ライフサイエンスコーパス: glutaraldehyde

1 y by fixation with paraformaldehyde, but not glutaraldehyde.

2 ttenuated when the enzyme is cross-linked by glutaraldehyde.

3 re were varied or when EDC was replaced with glutaraldehyde.

4 ent using (3-aminopropyl)triethoxysilane and glutaraldehyde.

5 d fixed with diluted paraformaldehyde and no glutaraldehyde.

6 choline oxidase (ChO) by their reaction with glutaraldehyde.

7 e loading) and tethering to the surface with glutaraldehyde.

8 r efficient interparticle cross-linking with glutaraldehyde.

9 other had Nafion with BSA cross-linked with glutaraldehyde.

10 istant than Deltager3 spores to Betadine and glutaraldehyde.

11 bon fiber electrode by cross-linking with 5% glutaraldehyde.

12 protein after it had been cross-linked with glutaraldehyde.

13 bilized with Taxol and chemically fixed with glutaraldehyde.

14 s-reactivity with GABA, arginine, lysine, or glutaraldehyde.

15 yer using cross-linking of the proteins with glutaraldehyde.

16 xposed to water, acetone, alcohol, HEMA, and glutaraldehyde.

17 cross-liking with bovine serum albumin using glutaraldehyde.

18 of 3-aminopropyltriethoxysilane (APTES) and glutaraldehyde.

19 FP pair (Ab2) via amine-amine coupling using glutaraldehyde.

20 paste electrode (MCPE) by cross-linking with glutaraldehyde.

21 sted by chemical cross-linkage analysis with glutaraldehyde.

22 chemically cross-linked PF4 tetramers using glutaraldehyde.

23 ised controlled pore glass (CPG) beads using glutaraldehyde.

24 d 1 h of incubation in low concentrations of glutaraldehyde (0.5 and 1.0%) or azide.

25 ha-amino acids 10a-d, similarly reacted with glutaraldehyde (20) and benzotriazole to generate 5-benz

26 en compared to the chitosan crosslinked with glutaraldehyde 3%.

27 Glomerular collagen alpha5(IV)/glutaraldehyde-3-phosphate dehydrogenase (GAPDH) mRNA ra

28 blue)/tetrabutylammonium bromide/Nafion and glutaraldehyde (3D bioanode electrode).

29 ent enzyme immobilization methods, including glutaraldehyde, a conventional cross-linker, and poly(et

30 ella), polystyrene (PS) microtitre plate and glutaraldehyde activated PS plate.

31 lly immobilized onto an activated support of glutaraldehyde agarose.

32 clic adenosine monophosphate (bromo-cAMP) or glutaraldehyde, agents that respectively inhibit actin-m

33 Cells fixed with glutaraldehyde alone, and those postfixed with osmium te

34 een lysine residues of the folded monomer by glutaraldehyde also does not perturb the compact conform

35 Exposure to glutaraldehyde also produced an increase in stiffness th

36 the reprocessing of cellulose dialyzers with glutaraldehyde and bleach does not affect indices of blo

37 in 37 patients on chronic hemodialysis with glutaraldehyde and bleach-reprocessed cellulose dialyzer

38 erent cross-linking agents, namely, genipin, glutaraldehyde and caffeic acid, at different concentrat

39 dor-activated iGluRs was fixed in place with glutaraldehyde and detected immunohistochemically.

40 proteins was demonstrated in the presence of glutaraldehyde and EDC/NHS (N-(3-dimethylaminopropyl)-N

41 studies showing very low reactivity between glutaraldehyde and elastin.

42 that is significantly more resistant to both glutaraldehyde and formaldehyde than the wild-type enzym

43 BS3 and sulfo-SMPB, respectively, as well as glutaraldehyde and found no preferential dimer formation

44 Cross-linking with glutaraldehyde and fractionation by gel filtration show

45 Glutaraldehyde and grape seed extract significantly incr

46 nal groups were used: malondialdehyde (MDA), glutaraldehyde and hexamethylene diisocyanate (HMDC).

