ライフサイエンスコーパス: amorphous carbon

1 tion on sustainable carbon-based electrodes (amorphous carbon).

2 Organic matter is preserved in the form of amorphous carbon.

3 r characteristics to disordered graphite and amorphous carbon.

4 mode by introducing an intermediate layer of amorphous carbon.

5 eveal the presence of calcite nanograins and amorphous carbon.

6 er molecule reaction products and ultimately amorphous carbon.

7 so illustrated by pyrolyzing SU-8 to produce amorphous carbon.

8 deposition (CVD) and graphitization of solid amorphous carbon.

9 used in a first purification step to remove amorphous carbon.

10 including graphite, diamond, fullerenes, and amorphous carbon.

11 In amorphous carbon-13-labeled PET, the statistics of the O

12 Amorphous carbon (a-C) films are characterized by extrao

13 Amorphous carbon (a-C) films are widely used as protecti

14 The evolution of the structure of amorphous carbon (a-C) films during deposition and therm

15 Amorphous carbon (a-C) has attracted considerable intere

16 scopy mapping of the wear track suggests the amorphous carbon (a-C) nature of the formed tribofilm.

17 ocrystalline diamond (UNCD) and hydrogenated amorphous carbon (a-C:H) to determine the intrinsic phot

18 rstand the atomistic structure of oxygenated amorphous carbon (a-CO(x)), an intriguing carbon-based m

19 Ws were protected from decomposition with an amorphous carbon (aC) film deposited on the surface.

20 coated with amorphous aluminum oxide (AAO), amorphous carbon (AC), parylene, poly(vinyl pyrrolidone)

21 peed centrifugation is effective in removing amorphous carbon (AC).

22 n nanometre-sized graphene quantum dots with amorphous carbon addends on the edges.

23 ature synthesis of a diamond aerogel from an amorphous carbon aerogel precursor using a laser-heated

24 The removal of amorphous carbon after indirect photoreaction was confir

25 In addition to the possibly existing amorphous carbon, an average density was estimated to be

26 ort the proposed high-pressure conversion of amorphous carbon and graphite into diamonds due to grain

27 After chemical activation process, the amorphous carbon and platelet CNFs increased the CO(2) a

28 equential fractions are purified, separating amorphous carbon and short, defective single-walled carb

29 atomic-scale structure of weakly scattering amorphous carbon and strongly scattering gold nanopartic

30 ic polymers, 23.6% were pigments, 5.50% were amorphous carbon, and 29.1% remained unidentified.

31 integration of reduced graphene oxide (rGO), amorphous carbon, and MgO nanocrystallites.

32 k SWCNTs nucleate, while small nanotubes and amorphous carbon are effectively etched away.

33 aced, submicrometer-sized spherical beads of amorphous carbon are often found on the nanotubes at the

34 Amorphous carbon as a stationary phase has at least two

35 he catholyte, lithium metal as the anode and amorphous carbon as the cathode(1-7).

36 e aquatic environment, and that the residual amorphous carbon associated with SWCNTs plays a role in

37 oS(2), together with a substantial amount of amorphous carbon attributed to base oil degradation, for

38 tput (>100-fold improvement over traditional amorphous carbon AuNP supports).

39 ic carbon provides an alternative to classic amorphous carbon-based materials that are either expensi

40 arbide by reaction between CaO particles and amorphous carbon between 1000 and 1200 degrees C.

41 tudy the physical properties of diamond-like amorphous carbon by coupling first-principles molecular

42 er studies-of transparent, nearly pure sp(3) amorphous carbon by heating fullerenes at pressures clos

43 l processing (RTP) of substrates coated with amorphous carbon (C) and nickel (Ni) thin films.

44 n bulk materials, the structure of monolayer amorphous carbon can be determined by atomic-resolution

45 res (unordered and ordered carbon nanotubes, amorphous carbon, carbon foams).

46 due to amorphous and crystalline silicates, amorphous carbon, carbonates, phyllosilicates, polycycli

47 e ordered material constructed from units of amorphous carbon clusters that was synthesized by compre

48 Amorphous carbons contain persistent free radicals that

49 NDs are small and spherical (3.7 nm) with an amorphous carbon core encapsulated inside a passivated l

50 ties of this stable, free-standing monolayer amorphous carbon could prove useful for permeation and d

51 sp(3) hybridization typical of diamond-like amorphous carbon (DLC).

52 interfaced with carbon nanotubes (CNTs) and amorphous carbon dots (a-CDs).

53 ) adsorption isotherms showed that activated amorphous carbon exhibited the best CO(2) capture capaci

54 NH2OH experiments indicates that commercial amorphous carbon exhibits a lower abundance of available

55 lat (0.43 nm of root-mean-square roughness), amorphous carbon film consisting of a mixture of sp(2)-

56 and Raman analysis revealed formation of the amorphous carbon film that facilitates easy shearing at

57 As an illustrative example, a hydrogenated amorphous carbon film was analyzed using this method and

58 onstrate the laser phase plate by imaging an amorphous carbon film.

59 basis for LC alignment layers consisting of amorphous carbon films in which orientational order near

60 -20) and Au(2057+/-45) clusters supported on amorphous carbon films.

