Matches in SemOpenAlex for { <https://semopenalex.org/work/W2912180283> ?p ?o ?g. }
- W2912180283 endingPage "766" @default.
- W2912180283 startingPage "757" @default.
- W2912180283 abstract "Imaging three-dimensional (3-D) structures of biological specimens without exogenous contrast agents is desired in biological and medical science in order not to disturb the physiological status of the living samples. Reflection phase microscopy based on interferometric detection has been useful for the label-free observation of such samples. However, the achievement of optical sectioning has been mainly based on the time gating set by the broad spectra of light sources. Here we propose wide-field reflection phase microscopy using a light source of narrow bandwidth, which is yet capable of achieving the optical sectioning sufficient for 3-D imaging of biological specimens. The depth selectivity is achieved by successive accumulation of interferograms (SAI) produced by synchronous angular scanning of a plane wave on both the sample and reference planes. This intensity-based cumulative process eventually results in a coherent addition of object fields that quickly attenuates the out-of-focus information along the axial direction. We theoretically investigated and numerically verified the generation of the depth selectivity by SAI. We also implemented a reflection phase microscope working with this principle and then demonstrated high-resolution 3-D imaging of living cells and small worms in a label-free manner." @default.
- W2912180283 created "2019-02-21" @default.
- W2912180283 creator A5003106323 @default.
- W2912180283 creator A5043802722 @default.
- W2912180283 creator A5056819675 @default.
- W2912180283 creator A5061828877 @default.
- W2912180283 creator A5071001292 @default.
- W2912180283 creator A5078862494 @default.
- W2912180283 creator A5080234007 @default.
- W2912180283 date "2019-02-12" @default.
- W2912180283 modified "2023-10-15" @default.
- W2912180283 title "Reflection Phase Microscopy by Successive Accumulation of Interferograms" @default.
- W2912180283 cites W1601798363 @default.
- W2912180283 cites W1964242194 @default.
- W2912180283 cites W1976051330 @default.
- W2912180283 cites W1976820402 @default.
- W2912180283 cites W1986667874 @default.
- W2912180283 cites W1989389742 @default.
- W2912180283 cites W1993890252 @default.
- W2912180283 cites W1995103896 @default.
- W2912180283 cites W2001835967 @default.
- W2912180283 cites W2025262639 @default.
- W2912180283 cites W2036983787 @default.
- W2912180283 cites W2037710303 @default.
- W2912180283 cites W2038007769 @default.
- W2912180283 cites W2045099229 @default.
- W2912180283 cites W2052930804 @default.
- W2912180283 cites W2063813148 @default.
- W2912180283 cites W2064796551 @default.
- W2912180283 cites W2066423394 @default.
- W2912180283 cites W2067618877 @default.
- W2912180283 cites W2069539595 @default.
- W2912180283 cites W2081324031 @default.
- W2912180283 cites W2081758400 @default.
- W2912180283 cites W2087594614 @default.
- W2912180283 cites W2089737625 @default.
- W2912180283 cites W2092412094 @default.
- W2912180283 cites W2098097975 @default.
- W2912180283 cites W2099414823 @default.
- W2912180283 cites W2109724864 @default.
- W2912180283 cites W2121047360 @default.
- W2912180283 cites W2136537123 @default.
- W2912180283 cites W2147607085 @default.
- W2912180283 cites W2150377199 @default.
- W2912180283 cites W2150708165 @default.
- W2912180283 cites W2154074407 @default.
- W2912180283 cites W2162207305 @default.
- W2912180283 cites W2186631628 @default.
- W2912180283 cites W2205156033 @default.
- W2912180283 cites W2470767900 @default.
- W2912180283 cites W2603409505 @default.
- W2912180283 cites W2892479404 @default.
- W2912180283 cites W2901537774 @default.
- W2912180283 cites W4214491946 @default.
- W2912180283 cites W4241300192 @default.
- W2912180283 cites W4249023884 @default.
- W2912180283 cites W4251146862 @default.
- W2912180283 doi "https://doi.org/10.1021/acsphotonics.8b01703" @default.
- W2912180283 hasPublicationYear "2019" @default.
- W2912180283 type Work @default.
- W2912180283 sameAs 2912180283 @default.
- W2912180283 citedByCount "2" @default.
- W2912180283 countsByYear W29121802832020 @default.
- W2912180283 countsByYear W29121802832021 @default.
- W2912180283 crossrefType "journal-article" @default.
- W2912180283 hasAuthorship W2912180283A5003106323 @default.
- W2912180283 hasAuthorship W2912180283A5043802722 @default.
- W2912180283 hasAuthorship W2912180283A5056819675 @default.
- W2912180283 hasAuthorship W2912180283A5061828877 @default.
- W2912180283 hasAuthorship W2912180283A5071001292 @default.
- W2912180283 hasAuthorship W2912180283A5078862494 @default.
- W2912180283 hasAuthorship W2912180283A5080234007 @default.
- W2912180283 hasBestOaLocation W29121802831 @default.
- W2912180283 hasConcept C113976765 @default.
- W2912180283 hasConcept C120665830 @default.
- W2912180283 hasConcept C121332964 @default.
- W2912180283 hasConcept C147080431 @default.
- W2912180283 hasConcept C166689943 @default.
- W2912180283 hasConcept C187921700 @default.
- W2912180283 hasConcept C192562407 @default.
- W2912180283 hasConcept C199360897 @default.
- W2912180283 hasConcept C20446124 @default.
- W2912180283 hasConcept C26771246 @default.
- W2912180283 hasConcept C41008148 @default.
- W2912180283 hasConcept C44280652 @default.
- W2912180283 hasConcept C62520636 @default.
- W2912180283 hasConcept C65682993 @default.
- W2912180283 hasConcept C67649825 @default.
- W2912180283 hasConcept C77017923 @default.
- W2912180283 hasConceptScore W2912180283C113976765 @default.
- W2912180283 hasConceptScore W2912180283C120665830 @default.
- W2912180283 hasConceptScore W2912180283C121332964 @default.
- W2912180283 hasConceptScore W2912180283C147080431 @default.
- W2912180283 hasConceptScore W2912180283C166689943 @default.
- W2912180283 hasConceptScore W2912180283C187921700 @default.
- W2912180283 hasConceptScore W2912180283C192562407 @default.
- W2912180283 hasConceptScore W2912180283C199360897 @default.
- W2912180283 hasConceptScore W2912180283C20446124 @default.