ライフサイエンスコーパス: tough

1 unctional materials that are both strong and tough.

2 ded nanostructures that are both precise and tough.

3 In this study, a numerical simulation code (TOUGH 2) was used to investigate the potential for detec

4 elastin, collagen and glycosaminoglycan; and tough and compliant mechanical properties.

5 Cells encapsulated in the tough and printable hydrogel maintain high viability.

6 lized cells in the stratum corneum provide a tough and resilient framework for the intercellular lipi

7 sipation during deformation, thus creating a tough and robust material.

8 compatible hydrogel system that is extremely tough and stretchable and can be 3D printed into complex

9 Recent progress on highly tough and stretchable polymer networks has highlighted t

10 namel from a fibrous composite to a complex, tough, and damage-tolerant coating on dentin.

11 dinarily strong, mollusk shells and bone are tough, and porcupine quills and feathers resist buckling

12 transport of uroplakins that assemble into a tough apical plaque, one or more layers of intermediate

13 rials that are strong, ultralightweight, and tough are in demand for a range of applications, requiri

14 up to 48% energy damping, and are nearly as tough as fibers used for bulletproof vests.

15 han the parental silkworm silk fibers and as tough as native dragline spider silk fibers.

16 b steaks in good (i.e. tender) and bad (i.e. tough) based on WBSF values and sensory scores with over

17 e designed, synthesized, and characterized a tough biodegradable elastomer from biocompatible monomer

18 There is a significant medical need for tough biodegradable polymer adhesives that can adapt to

19 sforming brittle materials into mechanically tough blends.

20 Spider silk is tough, but becomes soft when exposed to water.

21 is complex biomineral, and paves the way for tough coatings fabricated from cheap abundant materials.

22 ional academic laboratory during the current tough, competitive times.

23 f lightweight cellular materials, strong and tough composites, soft robots and autonomously shaping s

24 r, high concentration of emitters, and under tough conditions.

25 nd bond to the silk fibre surface to produce tough, custom-shaped, flexible and electrically conducti

26 these reasons, the development of strong and tough (damage-tolerant) materials has traditionally been

27 -encoded shRNAs via codelivery of inhibitory tough decoy (TuD) RNAs.

28 dexamethasone, inhibition of miR-433 using a tough decoy altered the period and amplitude of Per2 gen

29 ction of adeno-associated virus expressing a Tough-Decoy targeting miR-26a prevents Smad down-regulat

30 -associated virus (rAAV) vectors with miRNA 'tough decoys' (TuDs) to inhibit specific miRNAs.

31 miR-26a by antisense oligonucleotides or by Tough-Decoys delays differentiation.

32 Strong and tough epoxy composites are developed using a less-studie

33 s of terrestrial insects in nature, obtain a tough exoskeleton through the activity of an ancient bac

34 sonable approaches, we believe that, even in tough fiscal times, the main drivers of cardiovascular e

35 This suggests that A. africanus ate more tough foods and P. robustus consumed more hard and britt

36 of tendon and cartilage to bone is extremely tough (for example, interfacial toughness approximately

37 a facile and scalable method of fabricating tough, freestanding membranes that combine the best attr

38 rpolymer interaction is the key to forming a tough, healable, elastomeric material.

39 3D-printed structures of the tough hydrogel can sustain high mechanical loads and def

40 By adding biocompatible nanoclay, the tough hydrogel is 3D printed in various shapes without r

41 A 3D printable and highly stretchable tough hydrogel is developed by combining poly(ethylene g

42 A new type of "rigid and tough" hydrogel with excellent elasticity is designed by

43 is generally applicable to various types of tough hydrogels and diverse commonly used elastomers inc

44 The use of tough hydrogels as biomaterials is limited as a conseque

45 ed saline, and cell culture medium to afford tough hydrogels capable of withstanding >90% compressive

46 to anchor the long-chain polymer networks of tough hydrogels covalently to non-porous solid surfaces,

47 A core-clad fiber made of elastic, tough hydrogels is highly stretchable while guiding ligh

48 Triggerable tough hydrogels may be applied in myriad of applications

49 ely demonstrate the potential of triggerable tough hydrogels to serve as prolonged gastric resident d

50 The cumulative result is a series of tough hydrogels with tunable mechanical properties and t

51 scribe a novel set of materials, triggerable tough hydrogels, meeting all these requirement, supporte

52 abling injectability and cytcompatibility of tough hydrogels.

