diffraction grating Search Results


90
Carl Zeiss diffraction grating
Diffraction Grating, supplied by Carl Zeiss, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pm38871703-250-13-15?v=Carl+Zeiss
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90
Edmund Scientific 1200 lines /mm diffraction grating
1200 Lines /Mm Diffraction Grating, supplied by Edmund Scientific, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pm18447560-43-27-29?v=Edmund+Scientific
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1200 lines /mm diffraction grating - by Bioz Stars, 2026-08
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90
TOPTICA Photonics diffraction gratings
Diffraction Gratings, supplied by TOPTICA Photonics, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/10__1364_slash_oe__27__001740-45-0-14?v=TOPTICA+Photonics
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90
Sony usb spectrometer with 1800 lines/mm reflective diffraction grating
Usb Spectrometer With 1800 Lines/Mm Reflective Diffraction Grating, supplied by Sony, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pm33605151-58-14-20?v=Sony
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usb spectrometer with 1800 lines/mm reflective diffraction grating - by Bioz Stars, 2026-08
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90
PASCO phase diffraction grating 50 lp/mm
Phase Diffraction Grating 50 Lp/Mm, supplied by PASCO, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pmc06697343-172-12-13?v=PASCO
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phase diffraction grating 50 lp/mm - by Bioz Stars, 2026-08
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90
ZEMAX Development Corporation diffraction grating 31
Diffraction Grating 31, supplied by ZEMAX Development Corporation, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/us10890485-332-4-10?v=ZEMAX+Development+Corporation
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diffraction grating 31 - by Bioz Stars, 2026-08
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90
Lawrence Livermore National Security LLC large size diffraction gratings
Large Size Diffraction Gratings, supplied by Lawrence Livermore National Security LLC, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pm19550818-119-15-22?v=Lawrence+Livermore+National+Security+LLC
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large size diffraction gratings - by Bioz Stars, 2026-08
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90
DILOR GmbH 1800 g/mm diffraction grating
1800 G/Mm Diffraction Grating, supplied by DILOR GmbH, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pmc05865138-182-25-9?v=DILOR+GmbH
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1800 g/mm diffraction grating - by Bioz Stars, 2026-08
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90
Spectrogon US diffraction grating dg 2400 lines/mm pc 2400 nir
Experimental setup and measurement principle to extract STED de-excitation, bleaching and STED-light-induced fluorescence. ( a ) Microscope with controllable fluxes of STED de-excitation photons. The laser was a femtosecond oscillator operating at 750 nm. The excitation pulse was generated in a supercontinuum (SC) fiber. The excitation wavelength was spectrally selected by the bandpass filter BP (635 nm/10 nm) and synchronized to the de-excitation pulse by the optical delay line DL. The STED pulse shape was controlled in two ways: for short pulses (0.1–3 ps), the optical path consisted of SF11 prisms as pre-compressor and a home-built pulse shaper. The pulse shaper was formed by the <t>diffraction</t> grating DG, the long focal-length lens and the spatial light modulator SLM placed in the Fourier plane created by those elements. For long pulses (10–500 ps, CW), the optical path consisted of polarization-maintaining (PM) fibers of various lengths. CW operation was obtained by preventing mode-locking of the Ti:sapphire laser, and an additional diode laser was used as excitation source in this case (path not shown). To register fluorescence recovery curves, the STED beam intensity was chopped. The excitation (blue) and de-excitation (red) pulses were coupled into the microscope by dichroic mirrors DM and focused into the sample by an objective lens. The fluorescence (green) was collected in back-propagation and registered by a hybrid photomultiplier PMT in a confocal arrangement, with the data acquisition synchronized to the chopper wheel (CH). The insets represent the focal spots of excitation (Exc) and STED beam, as measured by scattered signal of 80 nm gold beads. The dashed circles correspond to the FWHM of intensity. ( b ) Normalized spectral properties of Atto647N and Atto590, with the respective laser wavelengths for excitation and STED. The detection was centred at 690 nm and had 60 nm width (not shown). ( c ) Example excerpt of raw data set for a single measurement (Atto647N), with characteristic levels extracted to derive bleaching, de-excitation and STED-light-induced fluorescence. Each measurement consisted of three intensity traces (curves), registered sequentially: excitation-only, excitation with chopped STED and chopped STED only (acquisition time in each case: ~100 s). C 0 , C E , C ES , C S denote respectively: C 0 the initial signal of fluorescence (due to the excitation beam), C E the fluorescence signal right after end of exposure to the STED beam, C ES the residual fluorescence signal in the presence of both the excitation and STED (de-excitation) beam, and C S the fluorescence signal caused by the STED light. Signals correspond to respective fractions of fluorophores. Excitation: ~500 fs pulse duration (FWHM), 30 μW average power; STED (shown measurement): ~25 ps pulse duration (FWHM), 50 mW average power. The delay between excitation pulse and STED pulse was ~50 ps. All powers were measured at the back aperture of the objective lens. The powers in the focal plane were ~70% of these values due to cut-off at the entrance pupil and transmission of the objective lens.
