ライフサイエンスコーパス: demineralize

1 s C (static model) or cyclically immersed in demineralizing (0.5 h) and remineralizing solutions (11.

2 The radius was significantly less demineralized (4 +/- 2%; p <= 0.003) than the other site

3 bacteria to flourish and to generate enamel-demineralizing acids.

4 as bone morphogenetic proteins (BMPs), from demineralized adult bone matrix.

5 s study aimed to investigate the role of two demineralizing agents in the repair of the 8-mm critical

6 oup) or the combination 70% mineralized: 30% demineralized allograft (test group).

7 ible presence of residual bisphosphonates in demineralized allograft bone from bisphosphonate-using t

8 one formation with a combination mineralized/demineralized allograft compared to 100% mineralized FDB

9 icance of using a mixture of mineralized and demineralized allografts in combination (M) or not (NM)

10 apy by means of a mixture of mineralized and demineralized allografts is effective in clinically reso

11 Nucleation studies on demineralized and deproteinized dentin wafer is a powerf

12 Demineralized and hematoxylin and eosin-stained tissues

13 content did not differ significantly between demineralized and non-demineralized samples.

14 en enamel sections from various mammals were demineralized and stained for transmission electron micr

15 ions which will improve our understanding of demineralizing and remineralizing reactions on a standar

16 ximal surfaces visibly 6 intact, 16 slightly demineralized, and 29 distinct carious changes were moun

17 The mandibles were removed, demineralized, and embedded in paraffin.

18 60 seconds (TCN60); blood clot (NC), and non-demineralized autogenous bone (PC).

19 G of 3.88 increasing total oxygen content in demineralized biochars.

20 acquire the cellular machinery necessary to demineralize bone and digest its interwoven extracellula

21 cted for treatment with either bioabsorbable demineralized bone allograft membrane or ePTFE membrane.

22 ure to measure the binding of fibronectin to demineralized bone and tooth, we have found that 1 micro

23 shown that the type I collagen of tendon and demineralized bone both calcify rapidly in serum.

24 icity, and extent of the re-calcification of demineralized bone in serum suggest that the serum calci

25 matrix (DBX) paste and putty are particulate demineralized bone matrices in a 2% or 4% hyaluronate ca

26 Demineralized bone matrix (DBM) and guided tissue regene

27 Demineralized bone matrix (DBM) is used for the treatmen

28 Demineralized bone matrix (DBM) is widely used in the re

29 to determine whether alendronate remained in demineralized bone matrix (DBM) procured from donors wit

30 histologically and clinically compare human demineralized bone matrix (DBM) putty with one size of b

31 djunctive effect of allogenic, freeze-dried, demineralized bone matrix (DBM) to guided tissue regener

32 ze-dried bone allograft (DFDBA), also called demineralized bone matrix (DBM), is osteoinductive but r

33 ive to decellularized adult tissues, such as demineralized bone matrix (DBM).

34 Demineralized bone matrix (DBX) paste and putty are part

35 s and biocompatibility of growth factor-rich demineralized bone matrix (GDBM) by comparing with cance

36 in conjunction with a combination of assayed demineralized bone matrix and cortical cancellous chips

37 l calcium levels and particle size of ground demineralized bone matrix and its osteoinductive potenti

38 Sockets were grafted with demineralized bone matrix and mineralized particulate al

39 Slightly demineralized bone matrix and overly demineralized bone

40 Some regions of the demineralized bone matrix are highly fibrous, and the ma

41 ting using a mixture of human allograft with demineralized bone matrix human allograft putty, and the

42 Implantation of demineralized bone matrix into subcutaneous sites result

43 In summary, demineralized bone matrix paste, demineralized bone matr

44 lightly demineralized bone matrix and overly demineralized bone matrix possessed a degree of osteoind

45 In summary, demineralized bone matrix paste, demineralized bone matrix putty, and demineralized freez

46 s lifts with inorganic bovine bone matrix or demineralized bone matrix were included, and 1,536 peria

47 lated from a bacterial collagenase digest of demineralized bone matrix.

48 in can saturate approximately 1 mg of either demineralized bone or demineralized tooth powder.

