ライフサイエンスコーパス: LED

1 LED knockdown reduces CDKN1A enhancer induction and acti

2 LED light irradiation at 660 nm accelerated palatal woun

3 LED-stimulated NO levels were not reduced by inhibition

4 LEDs provide a compact, low cost light source and have b

5 hickness increased (+0.064 mm/D, P < 0.001), LED decreased (-0.075 mm/D, P < 0.001), CMRD decreased (

6 d 8 wk of normal food intake combined with 2 LED products/d, followed by a 48-wk period of weight mai

7 was inhibited significantly using 5 J/cm(2) LED light irradiation in vitro.

8 w-dose [LD]), or 20 (high-dose [HD]) J/cm(2) LED light irradiation on the opened palatal wound and we

9 in vitro wound healing with 0 to 20 J/cm(2) LED light irradiation.

10 culture period with 60-second (224 mJ/cm(2)) LED exposure significantly increased cell growth compare

11 The output power successfully lit up 600 LED bulbs by the application of a 0.2 N mechanical force

12 We also designed a LED based reporting for the presence of EtG in the human

13 as a flexible conductive wire for lighting a LED and a cathode in a fiber-shaped dye-sensitized solar

14 al orders of magnitude higher than that of a LED or thermal light source.

15 hich combines the low spatial coherence of a LED with the high spectral radiance of a laser, could en

16 ervals up to 120 seconds demonstrated that a LED array emitting 653-nm red light stimulated significa

17 ining 7-dehydrocholesterol were exposed to a LED that emitted a peak wavelength at 293, 295, 298 or 3

18 peak wavelength: 518 nm) or an ultraviolet-A LED array (peak wavelength: 375 nm).

19 es were modelled as synchronously activating LED arrays (LED radius: 1 mm; optical power: 10 mW mm(-2

20 onexpensive commercial digital camera and an LED illumination system.

21 The membrane is excited by an LED at 385 nm wavelength and the intensity of the lumine

22 ufficient cortical light penetration from an LED and diffusion of caged GABA to quickly terminate int

23 We thus mated an LED light source, a dark-field condenser and a 20x objec

24 running a program for 17h that turned on an LED every 60s.

25 trical current and potential for powering an LED for more than 20min.

26 For in vitro studies, an LED dose (2, 4, 6 J cm(-2))-dependent cytotoxicity was o

27 of an initial 16-wk randomized phase with an LED for 8 wk and 8 wk of normal food intake combined wit

28 Treatment with an LED showed a trend in favor of clinically important PASI

29 ces, such as photon detector, solar cell and LED.

30 d dosing (n=382) alternating between EED and LED.

31 ESEM images and LED multispectral imaging confirmed that no damages or a

32 lled as synchronously activating LED arrays (LED radius: 1 mm; optical power: 10 mW mm(-2) ; array de

33 ight signals from incoherent sources such as LEDs through selective suppression of light propagation.

34 mic therapy and artificial white light (AWL) LED photodynamic therapy for the treatment of AKs on the

35 nsitivity and specificity of CellScope-based LED FM was noninferior to conventional LED FM by using a

36 tting diode (LED) made from a blue GaN-based LED and the CQD/NP-GaN shows an increase of extraction e

37 We simulate GaN-based LED structures that delay the onset of efficiency droop

38 to realize the high performance AlInN-based LEDs and lasers with the desired emission wavelength.

39 ncreased from 54 MHz up to 117 MHz in a blue LED chip under 0.14% compressive strain.

40 We used a small, commercially available blue LED light box, screen size 11.2 x 6.6 cm at approximatel

41 GaN-based blue LED technology not only resulted in efficient white ligh

42 species, photo-excited with a benchtop blue LED source, can exhibit excited-state reduction potentia

43 ), solvent and light-source (CF lamp or blue LED) play in a variety of Ir-photoredox mediated transfo

44 m/W; four times greater than the parent blue LED.

45 responsible for the development of the blue LED were awarded the 2014 Nobel Prize in Physics.

46 ethers catalyzed by fac-Ir(ppy)3 under blue LED irradiation with subsequent one-pot condensation wit

47 diation of cyclic 2-aryloxyketones with blue LED light in the presence of an Ir(III) complex leads to

48 Fluorescence was excited with cyan or blue LEDs on alternating camera frames, thus providing a 375-

49 substrate as the limiting reagent using blue LEDs and an easily prepared N-xanthylamide.

