ライフサイエンスコーパス: tensile strength

1 n skin, along with markedly decreased tissue tensile strength.

2 fibril spacing and for maintaining cell wall tensile strength.

3 panied by a shortened lifetime and a lowered tensile strength.

4 ng that gives collagen fibrils much of their tensile strength.

5 with reduced stiffness but also reduced scar tensile strength.

6 ference may partly explain the site-specific tensile strength.

7 in the wall during growth for maintenance of tensile strength.

8 icant stability under shock, indicating high tensile strength.

9 ries in water content, refractive index, and tensile strength.

10 but have fragile skin with markedly reduced tensile strength.

11 milarly did not cause a decrease in membrane tensile strength.

12 ent increment of the elastic modulus and the tensile strength.

13 collagen fibrillogenesis, organization, and tensile strength.

14 Adding fat induced a twice decrease of the tensile strength.

15 igands that interlock as spacers and provide tensile strength.

16 aortas with increased compliance and reduced tensile strength.

17 ties, with unrivalled extensibility and high tensile strength.

18 oad (+17%, P = 0.03 vs. RestTx) and ultimate tensile strength (+10%, P = 0.15 vs. RestTx).

19 better mechanical properties, such as higher tensile strength (27.5 MPa) and elongation at break (17.

20 rm the keratinized gingiva to have increased tensile strength (3.94 +/- 1.19 MPa) and stiffness (Youn

21 lf-heal at room temperature with a recovered tensile strength 4 MPa, which is 30% of its original val

22 rial cellulose macrofibers yield record high tensile strength (826 MPa) and Young's modulus (65.7 GPa

23 it to have exceptional damage tolerance with tensile strengths above 1 GPa and fracture toughness val

24 , regulate collagen fibrillogenesis and skin tensile strength, affect tumor cell growth and invasion,

25 aintained approximately 12% of their initial tensile strength after 14 days of incubation in vitro.

26 They possess specific tensile strength and a modulus of toughness higher than

27 against a cause-effect relationship between tensile strength and cell shape.

28 wn dentin in human third molars for ultimate tensile strength and collagen biochemistry.

29 eservation significantly affects the overall tensile strength and elasticity of the vessel (i.e., Ep

30 ggrecan and hyaluronan, giving cartilage its tensile strength and elasticity.

31 Cross-linked canna starch could increase tensile strength and elongation of rice noodles.

32 At La content of 1.0 wt.%, the tensile strength and elongation of the alloy was maximum

33 Tensile strength and elongation were measured by means o

34 and a resultant decrease in the engineering tensile strength and elongation.

35 his increase in starch content increased the tensile strength and extensibility of the composite film

36 The tensile strength and failure strain of IL-1alpha-treated

37 strength, and a somewhat higher resilience, tensile strength and fatigue strength.

38 ceptional mechanical properties such as high tensile strength and great extensibility, making it one

39 ers especially in terms of low density, high tensile strength and high elongation until breaking.

40 nts, they had decreased aortic stiffness and tensile strength and hyperextensible skin with decreased

41 Tensile strength and in vitro cytotoxicity showed no sig

42 The acetylation decreased the tensile strength and increased the elongation of the fil

43 l orders of magnitude higher than the retina tensile strength and load-carrying capability reported i

44 d biomechanical properties by increasing its tensile strength and load.

45 had increased stiffness, providing a higher tensile strength and lower elongation when compared to f

46 The nanoreinforcement improved the tensile strength and modulus of films when added at up t

47 pecific elasticity, contractility, adhesion, tensile strength and occlusivity.

48 rce spectroscopy, we probed in situ both the tensile strength and off-rate of single P-selectin molec

49 f the nanowire, as well as estimates for the tensile strength and persistence length.

50 the key protein for maintaining aortic wall tensile strength and stability.

51 ffold was developed and characterized by its tensile strength and stiffness as a function of time in

52 al organization simultaneously achieves high tensile strength and strain at breaking by taking advant

53 We find that the tensile strength and the lifetime of single E-cadherin/E

54 interfacial fracture properties, such as the tensile strength and work of separation, using atomistic

55 The HMT starch increased the tensile strength and WVP of the starch films compared to

56 frame at an optimal weight ratio boosts the tensile strength and Young's modulus of the buckypaper/P

57 The average tensile strength and Young's modulus of the CNTs investi

58 hosphonate-treated bone demonstrated reduced tensile strength and Young's Modulus.

59 d to low fatigue limits (some ~1/20 of their tensile strengths) and highly variable fatigue lives.

