen by MLR.

41 onclude that supraspinal commands (caused by MLR stimulation) select one of the numerous forms of ope

42 When locomotion is elicited by MLR stimulation, a second MLR stimulation stops the loco

43 FACS analysis of mouse T cell MLR revealed increased dual TCR T cells among alloreacti

44 xcitatory synaptic inputs into patch-clamped MLR cells, accompanied by activity in reticulospinal cel

45 tions were performed between ABO-compatible, MLR-mismatched NHPs.

46 This was similar to the third component MLR Tregs generated entirely in vitro.

47 under many typical water quality conditions, MLR- and BLM-based criteria are quite comparable.

48 By contrast, MLR stimulation evoked well coordinated stepping movemen

49 3(+) mismatched irradiated PBMCs in a 7-10 d MLR.

50 CD4CD45RA/CD45RO T cells generated in 9-day MLR were cocultured with anti-CD3 and autologous antigen

51 lutamatergic transmission largely diminished MLR cell responses and locomotion.

52 ed a subset of neurons located in the dorsal MLR that send direct inputs to neurons in the respirator

53 omatin enrichment analyses of the Drosophila MLR complex reveals dynamic association with promoters a

54 as the agonistic antibody to caCD28 enhanced MLR.

55 properties of the adsorbents in the existing MLR models is a possible reason for their higher predict

56 Interestingly, M. leprae-exposed MLR cells secreted increased Th2 cytokines as well as si

57 (PRAGs) were considered in the final fitted MLR model, which explained 96.8% of the variability obse

58 MAE=7.6 for ANN to r2=0.61 and MAE=16.2 for MLR.

59 These cells can be assayed for MLR inhibitory and Treg recruitment functions, so as to

60 This occurs for MLR-induced, sensory-evoked, and spontaneous locomotion.

61 uppression was 3- to 10-fold more active for MLRs induced by the original alloantigens than for third

62 improve the model predictions, the best four MLR models obtained were subjected to a consensus analys

63 regs were more potent suppressors of a fresh MLR by CD25- CD4+ T cells.

64 added as third component modulators in fresh MLRs significantly enhanced newly developed Tregs in the

65 Foxp3(+) nTreg can be directly isolated from MLR cultures with high purity.

66 ult and aged hippocampus enhances functional MLRs with corresponding roles in cell signaling and prot

67 oxp3(+) nTreg proliferation in vitro in 72-h MLRs.

68 t AG reduced T cell proliferation in a human MLR.

69 4(+) T cell proliferation in mouse and human MLRs.

70 ferating cells, autologous and HLA identical MLRs generated the highest FOXP3+:FOXP3- cell ratios; (3

71 In MLR, T cells did not proliferate in response to M. lepra

72 of CD14, and had low stimulatory capacity in MLR.

73 f Ag processing, triggering naive T cells in MLR, and presenting Ags to specific T cell clones throug

74 the percentage of CD4(+)Foxp3(+) T cells in MLR, which is dependent upon expression of B7-H1.

75 een cells were recognized by bm12 T cells in MLR.

76 ion, purified CD4+ CD127- cells generated in MLR in the presence of MPA and added as third component

77 ve effects of ICOS blockade were observed in MLR using peripheral blood mononuclear cells from dog le

78 ve effects of ICOS blockade were observed in MLR when anti-ICOS was combined with suboptimal concentr

79 ll proliferation and IFN-gamma production in MLR.

80 y the inability of T cells to proliferate in MLR.

81 to promote allogenic T cell proliferation in MLR in vitro.

82 yet did not restore T cell proliferation in MLR.

83 In MLRs, March8 (-/-), but not MHCIIKR(KI/KI), CD4(+) T cel

84 antigen, a superagonist anti-CD28 Ab, and in MLRs.

85 roliferative responses of RAGE-/- T cells in MLRs and in WT T cells cultured with TTP488.

86 Corroborated in MLRs, greater proliferation levels and robust IFN-gamma

87 UFU enhanced HLA-DR expression and increased MLR.

88 riven caveolin-1 (Cav-1) (SynCav1) increases MLR localization of NTR [e.g., receptor tyrosine kinase

89 emented strains were less potent at inducing MLR.

90 third components allospecifically inhibited MLR proliferation and recruited additional CFSE-labeled

91 INTERPRETATION: MLR-HFS can improve disordered locomotor function in a r

92 through the Malectin-like receptor kinases (MLRs), such as AtANXUR1 and AtFERONIA, that act upstream

93 arboxyfluorescein succinimidyl ester-labeled MLR responders.