50 (C^N)2] complexes upon irradiation with blue LEDs at room temperature with evolution of methane.

51 m tetrafluoroborate and irradiated with blue LEDs in the presence of the photoredox catalyst Ru(bpy)3

52 illumination of the Ni(IV) complex with blue LEDs results in rapid formation of the cyclic C-C produc

53 at can be activated upon irradiation by blue-LED lamps, we can achieve the coupling of a range of pri

54 s a copper catalyst in combination with blue-LED irradiation to achieve the decarboxylative coupling

55 ns, Auger recombination greatly impacts both LED efficiency and the onset of efficiency roll-off at h

56 prove power conversion efficiencies for both LEDs and solar cells.

57 an ICER of $45 (95% CrI 25-74), followed by LED fluorescence microscopy with an ICER of $29 (6-59).

58 y of electronic devices such as solar cells, LEDs, sensors, and possible future bioelectronic ones.

59 this paper first reports a compact confocal LED epifluorescence sensor using a light stop with an ar

60 e and demonstrate microscopically controlled LED emission.

61 were similar with CellScope and conventional LED FM (34% versus 32%, respectively; P = 0.32), and agr

62 based LED FM was noninferior to conventional LED FM by using a preselected margin of inferiority of 1

63 ation (CO formation); however, conventional (LED) light sources produce water splitting exclusively.

64 Compared with same-day LED fluorescence microscopy and Xpert full rollout, targ

65 Same-day LED fluorescence microscopy is the next most effective s

66 elf-healing of conductivity, custom-designed LEDs with complex micropatterns, and foldable stretchabl

67 f-healing of conductivity, customer-designed LEDs with complex micro-patterns, and foldable stretchab

68 e very promising for light-emitting devices (LEDs) due to their high color purity, low nonradiative r

69 diameter (CMRD) or lens equatorial diameter (LED).

70 tervention group received a low-energy diet (LED) (800-1000 kcal/d) for 8 weeks to induce weight loss

71 ted to a control group or a low-energy diet (LED) group.

72 A formula low-energy diet (LED) reduces weight effectively in obese patients with k

73 Dimming LEDs by 50% or manipulating their spectra to reduce ecol

74 de, employing a 470 nm light emitting diode (LED) and a microfiber optic USB spectrometer.

75 ing an interchangeable light emitting diode (LED) and a photodiode.

76 a using either a green light-emitting diode (LED) array (peak wavelength: 518 nm) or an ultraviolet-A

77 on a ultraviolet (UV) light-emitting diode (LED) array oven, and provides precisely controlled "in-c

78 pillar heterostructure light-emitting diode (LED) arrays for white light emissions are achieved and t

79 ifferent wavelength of light-emitting diode (LED) at 250mumol.m(-2).s(-1) of photon flux density on r

80 A violet light-emitting diode (LED) excitation source and color imaging with either a d

81 using a CCD camera and light emitting diode (LED) excitation source, to measure GFP expression.

82 tigated the effects of light-emitting diode (LED) exposure on dental pulp cells (DPCs).

83 Conventional light-emitting diode (LED) fluorescence microscopy (FM) and mycobacterial cult

84 s of Xpert MTB/RIF and light-emitting diode (LED) fluorescence microscopy in Tanzania.

85 rated to power a 2.2 V light emitting diode (LED) for 1 min.

86 example a conventional light-emitting diode (LED) is driven with a 500-muA peak current (600-C discha

87 rst time, a sub-250 nm light-emitting diode (LED) is investigated as a light source for optical detec

88 y near-infrared 740 nm light-emitting diode (LED) lamps with bright upconversion luminescence is desi

89 evaluate the effect of light-emitting diode (LED) light irradiation on the donor wound site of the fr

90 a near-infrared 860 nm light emitting diode (LED) light source and a wedge depolarizer to create a ph

91 ation of supplementary light-emitting diode (LED) lighting within a greenhouse for cultivation of red

92 The white-light-emitting diode (LED) made from a blue GaN-based LED and the CQD/NP-GaN s

93 m(2) with either green light-emitting diode (LED) or ultraviolet-A (UV-A) irradiation.

94 Light from a white light emitting diode (LED) source is dispersed onto a digital micromirror arra

95 recombination layer in light-emitting diode (LED) structures.

