An alignment aid with halogen atoms and photo-polymerizable groups controls pre-tilt uniformity, eliminating afterimages from non-polymerized residues.
A liquid crystal composition with negative dielectric anisotropy and specific polymerizable compounds forms a structured network to align molecules.
Fluorinated liquid crystal compounds balance stability, viscosity, and dielectric properties to resolve trade-offs between viewing angle and response time.
Amphiphilic self-aligning monomers resolve adsorption versus spreading contradictions, eliminating alignment film defects.
Phenoxyphenylsilane polymers raise refractive indices to reduce internal reflections in LED encapsulants while maintaining thermal stability.
A liquid crystal composition uses difluoroether monomers to replace chlorine compounds, enhancing voltage holding ratio and response time.
Cholesteric liquid crystal medium forms a polymer network to optimize helical pitch, achieving high haze and fast switching for infrared reflection.
Substituted aryl and quinolinyl groups on a triazine core improve thermal stability and reduce driving voltage while maintaining high luminous efficiency.
A liquid crystal composition uses specific molecular structures to achieve fast response speed and low driving voltage.
A liquid crystal composition incorporating a reactive mesogen improves voltage holding ratio and response speed.
A side group liquid crystal polymer additive stabilizes ferroelectric liquid crystal molecules into bookshelf geometry.
Fluorinated liquid-crystalline media reduce dielectric loss and enhance low-temperature stability in high-frequency devices.
A photosensitive alignment film aligns liquid crystals via optical radiation to eliminate mechanical rubbing.
Compounds of formula IA and IB provide high dielectric anisotropy and low rotational viscosity for electro-optical applications.
A polymerizable liquid crystal composition with reverse-wavelength dispersion properties and a specific ultraviolet absorber.
A liquid crystal polyester resin composition incorporating polyphenylene sulfide and specific fillers to enhance mechanical strength.
A liquid crystal composition with positive dielectric anisotropy enables high-speed responsiveness in display elements.
Segmented glass layers and spacers resist high-speed impacts while maintaining image clarity, preventing shattering in outdoor environments.
Azobenzene liquid crystal polymers enable continuous, reversible motion without thermal reactions, allowing the actuator to operate in various environments.
Novel dibenzothiophene liquid-crystalline compounds deliver high tunability and low dielectric loss for gigahertz applications.
Guest-host mixture of liquid crystal and dichroic dye alters light transmission between clear and dark states.
A liquid crystal composition with specific compounds achieves high dielectric anisotropy and low viscosity.
A dual-frequency cholesteric liquid crystal medium enables bistable switching between transparent and opaque states using frequency-dependent dielectric anisotropy.
Self-assembling rod-like macromolecules form a uniaxial optical retardation layer that reduces light leakage and maintains contrast across wide viewing angles.
Photoactive chromophores in polymerized monomers enable non-invasive refractive power adjustment, resolving residual vision issues from eye geometry changes.
A light controlling apparatus uses cholesteric liquid crystals to switch between focal conic and homeotropic states.
Composite liquid crystal compounds provide high dielectric anisotropy and stability, enabling low driving voltage across a broad temperature range.
A polyimide alignment film forms polymer protrusions to orient liquid crystal molecules vertically.
Novel organic compound increases voltage holding ratio to reduce charge leakage and prevent image flicker at low refresh rates.
Incorporating C—C triple bonds into liquid-crystalline media reduces energy losses in phase shifters while maintaining broad nematic phase ranges.
A polymer film combining binder resin and polyrotaxane provides high elongation and flexibility for rollable display applications.
Specific void distributions in liquid crystal polyester pellets suppress blister formation during high-temperature reflow treatments.