ライフサイエンスコーパス: casein

1 d 5 (beta-lactoglobulin) and Bos d 11 (beta-casein).

2 er CML levels in whey proteins compared with casein.

3 phosphorylated and dephosphorylated alpha(s)-casein.

4 lease during digestion, unlike that for beta-casein.

5 phosphorylated and dephosphorylated alpha(s)-casein.

6 Chymosin is a protease that curdles the milk casein.

7 ge during early to mid-logarithmic growth on casein.

8 ein, 5 from alphaS2-casein, and 4 from kappa-casein.

9 tection levels of 2microgmL(-1) for alpha-S1-casein.

10 e epitope in alphas1 -casein to 73% in kappa-casein.

11 ed, one from alphaS1-casein and 17 from beta-casein.

12 zed casein was negligible compared to native casein.

13 ved with milk containing exclusively A2 beta-casein.

14 unizations with nanoemulsion formulated with casein.

15 osphate and the ratio of soluble to micellar casein.

16 0.03 to 0.012 compared to 0.017 obtained for casein.

17 on whey proteins rather than those based on caseins.

18 n databases, almost all of them belonging to caseins.

19 contains cross-reactive epitopes with bovine caseins.

20 The fragment alphaS1-casein (1-23) is an immunomodulatory and antimicrobial p

21 n (193-202), alphas1-casein (85-91), alphas1-casein (1-9), as well as alphas2-casein (189-197) have a

22 1), alphas1-casein (1-9), as well as alphas2-casein (189-197) have antihypertensive activity.

23 The peptides beta-casein (58-72), beta-casein (193-202), alphas1-casein (85-91), alphas1-casein

24 able to detect beta-lactoglobulin (0.5 ppm), casein (2 ppm), whey and powder milk (1-5 ppm).

25 -casein, 4 from betaA2-casein, 4 from betaA3-casein, 25 from alphaS1-casein, 5 from alphaS2-casein, a

26 Isotopically labeled 15N-casein (33-34 g), in either a hydrolyzed (HC) or intact

27 nt peptides; 74 of them originated from beta-casein, 4 from betaA2-casein, 4 from betaA3-casein, 25 f

28 m originated from beta-casein, 4 from betaA2-casein, 4 from betaA3-casein, 25 from alphaS1-casein, 5

29 asein, 4 from betaA3-casein, 25 from alphaS1-casein, 5 from alphaS2-casein, and 4 from kappa-casein.

30 The peptides beta-casein (58-72), beta-casein (193-202), alphas1-casein (8

31 sein (58-72), beta-casein (193-202), alphas1-casein (85-91), alphas1-casein (1-9), as well as alphas2

32 beta-Casein, a phosphoprotein representing 37% of the bovine

33 Recently, a role for bovine beta-casein A1 has been proposed.

34 Cows' milk may contain two types of beta-casein: A1 and A2.

35 to ClpB with a K(d)~60 muM and inhibits the casein-activated, but not the basal, ATPase activity of

36 Saa3 was not detected in plasma following casein administration.

37 pha-lactalbumin, beta-lactoglobulin and beta-casein after heating in dry state was studied in absence

38 LP) were able to perform total hydrolysis of caseins after 30 min at pH 6.5, as confirmed by a signif

39 ver, alkalization and neutralization created casein aggregates of larger colloidal particle size than

40 proteins present a physical barrier to para-casein aggregation.

41 d peptides were identified, one from alphaS1-casein and 17 from beta-casein.

42 When growth is on casein and adenosine, cheater emergence is constrained.

43 SDS-PAGE results revealed a reduction in the casein and alpha-lactalbumin intensity bands after SD or

44 ELISA of casein and alpha-lactalbumin showed a decrease in antige

45 he time-dependent switching behavior of beta-casein and also establish that the modifications mention

46 dissociation and the concentrations of kappa-casein and denatured whey protein in the serum, and a re

47 ntional milk (CON; containing A1 and A2 beta-casein and lactose), a2 Milk (A2M; exclusively containin

48 ein hydrolysates derived from tilapia mince, casein and pea protein, were investigated.