47 tolerance against the typically used biocide glutaraldehyde and increased susceptibility to the oxida

48 dified with chitosan and functionalized with glutaraldehyde and lactate dehydrogenase enzyme was immo

49 otocol was developed including fixation with glutaraldehyde and matrix coating with a pneumatic spray

50 as examined using the chemical cross-linkers glutaraldehyde and N-ethyl-1-3-[3-(dimethylamino)propyl]

51 The use of biocides such as glutaraldehyde and quaternary ammonium compounds has spu

52 mple was then taken, prior to perfusion with glutaraldehyde and removal of the sciatic nerves and cau

53 Cell cultures were fixed with glutaraldehyde and stained with Von Kossa stain to ident

54 of cysteamine followed by cross-linking with glutaraldehyde and subsequent binding of 3-aminophenylbo

55 as stabilized by chemical cross-linking with glutaraldehyde and the capture ability of immuno-affinit

56 The monkeys were perfused with glutaraldehyde and the eyes were enucleated and prepared

57 ell surface cholesterol (namely, exposure to glutaraldehyde and to low-ionic-strength buffer) also br

58 on the graphene surface were activated using glutaraldehyde and used for the covalent immobilization

59 n was impeded in the presence of the biocide glutaraldehyde and was completely inhibited by salt at c

60 scardiac perfusion with paraformaldehyde and glutaraldehyde and were then postfixed.

61 hree cross-linking agents: transglutaminase, glutaraldehyde, and Cu(II) with peroxide.

62 rotein dimer generated by cross-linking with glutaraldehyde, and its increase in size by a hemaggluti

63 concentrations of formaldehyde and alkaline glutaraldehyde, and other commonly used disinfectants.

64 measured by quantitative cross-linking with glutaraldehyde, and the activation of the protein tyrosi

65 y native electrophoresis, cross-linking with glutaraldehyde, and unfolding data from circular dichroi

66 ssus, showed various susceptibilities to the glutaraldehyde- and isothiazolone-based test biocides.

67 This study investigated the effects of glutaraldehyde-and grape seed extract-induced cross-link

68 e to substrates, while low concentrations of glutaraldehyde are used to stabilize cells.

69 ture, inhibitors of oxidative metabolism and glutaraldehyde) are substantially different for neural r

70 ctrode via a C-terminal lysine residue using glutaraldehyde as a cross-linking agent.

71 of a screen printed electrode (SPE) by using glutaraldehyde as a cross-linking agent.

72 lization of the glucose oxidase enzyme using glutaraldehyde as crosslinking agent, producing a very e

73 bilization of human IgG on polyaniline using glutaraldehyde as the cross-linker is described in this

74 e lungs fixed by a tracheal infusion of 1.5% glutaraldehyde at 25 cm of water pressure.

75 ing effect of the gold-standard cross-linker glutaraldehyde at comparable experimental conditions was

76 10-fold lower than the levels detected with glutaraldehyde-based biosensors (e.g., 1.2 muM vs 16 muM

77 nses occurred when mouse RBC were fixed with glutaraldehyde before Ld coupling.

78 re readily prepared from succindialdehyde or glutaraldehyde, benzotriazole, and N-phenylethylenediami

79 Glutaraldehyde, but not PEGDE, significantly decreased t

80 Glutaraldehyde caused an immediate and sustained massive

81 bers using covalent immobilization via amine-glutaraldehyde chemistry and inactivated S. typhimurium

82 e immobilized on them by following the amine glutaraldehyde chemistry.

83 teins to activated carboxylic acid (COOH) or glutaraldehyde (COH) groups functionalized on synthetic

84 omer cross-linking as a function of time and glutaraldehyde concentration was characterized using pol

85 functionalized magnetic nanoparticle by 60mM glutaraldehyde concentration with 10h cross-linking time

86 At the same time, aqueous glutaraldehyde concentrations decreased due to sorption

87 biodegradation rates slowed with increasing glutaraldehyde concentrations.

