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1 n liquid crystal displays and future quantum light sources).
2 t protein, BRET does not rely on an external light source.
3 ( degrees ) angle with respect to the to the light source.
4 1.95 A, from data collected at a synchrotron light source.
5 onizing, short-wavelength ultraviolet (UV-C) light source.
6 fish navigation in the presence of a distant light source.
7 ed optical elements, including an integrated light source.
8 d by a smartphone camera under a portable UV light source.
9  phototaxis, i.e. actively orients towards a light source.
10 brightness for a speckle-free and narrowband light source.
11 ccur when using a CCD to photograph a bright light source.
12 ectly and accurately sense the position of a light source.
13 order transmission using an incoherent white light source.
14 le wavelength (Se-SAD) at the Linac Coherent Light Source.
15  to operation under a conventional white LED light source.
16 l cation and the influence of oxygen and the light source.
17 der transmission spectra using an incoherent light source.
18 rcularity, brightness, and stability of this light source.
19 gnitude higher than that of a LED or thermal light source.
20 objects and the spectrum of the illuminating light source.
21  the excitation wavelength or the excitation light source.
22 ible light irradiation with an artificial Xe light source.
23 g diffraction upon illumination with a white light source.
24  twin electron bunches at the Linac Coherent Light Source.
25 multaneously with a single broadband visible light source.
26 plane array (FPA) detector and a synchrotron light source.
27 he 6.92 keV FEL pulses at the Linac Coherent Light Source.
28 ume of brain tissue from a small, point-like light source.
29 th band during illumination with a broadband light source.
30 s bright yellow light when excited by a blue light source.
31 s(-1)), compared with the conventional white light source.
32 ot only with a cw laser but also with an LED light source.
33 ir pre-irradiated state after removal of the light source.
34 ution from the temporal response to a pulsed light source.
35  a widely tunable continuous-wave laser as a light source.
36 rluminescent diode of 830 nm wavelength as a light source.
37 osphere arrays when exposed to an incoherent light source.
38 sms sense light gradients to swim toward the light source.
39 nature following irradiation with a specific light source.
40 treatment of periodontitis with a red LED as light source.
41 ters, are good candidates for future compact light sources.
42  using six different continuous or pulsed UV light sources.
43 particles on a chip using low-cost broadband light sources.
44 act accelerator building blocks and advanced light sources.
45 ures, as well as compact extreme ultraviolet light sources.
46 icals (NO3) in the presence of the different light sources.
47 properties for future solid-state attosecond light sources.
48 e at depths difficult to reach with external light sources.
49 thod that enables low-repetition-rate pulsed light sources.
50 vanced through the discovery of new, tunable light sources.
51 ience, compact plasma-based accelerators and light sources.
52 ats used to discriminate among infrared (IR) light sources.
53  conditions in combination with intense blue light sources.
54 ng an alternative to large-scale synchrotron light sources.
55 echniques enabled by modern short-wavelength light sources.
56 maging methods to harness new coherent x-ray light sources.
57 higher X-ray dose rates expected with future light sources.
58 ith narrowband continuous wave or nanosecond light sources.
59  environment without the need for high-power light sources.
60 the clinically reported cases using external light sources.
61 arable to conventional, much bulkier mercury light sources.
62 ll volume, can be readily installed at other light sources.
63                   Laser diodes are efficient light sources.
64 can find use in chemical sensing and tunable light sources.
65 -resolution microscope, and advanced quantum light sources.
66                         We thus mated an LED light source, a dark-field condenser and a 20x objective
67 noise introduced by the high-intensity laser light source, a thermoelectrically cooled mercury cadmiu
68  a neutral cue, predicting the location of a light source, affected the direction of plant growth.
69 he question of how the spectral width of the light source affects the speckle contrast both experimen
70 ridge along with using a camera flash as the light source allows on-site halocarbon detection in seco
71 ence Berkeley National Laboratory's Advanced Light Source (ALS) has been used in conjunction with a j
72 nt of robust and compact extreme ultraviolet light sources.Although higher harmonic generation from s
73 y transfer as the basis for flexible on-chip light sources, amplifiers, nonreciprocal devices and sig
74  phase extreme ultraviolet (XUV) femtosecond light source, an XUV monochromator, and a time-of-flight
75  integrated with a magnifying lens, a simple light source and a miniaturised immunoassay platform, th
76          The CRET platform needs no external light source and avoids autofluorescence and photobleach
77 th foaming gel loaded on a mouthpiece with a light source and controlled warming heat built-in unit o
78 CRI) of 73 which is similar to a fluorescent light source and correlated color temperature (CCT) of 7
79             LEDs provide a compact, low cost light source and have been incorporated directly into th
80 ical microlenses, allowing the cell to see a light source and move towards it.