61 on the Ga(l) electrodes were not composed of amorphous carbon from solvent decomposition.

62 Amorphous carbon, given its low friction coefficient, is

63 various carbon precursors (such as graphite, amorphous carbon, glassy carbon and C60).

64 ate graphene oxide films overlaying holes on amorphous carbon grids.

65 (3) bonds, purely sp (3)-bonded tetrahedral amorphous carbon has not yet been obtained.

66 ofibers (platelet, fishbone, and ribbon) and amorphous carbon have been measured at 26 degrees C as a

67 mation of carboxylated SWCNTs and associated amorphous carbon impurities in the presence or absence o

68 calculations of the properties of monolayer amorphous carbon, in accordance with observations.

69 conversion of other carbon allotropes, even amorphous carbons, into graphite is extremely hard.

70 In contrast, amorphous carbon is known to be very brittle and can sus

71 Free-standing monolayer amorphous carbon is surprisingly stable and deforms to a

72 ctron microscopy shows a viscous liquid-like amorphous carbon layer covering the surfaces of nanotube

73 ng resembling recently synthesized monolayer amorphous carbon (MAC), while at diamond-like densities

74 directing agents which converts to a sturdy, amorphous carbon material under appropriate heating cond

75 e the potential of both dense and nanoporous amorphous carbon materials as superior structural nanoma

76 to our knowledge, the highest density among amorphous carbon materials, and shows incompressibility

77 Biogenic amorphous carbon may serve as a conductive element to fa

78 A competitive lateral flow immunoassay using amorphous carbon nanoparticles (CNPs) and non-immunoglob

79 The amorphous carbon nanospheres were synthesized via a low-

80 ents on individual nanospheres show that the amorphous carbon nanospheres with an optimized structure

81 Amorphous carbon nanotubes (ACNTs) with diameters in the

82 lytic activation of peroxymonosulfate-inside amorphous carbon nanotubes (ACNTs), we demonstrate that

83 nation of likely local structures present in amorphous carbon nitride networks formed by triazine the

84 terface by reaction of diffused Cr atoms and amorphous carbon of MWCNTs would assist in improving the

85 asmon-conducting metal substrate with a thin amorphous carbon overlayer.

86 process needed to remove metal catalyst and amorphous carbon present in arc-derived SWNT soot.

87 A commercial sample of amorphous carbon (Printex XE2-B) was analyzed as a refer

88 with and without base washing indicate that amorphous carbon reduced the extent of aggregation cause

89 ical properties of individual, submicrometer amorphous carbon spheres that are ubiquitous in East Asi

90 The amorphous carbon structure of biochar was preserved afte

91 of zirconia nanoparticles with a solid-state amorphous carbon substrate enhances growth yield.

92 ormed in the gas phase and soft-landed on an amorphous carbon substrate.

93 ectrum reveals characteristic Raman peaks of amorphous carbon, suggesting the formation of carbon-bas

94 Tetrahedral amorphous carbon (ta-C) consists of a mixture of sp(3)-

95 egrated carbon nanostructures on tetrahedral amorphous carbon (ta-C), it is possible to take the perf

96 er with the rGO sheets and in situ generated amorphous carbon that serve as a dual carbon support and

97 ctrochemical route for the graphitization of amorphous carbons through cathodic polarization in molte

98 te significantly reduces the mass density of amorphous carbon to 0.66 ~ 0.82 g cm(-3) while the yield

99 ed with the simultaneous phase transition of amorphous carbon to a highly defective turbostratic grap

100 CO2 release, the formation of nanograins and amorphous carbon to be the result of a shock-like stress

101 Particularly, the transformation of amorphous carbon to highly graphitic carbon promoted by

102 remely long (~3 mum) and thin (~5 nm) tip by amorphous carbon to the cantilever allows us to image th

103 e-step phase transition of the material from amorphous carbon to turbostratic graphene and finally to

104 five orders of magnitude--from the lowest in amorphous carbons to the highest in graphene and carbon

105 s that encapsulate high-pressure gold via an amorphous carbon-to-diamond transition.

106 ee-standing, continuous and stable monolayer amorphous carbon, topologically distinct from disordered

107 ed van der Waals forces holding together the amorphous carbon units of biochar and C60 packing in the

108 C(60)(+) sputter crater, while considerable amorphous carbon was found in the O(2)(+) and Cs(+) sput

109 The structuration and reduction of amorphous carbon was further highlighted at 1400 degrees

110 results indicated that photoreaction of the amorphous carbon was likely involved.

111 to those of parent carboxylated SWCNTs whose amorphous carbon was removed by base washing.

112 In the reference samples, only TiO(2) and amorphous carbon were found.

113 alcite (c-axis = 17.062 A), interleaved with amorphous carbon with a nominal thickness of 8 A.

114 organic ligand decomposes and transforms to amorphous carbon with graphitic nanodomains by catalytic

115 e found that select methanogens also produce amorphous carbon with similar characteristics to the car

116 to its important applications in technology, amorphous carbon with sp(2) or mixed sp(2)-sp(3) hybridi

117 red and prepared(3,4), but synthesis of bulk amorphous carbon with sp(3) concentration close to 100%