ライフサイエンスコーパス: black phosphorus

1 ural and electronic relatives alpha-GeSe and black phosphorus.

2 ls, like transition metal dichalcogenides or black phosphorus.

3 ive with atomically thin dichalcogenides and black phosphorus.

4 g graphene, molybdenum disulphide (MoS2) and black phosphorus.

5 o tune the electronic structure of few-layer black phosphorus.

6 ide can be used for passivation of ultrathin black phosphorus.

7 in a single-layer, two-dimensional material, black phosphorus.

8 with a tunable, direct bandgap, distinguish black phosphorus 2DEG as a system with unique electronic

9 Here, we create a 2DEG in black phosphorus--a recently added member of the two-dim

10 layed a typical I-V curve similar to that of black phosphorus and a similar mobility reaching 300 cm(

11 halcogenides, novel van der Waals materials, black phosphorus, and heterostructures.

12 this behaviour is intrinsic for single-layer black phosphorus, and originates from its puckered struc

13 and development of hexagonal boron nitride, black phosphorus, and transition metal disulfides.

14 Our study paves the way for black phosphorus applications in infrared photonics and

15 substitutional dopants in few-layer and bulk black phosphorus are calculated.

16 rientation-dependent thermal conductivity of black phosphorus are useful for designing devices, as we

17 ndent bandgap tuning properties in intrinsic black phosphorus, arising from the strong interlayer ele

18 We demonstrate printed black phosphorus as a passive switch for ultrafast laser

19 10 nm thick flake of exfoliated crystalline black phosphorus as an active channel of a field-effect

20 a Sn/SnI4 catalyst mixture has provided bulk black phosphorus at much lower pressures than those requ

21 Black phosphorus attracts enormous attention as a promis

22 ccessful synthesis in the bulk form in 1914, black phosphorus (black P) was recently rediscovered fro

23 Black phosphorus (BP) as a new 2D material has attracted

24 Lately rediscovered orthorhombic black phosphorus (BP) exhibits promising properties for

25 sotropic thermal-conductivity tensor of bulk black phosphorus (BP) for 80 </=T </= 300 K is reported.

26 Few-layer black phosphorus (BP) is a new two-dimensional material

27 2D black phosphorus (BP) nanomaterials are presented as a d

28 an ultra-low contact resistance few-layered black phosphorus (BP) transistor with metallic PGex cont

29 The limited stability of the surface of black phosphorus (BP) under atmospheric conditions is a

30 isotropic thermal conductivity of passivated black phosphorus (BP), a reactive two-dimensional materi

31 Few-layer black phosphorus (BP), also known as phosphorene, is poi

32 m nitride (hBN) with a few layer phosphorene black phosphorus (BP), hBN/BP/hBN heterostructures are m

33 Here we reintroduce black phosphorus (BP), the most stable allotrope of phos

34 Exfoliated black phosphorus (BP)-a layered two-dimensional semicond

35 on (SSPM) effect for solution dispersions of black phosphorus (BP).

36 -based PTAs such as graphene, Au, MoS2 , and black phosphorus (BP).

37 n and passivation of mechanically exfoliated black phosphorus (BP).

38 plane anisotropy of a flexible thin flake of black-phosphorus (BP), we devise plasma-wave, thermoelec

39 We report that few-layer pristine black phosphorus channels passivated in an inert gas env

40 Black phosphorus consists of stacked layers of phosphore

41 fabricated by ultrasonication of macroscopic black phosphorus crystals.