81 e demonstrate a silicon waveguide-integrated light source and photodetector based on a p-n junction o
82 coherence can be affected by the size of the light source and propagation distance in use.
83 acteria into the focus of the Linac Coherent Light Source and record diffraction patterns from indivi
84 s novel uncaging system requires no external light source and shows fast kinetics (t(1/2) <2 min).
85 lated to the intensity and wavelength of the light source and that oxygen is essential for an efficie
86  differences in photon flux as a function of light source and the distance from the source.
87 cessing allows reducing the influence of the light source and the positioning of the microfluidic dev
88 In this article, we introduce a standardized light source and validate its usability for PIT applicat
89 were integrated for filtering the excitation light source and, thereby, increasing the contrast of th
90 itations in the existing systems in terms of light sources and actuation manners.
91 an extensive range of discrete monochromatic light sources and allows for an examination of the retin
92  applications for example as efficient white light sources and biolabels are reviewed.
93 sma-based accelerators envisioned for future light sources and colliders.
94 elp create super-intense narrow band thermal light sources and even an infrared emitter with a laser-
95     Implementation typically requires remote light sources and fiber-optic delivery schemes that impo
96                  Undulator based synchrotron light sources and Free Electron Lasers (FELs) are valuab
97                  Many living organisms track light sources and halt their movement when alignment is
98 n order to enable future generations of both light sources and high-energy physics experiments.
99            Coherence properties of different light sources and how they affect the image quality of h
100 ternating-current-powered electroluminescent light sources and light-emitting sensing devices.
101  of light propagation, dynamic access to the light sources and material parameters of the system, as
102                                     However, light sources and photodetectors present ongoing challen
103 ensity integration of multiple cellular-size light sources and recording electrodes.
104 The first network, intended for solar cells, light sources and similar devices, has a quasi-fractal s
105  dynamics of both cells' accumulation toward light sources and their dispersion upon light cessation.
106 nstructed from a cell phone camera, a planar light source, and a cardboard box), demonstrate the conc
107  while harvesting its evaporation to power a light source, and a miniature car (weighing 0.1 kg) that
108 e cuvette at 180 degrees with respect to the light source, and nephelometry in which the optical fibe
109  integration in next-generation electronics, light sources, and biosensors.
110 ovel sensor designs with cheaper and smaller light sources, and consequently increases accessibility
111 s State Park, PA) with minimal anthropogenic light sources, and one city location (Philadelphia, PA).
112                                    Entangled light sources are considered as core technology for mult
113                       However, these quantum light sources are currently synthesized in bulk solution
114 ographic strategies using commonly available light sources are employed to spatiotemporally pattern p
115 ticularly at the high brightness synchrotron light sources, are making SXS an important tool for the
116                 Integration of nanostructure lighting source arrays with well-defined emission wavele
117 ly to their goal perch with only a dim point light source as a beacon, showing that they do not need
118 y ground hyperspectral imaging of artificial light sources as a complementary method for retrieving f
119 rcially available Signify ultraviolet (UV)-C light source at 254 nm.
120 results of a PI-TOF-MS study at the Advanced Light Source at Lawrence Berkeley National Laboratory.
121 on of OCT system, which is a function of the light source bandwidth, is sufficient to resolve retinal
122 y, and RPA, we develop the model of a mid-IR light source based on NPG, which will pave the way to gr
123  blocks for atomically thin infrared and THz light sources based on intersubband optical transitions
124 ion and free control over the spectra of the light sources, because they rely on off-the-shelf techno
125 ree catalyst (eosin Y), an energy-economical light source (blue LED), and a sustainable oxidant (mole
126 e potential for providing tabletop broadband light sources but so far are limited by their low conver
127 hnology not only resulted in efficient white light sources, but continues to enable a host of applica
128 nistic spatiospectral control of a broadband light source by means of wavefront shaping.