88 ucidate biodegradation inhibition at varying glutaraldehyde concentrations.

89 ovalent crosslinking of surface lysines with glutaraldehyde confirmed that wild-type and R91L protein

90 cedure by using an antibody directed against glutaraldehyde-conjugated GABA.

91 ) activated nitrocellulose (NC) membrane via glutaraldehyde coupling with 32.22% retention of initial

92 Herein, we report that glutaraldehyde cross-linked BSA (or HSA) forms a novel f

93 Using glutaraldehyde cross-linked dimers of lysozyme, we have

94 hyde-derivatized monomer (mono-glxrHb) and a glutaraldehyde cross-linked polymer (poly-glxrHb), and e

95 pectra for both purified type I collagen and glutaraldehyde cross-linked porcine aortic leaflets.

96 Ethanol pretreatment of glutaraldehyde cross-linked porcine aortic valve biopros

97 vestigations studied ethanol pretreatment of glutaraldehyde cross-linked porcine aortic valves as a n

98 osthetic heart valves fabricated from either glutaraldehyde cross-linked porcine aortic valves or bov

99 Electron microscopic and glutaraldehyde cross-linking analyses provide the first

100 We went on to use glutaraldehyde cross-linking and proteolysis for indepen

101 Finally, a combination of glutaraldehyde cross-linking and rate zonal centrifugati

102 in vivo homotrimerization of NF7 by using a glutaraldehyde cross-linking assay, and we further showe

103 RecD2 oligomers can be detected by glutaraldehyde cross-linking but not by size exclusion c

104 Glutaraldehyde cross-linking confirmed oligomerization o

105 Glutaraldehyde cross-linking demonstrated the multimeriz

106 mediate of P61A FIS was further confirmed by glutaraldehyde cross-linking experiments at 95 degrees C

107 Glutaraldehyde cross-linking experiments indicate that t

108 duplex or single-stranded DNA and ATPgammaS, glutaraldehyde cross-linking generated a species that be

109 Glutaraldehyde cross-linking generated a species that mi

110 of glutathione-agarose affinity binding and glutaraldehyde cross-linking indicate that ParE' exists

111 , velocity sedimentation centrifugation, and glutaraldehyde cross-linking indicated that e55K is a di

112 d on a screen-printed carbon electrode using glutaraldehyde cross-linking method.

113 DNA binding site, as indicated by results of glutaraldehyde cross-linking studies.

114 s well as analytical ultracentrifugation and glutaraldehyde cross-linking were utilized to evaluate t

115 this study, complementary methods including glutaraldehyde cross-linking, size-exclusion chromatogra

116 eptide in yeast cells, a result confirmed by glutaraldehyde cross-linking.

117 Dimerization of NS5A was demonstrated by glutaraldehyde cross-linking.

118 Glutaraldehyde-cross-linked microtubules were investigat

119 n (Ca(2+) = 89.06 +/- 17.93 microgram/mg for glutaraldehyde crosslinked elastin versus Ca(2+) = 89.73

120 The structure of a glutaraldehyde-crosslinked crystal of the endonuclease P

121 -day rat subdermal implants, irrespective of glutaraldehyde crosslinking (Ca(2+) = 0.73-2.15 microgra

122 ensiformis) were prepared by desolvation and glutaraldehyde crosslinking and functionalized by cystea

123 (iii) dimerize and oligomerize, as judged by glutaraldehyde crosslinking and HPLC size chromatography

124 In agreement with this prediction, glutaraldehyde crosslinking of Mor in solution generated

125 Glutaraldehyde crosslinking of recombinant p22 identifie

126 time course of calcification, the effect of glutaraldehyde crosslinking on calcification, and mechan

127 pe DnaK protein using either an ELISA assay, glutaraldehyde crosslinking or HPLC size chromatography.