96 ser, laser diode (LD), light emitting diode (LED), super luminescent light emitting diode (sLED) and

97 sensitive and low-cost light emitting diode (LED)-based epifluorescence sensor module for qPCR sensor

98 A simple inexpensive light-emitting diode (LED)-based fluorescence detector for detection in capill

99 s optional modules for light-emitting diode (LED)-based fluorescence microscopy and optogenetic stimu

100 mice followed by local light-emitting diode (LED)-based illumination, either of the thalamus or the p

101 y to light an external light-emitting diode (LED).

102 r on a commercial blue light-emitting diode (LED).

103 ned and manufactured a light-emitting diode (LED)/PIT device and validated the technical feasibility,

104 or electrically [in a light-emitting diode (LED)].

105 ht source used a green light-emitting diode (LED; lambda(center) = 520 nm), and the light traveled th

106 uipped with a pair of light emitting diodes (LED) was studied in lab synthetic solutions for on-site

107 nt in fullerene-based light emitting diodes (LED).

108 deep ultraviolet (UV) light emitting diodes (LEDs) and lasers.

109 o the device based on light emitting diodes (LEDs) and smart phones.

110 Light-emitting diodes (LEDs) are a potential new resource in food production li

111 insically stretchable light-emitting diodes (LEDs) are demonstrated using organometal-halide-perovski

112 ighting technologies, light emitting diodes (LEDs) are gradually replacing conventional lighting sour

113 White light-emitting diodes (LEDs) are rapidly replacing conventional outdoor lightin

114 lity ultraviolet (UV) light-emitting diodes (LEDs) at 308 nm were achieved using high density (2.5 x

115 Development of light-emitting diodes (LEDs) based on colloidal quantum dots is driven by attra

116 fully functional blue light-emitting diodes (LEDs) by growing LED stacks on reused graphene/SiC subst

117 emission intensity of light-emitting diodes (LEDs) by utilizing the piezo-polarization charges create

118 first application of light-emitting diodes (LEDs) for ultraviolet photodissociation (UVPD) mass spec

119 Light emitting diodes (LEDs) have been developed to emit ultraviolet radiation.

120 and for high-power lighting-emitting diodes (LEDs) is currently increasing.

121 We describe light-emitting diodes (LEDs) made by stacking metallic graphene, insulating hex

122 oduced by solid-state light-emitting diodes (LEDs) on carotenoid content and composition changes in B

123 ances achievable with light-emitting diodes (LEDs) operated on battery power.

124 ficiency of AlGaN DUV light-emitting diodes (LEDs) remains very low because the extraction of DUV pho

125 e FA-perovskite-based light-emitting diodes (LEDs) with high efficiency are reported.

126 orene-free perovskite light-emitting diodes (LEDs) with low turn-on voltages, higher luminance and sh

127 gth downconversion in light-emitting diodes (LEDs), and optical biosensing schemes.

128 ppropriately selected light emitting diodes (LEDs), are visualized and automatically analyzed by a so

129 as thermal sources or light emitting diodes (LEDs), provide relatively low power per independent spat

130 ation sources such as light emitting diodes (LEDs), these reporters need to be excited at wavelengths

131 icroscale, injectable light-emitting diodes (LEDs), with the ability to operate at wavelengths rangin

132 or increasingly, the light-emitting diodes (LEDs).

133 mitted by an array of light-emitting diodes (LEDs).

134 ctrical connection of light-emitting diodes (LEDs).

135 ays to 6 weeks 6 days; late extended dosing (LED; n=274) every 7 weeks to 8 weeks 5 days; variable ex

136 e present an elegant approach based on a DUV LED having multiple mesa stripes whose inclined sidewall

137 The sidewall-emission-enhanced DUV LED breaks through the fundamental limitations caused by

138 the extraction of DUV photons from AlGaN DUV LEDs, and hence to provide promising routes for maximizi

139 The system employed a UV-emitting LED for low-power, pulsed excitation and an intensified

140 s known about the efficiency of UVB emitting LEDs tuned to different wavelengths for producing vitami

141 rogress in piezo-phototronic-effect-enhanced LEDs is reviewed; following their development from singl

142 illumination simply provided by an external LED illumination device.

143 y the phones camera using the embedded flash LED as the illumination source.

144 and fit conditions of the lungs by flashing LEDs of different colors.

145 Our finding may pave the foundation for LED communities to further establish reliable junction-t

146 ations involving ChR2-RED and ChR2-RED+ (for LED arrays with density >/= 2.30 cm(-2) ), suggesting th

147 ptical nonlinearities, light extraction from LEDs and coupling to and from subwavelength waveguides.

