Meadowlark Optics Basic Polarization Techniques and Devices © 2005 Meadowlark Optics, Inc. This application note…
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Whitepapers, app notes, and research for customer reference and education
Polarizer Selection Guide
Meadowlark Optics Meadowlark Polarizers are available in circular, linear, and beam splitting types. Standard models…
Compact Optical Beam Scanner
Geometric-phase microscopy (GPM) uses changes in the phase of light passing through biological specimens to yield high-resolution and high-contrast images, instead of relying on the attenuation of light used conventionally. Polarization optics and a spatial light modulator generate spatially variant polarization states of light that interact with the sample, creating a relative phase shift between transmitted and reflected light waves. By analyzing the phase information, GPM can reveal details not visible with other microscopy techniques. GPM is an effective non-invasive tool for live cell and tissue studies, with potential to enhance biological systems knowledge.
Liquid Crystal Selection Guide
Meadowlark Optics Meadowlark spatial light modulators (SLMs) will take your research to the next level….
Protected: The CHROMIS Polarimetric Modulator
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Protected: The CHROMIS Modulator Case Study
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Inouye Solar Telescope
Meadowlark Optics The National Science Foundation’s Daniel K. Inouye Solar Telescope (DKIST), located on the…
Bose-Einstein Condensation in Alkali Vapors
Meadowlark Optics “The Bose-Einstein Condensate” is a groundbreaking achievement in the field of physics, for…
Video: Meadowlark Spatial Light Modulators at Quantum 2.0 2023
Geometric-phase microscopy (GPM) uses changes in the phase of light passing through biological specimens to yield high-resolution and high-contrast images, instead of relying on the attenuation of light used conventionally. Polarization optics and a spatial light modulator generate spatially variant polarization states of light that interact with the sample, creating a relative phase shift between transmitted and reflected light waves. By analyzing the phase information, GPM can reveal details not visible with other microscopy techniques. GPM is an effective non-invasive tool for live cell and tissue studies, with potential to enhance biological systems knowledge.
Geometric-Phase Microscopy for Quantitative Phase Imaging of Isotropic, Birefringent and Space-Variant Polarization Samples
Geometric-phase microscopy (GPM) uses changes in the phase of light passing through biological specimens to yield high-resolution and high-contrast images, instead of relying on the attenuation of light used conventionally. Polarization optics and a spatial light modulator generate spatially variant polarization states of light that interact with the sample, creating a relative phase shift between transmitted and reflected light waves. By analyzing the phase information, GPM can reveal details not visible with other microscopy techniques. GPM is an effective non-invasive tool for live cell and tissue studies, with potential to enhance biological systems knowledge.