Diffraction Grating Dg 2400 Lines/Mm Pc 2400 Nir, supplied by Spectrogon US, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pmc05595794-58-6-14?v=Spectrogon+US
Average 90 stars, based on 1 article reviews
diffraction grating dg 2400 lines/mm pc 2400 nir - by Bioz Stars, 2026-08
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90
HORIBA Ltd diffraction gratings 600 grovesmm 1
Experimental setup and measurement principle to extract STED de-excitation, bleaching and STED-light-induced fluorescence. ( a ) Microscope with controllable fluxes of STED de-excitation photons. The laser was a femtosecond oscillator operating at 750 nm. The excitation pulse was generated in a supercontinuum (SC) fiber. The excitation wavelength was spectrally selected by the bandpass filter BP (635 nm/10 nm) and synchronized to the de-excitation pulse by the optical delay line DL. The STED pulse shape was controlled in two ways: for short pulses (0.1–3 ps), the optical path consisted of SF11 prisms as pre-compressor and a home-built pulse shaper. The pulse shaper was formed by the <t>diffraction</t> grating DG, the long focal-length lens and the spatial light modulator SLM placed in the Fourier plane created by those elements. For long pulses (10–500 ps, CW), the optical path consisted of polarization-maintaining (PM) fibers of various lengths. CW operation was obtained by preventing mode-locking of the Ti:sapphire laser, and an additional diode laser was used as excitation source in this case (path not shown). To register fluorescence recovery curves, the STED beam intensity was chopped. The excitation (blue) and de-excitation (red) pulses were coupled into the microscope by dichroic mirrors DM and focused into the sample by an objective lens. The fluorescence (green) was collected in back-propagation and registered by a hybrid photomultiplier PMT in a confocal arrangement, with the data acquisition synchronized to the chopper wheel (CH). The insets represent the focal spots of excitation (Exc) and STED beam, as measured by scattered signal of 80 nm gold beads. The dashed circles correspond to the FWHM of intensity. ( b ) Normalized spectral properties of Atto647N and Atto590, with the respective laser wavelengths for excitation and STED. The detection was centred at 690 nm and had 60 nm width (not shown). ( c ) Example excerpt of raw data set for a single measurement (Atto647N), with characteristic levels extracted to derive bleaching, de-excitation and STED-light-induced fluorescence. Each measurement consisted of three intensity traces (curves), registered sequentially: excitation-only, excitation with chopped STED and chopped STED only (acquisition time in each case: ~100 s). C 0 , C E , C ES , C S denote respectively: C 0 the initial signal of fluorescence (due to the excitation beam), C E the fluorescence signal right after end of exposure to the STED beam, C ES the residual fluorescence signal in the presence of both the excitation and STED (de-excitation) beam, and C S the fluorescence signal caused by the STED light. Signals correspond to respective fractions of fluorophores. Excitation: ~500 fs pulse duration (FWHM), 30 μW average power; STED (shown measurement): ~25 ps pulse duration (FWHM), 50 mW average power. The delay between excitation pulse and STED pulse was ~50 ps. All powers were measured at the back aperture of the objective lens. The powers in the focal plane were ~70% of these values due to cut-off at the entrance pupil and transmission of the objective lens.