60 rsional ultimate strength, a 29% increase in tensile strength, and a 24% increase in energy to failur

61 greater contraction, cell density, ultimate tensile strength, and elastic modulus than those seeded

62 Interstitial collagen gives fetal membranes tensile strength, and membrane rupture has been attribut

63 orders of magnitude increases in stiffness, tensile strength, and tensile toughness compared to its

64 ndings, the skin was fragile and had reduced tensile strength, and the tail was unusually flexible.

65 The Young's modulus, tensile strength, and thermal stability of the SWNT-rein

66 were found to be exceptionally strong with a tensile strength approaching that of hard ceramics.

67 F films had excellent mechanical properties (tensile strength approximately 50MPa, elongation at brea

68 The highest tensile strength (approximately 540 MPa), elongation (ap

69 alveolins, however, G2 contributes little to tensile strength, arguing against a cause-effect relatio

70 C-null adult mice had approximately half the tensile strength as that of wild-type skin.

71 mposite, in addition to a 27% improvement in tensile strength at 2 wt% addition.

72 The LV tensile strength at day 3 post-MI, however, was similar

73 n with marked hyperextensibility and reduced tensile strength at high strain but not at low strain.

74 here was no significant difference in median tensile strength between the FS and stapled groups.

75 dings, including graft alignment and motion, tensile strength between the grafts and surrounding tiss

76 ittle phenotype does not result from loss of tensile strength but from loss in flexibility that cause

77 of these mice showed increased stiffness and tensile strength but no altered collagen cross-links.

78 fibrillar orientation, packing, and ultimate tensile strength can be increased by stretching.

79 nt of wound repair, as evidenced by enhanced tensile strength, can be markedly improved in tissues tr

80 sity, high electrical conductivity, and good tensile strength, can be synthesized by a method combini

81 anisms in one material, leading to twice the tensile strength compared to a single-phase HEA with sim

82 tion and WVP values in addition to increased tensile strength compared to the native starch films.

83 Tendons have uniquely high tensile strength, critical to their function to transfer

84 e-epithelialization, collagen deposition, or tensile strength during wound closure in mice.

85 Tensile strength for gelatin film significantly increase

86 e of cellulolytic decomposition, via loss in tensile strength, for 31 streams in the Ashdown Forest o

87 Yet it has astonishing mean tensile strength ([Formula: see text]150 MPa) and fractu

88 ombine desired mechanical properties such as tensile strength, fracture toughness, and elasticity int

89 sisted nucleation of alpha resulting in high tensile strength, greater than any current commercial ti

90 Early MA silk tensile strength improved rapidly with the origin of GGX

91 0 mum and widths exceeding 50 mm and biaxial tensile strength in excess of 3 MPa, were produced by pu

92 antly accelerated closure time and increased tensile strength in mice, and was validated in the porci

93 lized specimens showed significantly greater tensile strength in root than in crown.

94 The tensile strength in the nonfixed group was significantly

95 nts were phenotypically normal and exhibited tensile strength in their inflorescence stems comparable

96 ferate in site, and assist wounds in gaining tensile strength in whole-body irradiated mice with or w

97 Direct correlation was obtained between bulk tensile strength, in vitro binding to everted intestinal

98 n content, and prevented skin thickening and tensile strength increase after bleomycin challenge.

99 Tensile strength increased from 0.018N/mm(2) in the cont

100 Symptomatic of this loss of tensile strength is an abnormal swelling of the cells at

101 The decrease of the tensile strength is coupled with a decrease of the work

102 is preserved in the final product, while the tensile strength is increased by a factor of 5.

103 , the single-phase CrMnFeCoNi alloy displays tensile strength levels of approximately 1 GPa, excellen

104 ngle-molecule force spectroscopy, we map the tensile strengths, lifetimes, and energy barriers of ind

105 n, we observed MMP-13 and COL1A2 expression, tensile strength, macrophage infiltration, and wound his

106 Tensile strength measurements of etiolated hypocotyls re

107 diminished cross-linking as detected by both tensile strength measurements using whole corneas and ge

108 microscopy, scanning electron microscopy and tensile strength measurements.

