ライフサイエンスコーパス: near-infrared light

1 n process can be efficiently modulated using near infrared light.

2 can improve in vivo imaging sensitivity over near infrared light.

3 s the tissue and collects the backscattered, near-infrared light.

4 tina based on 2-photon excitation (TPE) with near-infrared light.

5 ably impact the absorption and scattering of near-infrared light.

6 tment of cancer and are activated by blue or near-infrared light.

7 etect long wavelengths of red light, but not near-infrared light.

8 sonance energy transfer construct that emits near-infrared light.

9 leaving groups upon absorption of visible to near-infrared light.

10 at are reversibly regulated with far-red and near-infrared light.

11 mortem activation of different cell types by near-infrared light.

12 asis for crypsis in green foliage even under near-infrared light.

13 avelength illumination with blue and far-red/near-infrared light.

14 as photoswitches that isomerize with red and near-infrared light.

15 uator nanoparticles that are controlled with near-infrared light.

16 oxygen and fluorescence when activated with near-infrared light.

17 d reducing its ability to see and respond to near-infrared light.

18 sion upon irradiation by the dual-wavelength near-infrared light.

19 stalline elastomers are capable of absorbing near-infrared light.

20 spholipid that are permeabilized directly by near-infrared light.

21 range from the ultraviolet light through the near-infrared light.

22 Autofluorescence imaging was performed with near-infrared light.

23 gnificant extent upon excitation with red or near-infrared light.

24 zo source via tissue-penetrable, deep red to near-infrared light (600-800 nm).

25 etically active radiation to include far-red/near-infrared light (700-800 nm).

26 n 30 min a day for a few consecutive days by near infrared light (830 nm) transmitted by an array of

27 illuminated at a fluence of 2 J/cm(2) with a near-infrared light (830 nm) transmitted by an array of

28 ell-membrane-associated aminocyanines, using near-infrared light, a distinct type of molecular mechan

29 lso known for being efficient and affordable near-infrared light absorbers as well as triplet sensiti

30 Here, we introduce near-infrared light absorbing semiconducting polymer nan

31 t piezoelectricity and unprecedented visible/near-infrared light absorption with a lowest ever bandga

32 reversibly photoconvertible between red and near-infrared light-absorption states.

33 we present a hybrid detector for visible and near-infrared light achieving response times of the orde

34 Here we present a near-infrared light-activatable optogenetic system, whic

35 ny labeling in the living mouse retina using near-infrared light alone.

36 Using deep-red or near-infrared light and an osmium photocatalyst, we demo

37 be addressed remotely by deeply penetrating near-infrared light and can detect piconewton to microne

38 y for combating cancer in which AuNRs absorb near-infrared light and convert it into heat, causing ce

39 ting nanoparticles (UCNPs) can be excited by near-infrared light and emit visible light (anti-Stokes

40 nates from polaritonic hybridization between near-infrared light and nodal-line plasmons.

41 tive chromophores in cells absorb visible or near-infrared light and undergo photophysical reactions.

42 segments and minces were excited with 830 nm near-infrared light, and Raman spectra were collected wi

43 c configurations accessible with visible and near-infrared light, and these properties can be exploit

44 The resulting LEDs emit near-infrared light at 800 nm, show a peak EQE of 23.8%

45 The use of near-infrared light at 850 nm allows high depth penetrat

46 on to generate highly-directional visible to near-infrared light beams, at selected wavelengths in pr

47 Molecular detection using near-infrared light between 0.9 and 1.3 eV has important

48 n-chip optical communication technology uses near-infrared light, but visible wavelengths would allow

49 rrent studies demonstrate that absorption of near-infrared light by an intermediate state prepared vi

50 ts indicate that the bacteria can survive in near-infrared lights capturing low-frequency photons by

51 ces, such as electrically tunable, broadband near infrared lighting devices operating at room tempera

52 Invisible near-infrared light did not distort the surgical field i

53 amic therapy is demonstrated in vitro, where near-infrared light directed motion and reactive oxygen

54 techniques locally expose the brain to high near-infrared light doses, raising the concern of light-

55 active photocatalysts for the application in near-infrared-light-driven synthesis strategies.

56 ght into the FLuc-iLH(2) reaction leading to near-infrared light emission.

57 pected to be broadly applicable in solar and near-infrared light-emitting applications, where effecti

58 cence quantum yield, are employed in red and near-infrared light-emitting diodes, providing a new pla

59 lorobaculum tepidum cultures with far-red to near-infrared light-emitting diodes, we found that these

60 ity-synchronized fluorescence quenching of a near-infrared light-emitting dye by a radionuclide, (64)

61 Near infrared light exposure enables the accumulation of

62 antibody-photo absorber conjugate (APC) and near infrared light exposure, dramatically improves nano

63 xisting strategies that use tissue-penetrant near-infrared light for the targeted treatment of cancer

64 anslated in vivo by using deeply penetrating near-infrared light for transdermal stiffness modulation

65 Following excitation by near-infrared light, gold nanorods release energy throug

66 organic dyes is a clear pathway to increase near-infrared light harvesting in liquid-based dye-sensi

67 Near infrared light has also been shown to have antimicr

68 Although near-infrared light has been explored as an external exc

69 age changes in retinal reflectance of 780-nm near-infrared light imaged onto a 12-bit charge-coupled

70 fer to a single molecule induced by green to near-infrared light in the junction of a scanning tunnel

71 ecrease in reflectance in response to 780-nm near-infrared light in the retinal region exposed to a v

72 3-phosphate receptor type-2 knockout mouse, near-infrared light-induced Ca(2+) microdomains persiste

73 a infection, through lectin blocking and the near-infrared-light-induced photothermal effect of gold

74 n sulfur bacteria living at limiting red and near-infrared light intensities.

