BP418-5 Bandpass Filter(CWL=418nm,FWHM=5nm)
$105.00
BP357-5 Bandpass Filter(CWL=357nm,FWHM=5nm)
$105.00
BP672-3 Bandpass Filter(CWL=672nm,FWHM=3nm)
$168.00
BP656-3 Bandpass Filter(CWL=656nm,FWHM=3nm)
$168.00
BP785-1 Bandpass Filter(CWL=785nm,FWHM=1nm)
$254.00
BP1570-5 Bandpass Filter(CWL=1570nm,FWHM=5nm)
$85.00
BP662-5 Bandpass Filter(CWL=662nm,FWHM=5nm)
$105.00
BP651-5 Bandpass Filter(CWL=651nm,FWHM=5nm)
$105.00
BP420-5 Bandpass Filter(CWL=420nm,FWHM=5nm)
$105.00
BP808-3 Bandpass Filter(CWL=808nm,FWHM=3nm)
$168.00
BP703-3 Bandpass Filter(CWL=703nm,FWHM=3nm)
$168.00
BP648-3 Bandpass Filter(CWL=648nm,FWHM=3nm)
$168.00
BP632-3 Bandpass Filter(CWL=632nm,FWHM=3nm)
$168.00
BP500-3 Bandpass Filter(CWL=500nm,FWHM=3nm)
$168.00
BP1064-2 Bandpass Filter(CWL=1064nm,FWHM=2nm)
$171.00
BP792-2 Bandpass Filter(CWL=792nm,FWHM=2nm)
$171.00
BP683-2 Bandpass Filter(CWL=683nm,FWHM=2nm)
$171.00
BP580-2 Bandpass Filter(CWL=580nm,FWHM=2nm)
$171.00
BP535-2 Bandpass Filter(CWL=535nm,FWHM=2nm)
$171.00
BP532-2 Bandpass Filter(CWL=532nm,FWHM=2nm)
$171.00
Applications of Narrow Bandwidth Optical Bandpass Filters (≤5nm)
Application | Use Case | Real Case Example | Reference |
---|---|---|---|
Astronomical Observations | Isolating specific emission lines from celestial objects | NASA Solar Dynamics Observatory (SDO) uses Fabry-Perot etalons with sub-5nm bandwidths to observe specific solar emission lines at 393.4nm (Ca II K-line) and 656.3nm (H-alpha) | Big Bear Solar Observatory's Visible Imaging Spectrometer uses 0.5nm bandpass filters for solar chromosphere studies |
Raman Spectroscopy | Separating weak Raman signals from strong laser excitation | Thermo Fisher Scientific's DXR3xi Raman microscope incorporates ultra-narrow bandpass filters (3nm) to achieve high spectral resolution | Nature publication by Ji et al. (2021) demonstrating surface-enhanced Raman spectroscopy using 3nm bandpass filters to detect single-molecule interactions |
Fluorescence Microscopy | Isolating specific fluorophore emissions while minimizing crosstalk | Leica's SP8 STED super-resolution microscope uses filters with 2-4nm bandwidths to achieve resolution below diffraction limit | Cell publication by Schermelleh et al. (2019) using multi-color super-resolution microscopy with 4nm bandwidth emission filters |
Optical Communications | Dense Wavelength Division Multiplexing (DWDM) systems | Ciena's WaveLogic 5 platforms employ narrow filters (typically 0.8nm/100GHz) to pack multiple channels into optical fibers | ITU-T G.694.1 standard defines DWDM grid with channel spacings requiring filters as narrow as 0.4nm (50GHz) |
LIDAR and Remote Sensing | Detecting specific atmospheric gas absorption lines | NASA's CALIPSO satellite uses 1nm bandpass filters to observe specific atmospheric aerosol signatures | ESA's ADM-Aeolus wind LIDAR mission employs 0.5nm filters to detect Doppler-shifted backscatter from atmospheric molecules |
Advanced Flow Cytometry | Multi-parameter cellular analysis with minimal spectral overlap | Beckman Coulter's CytoFLEX LX analyzer uses 3nm bandpass filters to discriminate between 21+ fluorescent markers simultaneously | Published work from Stanford FACS facility showing 28-color immunophenotyping using narrow bandpass filters |
Quantum Optics | Isolating specific atomic transition lines | NIST quantum computing labs use 0.5-3nm filters for precise wavelength selection in ion trap experiments | Nature Physics publication by Monroe et al. (2021) demonstrating quantum gates using trapped ions with narrow-band optical filtering |
Medical Diagnostics | Fluorescence-based cancer detection | Olympus' endoscopic imaging system uses 4nm bandpass filters for autofluorescence imaging to detect early gastrointestinal cancers | Clinical trial results published in Gastroenterology showing improved detection rates using narrow bandwidth optical filtering |