128 These analyses identified glutaraldehyde-dependent cross-linking products composed

129 the cross-linking reaction were isolated, a glutaraldehyde-derivatized monomer (mono-glxrHb) and a g

130 ated to keyhole limpet hemocyanin (KLH) with glutaraldehyde developed Abs to GXM.

131 The specimens were fixed in glutaraldehyde, embedded, sectioned, and imaged by means

132 With glutaraldehyde fixation alone, the lipid bilayer was rem

133 r AGB signals were trapped with conventional glutaraldehyde fixation and were detected by probing reg

134 -type littermates were processed by using 2% glutaraldehyde fixation for light and transmission elect

135 However, with glutaraldehyde fixation of already adsorbed molecules, t

136 (iii) Glutaraldehyde fixation of intact junctions cross-links

137 nd the presence of extracellular Ca2+ during glutaraldehyde fixation promotes calcification.

138 8-GFP:MT collision complexes were trapped by glutaraldehyde fixation, the preference for binding to p

139 genicity that resemble those associated with glutaraldehyde fixation.

140 and the eyes were enucleated, immersed in 2% glutaraldehyde fixative, and prepared for light and tran

141 The tissue was fixed in formaldehyde-glutaraldehyde fixative.

142 Assessment of sections from glutaraldehyde fixed wild-type and cesa9 mature seeds su

143 Glutaraldehyde-fixed aortic valve leaflets showed accele

144 cture discernible in electron micrographs of glutaraldehyde-fixed cell material.

145 Using an antibody specific for glutaraldehyde-fixed D-aspartate, we have localized D-as

146 the kinetics of sperm binding to dejellied, glutaraldehyde-fixed eggs were studied.

147 enii inhibited the adherence of gonococci to glutaraldehyde-fixed epithelial cells like it inhibited

148 r present studies showed that the ability of glutaraldehyde-fixed eucaryotic cells to convert gonococ

149 32, 36, 39, and 41 kDa selectively bound to glutaraldehyde-fixed HEp-2 cells.

150 ine kidney cells was investigated by using a glutaraldehyde-fixed host cell assay system.

151 smission electron microscopic examination of glutaraldehyde-fixed medium-sized bronchi from acute Kaw

152 ort kinesin motility, a dilute suspension of glutaraldehyde-fixed microtubules in buffer supported ki

153 Our results show that glutaraldehyde-fixed neutrophils (without microvillus ex

154 riences with second-generation stent-mounted glutaraldehyde-fixed pericardial aortic valve prostheses

155 Glutaraldehyde-fixed rat brain sec6/8 complex adopts a c

156 When coated onto glutaraldehyde-fixed red blood cells, the peptide caused

157 Glutaraldehyde-fixed samples were stained with heavy met

158 In situ analyses were performed on glutaraldehyde-fixed thin sections of clinically acute a

159 in neuroglia, whereas immunocytochemistry of glutaraldehyde-fixed tissue reveals GSH also in neurons.

160 ted strongly with poly-L-lysine-immobilized, glutaraldehyde-fixed, intact HUVEC in ELISA assays.

161 trate significant lability when they are not glutaraldehyde-fixed.

162 e freezing, typically comprising fixation in glutaraldehyde followed by cryoprotection with glycerol.