129 cture microscope at the National Synchrotron Light Source can probe the surface chemistry of the curv
130                 First, these III-V plasmonic light sources can be directly grown on Si substrates fre
131 demonstrating that existing third generation light sources can significantly enhance the brightness a
132 role that molecular oxygen (O2), solvent and light-source (CF lamp or blue LED) play in a variety of
133 e closed by laser-driven compact synchrotron light sources (CLS), which use an infrared (IR) laser ca
134  of a scalable, compact, all-silicon tunable light source comprised of a silicon Field Emitter Array
135 theoretically possible) opsin properties and light source configurations that would maximise therapeu
136 ters whose interrogation is carried out with light sources, detectors and fibre components readily av
137  resolution for both incoherent and coherent light sources, different types and sizes of beads, and d
138 l vibrational nanoprobe developed at Diamond Light Source (DLS), capable of measuring mid-infrared ab
139  (LEDs) are gradually replacing conventional lighting sources due to their advantages in energy savin
140 bursts or continuous waveforms with only the light source, electrical drives/controls and detectors b
141 sion experiments at the LCLS- and SACLA XFEL light-sources elucidate the high-pressure behavior of st
142 tion developed for use at the Linac Coherent Light Source enabled efficient and flexible FX experimen
143 ese techniques for extreme ultraviolet (XUV) light sources facilitates measurements of electronic dyn
144 CR) from radionuclides can act as a built-in light source for cancer theranostics, opening a new hori
145  the tips are illuminated by a monochromatic light source for concurrent spectroscopic detection of t
146 adband radiations as an all-purpose tabletop light source for general applications in science and tec
147  Optical frequency combs are a revolutionary light source for high-precision spectroscopy because of
148 riton laser an attractive low-power coherent light source for medical and biomedical applications or
149 ht-emitting diode (LED) is investigated as a light source for optical detection in chemical analysis.
150 The novel flower HOPS beams can act as a new light source for photonic applications.
151 is great need to characterize a standardized light source for PIT application.
152  CMOS-compatible electrically-pumped silicon light source for possible applications in the mid-infrar
153                    The use of a nonclassical light source for studying molecular electronic structure
154  dyes allow the UCNPs to serve as excitation light source for the analyte-responsive BODIPY as well a
155 ernment (0.64 microM), using a halogen white light source for the stimulation of algal photosynthetic
156 dth, high-brightness, and spatially coherent light sources for applications such as spectroscopy and
157  proof-of-concept for the usage of low-power light sources for challenging reactions employing blue-t
158 route to form the basis of future monolithic light sources for high-density optical interconnects in
159  to materials science and technology include light sources for multipurpose, efficient VUV/UV light s
160 t sources for multipurpose, efficient VUV/UV light sources for photochemical materials processing and
161  photonic applications, such as nonclassical light sources for quantum communication or quantum crypt
162  light emitting diodes (OLEDs) as excitation light sources for quantum dot-based fluorescent lateral
163 eated and diagnosed using the Linac Coherent light Source free-electron X-ray laser, tuned to specifi
164 ng up novel opportunities for designs of the light sources, free electron lasers, and high energy col
165 nce Spectroscopy (SERDS), in which a tunable light source generates two spectra with different excita
166                            Using appropriate light sources guided by fiber optics, we determined a de
167 to be tunable to long wavelengths at Diamond Light Source has opened the possibility to native de nov
168                                       Modern light sources have advanced many fields by providing ext
169                                  So far, the light sources have been limited to continuous wave or hi
170 addition to O2, the effects that solvent and light-source have on the dual-catalyzed decarboxylative
171 on response under BNL's National Synchrotron Light Source II (NSLS-II) 70 keV monochromatic synchrotr
172  light emitting diode (LED) as an innovative light source in PAD is under discussion.
173 y the potential of using deep UV-LEDs as the light source in photometric detection for even lower-wav
174 rward, sensitive visualization with a simple light source in resource-limited situations.
175 emiconductor lasers are widely used, compact light sources in optical communications.
176 e been utilized to implement next-generation light sources in photonic circuits with low energy, high
177                                      Quantum light sources in solid-state systems are of major intere
178 inescent nanoparticles that can act as local light sources in the brain when triggered by brain-penet
179 requency components caused by the artificial light sources in the hospital, using auto-regressive mod
180  are the most powerful and versatile compact light sources in the mid-infrared range, yet achieving t
181 esults suggest a design strategy for quantum light sources in the mid-IR/terahertz: ones that prefer
182 cade lasers are compact, electrically pumped light sources in the technologically important mid-infra
183 ied avian responses to powerful ground-based light sources in urban areas.
184                        Common approaches for light sources include one or few off-chip or wafer-bonde
185 on fluxes and distance dependences of indoor light sources including halogen, incandescent, and compa
186 n the near future as general bright tabletop light sources, including intense attosecond pulses.
187                                  This single light source induced significant behavioral alterations
188 a, a retinal bleaching flash, and a Ganzfeld light source inside a pair of light-obscuring goggles.