148 ushrooms," internally illuminated by a green LED emitting light similar to the bioluminescence, attra

149 engal concentrations under ambient and green LED irradiation, and (2) for the 0.1% rose bengal in the

150 individually addressable red, blue and green LED triplets placed in 15 vertical strips hanging 0.1 m

151 darkness; red light (R); combined red-green LED (RG) lights; and combined red-green-violet LED (RGV)

152 blue light-emitting diodes (LEDs) by growing LED stacks on reused graphene/SiC substrates followed by

153 Longer pulse duration and higher LED array density were associated with increased optogen

154 Among p53-induced lncRNAs, we identified LED and demonstrate that its suppression attenuates p53

155 ation of the cardiac surfaces (via implanted LED arrays) to elicit light-induced activations.

156 A current obstacle towards improved LED performance is an incomplete understanding of the ro

157 The changes per diopter of accommodation in LED, CMRD, and ciliary muscle thickness were not related

158 terials for much improved optical control in LEDs, solar cells, and also toward applications as optic

159 electronic and mechanical devices, including LED, photodiode, pumps, and electronic boards, can be us

160 me attractive through the use of inexpensive LED light sources and common UV-vis spectrometers, as we

161 Here we describe a novel, inexpensive, LED powered, waveguide based TIRF system that could be u

162 An 880 nm near infrared LED was irradiated perpendicular to the surface of groun

163 (UV-NIL), that is pumped with a pulsed InGaN LED is demonstrated.

164 robes, pumping systems, microscale inorganic LEDs, wireless-control electronics, and power supplies.

165 the USB port of which drives the integrated LED used for excitation, allows for autonomous operation

166 imed to determine the effect of intermittent LED compared with daily meal replacements on weight-loss

167 e of daily meal replacements or intermittent LED resulted in weight-loss maintenance for 3 y.

168 artphone as light intensity detector and its LED flash light as an optical source.

169 rs and open areas that can accommodate lamps/LEDs and wiring.

170 MOS-compatible techniques to realize lasers, LED, and photodetectors.

171 uid-stored boar semen to different red light LED regimens on sperm quality and reproductive performan

172 the control group (n = 19) in locating a lit LED that she viewed through the eye contralateral to the

173 t includes a high-resolution USB microscope, LED cold light illumination, and miniaturized 3D printed

174 n direction, we also demonstrate microscopic LED beam splitting through the selective choice of polar

175 ted sound-indication devices and a miniature LED backpack to visualize and record the nocturnal phono

176 nts known as saccades allow simple modulated LEDs to be observed at very high rates.

177 ions, but also improved infrared nanocrystal-LEDs and photon-upconversion technology.

178 ethod of fabricating the multishell nanotube LED microarrays with controlled emission colors has pote

179 mission from the entire area of the nanotube LED arrays was achieved via the formation of MQWs with u

180 effectively guide the selection of the next LED structure to be examined based upon its expected eff

181 junction with an exceptionally low-power NIR LED light irradiation (10 mW cm(-2) ), these nanoparticl

182 The 293 nm LED was best suited for evaluating its effectiveness for

183 uble bond can be isomerized by light (365 nm LED) during the reaction leading to a characteristic fin

184 A 650 nm LED at five different incident angles is used to illumin

185 clusion, data analysis indicated that 653-nm LED irradiation promoted DPC responses relevant to tissu

186 ties upon irradiation with red light (660 nm LED).

187 e optoelectronic setup consists of an 880 nm LED connected to the U-shaped probe driven by a sine wav

188 ng from blue 455/470 nm and green 505/530 nm LEDs was applied (16-h; PPFD-30 mumol m(-2)s(-1)).

189 ion of the effects of 520-, 595-, and 622-nm LEDs supplemental to the standard set of LEDs.

190 s with standard 447-, 638-, 665-, and 731-nm LEDs was used in the experiments.

191 n be driven by a blue (lambda(max) = 472 nm) LED light source using [Ru(bpy)(3)]Cl(2) (bpy = 2,2'-bip

192 The benefit of the novel LED-excited UCNPs is demonstrated by imaging of breast c

193 xperiments were performed: (1) evaluation of LED irradiance levels of 545, 440, 330, 220, and 110 mum

194 achieved and the light emission intensity of LED array is enhanced by 120% under -0.05% compressive s

195 ts with knee osteoarthritis, but the role of LED in long-term weight-loss maintenance is unclear.We a

196 hypermethylation analysis shows silencing of LED in human tumours.

