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by the fluorescent material(passive) caused byfluorescence emission light
at 335/497 nm(passive) were setFluorescence excitation / emission detection wavelengths
at 229/338 nm(passive) were setFluorescence excitation / emission detection wavelengths
by an excitation signal and the fluorescence emission spectrum(passive) caused bya fluorescence emission spectrum
by secondary effects(passive) caused byfluorescence spectral patterns
by an excitation signal and(passive) caused bya fluorescence emission spectrum
by the fluorescent resonance energy transfer ( FRET(passive) caused bya fluorescence emission spectrum
the temperature distribution at the surface(passive) are influenced byEmission spectra Thermal emission spectra
the temperature distribution at the surface(passive) are influenced byThermal emission spectra
a table sugar sampleresultingin rather featureless emission spectra
by clouds(passive) influenced byThermal emission spectra
2 Light and Atomic Emission Spectracausesatomic emission spectra
that surface plasmonscould influenceluminescence emission spectra
W.K. and Y.N.contributed3D fluorescence spectra
3 Light and Atomic Emission Spectracausesatomic emission spectra
4 Light and Atomic Emission Spectracausesatomic emission spectra
by the excitation light provided from first unit 100(passive) caused byfluorescence emission
direct excitation of this bandresultedin negligible fluorescence emission
Excitation occurs in the near UVcausingfluorescence emission
by atoms absorbing energy and the electrons move to the higher energy level(passive) is caused byAtomic emission spectra
Atomic Spectracausesatomic emission spectra
at wavelengths longer than the wavelength of irradiating light(passive) is causedFluorescence emission
the molecule ... a stateresultsin fluorescence emission
that excites the fluorophoreto causefluorescence emission
at wavelengths(passive) is causedFluorescence emission
by blue light(passive) caused byfluorescence emission
by FRET(passive) caused byFluorescence emission
The lower part ... no excitationcausesthe fluorescence emission
doped RE , such as Ce and Eu(passive) originated byTypical emission spectra
signalsoriginatefrom fluorescence emission
Ne laserto causefluorescence emission
of broad , overlapping emission bands containing information about the sample components(passive) are composedFluorescence spectra
Explaincausesatomic emission spectra
electron termsresultsin emission spectra broadening
Ne laser beamto causefluorescence emission
distortion of the coordination polyhedron of an activator ion in a laser crystal ... electron termsresultsin emission spectra broadening
engineering effortsdesignedto modulate the emission spectra
This approach uses early photon information contained in measured time - of - fight distributionsoriginatingfrom fluorescence emission
by electrons(passive) are caused byemission spectra
by their chemical environment(passive) are ... influenced byemission spectra
at 612 nmwas setat 612 nm
to signalcan contributeto signal
The Model 211FOC fluorescence fiber optic adapter(passive) is designedThe Model 211FOC fluorescence fiber optic adapter
when ultraviolet light is absorbed by particles which emit lightcausedwhen ultraviolet light is absorbed by particles which emit light
to the backgroundcontributesto the background
from electronic downward transitionsresultingfrom electronic downward transitions
The JASCO(passive) is designedThe JASCO
to similar results but has to be attributed to reflection effects during measurementleadedto similar results but has to be attributed to reflection effects during measurement
in less spectral overlapresultsin less spectral overlap
plasmonic platform with Al2O3 thin film between gold nanostructures and Valrubicindesignedplasmonic platform with Al2O3 thin film between gold nanostructures and Valrubicin
the degradation of protein - like groupscausedthe degradation of protein - like groups
from absorption of photonsresultsfrom absorption of photons
at excitationsetat excitation
from a regionoriginatingfrom a region
at 488 nm excitation per 525 nm emissionsetat 488 nm excitation per 525 nm emission
from the secondresultingfrom the second
from the aromaticoriginatesfrom the aromatic
some challenges by covering the Raman signalcausessome challenges by covering the Raman signal
generallyresultsgenerally
in emission and excitation spectraresultsin emission and excitation spectra
from a range of excitation wavelengthsresultingfrom a range of excitation wavelengths
from a range of excitation wavelengths and combining them all togetherresultingfrom a range of excitation wavelengths and combining them all together
to producewas designedto produce
from the excitation of the intrinsic aromatic residuesresultingfrom the excitation of the intrinsic aromatic residues
from an applied electrical fieldresultingfrom an applied electrical field
into its effect on emissions and performance of an engineresultinginto its effect on emissions and performance of an engine
two obvious emission peaks and entire visible lightcomposetwo obvious emission peaks and entire visible light
two obvious emission peaks and entire visible light from 400 to 700 nm ... when the reaction time less than 10 mincomposetwo obvious emission peaks and entire visible light from 400 to 700 nm ... when the reaction time less than 10 min