189     Development of a dynamically tunable OAM light source is a critical step in the realization of OA
190                                     When the light source is a pulsed laser, water splitting is accom
191                                       Such a light source is also ideal for space communications, bot
192 ease of the NO gas, the intensity of the LED light source is controlled via a PID (proportional-integ
193               A high-resolution image of the light source is focused on the edge of the cell opposite
194 al applications such as optogenetics where a light source is used to trigger a cellular response.
195 y, the modulation bandwidth of the plasmonic light-sources is enhanced to significantly higher than c
196 he angular emission from an entire city as a light source, is one of the key elements in night-sky ra
197               Since the advent of human-made light sources, it has been important to understand how i
198 The bowel was illuminated with an incoherent light source laparoscope (D-light-P, KarlStorz).
199 e using the full power of the Linac Coherent Light Source (LCLS) and a dose up to 1.3 GGy per crystal
200                           The Linac Coherent Light Source (LCLS) is an X-ray source of unmatched bril
201 hort hard x-ray pulses of the Linac Coherent Light Source (LCLS) to map the change in electron densit
202                        At the Linac Coherent Light Source (LCLS), the installation of such a device d
203 cond (fs) X-ray pulses of the Linac Coherent Light Source (LCLS), the Ni center electronic configurat
204 20-Hz repetition rate of the Linear Coherent Light Source (LCLS).
205 a obtained with the Stanford Linear Coherent Light Source (LCLS).
206                                          The light source, lead time for stabilization, and purificat
207 o the high spatial coherence of the utilized light source, leading to significant reductions in image
208 e of a complex set-up that involves multiple light sources, lenses or mirrors.
209                              Compact on-chip light sources lie at the heart of practical nanophotonic
210   This technique was evaluated using various light sources, lighting angles, imaging backgrounds, and
211 thers the experimental animal to an external light source, limiting the range of possible experiments
212                                High harmonic light sources make it possible to access attosecond time
213 tion between those designing new indicators, light sources, microscopes, and computational analyses w
214 ed on a trapezoidal prism for the disposable light source module.
215 oherence properties are measured for various light sources of diode-pumped solid-state (DPSS) laser,
216 II-V nanolasers as monolithically integrated light source on Si chips due to many advantages.
217 polymer formulation by switching one visible light source on-and-off without the need for any additio
218 figurable, and low lasing threshold coherent light sources on a chip.
219 s, rendering individually identifiable point light sources on compliant substrates.
220 erforming state-of-the-art pristine graphene light sources operating in the near-infrared by at least
221 assive photonic devices for on-chip coherent light sources, optical signal processing, and the invest
222 ed by means of external factors, such as the light source or filters.
223 , there is no need for a pulsed or modulated light source or for additional time-resolved detection.
224 photobactericidal activity, an intense white light source or UV-activation is usually required.
225 es not use any mechanical elements, external light sources, or reflectarrays, creating, for the first
226 ting the operation of sub-Poissonian quantum light sources over existing fiber networks.
227 ped at the Materials Science beamline (Swiss Light Source, Paul Scherrer Institute, Switzerland).
228        These physicochemical factors include light sources, photosensitizer (PS) carriers, microwaves
229 tages for the use of many directly modulated light sources positioned at the transmitter location.
230  grapes were exposed to an ultra-violet (UV) light source post-hand harvest (whole bunches) or post-m
231 e semiconductor laser (SCL) is the principal light source powering the worldwide optical fiber networ
232  (CO formation); however, conventional (LED) light sources produce water splitting exclusively.
233 nm to 1340 nm, and the OCT system using this light source provides a sensitivity of 98 dB and a singl
234 f the technique is parallel to that of laser light sources, recent advances have spurred a resurgence
235 size, and potential toxicity of the involved light sources remain a challenge.
236 a facile tunable and efficient silicon-based light source remains elusive.
237                       The usage of the SoLux light source represents a new method which enables a con
238  channels with dense arrays of implanted red light sources resulted in successful defibrillation.
239       Because each single fluorophore acts a light source roughly 1 nm in size, microscopic observati
240                                With suitable light sources, s-SNOM is instrumental in numerous discov
241 pled with a low-cost fiber coupled LED-based light source served as a complete platform for intraoral
242 hat the silica products excited by different light sources show different luminescence properties.
243 ia X-ray phase contrast imaging at the Swiss Light Source (SLS) synchrotron and X-ray projection micr
244  essential components of the device like the light source, spectrometer, filters, microcontroller and
245 ation of the MERLIN beamline at the Advanced Light Source storage ring (Berkeley, USA).
