ライフサイエンスコーパス: physical phenomena

1 dom provides a plethora of exotic phases and physical phenomena.

2 lead to the realization of several predicted physical phenomena.

3 cal and mechanical devices and display novel physical phenomena.

4 er a rare platform for realizing many exotic physical phenomena.

5 amatically when compared to macroscale fluid physical phenomena.

6 it a flexible platform for exploring exotic physical phenomena.

7 rovide a unique test bed for low-dimensional physical phenomena.

8 ems in confined geometries are host to novel physical phenomena.

9 om single ion channels, as well as for other physical phenomena.

10 ts in this system show a plethora of diverse physical phenomena.

11 ensuring the robustness of a wide variety of physical phenomena.

12 ox potential, chemical reactions and various physical phenomena.

13 ly dispersed spatial data and simulations of physical phenomena.

14 maging, microscopy, and tests of fundamental physical phenomena.

15 lays a significant role in many chemical and physical phenomena.

16 bandgap can allow for the exploration of new physical phenomena.

17 lications for our understanding of important physical phenomena.

18 levant lengths to the nanoscale produces new physical phenomena.

19 stems, and their study has shed light on new physical phenomena.

20 x and involves a large number of species and physical phenomena, a comprehensive understanding of the

21 onal materials, which often exhibit striking physical phenomena absent in their bulk form.

22 properties as well as the emergence of novel physical phenomena and device functionality.

23 extensively studied as templates for unique physical phenomena and in the design of reconfigurable e

24 ly available specimens mask many anticipated physical phenomena and limit device applications of TMDC

25 esent a new class of matter with both exotic physical phenomena and novel application potentials.

26 terest due to their richness in chemical and physical phenomena and potential for technological appli

27 f freedom, making it possible to explore new physical phenomena and to foresee novel applications in

28 tor has the potential to give rise to exotic physical phenomena and useful device applications.

29 to leverage spatial principles in simulating physical phenomena and, by extension, advance the physic

30 already demonstrated a range of fascinating physical phenomena, and have also been used in demonstra

31 Special relativity asserts that physical phenomena appear the same to all unaccelerated

32 The physical phenomena are complex and nonintuitive, and so

33 d at the quantum level, the presumption that physical phenomena are fundamentally determinate seems t

34 ffers the potential for the discovery of new physical phenomena, as well as a better understanding of

35 performance, but also prevents the study of physical phenomena associated with an extended pi-electr

36 The primary physical phenomena associated with ultrasound that are r

37 Understanding the emergent physical phenomena at surfaces requires the capability t

38 technological potential, along with the rich physical phenomena at the interface, has sparked intensi

39 abling the study of biological, material and physical phenomena at the nanometre scale.

40 ficant change in the relative proportions of physical phenomena attributed to genetic causes, but the

41 ta, indicating that the functional can cover physical phenomena behind adsorption of organic molecule

42 eting has been elaborated in studying purely physical phenomena, but there can be found therein many

43 heat currents, electric currents, and other physical phenomena by coordinate transformation methods

44 Many physical phenomena can be understood by single-particle

45 Many physical phenomena deviate from their established framew

46 rich material base for exploring many exotic physical phenomena (for example, chiral magnetic effects

47 s to experimental data on a diverse range of physical phenomena, from conductance in granular metals

48 For the first time, novel physical phenomena have been observed at these dramatica

49 It hybrids multiple physical phenomena i.e. magnetic flux leakage, induced e

50 tum spin correlations underlies a variety of physical phenomena in condensed-matter systems, potentia

51 rical breakdown is one of the most important physical phenomena in electrical and electronic engineer

52 y and document analytical laws that underlie physical phenomena in nature.

53 junctions as molecular switches, and general physical phenomena in single-molecule electronic devices

54 atic liquid crystals model a wide variety of physical phenomena in systems that rapidly switch betwee

55 ies using the combination of three different physical phenomena in the same channel of the SPR analyz

56 it coupling are known to give rise to exotic physical phenomena in transition metal oxides.

57 and heterostructures opens vistas into novel physical phenomena including magnetoelectric coupling an

58 y of oxide surfaces affects a broad range of physical phenomena, including mineral dissolution and so

59 ize area have been extensively used to model physical phenomena, including soap films, black holes, c

60 They also exhibit a variety of new physical phenomena, including suppression or enhancement

61 ferromagnetic metals and discoveries of new physical phenomena involving electron spin.

62 expanding interest in ultrafast chemical and physical phenomena, it has become important to develop t

63 Remarkably little is known about the physical phenomena leading to nucleation of new perfect

64 of two-dimensional materials have shown new physical phenomena, novel electronic and optical propert

65 hat such a model is inadequate and that many physical phenomena occur during grain boundary migration

66 Critically, the physical phenomena occurring form the basis of the model

67 include measurement error in addition to the physical phenomena of interest.

68 's magnetic field, one of the most enigmatic physical phenomena of the planet, is constantly changing

69 ivity and circular dichroism are fascinating physical phenomena originating from the interaction of l

70 Understanding physical phenomena peculiar to nanoconfined water paves

71 Knots and knotted fields enrich physical phenomena ranging from DNA and molecular chemis

72 d graphene-boron nitride layers, interesting physical phenomena ranging from Fermi velocity renormali

73 by presenting the theoretical principles of physical phenomena represented by mathematical descripti

74 ives rise to very interesting spin-dependent physical phenomena such as the Edelstein and inverse Ede

75 s have already led to the observation of new physical phenomena, such as the metal-insulator transiti

76 viour of phase is crucial for many important physical phenomena, such as, for example, the Aharonov-B

77 This review highlights the unique physical phenomena surrounding this class of polycyclic

78 de heterostructures exhibit a range of novel physical phenomena that are absent in the parent compoun

79 Among all the physical phenomena that are enabled by Weyl semimetals,

80 ure X-ray structure provide insight into the physical phenomena that control the electronic modulatio

81 ary researchers strive to understand complex physical phenomena that involve many constituents, may b

82 which are also predicted to give rise to new physical phenomena that would be absent in a planar two-

83 By invoking a more complete set of physical phenomena, this new model will enable represent

84 e but also open a route for exploring exotic physical phenomena through phonon properties in Weyl sem

85 of two-dimensional crystals, they allow rich physical phenomena to be probed at the quantum level.

86 short timescale by actively exploiting local physical phenomena to develop communities and efficientl

87 n avenue to uncover technologically relevant physical phenomena unattainable in bulk materials.

88 The main physical phenomena were water loss during grilling, and

89 that the correlation may be caused by other physical phenomena with decadal periods or by a response

90 Using CUP, we visualize four fundamental physical phenomena with single laser shots only: laser p