49 We report a demineralized bone paper (DBP)-based osteoblast culture

50 An osteoid-inspired biomaterial-demineralized bone paper-directs osteoblasts to deposit

51 cally or systemically and in conjuction with demineralized bone powder (DBP), tricalcium phosphate (T

52 lage matrix genes after 7 days' culture with demineralized bone powder (DBP).

53 present studies show for the first time that demineralized bone re-calcifies rapidly when incubated a

54 ent of the serum-induced re-calcification of demineralized bone suggest that the serum calcification

55 ticles and the presence of apolipoprotein in demineralized bone tissue suggest the possibility that t

56 The osteoinductive potential of ground demineralized bone varied relative to the particle size

57 In addition, mineralized and demineralized bone was soaked in alendronate at concentr

58 rotease isolated from osteogenic extracts of demineralized bone, is capable of cleaving the C-propept

59 In summary, we conclude that HCl best demineralizes bone, leaving the well-preserved collagen

60 Avid calcium retention by demineralized bones (hungry bone syndrome) is well-recog

61 other that applies hydroxylamine directly on demineralized bones and teeth.

62 a 4.0-M guanidinium hydrochloride extract of demineralized bovine dentin matrix.

63 es, but it generated abnormal pits that were demineralized but filled with undegraded matrix.

64 aman spectroscopy results show that the bone demineralized by the CH(2)O(2) agent has highest collage

65 an alternative to autogenous bone grafts and demineralized cadaver bone to support the attachment, sp

66 Partially demineralized collagen matrices (DCMs) prepared from hum

67 entin without causing collapse of completely demineralized collagen matrix that adversely affects res

68 bound to immobilized type I collagen and on demineralized collagen wafers.

69 crown = 140.4 +/- 48.6/root = 95.9 +/- 26.1; demineralized crown = 16.6 +/- 6.3/root = 29.0 +/- 12.4)

70 crown = 73.1 +/- 21.2/root = 63.2 +/- 22.6; demineralized crown = 9.0 +/- 3.9/root = 16.2 +/- 8.0).

71 unerupted human 3rd molar, one fraction was demineralized, dehydrated, and infiltrated with Single B

72 m, we show that amphiphilic MDP can not only demineralize dentin by releasing protons as an acidic fu

73 MDP in the free state can demineralize dentin substrates by releasing protons, whe

74 onding as compared with adhesive-infiltrated demineralized dentin (AIDD) produced under controlled co

75 alization of collagen to stimulate repair of demineralized dentin and bone tissue engineering are als

76 The use of TA affected the properties of demineralized dentin by increasing its stiffness.

77 be extraordinarily efficient in stabilizing demineralized dentin collagen against enzymatic challeng

78 is rich in proanthocyanidins, could protect demineralized dentin collagen from collagenolytic activi

79 horic acid, 30 sec of GSE treatment rendered demineralized dentin collagen inert to bacterial collage

80 The results showed that immersion of demineralized dentin in acidic solutions caused tension

81 ng effect on the stiffness of the completely demineralized dentin matrices.

82 4 MPa) was sufficient to cause a collapse of demineralized dentin matrix.

83 at acidic solutions can cause contraction of demineralized dentin matrix.

84 enetration of adhesive resin into previously demineralized dentin may contribute to the lower bond st

85 Young's modulus mapping of QCMC-demineralized dentin obtained by AFM-based amplitude mod

86 as to evaluate the degradation of completely demineralized dentin specimens in contact with a filler-

87 showed an ability to preserve the partially demineralized dentin that showed a reduced phosphate con

88 B) to ethylenediaminetetraacetic acid (EDTA)-demineralized dentin with or without zoledronate-contain

89 roteases and enables air-drying of partially demineralized dentin without causing collapse of complet

90 showed relative intensity ratios similar to demineralized dentin without contribution from the miner

91 from adhesive infiltration of superficially demineralized dentin, it is not clear how well the resin

92 mediated degradation and remineralization of demineralized dentin.

93 Collagen scaffold models and demineralized dentine disc samples were prepared and exp

94 Imaging of the demineralized discs displayed the same glassy amorphous

95 otes effective remineralization of S. mutans-demineralized enamel compared with controls.