49 gene expression compared with non-hydrolyzed casein and pea protein.

50 Casein and soy protein HPDs did not induce inflammation,

51 Whey protein concentrate (WPC-80), alphas-casein and their hydrolysates were analyzed for the capa

52 The hydrolysis of alphas-casein and whey protein concentrate contributed to a sig

53 f the reaction was <=20 and <=68% for alphas-casein and whey protein concentrate respectively.

54 uman jejunal digests after oral ingestion of casein and whey protein were collected by a nasogastric

55 or free oligosaccharides, fatty acids, major casein and whey proteins, and milk fat volatiles.

56 Casein and WPI were capable of conserving beta-carotene

57 was observed in the presence of 1.5 mg/mL of casein and WPI, respectively.

58 Caseins and whey proteins are known as 'slow' and 'fast'

59 actose) as conventional (both A1 and A2 beta-casein) and A1 beta-casein-free (a2 Milk(TM)) milk.

60 quillaja saponin, Tween 80, whey protein and casein) and antioxidant type (EDTA, ascorbic acid, catec

61 sein, 25 from alphaS1-casein, 5 from alphaS2-casein, and 4 from kappa-casein.

62 coli samples, BSA, beta-lactoglobulin, alpha-casein, and alpha-lactalbumin, was achieved, using eithe

63 ns were analyzed such as model proteins beta-casein, and apomyoglobin as well as circadian clock prot

64 blend consisting of natural cassava starch, casein, and gelatin, and using sorbitol as the plasticiz

65 based on a high concentration of starch, and casein, and low concentration of gelatin.

66 -Lactoglobulin is the major whey protein and caseins are main proteins in milk.

67 ate with iron in the presence and absence of caseins are postulated, and new mechanisms are proposed.

68 developed for allergens analysis using alpha-casein as the biomarker for cow's milk detection, to be

69 ic activity on kappa-caseins, cleaving kappa-casein at four main sites, one of which being the same a

70 during small-scale manufacture of semi-solid casein-based food matrices was investigated and found to

71 allow matrix formation during manufacture of casein-based food structures e.g. processed and analogue

72 mini-review outlines the recent advances in casein-based hydrogel research and the uses of casein-ba

73 Casein-based hydrogels are biocompatible, biodegradable,

74 ntial along with possible future uses of the casein-based hydrogels are discussed throughout the docu

75 sein-based hydrogel research and the uses of casein-based hydrogels as drug delivery system for both

76 from this study may be used to produce clear casein-based protein beverages.

77 Beta-casein (beta-CN) phenotypes in cow milk were determined

78 Casein, beta-lactoglobulin and alpha-lactalbumin are maj

79 Casein, beta-lactoglobulin and alpha-lactalbumin were an

80 a showed that dephosphorylation depleted the casein-bound phosphate region (CNP).

81 products (cheese) based either on whey or on caseins, by using pig as an in vivo digestion model.

82 e, and reductions in concentrations of serum casein, Ca and P.

83 Protection from casein challenge was assessed at 4 and 16 weeks after th

84 exhibited high hydrolytic activity on kappa-caseins, cleaving kappa-casein at four main sites, one o

85 down more slowly than the others because the caseins clotted at the gastric pH.

86 isolate (WPI), soy protein isolate (SPI) and casein (CN) and their binary mixtures, viz., WPI+SPI, WP

87 tocols in solving the complex IEF pattern of casein (CN) mixtures observed when Italian and foreign W

88 Herein, casein (CN) was used as ligand protein to specifically a

89 e emulsions varied depending on the ratio of caseins (CN) and whey proteins (WP) in the continuous ph

90 roughput zebrafish (Danio rerio) model using casein coated-gold nanoparticles (betaCas AuNPs).