163 s result was confirmed by cross-linking with glutaraldehyde followed by matrix-assisted laser desorpt

164 intact mouse sperm were briefly fixed in 1% glutaraldehyde for binding studies using a standard filt

165 ase to eliminate alpha-gal epitopes and with glutaraldehyde for moderate cross-linking of collagen fi

166 ectrodes were prepared, after fixation in 3% glutaraldehyde, for SEM (n = 9) or TEM (n = 10), or both

167 ace of a poly-Si nanowire device followed by glutaraldehyde functionalization, and the PSA antibodies

168 r a period of 6 months, it cross-linked with glutaraldehyde, further lowering the biocide's aqueous c

169 covalent surface biofunctionalization route, glutaraldehyde (GA) and N-(3-dimethylaminopropyl)-N'-eth

170 TROP probe was attached to PEI by the use of glutaraldehyde (GA) as cross-linker.

171 lently attached onto the nanocomposite using glutaraldehyde (GA) as the linking agent, a 32-mer adeno

172 d on those surfaces after incorporation with glutaraldehyde (GA) to obtain aldehyde layers of APTES-G

173 discovered when APTMS was cross-linked with glutaraldehyde (GA), the resulting complex (APTMS-GA) di

174 fied QCM surfaces were directly activated by glutaraldehyde (GA).

175 e chemistry of the commonly used HFF biocide glutaraldehyde (GA).

176 glassy carbon (GC) electrode via a linker of glutaraldehyde (GA).

177 )-chitosan (Chi)-lipase mixture into CaCl(2)-glutaraldehyde (GAL) solution to obtain Ca-Alg/Chi(CRL/P

178 soluble Env can be stably cross-linked with glutaraldehyde (GLA) without global modification of anti

179 zation of horse radish peroxidase (HRP), via glutaraldehyde (Glu), for deferiprone detection using im

180 Control materials were crosslinked with glutaraldehyde (Glut).

181 ps 2 and 3, with an annular sponge soaked in glutaraldehyde (GTA) and applied only to the PS.

182 led carbon nanotubes (MWCNT), chitosan (CS), glutaraldehyde (GTA) and DNA nanostructures (nsDNA).

183 Gelatin cross-linked with glutaraldehyde had higher gel strength and melting point

184 In the absence of glutaraldehyde, half-lives ranged from 13 d to >93 d.

185 rotein keyhole limpet hemocyanin (KLH) using glutaraldehyde has shown promising results in early clin

186 Importantly, standard glutaraldehyde Id-KLH conjugation procedures could resul

187 mphoma from most tumor-bearing mice, whereas glutaraldehyde Id-KLH had little efficacy.

188 However, glutaraldehyde Id-KLH vaccines fail to elicit anti-Id im

189 pore resistance to dry heat, dessication, or glutaraldehyde; (ii) an elevated core water content is a

190 Seven vessels were fixed in glutaraldehyde immediately after rupture and prepared fo

191 that the fixation of blotted membranes with glutaraldehyde improves immunodetection of low-molecular

192 nd submerged in fresh 4% paraformaldehyde/2% glutaraldehyde in 0.1 M phosphate buffer, pH 7.4, at 4 d

193 Live control cells or cells fixed with glutaraldehyde in Ca2+-free solution did not calcify und

194 to be an excellent alternative to the use of glutaraldehyde in chitosan crosslinking applications.

195 NaCl in the presence of homogeneous DRAG and glutaraldehyde in cross-reaction.

196 o describing the complexity of using KLH and glutaraldehyde in the development of vaccines to carbohy

197 After chemical cross-linking with glutaraldehyde in the presence of detergent micelles, th

198 ntermolecular crosslinks upon treatment with glutaraldehyde in the presence of DNA, whereas proteins

199 fixation and cross-linking of proteins with glutaraldehyde increases it.

200 In this technique, bifunctional linker glutaraldehyde is added to the polyacrylamide gel soluti

201 Surprisingly, although glutaraldehyde is known to modify and cross-link free am

202 P315-KLH were inhibited by KLH treated with glutaraldehyde (KLH-g), but not by P315.

203 idase that activates oleuropein into a toxic glutaraldehyde-like structure.