75 coherent fluctuations of multiply scattered near-infrared light intensity.

76 rt images projected from video glasses using near-infrared light into electric current to stimulate t

77 rsion nanoparticles (UCNPs) that can convert near-infrared light into visible light.

78 ER1-positive tumor cells (A431), followed by near-infrared light irradiation in vitro and in vivo.

79 Notably, Extracranial near-infrared light irradiation of the motor cortex indu

80 Near-infrared light is favourable for imaging in mammali

81 Due to reduced scattering of near infrared light, it can lesion deeper (more than 100

82 em include its sensitivity to 740- to 780-nm near-infrared light, its ability to utilize an endogenou

83 on of longer-wavelength irradiation, such as near-infrared light (lambda(irr) > 700 nm).

84 Near-infrared light (NIL) promotes a wide range of biolo

85 Near infrared light (NIR, 700-900 nm) was used to illumi

86 Near-infrared light (NIR) has attracted increasing atten

87 B and phenol removal under UV, visible, and near-infrared light (NIR) irradiation, which can be attr

88 o test our hypothesis that pretreatment with near-infrared light (NIR) via light-emitting diode (LED)

89 Near-infrared light (NIR) was used to promote this effec

90 Second-window near-infrared light (NIR2, 950-1,400 nm) is promising fo

91 clearly show that human visual perception of near infrared light occurs by two-photon isomerization o

92 oS(2)) monolayers that can guide visible and near-infrared light over millimeter-scale distances with

93 ene or rotenone) and/or treated with red and near infrared light (R-NIr).

94 -mediated stereolithographic 3D printing and near-infrared light-responsive 4D printing.

95 enetic applications in living organisms with near-infrared light-responsive upconversion nanomaterial

96 ed to 3T3x cells with altered intensities of near-infrared light scattering (I(sc)) the assay showed

97 The results suggest that near-infrared light scattering by the cells mediate a lo

98 non-human primates, of a previously reported near-infrared-light-sensitive photovoltaic subretinal pr

99 Enabling near-infrared light sensitivity in a blind human retina

100 We induced near-infrared light sensitivity using gold nanorods boun

101 otential as cost-effective, high-performance near-infrared light sources for practical applications.

102 and emission spectra spanning the visible to near-infrared light spectrum.

103 tatin-14 (SST) can be rapidly released under near-infrared light stimulation from nanovesicles implan

104 With near-infrared light stimulation, we show that activating

105 brightness, variants excited with far-red or near-infrared light suffer from poor performance due to

106 These studies provide a near-infrared light-targeted treatment strategy with the

107 go a unimolecular chemical reaction and emit near-infrared light that can pass through a living mouse

108 Using visible and near-infrared light this technique can probe the absorpt

109 This photoconversion is induced by near-infrared light through a non-linear process, furthe

110 ld across the visible spectrum and redirects near-infrared light to a camera to allow imaging of the

111 The femtosecond laser uses near-infrared light to create photodisruption, a process

112 ty of such nanoparticles to convert absorbed near-infrared light to heat and induce highly localized

113 ) conjugate to bind to the cell membrane and near-infrared light to induce immediate and highly speci

114 erence tomography systems use low-coherence, near-infrared light to provide detailed images of anteri

115 therapy (LLLT), refers to the use of red-to-near-infrared light to stimulate cellular functions for

116 hotovoltaic implant and glasses that project near-infrared light to the implant in order to restore s

117 les doped with lanthanide ions can upconvert near-infrared light to visible frequencies, enabling the

118 planation regarding the superior efficacy of near-infrared light treatment compared with red light in

119 otube (SWCNT)-assisted approach that enables near-infrared light-triggered activation of transforming

120 ors to both hydrogen peroxide (H(2)O(2)) and near-infrared light, two competing driving forces were s

121 scopy (fiDWS), which introduces and collects near-infrared light via the scalp, using inexpensive det

122 cattering the obliquely incident visible and near-infrared light (VNIR: 400-1000 nm) in an enhanced D

123 facilitate deep-tissue photoactivation with near-infrared light, we measured the efficacy of two-pho

124 tral peaks that can be excited using red and near-infrared light which avoids photobleaching, penetra

125 These problems can be overcome by the use of near-infrared light, which has a much higher penetration

126 pectrum of light illuminations including the near-infrared light, which has great implication in phot

127 2 receptors using two-photon excitation with near-infrared light, which overcomes the scattering and

128 ing of rapid polymerizations with visible to near-infrared light will enable nascent technologies in

129 photoreceptors can be directly activated by near infrared light with a sensitivity that paradoxicall

130 ng cancer that combines harmless visible and near-infrared light with a nontoxic photoactivatable dye

131 g in a wide wavelength range from visible to near-infrared light with high sensitivity, fast response

132 icated fiber show it transmitting visible to near-infrared light with low losses of 10 to 20 decibels

133 Near-infrared light, with its superior tissue penetratio

134 rgy can be delivered to polynitro-CNTs using near-infrared light within the biological window.

135 ch as co-catalysts, external energy sources (near-infrared light, X-ray, electric currents) and conve