96 ved intra-oral removable appliances carrying demineralized enamel samples after application of elmex

97 crystalline calcium phosphate carbonate over demineralized enamel surfaces and reduced surface roughn

98 hat the optical scattering power (Sp) of the demineralized enamel would provide a quantitative estima

99 ealthy enamel, healthy dentin and damaged or demineralized enamel) to be easily distinguished from on

100 eleasing control composite was placed on the demineralized enamel, along with control enamel without

101 el surfaces and reduced surface roughness of demineralized enamel.

102 ved the mechanical and elastic properties of demineralized enamel.

103 Human enamel specimens were demineralized, exposed briefly to 8DSS solution, and the

104 ther mineralized FDBA or a 70:30 mineralized:demineralized FDBA combination allograft in AR preservat

105 etween bone graft and receptor bone bed were demineralized for 15, 30, and 60 seconds with TCN (50 mg

106 Bone surfaces demineralized for 30 seconds increased the spreading of

107 Samples demineralized for 30 seconds showed greater area covered

108 10) received open flap debridement (OFD) and Demineralized Freeze Dried bone Allograft (DFDBA) while

109 one Allograft with Open flap debridement and Demineralized Freeze Dried bone Allograft alone in the m

110 The lesion arose after demineralized freeze dried bone allograft and an expande

111 Open flap debridement, Amniotic membrane and Demineralized Freeze Dried bone Allograft with Open flap

112 on-porous (NP) teflon barrier membranes plus demineralized freeze dried bone allografts (DFDBA) in Cl

113 ects were randomly assigned to three groups: demineralized freeze dried bone with platelet-rich plasm

114 ng therapies: collagen membrane (GTR), human demineralized freeze-dried bone (DFDB) grafting (BG), co

115 A-TCP microporous disk, HA-TCP granules, and demineralized freeze-dried bone (DFDB).

116 either autologous intra-oral bone (6 sites), demineralized freeze-dried bone (DFDBA) (7 sites), or mi

117 th either xenogenic bovine bone (n=5 sites), demineralized freeze-dried bone (DFDBA) (n=3 sites), aut

118 Demineralized freeze-dried bone (DFDBA) is the most wide

119 The graft materials tested were 1) canine demineralized freeze-dried bone allograft (cDFDBA); 2) b

120 barrier containing 4% doxycycline hyclate + demineralized freeze-dried bone allograft (DFDBA) (BG+PD

121 valuated histologic wound healing when using demineralized freeze-dried bone allograft (DFDBA) alone,

122 ollowing guided bone regeneration (GBR) with demineralized freeze-dried bone allograft (DFDBA) and a

123 Human demineralized freeze-dried bone allograft (DFDBA) and en

124 Allografts, such as demineralized freeze-dried bone allograft (DFDBA) and mi

125 oxyapatite bone matrix (ABM) was compared to demineralized freeze-dried bone allograft (DFDBA) and op

126 d bone fill of periodontal IBDs treated with demineralized freeze-dried bone allograft (DFDBA) compar

127 ddition of enamel matrix derivative (EMD) to demineralized freeze-dried bone allograft (DFDBA) compar

128 l of 110 intrabony lesions were treated with demineralized freeze-dried bone allograft (DFDBA) follow

129 bioabsorbable membrane in combination with a demineralized freeze-dried bone allograft (DFDBA) for th

130 ose of this study was to evaluate the use of demineralized freeze-dried bone allograft (DFDBA) in com

131 The use of demineralized freeze-dried bone allograft (DFDBA) in per

132 was to compare the use of bioactive glass to demineralized freeze-dried bone allograft (DFDBA) in the

133 ctiveness of DBX paste and putty compared to demineralized freeze-dried bone allograft (DFDBA) in the

134 Demineralized freeze-dried bone allograft (DFDBA) is wid

135 ation of enamel matrix derivative (EMD) with demineralized freeze-dried bone allograft (DFDBA) may im

136 graft of freeze-dried bone allograft (FDBA)/demineralized freeze-dried bone allograft (DFDBA) mixed

137 sed in combination with a composite graft of demineralized freeze-dried bone allograft (DFDBA) mixed

138 matrix derivative (EMD) combined with either demineralized freeze-dried bone allograft (DFDBA) or fre