197 One prominent target of LED was located at an enhancer region within CDKN1A gene

198 behavior of FO-TEG, lighting of an array of LEDs is demonstrated using artificial vibration and huma

199 promise for reducing the ecological costs of LEDs, but the abundances of two otherwise common species

200 A fundamental challenge in the design of LEDs is to maximise electro-luminescence efficiency at h

201 sing method to enhance the light emission of LEDs based on piezoelectric semiconductors through apply

202 ronment and human health, the flexibility of LEDs has been advocated as a means of mitigating the eco

203 -nm LEDs supplemental to the standard set of LEDs.

204 ces using arrays consisting of electrodes or LEDs (for optogenetic activation of conventional narrow-

205 chieved in fermentation assisted with orange LED light (8.28UA490nm), white light (8.26UA490nm) and u

206 ture utilization in inorganic and/or organic LED applications.

207 f value as the emissive component of organic LEDs (OLEDs).

208 the in vitro and in vivo performance of our LED device.

209 cy of a device based on a 635 nm high-output LED powered by three AA disposable alkaline batteries, t

210 he other hand, it is found that overstressed LEDs show irreversibly degraded device performance, poss

211 e the spatially resolved CTE of the packaged LED device, which offers significant advantages over tra

212 derive the instantaneous CTE of the packaged LED under different injected currents.

213 A perovskite LED with a perovskite film treated under optimum thermal

214 Here, using pure CH3 NH3 PbI3 perovskite LEDs with an external quantum efficiency (EQE) of 5.9% a

215 The stretchable perovskite LEDs are mechanically robust and can be reversibly stret

216 -dependent characteristics of the perovskite LEDs and the cross-sectional elemental depth profile, it

217 generation), emissive materials (plasmonics, LEDs, biolabelling), sensors (electrochemical, biochemic

218 nergy down-conversion phosphors in polarized LEDs.

219 epifluorescence microscopy under high power LED illumination, followed by serial image section decon

220 odular design includes a separate high power LED source, detector head, designed in the epifluorescen

221 an InGaN-based (lambda = 450 nm) high-power LED encapsulated in polystyrene resin.

222 n of an elastomer-mounted extreme high-power LED lamp and a swimming soft robot.

223 A high-power LED was used as source for the monochromatic UV light en

224 er fabrication compatible with mass-produced LEDs.

225 -contact chromophore pumping from a proximal LED, and markedly reduced gain thresholds.

226 The unencapsulated white QD-LED has a long lifetime of 96 h at its initial luminance

227 report a simply solution-processed white QD-LED using a hybrid ZnO@TiO(2) as electron injection laye

228 In this study, QD light-emitting diodes (QD-LEDs) fabricated with electrophoretically deposited film

229 White quantum dot light-emitting diodes (QD-LEDs) have been a promising candidate for high-efficienc

230 pproach to achieve high-performance white QD-LEDs and also other optoelectronic devices.

231 We show that the performance of white QD-LEDs can be adjusted by controlling the driving force fo

232 ed wall, the effective bandgaps of nano-ring LEDs can be precisely tuned by reducing the strain insid

233 ials, and their suitability as energy-saving LED lighting phosphors is assessed.

234 Equipped with a simple LED excitation source and a colored plastic gel filter,

235 erformance was evaluated through a simulated LED light source and the bioluminescence produced by the

236 Lastly, NMR spectroscopy using in situ LED-irradiated samples was utilized to monitor the kinet

237 Using a miniature spectrometer, LED light source, and optical fibers on a rotating bench

238 our knowledge, a normalized and standardized LED device has not been explicitly described or develope

239 lex micro-patterns, and foldable stretchable LEDs are demonstrated.

240 plex micropatterns, and foldable stretchable LEDs are demonstrated.

241 ceeds all reported intrinsically stretchable LEDs based on electroluminescent polymers.

242 The stretchable LEDs consist of poly(ethylene oxide)-modified poly(3,4-e

243 of a greater positive effect of supplemental LED components on the vitamin C and tocopherol contents

244 nding and eRNA expression analyses show that LED associates with and activates strong enhancers.