91 ion (geometric mean; -SD, +SD) from the iron-casein complex (3.4%; 1.4%, 5.4%) and from ferrous sulfa

92 A highly soluble iron-casein complex has been developed for food fortification

93 The iron-casein complex has iron bioavailability comparable to th

94 termine the iron bioavailability of the iron-casein complex relative to that of ferrous sulfate (cont

95 e relative bioavailability value of the iron-casein complex to ferrous sulfate was determined to be 0

96 Iron absorption from the iron-casein complex was compared with that from ferrous sulfa

97 obulin were found in the two PH formulas and casein components in one of the EH formulas.

98 One PH formula and the EH formula containing casein components showed remaining IgE reactivity, where

99 ices were prepared, by renneting of micellar casein concentrate (MCC), with modulation of salt and pH

100 Pepsin diffusion in rennet gels depends on casein concentration and microstructure.

101 re measured in rennet gels across a range of casein concentrations allowing to form networks of prote

102 fed six protein diets for 14 days, including casein (control), and proteins isolated from soy, fish,

103 K-casein-derived caseinomacropeptides, identified by mass

104 Other reports on the bioactivity of casein-derived peptides have shown that the beta-casein

105 Compared with the casein diet, the soy protein diet had a similar oxidatio

106 phosphopeptides from 40 muL of tryptic beta-casein digest using 70 mug of magnetic Ti-IMAC micropart

107 pH before heat treatment led to increases in casein dissociation and the concentrations of kappa-case

108 ime-dependent switching behavior in the beta-casein expression.

109 Pre-proteolysis occurred mostly on beta-casein, for which cumulative peptide abundance was signi

110 species of cytochrome C, lysozyme, and beta-casein formed during glycation with d-glucose were ident

111 administration of an extensively hydrolyzed casein formula (EHCF) containing the probiotic Lactobaci

112 Casein fractions were kept intact under a heat treatment

113 nal (both A1 and A2 beta-casein) and A1 beta-casein-free (a2 Milk(TM)) milk.

114 to be more efficiently digested compared to caseins from cow milk and peptide profiles from goat mil

115 Caseins from goat milk tended to be more efficiently dig

116 typing - were developed to identify the beta-casein gene (CSN2) A1 and A2 alleles directly in milk.

117 tein group showed lower Grx1 levels than the casein group and the beef protein group showed the highe

118 mmuno-reactivity of whey protein isolate and casein has been studied.

119 oprotein representing 37% of the bovine milk caseins, has specific features promoting its application

120 ole of calcium chelating salts in modulating casein hydration and dispersion and gives an indication

121 Anti-inflammatory activity was observed in casein hydrolysate (CH) and pea protein hydrolysate (PPH

122 fants were randomly assigned to groups fed a casein hydrolysate formula (n = 113) or a conventional f

123 ), whey protein isolate (WPI), insulin and a casein hydrolysate were entrapped in chitosan-polyphosph

124 Peptides from casein hydrolysate were partially (circa 35%) but quickl

125 Casein hydrolysis by Plumeria rubra latex peptidases (Pr

126 was applied for real-time monitoring of beta-casein hydrolysis by trypsin at various conditions for t

127 CEP profiles are major determinants of beta-casein hydrolysis patterns.

128 MPa) and added ethanol resulted in change in casein hydrophobicity by exposure of tryptophan residues

129 s, especially in patients who have high anti-casein IgE antibodies.

130 tween this hydrophobic compound and the beta-casein immobilized on the sensor chip were below the sen

131 e sought to characterize immune responses to casein in children with FPIES caused by cow's milk (CM).

132 ess of the type of salt added, the amount of casein in milk serum decreased and the amount of calcium

133 as to monitor the digestion of milk micellar casein in the porcine upper intestinal tract and to matc

134 e ClpB variant bound to the model substrate, casein in the presence of slowly hydrolysable ATPgammaS,

135 ion of both proteins (beta-lactoglobulin and casein) in one rapid test was developed.