246                Accordingly, chemiluminescent light sources such as those generated by luciferases hav
247 MChD with an easy-accessible and nondamaging light source, such as visible light.
248 rging research area of bright and ultrashort light sources, such as free-electron lasers and high-ord
249                   Modern tuneable high-power light sources, such as free-electron lasers and vacuum t
250 ion techniques using X-rays from synchrotron light sources, such as micro-computed tomography (muCT)
251          In contrast, traditional incoherent light sources, such as thermal sources or light emitting
252 cused broadband X-ray source at the Advanced Light Source synchrotron beamlines, but the excessive ra
253          To overcome this, we demonstrated a light source system having a wide tunability in the spat
254 hese results establish an electroluminescent light source technology for unique classes of optoelectr
255  of a psychophysics procedure with a quantum light source that can generate single-photon states of l
256 ystem with a 1.7 mum center wavelength swept light source that can readily penetrate deeper into the
257 but bioluminescent organisms provide another light source that can reveal animals to visual predators
258 ht for a wide range of angles could become a light source that reaches luminous efficiencies ( approx
259 al group modifications, photoinitiators, and light sources that enable facile and cytocompatible phot
260 w pathway for the development of implantable light sources that enable functional imaging and sensing
261 emistry studies have almost exclusively used light sources that produce >10 eV photons.
262           Laser frequency combs are coherent light sources that simultaneously provide pristine frequ
263 th an inexpensive 660 nm, 19 mW laser as the light source, the estimated detection limit for methylen
264 lopment of a new generation of compact x-ray light sources, the coherence of which depends directly o
265 ennas are passive devices driven by external light sources, the potential damage of the antennas limi
266                         Testing revealed the light source to be safe, easy to use, and independent of
267  can potentially serve as a tunable coherent light source to enable on-chip signal processing for int
268  activity coefficients" (ELAC) for the white light source to generate calibration curves that relate
269 s capable of serving simultaneously as local light source to initiate photo(bio)electrochemical react
270 chnique has been extended from a synchrotron light source to utilise a lab-based microfocus X-ray sou
271 quence of the potential of these high energy light sources to damage living cells.
272 test sample recorded at I13-1 of the Diamond Light Source, UK.
273                                       Of the light sources used, RGB LED treatment allowed plants wit
274      Follow-up beamtimes at ESRF and Diamond Light Source using submicro-SR-XRF allowed resolving thi
275 ed techniques, such as employing X-rays as a light source, using nanoparticle-loaded stem cells and b
276 o ligand coadditive) and a readily available light source (UVC compact fluorescent light bulb), a wid
277        To demonstrate utility beyond quantum light sources we show that nanocavity-coupled SWCNTs per
278 properties and an inexpensive diode laser as light source, we produce hydrated electrons through a tw
279                                With a single light source, we stimulated channelrhodopsin-2-expressin
280 d x-ray pulses emitted by the Linac Coherent Light Source were used to conduct time-resolved serial f
281                                              Light sources were modelled as synchronously activating
282 termine the safety power level for different light sources when viewing the produced images by human
283 now provided at third generation synchrotron light sources, where X-ray fluorescence microscopy (XFM)
284 -cost laser to realize a compact inexpensive light source, which can ultimately impact many fields of
285 andom walk toward or away from a directional light source, which is sensed by intracellular photorece
286 icking unlimited depth using the CR-embarked light source, which is unlike standard PDT, where light
287 n of electroluminescence emitters as quantum light sources, which can be studied with high time resol
288 d to the intrinsic spectrum bandwidth of the light source, while spatial coherence can be affected by
289                           Optimum artificial light source with algal BPV device can be integrated int
290  results could pave way to produce low- cost light source with high luminance, using TADF molecules.
291 ser is regarded as a promising ultra-compact light source with unique advantages of ultralow energy c
292 se of random Raman lasing as a novel imaging light source with unprecedented brightness for a speckle
293 ts on the performances of self-powered PD to light sources with different wavelengths and indicates h
294                                        Other light sources with more intense UV output hold potential
295 tudy explores two approaches for integrating light sources with nuclear magnetic resonance (NMR) spec
296 portant step towards embedding semiconductor light sources within infrared light-transmitting silicon
297 nventional lithography, works under ordinary light source without complex optics system, giving rise
298                  The ultimate form of such a light source would be a monolithic white laser.
299  and reliable on-chip optical amplifiers and light sources would enable versatile integration of vari
300 measurements performed at the Linac Coherent Light Source X-ray free-electron laser.

 
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