Diffraction Gratings 600 Grovesmm 1, supplied by HORIBA Ltd, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/10__1002_slash_aesr__202100098-141-40-7?v=HORIBA+Ltd
Average 90 stars, based on 1 article reviews
diffraction gratings 600 grovesmm 1 - by Bioz Stars, 2026-08
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90
LightSmyth Technologies Inc transmission diffraction grating t-1000-1040-31.8 × 12.3–94
Experimental setup and measurement principle to extract STED de-excitation, bleaching and STED-light-induced fluorescence. ( a ) Microscope with controllable fluxes of STED de-excitation photons. The laser was a femtosecond oscillator operating at 750 nm. The excitation pulse was generated in a supercontinuum (SC) fiber. The excitation wavelength was spectrally selected by the bandpass filter BP (635 nm/10 nm) and synchronized to the de-excitation pulse by the optical delay line DL. The STED pulse shape was controlled in two ways: for short pulses (0.1–3 ps), the optical path consisted of SF11 prisms as pre-compressor and a home-built pulse shaper. The pulse shaper was formed by the <t>diffraction</t> grating DG, the long focal-length lens and the spatial light modulator SLM placed in the Fourier plane created by those elements. For long pulses (10–500 ps, CW), the optical path consisted of polarization-maintaining (PM) fibers of various lengths. CW operation was obtained by preventing mode-locking of the Ti:sapphire laser, and an additional diode laser was used as excitation source in this case (path not shown). To register fluorescence recovery curves, the STED beam intensity was chopped. The excitation (blue) and de-excitation (red) pulses were coupled into the microscope by dichroic mirrors DM and focused into the sample by an objective lens. The fluorescence (green) was collected in back-propagation and registered by a hybrid photomultiplier PMT in a confocal arrangement, with the data acquisition synchronized to the chopper wheel (CH). The insets represent the focal spots of excitation (Exc) and STED beam, as measured by scattered signal of 80 nm gold beads. The dashed circles correspond to the FWHM of intensity. ( b ) Normalized spectral properties of Atto647N and Atto590, with the respective laser wavelengths for excitation and STED. The detection was centred at 690 nm and had 60 nm width (not shown). ( c ) Example excerpt of raw data set for a single measurement (Atto647N), with characteristic levels extracted to derive bleaching, de-excitation and STED-light-induced fluorescence. Each measurement consisted of three intensity traces (curves), registered sequentially: excitation-only, excitation with chopped STED and chopped STED only (acquisition time in each case: ~100 s). C 0 , C E , C ES , C S denote respectively: C 0 the initial signal of fluorescence (due to the excitation beam), C E the fluorescence signal right after end of exposure to the STED beam, C ES the residual fluorescence signal in the presence of both the excitation and STED (de-excitation) beam, and C S the fluorescence signal caused by the STED light. Signals correspond to respective fractions of fluorophores. Excitation: ~500 fs pulse duration (FWHM), 30 μW average power; STED (shown measurement): ~25 ps pulse duration (FWHM), 50 mW average power. The delay between excitation pulse and STED pulse was ~50 ps. All powers were measured at the back aperture of the objective lens. The powers in the focal plane were ~70% of these values due to cut-off at the entrance pupil and transmission of the objective lens.
