Elongate Deposition Source for Oblique Incidence Control

The patent employs dynamic adjustment mechanisms that allow real-time modification of the angle of incidence during the deposition process. The deposition source or substrate holder can be rotated or tilted dynamically to achieve precise control over the angle at which material is deposited, enabling the creation of magnetic anisotropy without requiring a permanently complex fixed-angle system.

The invention utilizes parameter changes by varying the angle of incidence, deposition rate, and other process parameters during material deposition. By dynamically adjusting these parameters, the system can optimize magnetic anisotropy creation while avoiding the need for permanently complex mechanical structures.

The patent implements periodic action through alternating deposition processes where the angle of incidence is varied periodically during deposition. This allows different regions of the substrate to receive material at optimized angles at different times, achieving uniform layer characteristics across the entire substrate while maintaining reasonable deposition speeds through continuous process cycling.

Dynamic adjustment of deposition parameters during the process allows the system to optimize both layer quality and deposition speed. By rapidly adjusting angles and rates in real-time, the system can maintain high productivity while achieving the precise layer characteristics required for magnetic anisotropy.

The patent applies preliminary action by pre-configuring the deposition system with programmable angle settings and automated control sequences. Before deposition begins, all required angle adjustments for multiple layers are pre-programmed, allowing the system to automatically transition between different deposition angles and azimuthal orientations without manual intervention, thus reducing adjustment time while maintaining high adaptability.

The invention replaces manual mechanical adjustment systems with automated control mechanisms, including computer-controlled motors and sensors that can rapidly and precisely adjust deposition angles. This substitution of automated systems for manual operations dramatically reduces adjustment time between layers while maintaining full flexibility for different layer configurations.