109 ions distal to the muscle and show increased tensile strength, modulus, and energy stored per unit st

110 mpressive properties such as remarkable unit tensile strength, modulus, and resistance to heat, flame

111 cadherin/gamma-catenin junction provides the tensile strength necessary to establish and maintain str

112 As a result, an ultra-high tensile strength of 2.4-2.6 GPa, a significant elongatio

113 grees C) and superior mechanical properties (tensile strength of 250 MPa) are achieved due to the int

114 The yield strength of 244 MPa and tensile strength of 274 MPa were achieved in the composi

115 shaped specimens yielded an average ultimate tensile strength of 6.60 MPa and an average failure stra

116 cell growth and migration, and enhances the tensile strength of artificial tissue constructs; ligati

117 ngth and hyperextensible skin with decreased tensile strength of both normal and wounded skin.

118 The tensile strength of CBPLP-Cys film ranged from 3.25 +/-

119 ng sulfation on CD44s modestly decreases the tensile strength of CD44s-fibrin(ogen) binding, which is

120 The apparent area expansion modulus and tensile strength of egg phosphatidylcholine (EPC) membra

121 ecombinant GH, enhances collagen content and tensile strength of engineered ligaments, in association

122 For this model to work, the tensile strength of Europa's ice crust must be less than

123 rillar bridges, which slightly decreased the tensile strength of fibers.

124 The tensile strength of fibrillar collagens depends on stabl

125 The tensile strength of films significantly decreased and el

126 ork that causes stresses far beyond the bulk tensile strength of gold.

127 asurements highlight the instability and low tensile strength of gp120-receptor bonds, uncover a syne

128 ys including time to closure of open wounds, tensile strength of healed incisional wounds, wound hist

129 However, neither the tensile strength of incisional skin wounds nor the rate

130 Tensiometry was used to measure the tensile strength of incisional wounds over a 60-day time

131 enhanced collagen accumulation and increased tensile strength of incisional wounds.

132 0 microM ouabain also increased the ultimate tensile strength of neo-tissue by 56-86% at 4 weeks.

133 ty of 2.58 mWh g(-1) or 3.6 mWh cm(-3), high tensile strength of over 1000 MPa, and bearable pressure

134 The tensile strength of P-selectin binding to a novel O-link

135 h is evident in the hardness of diamonds and tensile strength of polymeric fibres; on the single-mole

136 The tensile strength of pure EPC membrane is 9.4 mN m-1 wher

137 Even though the fast kinetics and high tensile strength of selectin-ligand bonds are primarily

138 We measured tensile strength of skin incisions at 11-21 d in both no

139 malities that coincide with markedly reduced tensile strength of the affected zoites, indicating the

140 dulus, higher stiffness modulus, and maximum tensile strength of the aorta was 34% to 38% higher than

141 glycans and sulfation also contribute to the tensile strength of the CD44-HA bond.

142 P also provides a mechanism for lowering the tensile strength of the dust layer and aiding dust relea

143 The tensile strength of the electrospun sutures decreased as

144 After ionic cross-linking, the tensile strength of the film containing 10% of DCC was i

145 bly, e.g. addition of 15% of NFC increased a tensile strength of the film from 70.02 to 97.97 MPa.

146 The tensile strength of the film was significantly lower but

147 The tensile strength of the graphene fiber reaches 1080 mega

148 while improving the collagen composition and tensile strength of the healed wound.

149 When the tensile strength of the ice is reached, a crack may occu

150 When normalized by weight, the specific tensile strength of the macrofiber is as high as 598 MPa

151 cyclic stress amplitudes much lower than the tensile strength of the materials involved.

152 to the apparent area expansion modulus, the tensile strength of the membrane decreases with the incr

153 eriments at stress amplitudes lower than the tensile strength of the metal, we report a history-indep

154 ng buffers (pH < 9) in order to preserve the tensile strength of the polyimide coated fused-silica ca

155 The tensile strength of the prepared multilayers approached

156 rm that salt bridges primarily determine the tensile strength of the protein-to-protein bond, and tha

157 The tensile strength of the resultant fibers reaches ~729 MP

158 M241385 decreased scar size and enhanced the tensile strength of the scar.

159 e and provide an explanation for the reduced tensile strength of the skin.

160 udin lowered PR to multiple agonists and the tensile strength of the TIP-FCS, 2 measurements strongly

161 onfirmed increased deformability and reduced tensile strength of their skin.

162 The stiffness and tensile strength of these multilayer composites are one

163 The tensile strength of these wounds was also reduced compar

164 t layer ("sword-in-sheath" failure), and the tensile strength of this layer ranged from 11 to 63 giga

165 o determine whether the collagen content and tensile strength of tissue-engineered ligaments is enhan

166 hat decorin incorporation increases ultimate tensile strength of uncross-linked fibers.

