FDM Overhang Printing With Vertical Supportless Layer Deposition

The patent applies dynamics by making the building plate movable rather than fixed. The building plate is configured to move between a first position during printing and a second position for release, allowing the system to adapt its configuration based on the operational phase. This dynamic repositioning enables the plate to maintain strong adhesion during printing while facilitating easy object release afterward.

The patent introduces a spatial dimension solution by tilting the building plate at a specific angle (α) relative to the horizontal plane. This angular orientation creates favorable stress distribution and adhesion conditions for objects printed at low inclination angles. The dimensional change in plate orientation enables both strong bonding during printing and facilitated release by altering the gravitational and adhesive force vectors.

The patent applies preliminary action by pre-heating the building plate to the melting temperature of the filament material before printing begins. This preliminary heating eliminates the need for repeated heating cycles during layer deposition, as the plate maintains optimal temperature throughout the printing process. The preparatory thermal conditioning enables continuous printing without thermal cycling interruptions.

The patent implements continuity of useful action by maintaining the building plate at a constant elevated temperature throughout the entire printing process. This continuous thermal state allows uninterrupted material deposition and bonding, eliminating the stop-start nature of repeated heating and cooling cycles. The sustained thermal environment enables continuous productive operation while maintaining printing precision.

The patent applies preliminary action by pre-heating the building plate to the melting temperature of the filament material before printing begins. This single preliminary heating action ensures optimal adhesion for the first layer and subsequent layers, eliminating the need for repeated heating cycles. The energy investment is made once at the start rather than continuously throughout the printing process.

The patent maintains the building plate at a constant elevated temperature throughout the printing process, creating a continuous thermal state that sustains optimal adhesion conditions. This continuous thermal maintenance requires less total energy than repeated heating and cooling cycles, as it avoids the energy losses associated with thermal cycling and allows uninterrupted printing operations.