ライフサイエンスコーパス: carbon black

1 Prussian blue analogue, which is adsorbed on carbon black.

2 A/g) than the NPs deposited on conventional carbon black (0.14 s(-1) and 126 A/g, respectively) at a

3 fferent forms of carbon nanotubes, graphene, carbon black, Ag, and fumed SiO2 nanoparticles.

4 s usually divided by the analysis of organic carbon, black (also called elemental) carbon, and inorga

5 A range of different labels (colloidal gold, carbon black and magnetic nanoparticles) was compared as

6 aic efficiency when deposited as an ink with carbon black and Nafion.

7 nd their kinetic activities were compared to carbon black and platinum catalysts in rotating disk ele

8 ions of particle mass <2.5 microm (PM(2.5)), carbon black, and gaseous air pollutants were measured.

9 nk composed of the prototype TAML activator, carbon black, and Nafion and the subsequent use of this

10 ormulation based on carboxymethyl cellulose, carbon black, and vapor ground carbon fibers seems to be

11 graphene oxide (GO), carbon nanotubes (CNT), carbon blacks, and solvent, as well as polymers and othe

12 He) and support identity (gamma-Al(2)O(3) or carbon black) are systematically investigated.

13 th muscle actin in pleural thickening in the carbon-black bleomycin mouse model.

14 s applied to aqueous adsorption on activated carbon, black carbon, multiwalled carbon nanotubes, and

15 Functionalized carbon black (CB) nanoparticles were found to be nontoxi

16 To enhance the performance of AC cathodes, carbon black (CB) was added into AC at CB:AC ratios of 0

17 mposite materials is prepared by well-mixing carbon black (CB) with Pt-loaded reduced graphene oxide

18 The effect of carbon black (CB), a universal constituent of smoke deri

19 This study, using carbon black (CB, 14 nm) nanoparticles as a model, aimed

20 PSS detector array was compared to that of a carbon black composite array for a broadly construed set

21 The carbon black composite array out-performed the PEDOT-PSS

22 tes and polar/nonpolar analytes than did the carbon black composite array.

23 ition of PEDOT-PSS composites to an array of carbon black composite detectors therefore can produce i

24 ese issues, a polymeric ionic liquid-Super P carbon black composite has been formulated.

25 rmance of typical insulating organic polymer-carbon black composite vapor detectors.

26 asurements and dc resistance measurements on carbon black composites of these same polymers have been

27 sisting of linear poly(ethylenimine) (1-PEI)-carbon black composites showed an approximately 10(3) in

28 S composites produced smaller responses than carbon black composites when exposed to nonpolar analyte

29 produce a series of electrically conducting carbon black composites whose resistance is sensitive to

30 c properties of Pt nanoclusters supported on carbon black contrast markedly with those of the Pt/gamm

31 ement of the far-field thermal emission of a carbon-black emitter having an emissivity of 0.85.

32 to polar analytes than did the corresponding carbon black filled polymer composite detectors.

33 neously on polymer films that do not contain carbon black filler to relate the QCM frequency change a

34 The electrical conductivity of different carbon blacks (FW 200, lamp black 101, Printex 30, Print

35 a tandem cartridge consisting of graphitized carbon black (GCB) and primary-secondary amine sorbent (

36 dary amine modified silica (PSA)/graphitized carbon black (GCB) combination SPE column.

37 Graphitized carbon black (GCB) has been employed for extraction of s

38 Several SPE sorbents such as graphitised carbon black (GCB), primary secondary amine (PSA), C(18)

39 tively), and by 90% compared to conventional carbon black (i.e., Vulcan XC-72) anode.

40 Nanoparticles of carbon black in cigarette smoke trigger inflammation in

41 hases driven by conductive carbon additives (carbon black) in a common nonaqueous electrolyte.

42 esistance changes have been investigated for carbon black-insulating polymer composite vapor detector

43 The carbon black-labeled peptide-VTX nanopeptamers showed gr

44 re we study the impact of surface-engineered carbon-black materials on brine shrimp (Artemia francisc

45 These data demonstrate that carbon black nanoparticle exposure activates caspase 1,

46 The cell death that occurred with carbon black nanoparticle exposure was identified as pyr

47 -1 derived from hydrothermal synthesis using carbon black nanoparticle templates, and the catalytic a

48 of a screen-printed electrode modified with carbon black nanoparticles (CBNPs) leads to the quantifi

49 highly controlled shock waves, we show that carbon black nanoparticles activated by femtosecond lase

50 In particular, carbon black nanoparticles are found in many different e

51 effective solid system tested in this study, carbon black nanoparticles functionalised with poly(ethy

52 LL-37 was exposed to carbon black nanoparticles in vitro, and the antibacteri

53 e and primary human alveolar macrophages) to carbon black nanoparticles induces pyroptosis, an inflam

54 hat interaction between the laser energy and carbon black nanoparticles may generate photoacoustic fo

55 these effects was seen in mice that inhaled carbon black nanoparticles or a lower dose of nanotubes

56 Exposure of macrophages to carbon black nanoparticles resulted in inflammasome acti

57 Previous studies have shown that exposure of carbon black nanoparticles to nanosecond pulsed near-inf

58 from male C57BL/6 mice exposed to ultrafine carbon black nanoparticles, a model of chronic obstructi

59 tudy, we show that insoluble nanoparticulate carbon black (nCB) accumulates in human myeloid dendriti

60 of mice exposed to smoke or nanoparticulate carbon black (nCB) through a mechanism that involved the

61 nterparticle electronic connectivity via the carbon black network, the smaller particles lithiate fir

62 ca dioxide (SiO2), diesel engine-derived and carbon black NPs, which induced cell death.

63 edia than Fe(3)O(4) NPs supported on N-doped carbon black or N-doped graphene sheets, highlighting th

64 Limits of detection for DMMP on unoptimized carbon black/ organic polymer composite vapor detectors

65 ous carbon supports (for example, commercial carbon black particles, carbon nanotubes, and graphene s

66 rity of the circle of Willis was examined by carbon black perfusion of the vasculature.

67 y of the circle of Willis was recorded using carbon black perfusion.

68 e pulsed waves of ultrasound, generated by a carbon black/polydimethylsiloxane (PDMS)-photoacoustic l

69 Response data were collected for a carbon black-polymer composite electronic nose array dur

70 plasticizer diethylene glycol dibenzoate to carbon black-polymer composites of poly(vinyl acetate) (

71 An array of 20 compositionally different carbon black--polymer composite chemiresistor vapor dete

72 n each analyte was exposed separately to the carbon black/polymer composite detectors under study.

73 e responses relative to an air background of carbon black/polymer composite vapor detectors have been

74 ial resistance responses, delta R/Rb, of the carbon black/polymer composite vapor detectors were well

75 luding carbon nanotubes, graphene oxide, and carbon black provide a range of surface topographies, po

76 y of this device is largely improved using a carbon black/Prussian Blue nanocomposite as a working el

77 Three carbon-based ENMs, namely carbon black, single wall carbon nanotube (SWCNT) and fu

78 The activity of carbon black supported catalyst mixtures on a GC RDE and

79 Here we report a carbon black-supported cost-effective, efficient and dur

80 ion-selective electrode was fabricated with carbon black supporting platinum nanoparticles (PtNPs-CB

81 f octadecylsiloxane for cleanup; graphitized carbon black was added for tomatoes).

82 ted mesoporous carbon, activated carbon, and carbon black with different pore structures and composit

83 -electrolyte interphase, initially formed on carbon black with no electrochemical bias applied, readi

84 highly dispersed palladium nanoparticles on carbon black with stabilizers and the intermetallic Cu(2