42 Our results shed light on black phosphorus degradation which can aid future passiv

43 y barrier heights for electrons and holes in black phosphorus devices for a large range of body thick

44 ), while the previously known alpha form and black phosphorus display the more common chair conformat

45 on of a widely tunable band gap in few-layer black phosphorus doped with potassium using an in situ s

46 Each few-layer black phosphorus exhibits a thickness-dependent unique i

47 The black phosphorus film hosting the 2DEG is placed on a he

48 tio is found to be approximately 2 for thick black phosphorus films and drops to approximately 1.5 fo

49 Surface scattering in the black phosphorus films is shown to strongly suppress the

50 ly 20 and approximately 40 W m(-1) K(-1) for black phosphorus films thicker than 15 nm, respectively,

51 Research on black phosphorus has been experiencing a renaissance ove

52 Black phosphorus has been revisited recently as a new tw

53 Layered black phosphorus has drawn much attention due to the exi

54 Lately, black phosphorus has emerged as a promising new two-dime

55 Phosphorene, a single atomic layer of black phosphorus, has recently emerged as a new two-dime

56 t-assisted exfoliation and postprocessing of black phosphorus in deoxygenated water.

57 No superconductivity could be achieved for black phosphorus in its normal orthorhombic form, despit

58 The use of anisotropic layered black phosphorus in polarization-sensitive photodetectio

59 Here, the authors demonstrate a stable black phosphorus ink suitable for printed ultrafast lase

60 Here we show a black phosphorus ink that can be reliably inkjet printed

61 Recently rediscovered black phosphorus is a layered semiconductor with promisi

62 Black phosphorus is a two-dimensional material of great

63 Ultrathin black phosphorus is a two-dimensional semiconductor with

64 Black phosphorus is also known to be a superconductor un

65 Black phosphorus is an emerging layered material.

66 Black phosphorus is an infrared layered material.

67 anopatterning and layer-by-layer thinning of black phosphorus is demonstrated with conductive atomic-

68 Following encapsulation, the printed black phosphorus is stable against long-term (> 30 days)

69 However, environmental stability of black phosphorus is still a major issue, which hinders t

70 ional semiconductors such as atomically thin black phosphorus, is significantly affected by the elect

71 opposite potentials on the opposite ends of black phosphorus macroparticles thereby leading to its d

72 ydrogen evolution reaction (HER) relative to black phosphorus macroparticles.

73 values fall between those of alpha-GeSe and black phosphorus, making beta-GeSe a promising candidate

74 The tunable band structure of black phosphorus may allow great flexibility in design a

75 thermal conductivity of suspended few-layer black phosphorus measured by micro-Raman spectroscopy.

76 A bifunctional separator modified by black-phosphorus nanoflakes is prepared to overcome the

77 Here we fabricate black phosphorus nanoparticles (BP NPs) by solution base

78 We utilize black phosphorus nanoparticles as electrocatalytic tags

79 plane thermal conductivity of single-crystal black phosphorus nanoribbons along the zigzag and armcha

80 Black phosphorus nanosheets (BPs) show great potential f

81 c basal-plane thermal conductivities of thin black phosphorus obtained from a new four-probe measurem

82 le, we trace back to the research history on black phosphorus of over 100 years from the synthesis to

83 sm in a transistor channel made of flakes of black-phosphorus or InAs nanowires.

84 A black phosphorus photodetector is utilized to investigat

85 the operational wavelength range of tunable black phosphorus photonic devices, but also pave the way

86 Our results, coupled with the fact that black phosphorus possesses anisotropic energy bands with

87 platform for printed devices.Atomically thin black phosphorus shows promise for optoelectronics and p

88 The first black-phosphorus synaptic device is demonstrated, which

89 e been developed for scalable exfoliation of black phosphorus, these techniques have thus far used an

90 r measurements indicate that PMMA passivated black phosphorus thin film flakes can stay pristine for

91 In addition, black phosphorus, though rarely mentioned, is a layered

92 terial properties, and extend the topic from black phosphorus to phosphorene.

93 te a broadband photodetector using a layered black phosphorus transistor that is polarization-sensiti

94 .365 kOmegamum, which is the lowest value in black phosphorus transistors without degradation of ION/

95 Here, we spatially Raman map exfoliated black phosphorus using confocal fast-scanning technique

96 pic and strongly bound excitons in monolayer black phosphorus using polarization-resolved photolumine

97 Furthermore, leveraging a 10 nm-thick black phosphorus, we continuously tune its bandgap from

98 d study of mechanically exfoliated few-layer black phosphorus, with thickness ranging from 2 to 15 la