Transmission Diffraction Grating T 1000 1040 31.8 × 12.3–94, supplied by LightSmyth Technologies Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pmc11282245-145-13-19?v=LightSmyth+Technologies+Inc
Average 90 stars, based on 1 article reviews
transmission diffraction grating t-1000-1040-31.8 × 12.3–94 - by Bioz Stars, 2026-08
90/100 stars
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90
LightSmyth Technologies Inc lithographically patterned transmission diffraction grating
Experimental setup and measurement principle to extract STED de-excitation, bleaching and STED-light-induced fluorescence. ( a ) Microscope with controllable fluxes of STED de-excitation photons. The laser was a femtosecond oscillator operating at 750 nm. The excitation pulse was generated in a supercontinuum (SC) fiber. The excitation wavelength was spectrally selected by the bandpass filter BP (635 nm/10 nm) and synchronized to the de-excitation pulse by the optical delay line DL. The STED pulse shape was controlled in two ways: for short pulses (0.1–3 ps), the optical path consisted of SF11 prisms as pre-compressor and a home-built pulse shaper. The pulse shaper was formed by the <t>diffraction</t> grating DG, the long focal-length lens and the spatial light modulator SLM placed in the Fourier plane created by those elements. For long pulses (10–500 ps, CW), the optical path consisted of polarization-maintaining (PM) fibers of various lengths. CW operation was obtained by preventing mode-locking of the Ti:sapphire laser, and an additional diode laser was used as excitation source in this case (path not shown). To register fluorescence recovery curves, the STED beam intensity was chopped. The excitation (blue) and de-excitation (red) pulses were coupled into the microscope by dichroic mirrors DM and focused into the sample by an objective lens. The fluorescence (green) was collected in back-propagation and registered by a hybrid photomultiplier PMT in a confocal arrangement, with the data acquisition synchronized to the chopper wheel (CH). The insets represent the focal spots of excitation (Exc) and STED beam, as measured by scattered signal of 80 nm gold beads. The dashed circles correspond to the FWHM of intensity. ( b ) Normalized spectral properties of Atto647N and Atto590, with the respective laser wavelengths for excitation and STED. The detection was centred at 690 nm and had 60 nm width (not shown). ( c ) Example excerpt of raw data set for a single measurement (Atto647N), with characteristic levels extracted to derive bleaching, de-excitation and STED-light-induced fluorescence. Each measurement consisted of three intensity traces (curves), registered sequentially: excitation-only, excitation with chopped STED and chopped STED only (acquisition time in each case: ~100 s). C 0 , C E , C ES , C S denote respectively: C 0 the initial signal of fluorescence (due to the excitation beam), C E the fluorescence signal right after end of exposure to the STED beam, C ES the residual fluorescence signal in the presence of both the excitation and STED (de-excitation) beam, and C S the fluorescence signal caused by the STED light. Signals correspond to respective fractions of fluorophores. Excitation: ~500 fs pulse duration (FWHM), 30 μW average power; STED (shown measurement): ~25 ps pulse duration (FWHM), 50 mW average power. The delay between excitation pulse and STED pulse was ~50 ps. All powers were measured at the back aperture of the objective lens. The powers in the focal plane were ~70% of these values due to cut-off at the entrance pupil and transmission of the objective lens.
Lithographically Patterned Transmission Diffraction Grating, supplied by LightSmyth Technologies Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/diffraction+grating/pmc07586786-59-37-39?v=LightSmyth+Technologies+Inc
Average 90 stars, based on 1 article reviews
lithographically patterned transmission diffraction grating - by Bioz Stars, 2026-08
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Image Search Results


Experimental setup and measurement principle to extract STED de-excitation, bleaching and STED-light-induced fluorescence. ( a ) Microscope with controllable fluxes of STED de-excitation photons. The laser was a femtosecond oscillator operating at 750 nm. The excitation pulse was generated in a supercontinuum (SC) fiber. The excitation wavelength was spectrally selected by the bandpass filter BP (635 nm/10 nm) and synchronized to the de-excitation pulse by the optical delay line DL. The STED pulse shape was controlled in two ways: for short pulses (0.1–3 ps), the optical path consisted of SF11 prisms as pre-compressor and a home-built pulse shaper. The pulse shaper was formed by the diffraction grating DG, the long focal-length lens and the spatial light modulator SLM placed in the Fourier plane created by those elements. For long pulses (10–500 ps, CW), the optical path consisted of polarization-maintaining (PM) fibers of various lengths. CW operation was obtained by preventing mode-locking of the Ti:sapphire laser, and an additional diode laser was used as excitation source in this case (path not shown). To register fluorescence recovery curves, the STED beam intensity was chopped. The excitation (blue) and de-excitation (red) pulses were coupled into the microscope by dichroic mirrors DM and focused into the sample by an objective lens. The fluorescence (green) was collected in back-propagation and registered by a hybrid photomultiplier PMT in a confocal arrangement, with the data acquisition synchronized to the chopper wheel (CH). The insets represent the focal spots of excitation (Exc) and STED beam, as measured by scattered signal of 80 nm gold beads. The dashed circles correspond to the FWHM of intensity. ( b ) Normalized spectral properties of Atto647N and Atto590, with the respective laser wavelengths for excitation and STED. The detection was centred at 690 nm and had 60 nm width (not shown). ( c ) Example excerpt of raw data set for a single measurement (Atto647N), with characteristic levels extracted to derive bleaching, de-excitation and STED-light-induced fluorescence. Each measurement consisted of three intensity traces (curves), registered sequentially: excitation-only, excitation with chopped STED and chopped STED only (acquisition time in each case: ~100 s). C 0 , C E , C ES , C S denote respectively: C 0 the initial signal of fluorescence (due to the excitation beam), C E the fluorescence signal right after end of exposure to the STED beam, C ES the residual fluorescence signal in the presence of both the excitation and STED (de-excitation) beam, and C S the fluorescence signal caused by the STED light. Signals correspond to respective fractions of fluorophores. Excitation: ~500 fs pulse duration (FWHM), 30 μW average power; STED (shown measurement): ~25 ps pulse duration (FWHM), 50 mW average power. The delay between excitation pulse and STED pulse was ~50 ps. All powers were measured at the back aperture of the objective lens. The powers in the focal plane were ~70% of these values due to cut-off at the entrance pupil and transmission of the objective lens.

