Relationship between electric field strength and helix pitch in induced cholesteric-nematic phase transitions
Electric field strength and helix pitch relationship in induced cholesteric-nematic phase transitions
Engineering topics
Publications and source records attributed to Baessler, H..
Electric field strength and helix pitch relationship in induced cholesteric-nematic phase transitions
Electric field effects on dielectric properties and molecular arrangements of cholesteric liquid crystals
Electric field effects on optical rotary power of compensated cholesteric liquid crystal
Alternating current field induced cholesteric and nematic liquid crystal phase transitions
Dipole relaxation and molecular arrangements in liquid crystals
Dielectric constants measurements and magnetic field effects on compensated cholesteric liquid crystals
Absence of helical inversion in single component cholesteric liquid crystals
Helical twisting power of steroidal solutes in cholesteric liquid crystal mesophases
Infrared transmission measurement of pitch of cholesteric liquid crystal
Liquid crystal of cholesteryl chloride and myristate measured for complex dielectric constant, noting role of molecular rotation modes in dipole relaxation
Helical twisting power of steroidal solutes in cholesteric mesophases, discussing nematic temperature shift dependence on ester chain
Thermally induced helical inversion absence in single component cholesteric liquid crystals indicating impurity compensation
Cholesteric liquid crystal pitch from IR transmission measurements
Molecular dipole moments-electric field interaction induction of cholesteric liquid crystal transition to nematic phase
Electric and magnetic field effects on structure and properties of cholesteric liquid crystals
Cholesteryl chloride-cholesteryl myristate /CM/ mixture liquid crystal molecular and helical axes orientation from dielectric constant change measurements in magnetic fields
Optical rotatory power measurement for compensated cholesteric liquid crystal helical structure to observe thermally induced inversion and electric field perturbations
Electric field effects on dielectric properties and molecular arrangements of cholesteric liquid crystals with temperature dependent helical pitch