245 ennas into the metal electrode, we show that LED emission from randomly polarized QD sources can be p

246 Moreover, it is shown that LED (lambda = 395 nm) is an efficient light energy sourc

247 The LED based unit displayed the diseased, critical, and fit

248 The LED junction temperature at different injected currents

249 The LED-based sensor was able to reliably distinguish betwee

250 Interestingly, the LED clearly shows a sub-bandgap emission at 1.7 V (bandg

251 ous high-definition digital recording of the LED coordinates provides automatic tracking of the femal

252 racteristics and photobiologic safety of the LED device, multiple optical measurements were performed

253 ences in PASI and DLQI, also in favor of the LED group, were -2.0 (95% CI, 4.1 to -0.1; P = .06) and

254 the combination of time and intensity of the LED source.

255 used for connecting the detector head to the LED excitation source and the photodetector module.

256 lenses, one of which was integrated with the LED, were used to increase light throughput through the

257 The LEDs are sandwiched in-between a stretchable top and bot

258 This LED was found to be 2.4 times more efficient in producin

259 ials on a large circular platform, either to LED-cued goal locations or as a spatial sequence from me

260 than 365 nm, where high-powered ultraviolet LEDs are available.

261 n producing time-resolved fluorescence under LED-excitation.

262 types resembling those of plants grown under LEDs reported previously.

263 ogenetics-based defibrillation therapy using LED arrays.

264 s from 60 individual reaction chambers using LEDs and phototransistors.

265 -RPA or RT-PCR assays can be monitored using LEDs and a smartphone camera.

266 ggest that while management strategies using LEDs can be an effective means of reducing the number of

267 A 260 nm deep UV LED-based absorption detector with low detection limits

268 ass filters and UV light-emitting diodes (UV LEDs) isolated wavelengths in approximate 10 nm interval

269 he exposure conditions with ultraviolet (UV) LEDs were systematically investigated in the wavelength

270 lly optimized sensor head equipped with a UV-LED light source and optical fiber bundles for efficient

271 ng this high quality AlN template: a deep UV-LED device fabricated and showed a strong single sharp e

272 llowing for further re-growth of the deep UV-LED device.

273 ficiency (EQE) of about 0.03%, for a deep UV-LED grown on Si substrate.

274 a deep-ultraviolet light-emitting diode (UV-LED) device using this AlN/patterned Si.

275 nm deep ultraviolet-light-emitting diode (UV-LED) is employed within an on-capillary photometric dete

276 The increased UV exposure by UV-LEDs may be readily implemented in existing food product

277 cted to study the potential of using deep UV-LEDs as the light source in photometric detection for ev

278 tion focused on fundamental properties of UV-LEDs, in particular, emission spectra, radiometric power

279 ls discussed herein are marked by use of UVA LEDs (365 nm), which have reduced the reaction times and

280 D (RG) lights; and combined red-green-violet LED (RGV) lights during the night.

281 1 ppm to monomers) and a low energy visible LED as the light source (1-4.8 W, lambda(max) = 435 nm).

282 hosphors-free white light-emitting-diodes (w-LEDs) using Ba2V2O7 or Sr2V2O7 quantum dots that directl

283 pplication in white light emitting diodes (w-LEDs).

284 ed that such quantum dots can be efficient w-LEDs for solid state lighting.

285 ction system which includes multi-wavelength LEDs capable of exciting many fluorophores in multiple w

286 well-faceted GaN/InGaN multiple quantum well LEDs compared to non-faceted structures.

287 The objective was to investigate whether LED Blue Light (LBL) induces changes in phenolics and et

288 ery and an optical detector based on a white LED and two photodiodes with interference filters.

289 A white LED is used as the common optical excitation source for

290 The accessory consists of four white LED lights fixed to the lens of a commercial DSLR camera

291 that had been acclimated to night-time white LED lighting conditions for 16 days and individuals that

292 s' behavioural responses to night-time white LED lighting were performed on individuals that had been

293 he reverse rainbow photocathodes under white LED light illumination.

294 White LEDs both increased the total abundance and changed the

295 ing this catalyst and irradiating with white LEDs resulted in the production of polymers with targete

296 illary electrophoresis system was built with LED induced fluorescence detection and a credit card siz

297 r the intermittent treatment (IN) group with LED for 5 wk every 4 mo for 3 y or to daily meal replace

298 dots with their emissive performance within LEDs.

299 After the 16-wk LED-only period, the mean weight loss was -15.0 kg (95%

300 the control group received the same 8 + 8-wk LED intervention, and all patients were then followed fo