167 ligned cellulose nanofibers has a mechanical tensile strength of up to 350 MPa, nearly three times of

168 The constituent solids attain tensile strengths of 1.75 GPa without failure even after

169 At room temperature, the alloy shows tensile strengths of almost 1 GPa, failure strains of ap

170 Tensile strengths of approximately 1 GPa, tensile ductil

171 The tensile strengths of individual multiwalled carbon nanot

172 Tensile strengths of SPI films with rutin and epicatechi

173 pare the entry competency of viral clones to tensile strengths of the individual Env-receptor bonds o

174 Interstitial collagen confers tensile strength on the cap, as it does in skin and tend

175 For bodies with low tensile strength, our results can explain key morphologi

176 ed that Er:YAG + HF had significantly higher tensile strength (p = 0.00).

177 strength (sigma y) of 1260 MPa, and ultimate tensile strength (sigma UTS) of 1400 MPa.

178 light (UVA; RFUVA) increases corneal stroma tensile strength significantly.

179 ntiation in vitro, and exhibit stiffness and tensile strength similar to existing dental materials.

180 the production of flexible fibres with high tensile strength such as polyester and nylon.

181 In both locations, tensile strength tested perpendicular to the direction o

182 lectrophoresis, atomic force microscopy, and tensile strength testing.

183 Tensile strength tests were conducted after these experi

184 an aminoguanidine in gel electrophoresis and tensile strength tests, confirming recent findings on it

185 e less prone to rupture and display a higher tensile strength than bonds formed by classical type I n

186 er unstressed dissociation rate and a higher tensile strength than CD44s-fibrinogen but is weaker tha

187 The scalpel incisions showed higher tensile strength than free-electron laser wounds from da

188 A adhesives by ethanol wet-bonding exhibited tensile strengths that were not significantly different

189 Tensile strength then maximized in basal entelegyne spid

190 important role in the human body, providing tensile strength to connective tissues.

191 type I is a structural protein that provides tensile strength to tendons and ligaments.

192 h lay down the fibrillar collagen that gives tensile strength to the amnion.

193 by intertwining filaments confers shear and tensile strength to the caprock, contributing to its duc

194 gnal regulation of cell behavior and provide tensile strength to the fibrous cap.

195 sional organization most likely confers high tensile strength to the pulley.

196 The inner barrier grants the complex the tensile strength to withstand large pulling forces (>50

197 caused significant increase (p<0.05) in the tensile strength (TS) and elastic modulus, leading to st

198 he addition of NCs to MC films decreased the tensile strength (TS) and the elastic modulus (EM) (p<0.

199 Tensile strength (TS) and water vapour permeability (WVP

200 Grouper gelatin films had higher tensile strength (TS) and Young's modulus (YM), but lowe

201 Films containing 20% glycerol had higher tensile strength (TS) but lower elongation at break (EAB

202 The tensile strength (TS) increased up to 50% after the inco

203 eak (E) value of the films and decreased the tensile strength (TS) value of the films.

204 gle-molecule force spectroscopy to probe the tensile strength, unstressed bond lifetime, and interact

205 emia virus promoters significantly increased tensile strength up to 80% for 14-21 d after surgery.

206 m-scaled twins (0.7 nm in thickness) exhibit tensile strengths up to 3.12 GPa, near the ideal limit,

207 composing flexible elastomers with different tensile strengths using soft lithographic molding.

208 composition, peaking at 15% strain: ultimate tensile strength (UTS) and tensile modulus increased 47%

209 We present estimates of ultimate tensile strength (UTS) for two engineered beta-solenoid

210 mation of a stable scar verified by constant tensile strength values.

211 Tissue tensile strength was affected only in the 1% trypsin gro

212 Leaflet tensile strength was evaluated in vitro by using a Vitro

213 Tensile strength was quantified with a digital force gau

214 Type II collagen provides cartilage with its tensile strength, whereas the water-binding capacity of

215 property is its considerable mechanical and tensile strength, whilst being flexible enough to accomm

216 to evaluate both the elastic modulus and the tensile strength with a single mechanical test, without

217 ed greater stiffness, increased breaking and tensile strengths, yield load and yield energy, a shift

218 Compared to PVA/CNTs, the tensile strength, Young's modulus and electrical conduct

219 he water vapour permeability increased while tensile strength, Young's modulus and glass transition t

220 ons thanks to its unique combination of high tensile strength, Young's modulus and structural flexibi