136 trinsically open, flexible protein, alpha(s)-casein, in response to phosphorylation and deprotonation

137 The K(D) value for curcumin-beta-casein interaction has been successfully evaluated (4.1

138 orthophosphate, causing re-dispersion of the casein-iron complexes.

139 entrations of orthophosphate solution to the casein-iron precipitates resulted in gradual adsorption

140 ored the interactions of orthophosphate with casein-iron precipitates.

141 The re-dispersed soluble complexes of casein-iron-orthophosphate generated using this process

142 constant of beta-carotene in the presence of casein is 1.7-fold of that calculated for WPI.

143 ow that curcumin has higher affinity to beta-casein (K(A) = 23.5 +/- 1.9 x 10(4) M(-1)) than vitamin

144 y mechanistic target of rapamycin (mTOR) and casein kinase (CSNK)-2.

145 , member C (Fam20C), formerly known as Golgi casein kinase (G-CK), which is exclusively resident in t

146 n shown to interact with various isoforms of casein kinase 1 (CK1) and keratins and to mediate organi

147 Casein kinase 1 (CK1) isoforms epsilon and delta, key ci

148 y protein kinase A (PKA) sites and secondary casein kinase 1 (CK1) or glycogen synthase kinase 3 (GSK

149 protein kinase C (PKC) site Cx43(S368A), the casein kinase 1 (CK1) sites Cx43(S325A/328Y/330A), and t

150 Casein kinase 1 (CK1)-mediated phosphorylation of Cx43 p

151 Here, we show that the Casein Kinase 1 (CKI) family is required for Expanded ph

152 protein stability of FOXO3A is regulated by Casein Kinase 1 alpha (CK1alpha) in an oncogenic RAS-spe

153 Casein kinase 1 alpha (CK1alpha) is a serine/threonine k

154 sense mutations of the CSNK1A1 gene encoding casein kinase 1 alpha (CK1alpha) occur in a subset of my

155 Human casein kinase 1 delta (CK1delta) and epsilon (CK1epsilon

156 rane recruitment by Frizzled (FZD) and (iii) Casein kinase 1 e (CK1e) has a key regulatory function i

157 Depletion of casein kinase 1 gamma (CSNK-1) in Caenorhabditis elegans

158 iotic division is coordinated by a conserved casein kinase 1.

159 ral putative phosphosite mutations abrogated casein kinase 1.2 activity on HSP90, only Ser(289) could

160 HSP90 is a substrate for casein kinase 1.2-catalysed phosphorylation in vitro.

161 inc finger proteins 1 (IKZF1) and 3 (IKZF3), casein kinase 1alpha (CK1alpha), and the translation ter

162 4 binding to the Gli1 locus is controlled by Casein Kinase 1delta (CK1 delta)-dependent phosphorylati

163 is transition is marked by the appearance of casein kinase 1delta (CK1delta) in the nucleus.

164 89, while also enhancing Sid4's affinity for casein kinase 1delta (CK1delta).

165 translational control of PERIOD stability by Casein Kinase 1delta and epsilon (CK1) plays a key regul

166 In the present study, we found that casein kinase 1epsilon (CK1epsilon) was increased signif

167 effects of mutant M1 spastins on FAT involve casein kinase 2 (CK2) activation.

168 urther, inhibition of claudin-2 by targeting casein kinase 2 (CK2) also ameliorated colitis.

169 Casein kinase 2 (CK2) binds to the NHE3 C-terminus and c

170 Casein kinase 2 (CK2) is known to regulate cell growth a

171 Although protein kinase casein kinase 2 (CK2) is readily detected in MKs and pla

172 We have previously shown that casein kinase 2 (CK2) negatively regulates dopamine D1 a

173 ay is a key regulator of RUNX2 stability, as Casein kinase 2 (CK2) phosphorylates RUNX2, recruiting t

174 The MRE11-PIH1D1 interaction is dependent on casein kinase 2 (CK2) phosphorylation of two acidic sequ

175 and overexpression experiments, we show that casein kinase 2 (CK2) promotes stress granule dynamics.