94 Each group of (non-CFSE labeled) MLR-generated cells were then added as third components

95 s) than two DR-mismatched MLRs, 2 DR-matched MLRs generated more than twofold higher percentages when

96 regs compared with addition of TAC- or media-MLR-generated Tregs.

97 (MLR = 100%, naive Bayes = 98%), and Mexico (MLR = 90%, naive Bayes = 83.4%) as evidence of the porta

98 t and remediate leaks could further minimize MLR.

99 lustrating how careful siting would minimize MLR in heavily used sedimentary basins.

100 leukocyte antigen DR matched and mismatched MLRs either alone or in combination with MPA or sirolimu

101 ulation indices (SIs) than two DR-mismatched MLRs, 2 DR-matched MLRs generated more than twofold high

102 ct of high-frequency stimulation of the MLR (MLR-HFS) on gait impairment in a rodent stroke model.

103 led with Multiple Linear Regressions Models (MLR) to predict future changes.

104 G93A)/SynCav1(+) spinal cords contained more MLRs (cholera toxin subunit B positive) and MLR-associat

105 NLR, MLR, PLR and exosomal subpopulations potentially involve

106 omal subpopulations varied according to NLR, MLR, PLR and both were associated with different breast

107 mpacta (SNc) evokes increasing activation of MLR cells with a graded increase in the frequency of loc

108 len tubes respond similarly to disruption of MLR and PTI1-like encoding genes.

109 However, the effect of MLR and MLR-associated proteins on neuronal aging is unk

110 Increasing the intensity of MLR stimulation produces a growing activation of reticul

111 of metastatic disease, while high levels of MLR and NLR were found to be associated with poor progno

112 reveal two likely major regulatory modes of MLR function, contributions to enhancer commissioning in

113 Simultaneous to the onset of MLR-HFS, a significantly higher walking speed and improv

114 activation and suppression, respectively, of MLR glutamatergic neurons by direct and indirect pathway

115 Likewise, stimulation of MLR projections to the basal forebrain also enhanced cor

116 As the strength of MLR stimulation was increased, the responses increased i

117 ons from the MLR and that a subpopulation of MLR neurons plays a key role in the respiratory changes

118 nt relationship ensures the applicability of MLRs to project future changes on the shorelines.

119 ol from the plasma membrane leads to loss of MLRs, decreased presynaptic vesicle fusion, and changes

120 opaminergic pathway has a modulatory role on MLR cells that are known to receive glutamatergic projec

121 (+) T cells activated with CD3/CD28 beads or MLRs.

122 Our MLR projections are at least an order of magnitude below

123 Overall MLR suppression was increased when Treg cells were added

124 ls on the combined dataset and found overall MLR classification accuracies: 93.2% Setser80, 87.9% Sel

125 (MLR) is implemented in the software package MLR-tagging.

126 In addition, the PCA-MLR analysis confirmed that the industrial sections; cut

127 The peak MLR for the site nearest the leakage pathways ($7.5/tCO2

128 We performed MLRs with spleen T lymphocytes and APCs isolated from wi

129 curacy on the combined populations for Peru (MLR = 100%, naive Bayes = 98%), and Mexico (MLR = 90%, n

130 The pooled MLR and BLM models predicted species-specific toxicity w

131 The pooled MLR model was then applied to the species sensitivity di

132 tion of allogeneic T cells both in a primary MLR and after restimulation.

133 ere added along with CSA and MP to a primary MLR culture, whereas MTX modestly reduced Treg suppressi

134 ion of regulatory T cells (Tregs) in primary MLR assays with SRL, demonstrating a uniquely supportive

135 responding cells in freshly prepared primary MLRs, to determine allospecific and nonspecific inhibito

136 was also backcrossed to the autoimmune prone MLR/lpr background.

137 onstrate that neuronal membrane/lipid rafts (MLRs) establish cell polarity by clustering progrowth re

138 Membrane lipid rafts (MLRs) within the plasma membrane of most cells serve as

139 g microdomains, termed membrane/lipid rafts (MLRs).

140 atio (NLR) and monocyte to lymphocyte ratio (MLR) are respectively associated with systemic inflammat

141 tio (PLR), and monocyte-to-lymphocyte ratio (MLR) were optimized by receiver operating characteristic

142 s to stimulate the mixed leukocyte reaction (MLR) in the presence of transforming growth factor beta

143 cific Tregs in the mixed leukocyte reaction (MLR) that develops from polyclonal populations of T cell

144 We established mixed leukocyte reaction (MLR) with dendritic cells (DCs) as stimulators and CD4+

145 were assessed by mixed lymphocyte reaction (MLR) and cell-mediated lympholysis coculture assays and

146 assays including mixed lymphocyte reaction (MLR) and flow cytometry to detect serum alloantibody.