53 approximately 800 J m(-2); refs ,), yet such tough interfaces have not been achieved between syntheti

54 Nacre, or mother-of-pearl, the tough, iridescent biomineral lining the inner side of so

55 , a potential solution to fully address this tough issue is reported by developing a super-antifoulin

56 which provide a pathway to making strong and tough lightweight materials.

57 e is very successful in designing strong and tough, lightweight materials.

58 wood' and can guide the biomimetic design of tough, lightweight structures.

59 ation of smoothly curving single crystals or tough, lightweight, self-repairing skeletal elements.

60 y, binding the nanoparticles into strong and tough materials.

61 d into two experimental groups: animals with tough meat (TO) and animals with tender meat (TE).

62 The rational design of tough metallic glasses, however, remains challenging bec

63 een those of brittle ceramics and marginally tough metals.

64 will have implications in the development of tough nanostructured metals for forming operations and h

65 Strong and tough natural composites such as bone, silk or nacre are

66 al axis (the rachis) of the wild-type into a tough, non-brittle form that promoted grain retention.

67 ture-sensitive ion channel gating has been a tough nut to crack.

68 an appressorium, which is used to breach the tough outer cuticle of a rice leaf, enabling the fungus

69 on cells called appressoria to penetrate the tough outer cuticle of the rice plant Oryza sativa.

70 ucture for virtually all bacteria, forming a tough outer shell that protects the cell from damage and

71 ebrates with the greatest capacity to reduce tough plant foods orally are also the most abundant and

72 We propose that the capacity to comminute tough plant foods was critical to the diversification of

73 ly, creating coarse surfaces for pulverizing tough plants and liberating nutrients.

74 f alternating refractive index surrounding a tough polymer core.

75 Tough polymeric photodetecting fibres drawn from a prefo

76 es the ability of fishes to process hard and tough prey.

77 chemically cross-linked, highly elastic and tough protein hydrogel using a mechanically extremely la

78 formed by Bacillus subtilis are encased in a tough protein shell known as the coat, which consists of

79 rful to discover something new and to tackle tough puzzles.

80 lands face a myriad of problems that present tough research, management, and policy challenges.

81 ite general and should enable development of tough, self-healing polymers of practical usage.

82 s, so-called spidroins, into extraordinarily tough silk fibers.

83 The material is a tough solid at room temperature and below with mechanica

84 One of these was a tough sporopollenin wall that enclosed reproductive prop

85 Strong, tough, stretchable, and self-adhesive hydrogels are desi

86 ing diffuse and complex fracture patterns in tough structural composites is at last beginning to yiel

87 (2.5 mol%), yields extremely stretchable and tough supramolecular polymer networks, exhibiting remark

88 Too much dehydration resulted in tough textures and unacceptable sensory qualities for pr

89 Here we report that TOUGH (TGH) is a component of the DCL1-HYL1-SERRATE comp

90 ng carbon nanotube electrical components and tough thermoplastic elastomers.

91 Although, as Yogi Berra said, "It's tough to make predictions, especially about the future,"

92 Here, we report a strategy to design tough transparent and conductive bonding of synthetic hy

93 mniLyse device was found to effectively lyse tough-walled organisms in a very small, disposable, batt

94 This tough, waterproof layer is essential for maintaining the

95 d hearing loss is highly variable: some have tough, whereas others have tender ears.

96 nables a hybrid "dry" elastomer that is very tough with fracture energy 13500 Jm(-2) comparable to th