139 either a polylactide bioabsorbable membrane, demineralized freeze-dried bone allograft (DFDBA) plus a

140 Demineralized freeze-dried bone allograft (DFDBA) remain

141 The osseous defects were then filled with demineralized freeze-dried bone allograft (DFDBA) satura

142 ostimplantation of a bioactive glass (BG) or demineralized freeze-dried bone allograft (DFDBA) to an

143 fate dihydrate, as a binder and barrier, and demineralized freeze-dried bone allograft (DFDBA) to pol

144 f the wide variation in the ability of human demineralized freeze-dried bone allograft (DFDBA) to rep

145 bsorbable barrier device in combination with demineralized freeze-dried bone allograft (DFDBA) to the

146 of using enamel matrix derivative (EMD) with demineralized freeze-dried bone allograft (DFDBA) to tre

147 COMMERCIAL PREPARATIONS OF HUMAN DEMINERALIZED freeze-dried bone allograft (DFDBA) vary i

148 Demineralized freeze-dried bone allograft (DFDBA), also

149 eointegration: barrier membrane therapy plus demineralized freeze-dried bone allograft (DFDBA), membr

150 nts were treated with open flap debridement, demineralized freeze-dried bone allograft (DFDBA), or a

151 als, including a natural bone mineral (NBM), demineralized freeze-dried bone allograft (DFDBA), or a

152 ing a bioabsorbable membrane with or without demineralized freeze-dried bone allograft (DFDBA), or en

153 polytetrafluoroethylene (ePTFE) membrane and demineralized freeze-dried bone allograft (DFDBA).

154 r to enhance the bone induction ability of a demineralized freeze-dried bone allograft (DFDBA).

155 nt, flap curettage (F/C) or debridement plus demineralized freeze-dried bone allograft (DFDBA).

156 s were concurrently grafted with particulate demineralized freeze-dried bone allograft (DFDBA).

157 non-molar teeth and ridge preservation using demineralized freeze-dried bone allograft (DFDBA).

158 ed in post-extraction sockets augmented with demineralized freeze-dried bone allograft (DFDBA).

159 ination allograft of 70% mineralized and 30% demineralized freeze-dried bone allograft (FDBA) evaluat

160 n capacity of a commonly used GTR procedure (demineralized freeze-dried bone allograft [DFDBA] and an

161 ne whether the addition of bone graft (i.e., demineralized freeze-dried bone allograft [DFDBA]) signi

162 paste, demineralized bone matrix putty, and demineralized freeze-dried bone allograft all demonstrat

163 with 50 mg/ml tetracycline (DFDBA + TCN); 2) demineralized freeze-dried bone allograft alone (DFDBA);

164 ium phosphate) are generally comparable with demineralized freeze-dried bone allograft and GTR and su

165 ination allograft of 70% mineralized and 30% demineralized freeze-dried bone allograft at 4 months (s

166 r dermal matrix as a barrier membrane with a demineralized freeze-dried bone allograft has been previ

167 the addition of enamel matrix derivative to demineralized freeze-dried bone allograft may enhance os

168 The purpose was to evaluate the use of demineralized freeze-dried bone allograft reconstituted

169 assigned to one of the following groups: 1) demineralized freeze-dried bone allograft reconstituted

170 rs when enamel matrix derivative is added to demineralized freeze-dried bone allograft.

171 r dermal matrix as a barrier membrane with a demineralized freeze-dried bone allograft.

172 ion in human extraction sockets treated with demineralized freeze-dried bone allografts (DFDBA) and c

173 The clinical efficacy of demineralized freeze-dried bone allografts (DFDBA) for r

174 Mineralized and demineralized freeze-dried bone allografts (FDBAs) are u

175 ic voids that allowed for penetration of the demineralizing gel.

176 nd overlying soft tissues were processed for demineralized histologic analysis.

177 y was to investigate the remineralization of demineralized human enamel in vitro via a nanocomposite

178 te (P = 0.03) than did patients treated with demineralized human matrix.

179 ntral region of each specimen was completely demineralized in EDTA.

180 Dentin beams were totally demineralized in H3PO4 (10%) and placed in direct contac

181 nvasion defects using either a bioabsorbable demineralized laminar bone allograft membrane or a non-r

182 tion and adhesive penetration throughout the demineralized layer and tubules.