204 Glutaraldehyde-mediated cross-linking experiments reveal

205 ted by rHb1.1 is significantly attenuated by glutaraldehyde modification of the hemoglobin monomer an

206 nzyme was selected to either accept or avoid glutaraldehyde modifications that would normally have in

207 ereas covalent attachment of BSA-Ac to APTES/glutaraldehyde-modified silica enhances the accessibilit

208 e performed intersubunit cross-linking using glutaraldehyde of the OCP and PBS followed by liquid chr

209 ffects of ConA, disuccinimidyl suberate, and glutaraldehyde on the parental enzymes and the chimera i

210 Cross-linking of receptors with either glutaraldehyde or 3, 3'-dithio-bis(sulfosuccinimidylprop

211 e that treating BG505 SOSIP.664 trimers with glutaraldehyde or a heterobifunctional cross-linker intr

212 o loss of activity during tissue fixation by glutaraldehyde or formaldehyde.

213 hitosan gels were prepared, crosslinked with glutaraldehyde or genipin and characterized by their tex

214 were preserved by in vivo perfusion with 1% glutaraldehyde or paraformaldehyde-picric acid fixatives

215 n), bleach in conjunction with formaldehyde, glutaraldehyde or Renalin, and heated citric acid.

216 In contrast, 2.5% glutaraldehyde, paraformaldehyde (2 or 4%), Vesphine IIs

217 rneal stiffening was induced in one eye with glutaraldehyde/phosphate buffered saline (PBS) immersion

218 he hemoglobin monomer and that the effect of glutaraldehyde polymerization is likely due to surface m

219 ids to nonoxidized mannan (PM) compared with glutaraldehyde-polymerized allergoids (P) or native gras

220 was to determine whether combined therapy of glutaraldehyde-polymerized bovine hemoglobin (HBOC) with

221 Glutaraldehyde-polymerized bovine hemoglobin (HBOC), sil

222 murine tetrameric hemoglobin (0.48 g/kg) or glutaraldehyde-polymerized bovine hemoglobin (HBOC-201,

223 Glutaraldehyde-polymerized bovine hemoglobin (PolyHbBv,

224 dendritic cells (DCs) generated by coupling glutaraldehyde-polymerized grass pollen allergoids to no

225 The specimens were sliced, fixed in 3% glutaraldehyde, postfixed in 1% buffered osmium tetroxid

226 For glutaraldehyde prepared biosensors, detection of seconda

227 ts were used; and in 1 patient, a section of glutaraldehyde-preserved allograft pericardium was used.

228 p underwent implantation of a new stentless, glutaraldehyde-preserved porcine mitral valve (Physiolog

229 ated complete inhibition of calcification of glutaraldehyde-pretreated porcine bioprosthetic aortic v

230 Glutaraldehyde pretreatment did not affect calcification

231 Glutaraldehyde prevented both increased adherence and ga

232 responses in many patients, possibly because glutaraldehyde reacts with lysine, cysteine, tyrosine, a

233 alpha(-) beta(-) strains also exhibited less glutaraldehyde resistance and slower outgrowth than did

234 Structural modification imparted by glutaraldehyde resulted in nearly identical functional c

235 Exposure of Rns to the chemical cross-linker glutaraldehyde revealed that the full-length protein is

236 nitrocellulose membranes, cross-linked with glutaraldehyde, rinsed in NaOH, restained with Ponceau S

237 ehyde (RR,1.03, 95% CI, 0.96-1.10; P=.45) or glutaraldehyde (RR, 1.13, 95% CI, 0.95-1.35, P=.18) and

238 hyde (RR=1.06, 95% CI, 0.98-1.15; P=.12), or glutaraldehyde (RR=1.09, 95% CI, 0.71-1.67; P=.70) and s

239 In contrast, glutaraldehyde significantly increases the mean TPF sign

240 ieved by immersing the corneas in a 1% or 4% glutaraldehyde solution for 20 minutes.

241 that a trimer was the dominant aqueous-phase glutaraldehyde species.