147 Mixed lymphocyte reaction (MLR) and skin grafting assessed donor-specific tolerance

148 lysis (m-CML) and mixed lymphocyte reaction (MLR) in recipients with quiescent grafts, but not in rec

149 ulator cells in a mixed lymphocyte reaction (MLR) in the presence of soluble Fas ligand (sFasL) to in

150 DC activation and mixed lymphocyte reaction (MLR) studies were performed to evaluate the immunogenici

151 roliferation in a mixed lymphocyte reaction (MLR) when compared with unpulsed Tregs, suggesting that

152 Using mixed lymphocyte reaction (MLR), the effect of atorvastatin on proliferation of hum

153 Proliferation and mixed lymphocyte reaction (MLR)-based assays were used to determine the immunosuppr

154 d in an allogenic mixed lymphocyte reaction (MLR).

155 y inhibitory in a mixed lymphocyte reaction (MLR).

156 man was tested by mixed lymphocyte reaction (MLR).

157 the course of the mixed lymphocyte reaction (MLR).

158 ression of canine mixed leukocyte reactions (MLR).

159 cells (Tregs) in mixed lymphocyte reactions (MLR) alone and in combination with maintenance agents us

160 antibody blocked mixed lymphocyte reactions (MLR) in a dose-dependent manner similar to CTLA4-Ig, whe

161 FOXP3+ cells in mixed lymphocyte reactions (MLRs) ("the Treg MLR"), with varying human leukocyte ant

162 eptors over these neurons profoundly reduced MLR-induced excitation of reticulospinal neurons and mar

163 The mesencephalic locomotor region (MLR) has been shown to be capable of initiating running

164 ation of the mesencephalic locomotor region (MLR) in an in vitro isolated preparation, an effect that

165 TATEMENT The mesencephalic locomotor region (MLR) is a brainstem region well known to initiate and co

166 ation of the mesencephalic locomotor region (MLR) is known to elicit gait movements, this area might

167 ation of the mesencephalic locomotor region (MLR) on one side evokes symmetrical locomotor movements

168 The mesencephalic locomotor region (MLR) plays a crucial role in locomotor control.

169 TATEMENT The mesencephalic locomotor region (MLR) plays a crucial role in the control of locomotion.

170 lly from the mesencephalic locomotor region (MLR) to reticulospinal neurons, which in turn project to

171 down to the mesencephalic locomotor region (MLR), a brainstem region controlling locomotion in verte

172 ntrol of the mesencephalic locomotor region (MLR), a brainstem target of BG that is critical for loco

173 ally defined mesencephalic locomotor region (MLR), is necessary for the production of L-DOPA-induced

174 The mesencephalic locomotor region (MLR), which includes the pedunculopontine nucleus (PPN)

175 und that the mesencephalic locomotor region (MLR), which is known to initiate and control locomotion,

176 ation of the mesencephalic locomotor region, MLR) with locomotion evoked by epidural stimulation of t

177 Multivariate linear regression (MLR) analysis controlled for additional factors along wi

178 Multiple Linear Regression (MLR) analysis of preprocessed spectral data was used to

179 ated through multivariate linear regression (MLR) analysis.

180 was built using multiple linear regression (MLR) and the OCT and VF data from the other eyes.

181 pe data based on multiple linear regression (MLR) is implemented in the software package MLR-tagging.

182 tribution to the multiple linear regression (MLR) model.

183 ing the best-fit multiple linear regression (MLR) models and Monte Carlo simulations as a function of

184 lysis (PCA), and multiple linear regression (MLR) models are compared.

185 veloped stepwise multiple linear regression (MLR) models for species that have been tested over wide

186 PLS and multivariate linear regression (MLR) preceded by variable selection with SPA or GA were

187 AO index using a multiple linear regression (MLR) technique with autumn conditions of sea-ice concent

188 each adulterant, Multiple Linear Regression (MLR) was applied, and a model was chosen and validated.

189 models based on multiple linear regression (MLR) were built using UV spectrophotometry (190-400 nm)

190 chniques include multiple linear regression (MLR), artificial neural networks (ANN), k-nearest neighb

191 thods, including multiple linear regression (MLR), partial least squares regression (PLS), distribute

192 h, combined with Multiple Linear Regression (MLR).