183 Smear layer/demineralized/mineralized dentin interfaces were analyze

184 GAGs were selectively removed from demineralized mouse periodontal sections via enzymatic d

185 in demineralized samples in relation to non-demineralized ones, reaching the highest level after 90

186 nuous remodeling, in which bone-resorbing or demineralizing osteoclast cells remove bone calcificatio

187 than in those demineralized with TCN or non-demineralized (P < 0.05).

188 activity was detected only within completely demineralized phosphoric acid-etched dentin, with values

189 Even the most demineralized pink zone contained considerable residual

190 vr1-mutant mice formed large osteoclasts and demineralized pits, suggesting that BMP signaling throug

191 shown to adhere preferentially to partially demineralized root surfaces with exposed type I collagen

192 , pH 1): 15, 30, 90, and 180 seconds and non-demineralized samples (control).

193 In contrast, simple reflectance of the demineralized samples correlated poorly with deltaZ (r2

194 The sulfur (S) content was increased in demineralized samples in relation to non-demineralized o

195 of comparison, mineral loss (deltaZ) of the demineralized samples was determined by the use of a mic

196 significantly between demineralized and non-demineralized samples.

197 Five-mum-thick demineralized sections of the samples were stained with

198 The most demineralized sites after 21 days differed for each of t

199 fect of the remineralization protocol on the demineralized slabs was expressed as a percentage of min

200 xtracted human molars with the use of a pH 4 demineralizing solution.

201 (C(org)) and organic N (N(org)) recovery of demineralized SOM concentrates was significantly increas

202 The demineralized specimens showed significantly greater ten

203 Totally EDTA-demineralized specimens were infiltrated with Res.A or R

204 ed to study similar molar tissues in the non-demineralized state.

205 , during normal bone remodeling, osteoclasts demineralize the extracellular matrix, leaving resorptio

206 ve systems use some sort of pre-treatment to demineralize the first few microns of the dentin surface

207 ay be retained and, thus, continue to affect/demineralize the surrounding dentin.

208 abolic acids produced by mutans streptococci demineralize the tooth surface and lead to dental caries

209 It is demineralized, theoretically, to expose osteoinductive o

210 ree of osteoinductive potential whereas bone demineralized to levels of approximately 2% residual cal

211 Enamel slabs were demineralized to produce artificial white spots.

212 imately 1 mg of either demineralized bone or demineralized tooth powder.

213 mposite is promising for remineralization of demineralized tooth structures.

214 l acidogenic component of dental plaque that demineralizes tooth enamel, leading to dental decay.

215 ablishes a chronic inflammatory process that demineralizes trabecular cancellous bone.

216 This study compared demineralized-unicortical-ilium-strips (DUIS) and an exp

217 Specimens were demineralized using acidified gel (pH = 4.5) for 5 wk an

218 e composition and structure of cortical bone demineralized using several protocols: ethylene-diamine-

219 s to bone fragments (whether freeze-dried or demineralized) was significantly greater than to hydroxy

220 Experimental Forest (HBEF) will approximate demineralized water within one to three decades.

221 wastewater), and low priority (fresh water, demineralized water, waste gas, and electricity).

222 Demineralized water, water with increased electrical con

223 that the surfaces of the control group were demineralized, whereas the surfaces of the S-PRG and bor

224 Mature Lytechinus variegatus teeth were demineralized with 0.6 N HCl after prior removal of non-

225 Active caries were demineralized with 1% carbopol solution for 3 (A3), 5 (A

226 nimals had the graft-bed contacting surfaces demineralized with 50% citric acid (pH 1.0) for 3 minute

227 igher area of newly formed bone in specimens demineralized with CA than in those demineralized with T

228 oups as follows: particulate autogenous bone demineralized with citric acid for 15 seconds (CA15), 30

229 pecimens demineralized with CA than in those demineralized with TCN or non-demineralized (P < 0.05).

230 seconds (CA60); particulate autogenous bone demineralized with tetracycline hydrochloride for 15 sec

231 and distribution of adhesive resin into the demineralized zone are a function of the conditioner use