176 We also found that two putative casein kinase 2 (CK2) sites adjacent to IE2-SIM1 are pho

177 ere, we report that Brg1 is also a target of casein kinase 2 (CK2), a serine/threonine kinase, in pro

178 on was dependent on XRCC1 phosphorylation by casein kinase 2 (CK2), enhancing XRCC1's interaction wit

179 e, and this phosphorylation was catalyzed by casein kinase 2 (CK2), the levels of which were dramatic

180 ulator of Poll III (MAF1), via a synergistic casein kinase 2 (CK2)- and mammalian target of rapamycin

181 These data support a role for casein kinase 2 in regulation of protein synthesis by do

182 We also show that casein kinase 2 phosphorylates G3BP1 at serine 149 in vi

183 Our experiments also disclosed that casein kinase 2 plays an integral role in Tpm phosphoryl

184 This activity, and the ability of casein kinase 2 to use GTP as a phosphate donor, may be

185 overed that murine Arl13b is a substrate for casein kinase 2, a contaminant in our preparation from h

186 ation of ErbB2 or loss of the betasubunit of casein kinase 2, shifted the whole population toward a f

187 hin TMVs through a process that requires the casein kinase 2-mediated phosphorylation of RanGAP1.

188 of HIPK2's kinase domain bound to CX-4945, a casein kinase 2alpha (CK2alpha) inhibitor currently in c

189 Here, we show that G3BP1 phosphorylation by casein kinase 2alpha (CK2alpha) triggers G3BP1 granule d

190 NUCKS1 (nuclear ubiquitous casein kinase and cyclin-dependent kinase substrate 1) i

191 ly accepted that FAM20C functions as a Golgi casein kinase and has large numbers of kinase substrates

192 Finally, we identify and validate the casein kinase CSNK1A1 (also known as CK1alpha or CK1a) a

193 CK3, a gene that encodes a vacuolar membrane casein kinase I (CKI) homolog that nonredundantly functi

194 t Pah1 is phosphorylated by the YCK1-encoded casein kinase I (CKI), regulating Pah1 catalytic activit

195 RQ), FRQ-interacting RNA helicase (FRH), and casein kinase I (CKI), which inhibits the activity of th

196 ion is dependent on Ptr3 and the integral PM casein kinase I (Yck1/2).

197 ing the phosphorylation of Vac17 via Yck3, a casein kinase I, and likely another unknown kinase.

198 iod being exquisitely sensitive to levels of casein kinase I.

199 We conclude that Casein Kinase Iepsilon phosphorylation acts as a switch,

200 ylation events are independently mediated by Casein Kinase Iepsilon.

201 lated protein [LRP] 5/6), dishevelled (dsh), casein kinase Igamma, G proteins, and Axin reduced gamma

202 SARS-CoV-2 infection promoted casein kinase II (CK2) and p38 MAPK activation, producti

203 Casein kinase II (CKII) phosphorylates MLL1 proximal to

204 hat lipin 1beta is a bona fide substrate for casein kinase II (CKII), a protein kinase that is essent

205 c for CKI, whereas the others were shared by casein kinase II (Ser-705), Cdc28-cyclin B (Ser-602), Ph

206 es these activities, which are stimulated by Casein Kinase II phosphorylation, are unknown.

207 tivity and its subsequent phosphorylation by casein kinase II.

208 HSP90, only Ser(289) could be identified as casein kinase target by mass spectrometry.

209 at this process is regulated in yeast by the casein kinase Yck3, which phosphorylates Mon1 and blocks

210 Arsenite also recruited a TDP-43 kinase, casein kinase-1 (CK1), to GADD34.

211 ut not other PI3Kdelta inhibitors, inhibited casein kinase-1 epsilon (CK1epsilon).