193 Using multinomial logistic regression (MLR), we compared the 3 panels on the combined dataset a

194 sting models such as multilinear regression (MLR), however, can only predict adsorption under specifi

195 ed less allogeneic mixed leukocyte response (MLR).

196 rimary allogeneic mixed lymphocyte response (MLR) response.

197 pair, and genetic interventions that restore MLRs to normal cellular levels may be exploited as poten

198 on of a stimulating electrode into the right MLR.

199 s with estimation of monetized leakage risk (MLR).

200 ion is elicited by MLR stimulation, a second MLR stimulation stops the locomotor bout if it is of low

201 cells suppressed both primary and secondary MLR in vitro in an antigen-specific manner.

202 specifically inhibited the same freshly set MLR SI and caused recruitment of new CD4+CD25 high FOXP3

203 In addition, sFasL/MLR-treated cell populations contained influenza-specifi

204 These data indicate that this ex vivo sFasL/MLR depletion of alloreacting human donor anti-host T ce

205 re, mice transplanted with the ex vivo sFasL/MLR-treated cells had prolonged time to fatal GVHD in an

206 on of our model with traditional and simpler MLR and PLS regression models shows that KPLS better per

207 f reticulospinal neurons and markedly slowed MLR-evoked locomotion.

208 SRL-MLR-generated Tregs added as third components allospecif

209 on, as evidenced by a comparatively superior MLR stimulatory capacity.

210 alloTregs suppressed MLR at a 16:1 responder to suppressor ratio, whereas nTr

211 DCs reduced HLA-DR expression and suppressed MLR, whereas silencing of SUFU enhanced HLA-DR expressio

212 ld less potent than were MSCs in suppressing MLR.

213 contrast with previous studies using AM14 Tg MLR.Fas(lpr) mice, we found that a significant number of

214 changed cortical processing, revealing that MLR's effects on cortex are dissociable from locomotion.

215 The MLR can thus be considered as a command center for forwa

216 The MLR COMPASS complex monomethylates H3K4 that serves to e

217 The MLR SNP prediction algorithm predicts a complete genotyp

218 The MLR values of predicted versus reference values of prote

219 ince its discovery in cats in the 1960s, the MLR has been identified in all vertebrate species tested

220 sumed that higher brain regions activate the MLR in a graded fashion, but this has not been confirmed

221 f a new glutamatergic pathway activating the MLR in a graded fashion, and consequently evoking a prog

222 sult from higher brain inputs activating the MLR like a dimmer switch.

223 that the brainstem circuits activated by the MLR in the salamander are organized similarly to those p

224 with subsurface resources, and estimates the MLR reduction achievable by remediating leaks.

225 st likely, monosynaptic projections from the MLR activate stop cells during locomotion.

226 inus) that received parallel inputs from the MLR and projected back to reticulospinal cells to amplif

227 ceived direct muscarinic excitation from the MLR and projected glutamatergic excitation to reticulosp

228 ve direct glutamatergic connections from the MLR and that a subpopulation of MLR neurons plays a key

229 etrapods the downstream projections from the MLR to brainstem neurons are not fully understood.

230 we examined the brainstem circuits from the MLR to identified reticulospinal neurons in the salamand

231 esence of glutamatergic projections from the MLR to reticulospinal neurons.

232 c signal, most likely monosynaptic, from the MLR to the reticular formation that activates reticulosp

233 When purified from the MLR, iT reg cells suppressed both primary and secondary

234 nally, at low and intermediate hardness, the MLR model is less responsive than the BLM to pH, but the

235 Local blockade of D1 receptors in the MLR decreased locomotor frequency, but did not disrupt t

236 Microinjections of a D1 antagonist in the MLR decreased the locomotor output elicited by PT stimul

237 that PT stimulation evoked DA release in the MLR, together with the activation of reticulospinal cell

238 57BL/6 (B6) CD11c+ DCs+IL-2+TGF-beta1 in the MLR.

239 sfected DCs were poor allostimulators in the MLR.

240 reas enhancing the production of IL-4 in the MLR.

241 responses, suggesting a pathway linking the MLR to cortex.

242 effect of high-frequency stimulation of the MLR (MLR-HFS) on gait impairment in a rodent stroke mode

243 In vertebrates, stimulation of the MLR at increasing intensities elicits locomotion of grow

244 we find that optogenetic stimulation of the MLR in awake, head-fixed mice can induce both locomotion

245 With the exception of the MLR model, the ANN, kNN, and SVM QSARs were ensemble mod

246 We now demonstrate that stimulation of the MLR not only activates locomotion, but can also stop it.

247 Therefore, activation of the MLR not only initiates locomotion, but can also control

248 the function and the precise anatomy of the MLR remain unclear in humans.

