Dipole Alignment Process Using Heat, Light, and Electric Fields

The patent applies preliminary action by pre-heating the substrate before inkjet printing to establish optimal temperature conditions in advance. This allows the solvent to maintain reduced viscosity during printing and alignment processes, ensuring better dipole alignment quality while controlling evaporation rates through predetermined temperature management.

The patent utilizes parameter changes by dynamically adjusting temperature as a critical parameter throughout the manufacturing process. By controlling temperature at different stages (substrate heating, printing, alignment), the system optimizes solvent viscosity for each phase, improving dipole alignment while managing evaporation through parameter optimization rather than simple increase.

The patent applies local quality by directing light irradiation only to specific regions where dipole alignment is required, rather than uniform illumination of the entire substrate. This localized approach increases alignment reactivity at target areas while minimizing overall energy consumption by avoiding unnecessary irradiation of non-critical regions.

The patent utilizes periodic action by applying light irradiation in controlled pulses or cycles rather than continuous illumination. This allows dipole moments to be enhanced during irradiation periods while reducing energy consumption during non-irradiation periods, maintaining alignment reactivity through intermittent stimulation.