Journal: Scientific Reports

Article Title: Photobleaching in STED nanoscopy and its dependence on the photon flux applied for reversible silencing of the fluorophore

doi: 10.1038/s41598-017-09902-x

Figure Lengend Snippet: Experimental setup and measurement principle to extract STED de-excitation, bleaching and STED-light-induced fluorescence. ( a ) Microscope with controllable fluxes of STED de-excitation photons. The laser was a femtosecond oscillator operating at 750 nm. The excitation pulse was generated in a supercontinuum (SC) fiber. The excitation wavelength was spectrally selected by the bandpass filter BP (635 nm/10 nm) and synchronized to the de-excitation pulse by the optical delay line DL. The STED pulse shape was controlled in two ways: for short pulses (0.1–3 ps), the optical path consisted of SF11 prisms as pre-compressor and a home-built pulse shaper. The pulse shaper was formed by the diffraction grating DG, the long focal-length lens and the spatial light modulator SLM placed in the Fourier plane created by those elements. For long pulses (10–500 ps, CW), the optical path consisted of polarization-maintaining (PM) fibers of various lengths. CW operation was obtained by preventing mode-locking of the Ti:sapphire laser, and an additional diode laser was used as excitation source in this case (path not shown). To register fluorescence recovery curves, the STED beam intensity was chopped. The excitation (blue) and de-excitation (red) pulses were coupled into the microscope by dichroic mirrors DM and focused into the sample by an objective lens. The fluorescence (green) was collected in back-propagation and registered by a hybrid photomultiplier PMT in a confocal arrangement, with the data acquisition synchronized to the chopper wheel (CH). The insets represent the focal spots of excitation (Exc) and STED beam, as measured by scattered signal of 80 nm gold beads. The dashed circles correspond to the FWHM of intensity. ( b ) Normalized spectral properties of Atto647N and Atto590, with the respective laser wavelengths for excitation and STED. The detection was centred at 690 nm and had 60 nm width (not shown). ( c ) Example excerpt of raw data set for a single measurement (Atto647N), with characteristic levels extracted to derive bleaching, de-excitation and STED-light-induced fluorescence. Each measurement consisted of three intensity traces (curves), registered sequentially: excitation-only, excitation with chopped STED and chopped STED only (acquisition time in each case: ~100 s). C 0 , C E , C ES , C S denote respectively: C 0 the initial signal of fluorescence (due to the excitation beam), C E the fluorescence signal right after end of exposure to the STED beam, C ES the residual fluorescence signal in the presence of both the excitation and STED (de-excitation) beam, and C S the fluorescence signal caused by the STED light. Signals correspond to respective fractions of fluorophores. Excitation: ~500 fs pulse duration (FWHM), 30 μW average power; STED (shown measurement): ~25 ps pulse duration (FWHM), 50 mW average power. The delay between excitation pulse and STED pulse was ~50 ps. All powers were measured at the back aperture of the objective lens. The powers in the focal plane were ~70% of these values due to cut-off at the entrance pupil and transmission of the objective lens.

Article Snippet: The pulse shaper consisted of a diffraction grating DG (2400 lines/mm, PC 2400 NIR, Spectrogon), a long focal length lens f = 400 mm and a liquid crystal spatial light modulator SLM (SLM-S640d, Jenoptik) in double-pass configuration.

Techniques: Fluorescence, Microscopy, Generated, Transmission Assay