242 F-VLB bound to paclitaxel- and glutaraldehyde-stabilized microtubules, with approximate

243 This may be explained by radioactive ((3)H) glutaraldehyde studies showing very low reactivity betwe

244 With glutaraldehyde, the mutant and wild-type PsaD proteins c

245 s possible to immobilize it on PVDF by using glutaraldehyde to conjugate the peptide to a larger, unl

246 the cross-linking of the enzyme laccase with glutaraldehyde to construct a voltammperometric biosenso

247 achived with Chi modified with spacerarm via glutaraldehyde to get Chi(CRL/PPL).

248 and safer for functionalization with SAM and glutaraldehyde to improve the biosensor efficacy.

249 ne groups, which were further activated with glutaraldehyde to introduce a layer of aldehyde groups.

250 ymerization temperature (4-37 degrees C) and glutaraldehyde to manipulate collagen hydrogel fiber dia

251 After cross-linking with glutaraldehyde to stabilize the oligomeric protein, hexa

252 hydryl groups and with one fixative reagent (glutaraldehyde) to cross-link lysine residues.

253 were as follows: 84.1 degrees C and 0.48 for glutaraldehyde treated fibres, 74.1 degrees C and 0.59 f

254 In contrast to untreated cells, glutaraldehyde-treated bacteria gained reactivity with a

255 Concomitant increases in Ca2+ and Pi in glutaraldehyde-treated cells appear to underlie the mech

256 alcification was observed in blebs formed on glutaraldehyde-treated cells.

257 Ca2+ and Pi concentrations were assessed in glutaraldehyde-treated porcine aortic valve fibroblasts,

258 Glutaraldehyde-treated porcine aortic valve xenografts f

259 stic impedance significantly increased after glutaraldehyde treatment (P < 0.01).

260 e stiffening vs. 19.1 +/- 2.6 mm Hg after 1% glutaraldehyde treatment and 24.3 +/- 1.9 mm Hg after 4%

261 de treatment and 24.3 +/- 1.9 mm Hg after 4% glutaraldehyde treatment at 200 microL infusion; P < 0.0

262 mice immunized with GXM-TT, indicating that glutaraldehyde treatment of KLH reveals an epitope(s) th

263 Glutaraldehyde treatment of only one of the reactants ab

264 ry to canine valvular fibroblasts, including glutaraldehyde treatment, led to calcification.

265 inal corneal tissue and tissue with 1% or 4% glutaraldehyde treatment.

266 The glutaraldehyde trimer and 2-ethylhexanol were more rapid

267 Microbial inhibition was observed at glutaraldehyde trimer concentrations as low as 5 mg L(-1

268 thermore, MotA monomers were cross-linked by glutaraldehyde under conditions where slower complexes e

269 cross-linking experiments of HS-HoloFt with glutaraldehyde, unexpectedly, showed the complete releas

270 ide selected was covalently polymerized with glutaraldehyde until it reached a high beta-sheet second

271 acetal adduct resulting from the reaction of glutaraldehyde used to cross-link the crystals.

272 as accomplished by exposing the thin film to glutaraldehyde vapors, inducing linkage formation betwee

273 The mixture of Fe2O3, PPO and glutaraldehyde was casted on the PEDOT-rGO electrode.

274 ossible reaction between PAni thin films and glutaraldehyde was explored using FT-IR characterization

275 n adhesion capabilities to PS surfaces, then glutaraldehyde was used to conjugate IgGs, serving as pr

276 ized with 11-amino-1-undecanethiol, and then glutaraldehyde was used to covalently attach nitrostrept

277 ) in the absence and presence of the biocide glutaraldehyde were investigated under a range of redox

278 rcumvent this problem, low concentrations of glutaraldehyde were used to crosslink the linker histone

279 and in freestanding, for-profit units using glutaraldehyde, which accounted for <5% of all units.

280 bovine serum albumin (BSA) cross-linked with glutaraldehyde while the other had Nafion with BSA cross

281 hat polymerization of hemoglobin, rHb1.1, by glutaraldehyde would attenuate the hypertensive response