249 Since the discovery of the MLR some 50 years ago, it has been presumed that higher

250 rent but anatomically connected parts of the MLR were activated during the fast condition of each tas

251 -4, and IL-5 by T cells in the course of the MLR, was further enhanced when DC were treated with TSLP

252 nculopontine nucleus, considered part of the MLR, was recently identified in the monkey.

253 bring new insights into the function of the MLR.

254 Overall, the MLR is less responsive to DOC than the BLM across a rang

255 xpansion phase of culture did not reduce the MLR suppressive capacity of Treg cells.

256 ropriate under these circumstances since the MLR models suffer from "selection bias".

257 + T cells as responders and supplemented the MLR with IL-2 and TGF-beta1 and investigated whether DCs

258 luding 10 regions from HapMap shows that the MLR prediction combined with stepwise tag selection uses

259 These studies demonstrate that the MLR regulates cortical state in parallel with locomotion

260 Using neural tracing, we show that the MLR sends bilateral projections to the middle reticular

261 spinal neuron responses, indicating that the MLR sends glutamatergic inputs to reticulospinal neurons

262 Thus, the MLR and PTI1-like signaling module that controls CWI dur

263 the presence of a glutamatergic input to the MLR originating from the primal SNc that evokes graded l

264 Added to the MLR, atorvastatin reduced (i) the human PBMC response to

265 5) and severe lens phenotype compared to the MLR-10/Rac1 cKO (E15.5) mice.

266 tum, but send a descending projection to the MLR.

267 or ventral tegmental area of mammals) to the MLR.

268 found to project from the primal SNc to the MLR.

269 ut not for the chromatin binding of Trr, the MLR methyltransferase.

270 urochemically distinct cell types within the MLR: glutamatergic, GABAergic, and cholinergic neurons.

271 The results of the MLRs showed severe negative volumetric shoreline erosion

272 the closely linked GzmC and F genes in their MLR-derived CTLs and lymphokine-activated killer cells;

273 This MLR model also provides skilful seasonal outlooks of win

274 We suggest that this MLR-based approach, which includes the mechanistic found

275 Thus, MLRs provide an active membrane domain that tethers and

276 ld capable to classify patients according to MLR, NLR and PLR, was computed through a receiving opera

277 restoring NTR expression and localization to MLRs.

278 edia without agents were added separately to MLRs using human leukocyte antigen two DR-matched and -m

279 eg) cells in mixed lymphocyte reaction (Treg MLR) and now report additional findings on the effects o

280 lerance protocol) caused donor-specific Treg MLR inhibition or recruitment.

281 As an example of the "Treg MLR" immune monitoring potential, addition of third comp

282 mixed lymphocyte reactions (MLRs) ("the Treg MLR"), with varying human leukocyte antigen (HLA) dispar

283 In the Treg MLR, the generation of CD4+CD25 high FOXP3+ cells is mor

284 allospecific Treg generation using the Treg MLR.

285 nation, were added to healthy volunteer Treg-MLR, testing (a) H-TdR incorporation for inhibition of l

286 spinal neurons on both sides to a unilateral MLR stimulation.

287 ences between genders were significant using MLR analyses, which also controlled for work, clinic, an

288 l demonstration of the benefits of utilizing MLR analysis as a predictive platform for effective and

289 In vitro MLR and in vivo adoptive transfer experiments were condu

290 suppressed T-cell proliferation in in vitro MLR comparable to animals in the tacrolimus control arm.

291 In a 1-way MLR, KA1010 (5 muMu) reduced parent cell proliferation f

292 A 2-way MLR, adopting IFN-gamma production as a marker of allore

293 ed recipient lymphocytes in a direct one-way MLR, and also analyzed the kinetics of expression of IFN

294 Two-way MLR-stimulated T cell proliferation was reduced by ATL31

295 By one-way MLRs, we observed that ATL313's inhibitory effect was du

296 diated lympholysis and interferon-gamma with MLR tests.

297 tive power (RMSEP = 0.05%) was obtained with MLR aided by GA.

298 ducational, and practice type variables with MLR and PSM analyses.

299 Within MLRs are the scaffolding and cholesterol binding protein

300 4 after experimental stroke with and without MLR-HFS.