212 Conversely, pharmacological Casein Kinase-1 inhibition stabilizes REST, which in coo

213 liver nuclei all three PERs, both CRYs, and Casein Kinase-1delta (CK1delta) are present together in

214 Silencing N-myrystoyltransferase(NMT)-1 and casein-kinase-(CK)-II-alpha prevented Tat.AG- and HIV-1-

215 sucrose non-fermenting-related kinase 2, or casein kinases.

216 We have addressed this question in the casein locus containing five mammary and two non-mammary

217 t only one out of the four CTCF sites in the casein locus had a measurable in vivo activity.

218 ult1d1 promoter and several enhancers in the casein locus.

219 In this study, model casein matrices were prepared, by renneting of micellar

220 Addition of adenosine to casein medium constrains cheaters throughout growth.

221 Six weeks after sensitization to bovine casein, mice received four, monthly IN immunizations wit

222 force microscopy showed that the process of casein micelle aggregation induced by CpCP3 was similar

223 larger colloidal particle size than primary casein micelle in control MPI.

224 hey protein in the serum, and a reduction in casein micelle size (P<.05).

225 tein with the casein micelle, an increase in casein micelle size, and reductions in concentrations of

226 sociation of denatured whey protein with the casein micelle, an increase in casein micelle size, and

227 milk homogeneity, especially with respect to casein micelles and fat globules.

228 igh-pressure process to complexate bixin and casein micelles as a novel strategy for color delivery.

229 mixed suspension of native and pre-acidified casein micelles was observed using rheology.

230 In conclusion, re-assembled casein micelles with high loading efficiency show promis

231 etwork, by pretreating only a portion of the casein micelles, and modifying their colloidal calcium p

232 fat-soluble vitamin loading in re-assembled casein micelles, and to evaluate vitamin D stability of

233 r network with the presence of aggregates of casein micelles.

234 delay between NRG stimulation and peak beta-casein mRNA activity.

235 ctivated STAT5 dimer nuclear import and beta-casein mRNA export to cytoplasm affected the time delay

236 cessary for the late stage promotion of beta-casein mRNA transcription.

237 l score (SCS), lactose (%, LACT), pH and non-casein N (NCN, % of total milk N), in a cohort of 1,158

238 ics of LasR mutant invasion during growth on casein or casein plus adenosine.

239 tored by in vitro cleavage experiments using casein or E-cadherin as substrates and in the FRET pepti

240 , particularly in areas of alpha-s- and beta-casein (P<.01, false discovery rate [FDR]<.1).

241 in-derived peptides have shown that the beta-casein peptide (193-209) exhibits immunomodulatory, anti

242 ial of iron fortified goat and cow milks and casein phosphopeptides obtained from each species of mil

243 R mutant invasion during growth on casein or casein plus adenosine.

244 old sensor chip was used to immobilise alpha-casein-polyclonal antibody using EDC/NHS coupling proced

245 teolysis of milk proteins, particularly beta-casein, polymeric immunoglobulin receptor, and alpha-lac

246 10-fold increase in K(m) , it digested beta-casein poorly and bound soybean trypsin inhibitor with 1

247 Some bioactive peptides from beta-casein presented significant different abundances betwee

248 Combinatorial perturbations to dietary casein protein and psyllium fiber in parallel accounted

249 Soluble aggregate of kappa-casein protein and whey protein was suggested in alkaliz

250 The extra-casein protein sample matrix broke down more slowly than

251 vitro gastric digestion behavior of whey and casein proteins in a heat-treated semisolid real food.

252 The majority of peptides were from casein proteins, 50% representing beta-casein, with many

253 s less phosphorus and potassium than soy and casein proteins, as a supplemental protein source for MH

254 h some coalescence in the gastric phase, and casein provided better protection than whey protein agai

255 When P. aeruginosa is transferred daily on casein, QS mutants emerge.

256 Growth of P. aeruginosa on casein requires QS-regulated production of an extracellu

257 moieties were observed for lysozyme and beta-casein, respectively in various heating conditions.

258 The casein-rich (>=50%) samples showed the formation of soli

259 the protein hydrolysates was present in the casein sample while the lowest amount of protein was fou

260 t metal ions and was able to hydrolyze kappa-casein similarly to bovine chymosin.

261 eived a 3-wk isocaloric supplementation with casein, soy protein, or maltodextrin as a control.

262 Total IgE and IgM, CM-specific IgG, and casein-specific IgE, IgG, IgG4, and IgM levels, as well

263 lenge was associated with the suppression of casein-specific Th2 immunity and induced Th1 and Th17 cy

264 ion of IL-10 and higher secretion of IL-9 by casein-stimulated T cells were found in patients with CM

265 response and TH2 cytokines production after casein stimulation in children with CM-FPIES, results we

266 omplexation of C3G molecules in the internal casein structure.

267 Proliferating casein/T-effector cell counts were measured in children

268 the presence of equal or greater amounts of caseins than whey proteins (80:20, 60:40 and 50:50), whi

269 ike protease that can generate peptides from casein that have a bacteriostatic effect.

270 were more resistant to pepsin digestion than caseins; this is related with a higher satiety capacity.

271 Three proteins (kappa-casein, timothy grass pollen extract, polyclonal anti-hu

272 irs sharing at least one epitope in alphas1 -casein to 73% in kappa-casein.

273 evaluation of its ability to hydrolyze milk casein to generate antimicrobial peptides.

274 milk protein solutions containing different casein to whey protein ratios of 80:20, 60:40, 50:50 and

275 ion, irrespective of lactose content or beta-casein type.

276 e to either lactose or differing bovine beta-casein types.

277 Compositional variation, such as beta-casein variants, in milk may impact diagnostic efficacy.

278 phenylalanine appearance rate from ingested casein was 118% higher after RYGB (P < .01), but similar

279 No intact casein was detected in the jejunal nor in the in vitro s

280 306 mmol N) simulating the AA composition of casein was included.

281 o-reactivity of hydrolyzed and repolymerized casein was negligible compared to native casein.

282 The degree of hydrolysis (DH) of casein was observed to be the highest throughout the cou

283 Dephosphorylation (DP) of casein was performed using bovine alkaline phosphatase.

284 ore proteolytic than chymosin and that kappa-casein was proteolyzed.

285 The aggregation of dissociated caseins was not observed for the GA treatment based on t

286 Using a model substrate (casein), we report cryo-electron microscopy structures a

287 ratios ((13)C/(12)C) of cheese and extracted casein were corroborated through statistic supervised te

288 Caseins were hydrolyzed in the preferential order beta->

289 ry, numerous released peptides from the four caseins were identified at the end of storage.

290 t caseins were present in all samples, while caseins were observed up to 60 min of gastric in vitro d

291 In pig duodenum, small amounts of intact caseins were present in all samples, while caseins were

292 was to compare the effect of milk proteins (casein, whey protein) and surfactants (Citrem, Tween 20)

293 of cow's milk protein) were produced with a caseins: whey proteins ratio of 40:60, differing only by

294 model system (8% total protein) with varying casein:whey protein ratios (0:100, 20:80, 50:50 and 80:2

295 thway leads to expression of genes like beta-casein which promote cell differentiation.

296 In this study, the interactions of beta-casein with curcumin and vitamin D3 under the same physi

297 a2 Milk (A2M; exclusively containing A2 beta-casein with lactose), or lactose-free conventional milk

298 vely hydrolyzed bovine proteins (whey and/or casein) with use of any other formula for CMA management

299 from casein proteins, 50% representing beta-casein, with many peptides unique to each species.

300 onal milk (LF-CON; containing A1 and A2 beta-casein without lactose).