Transport Chute Drive Means for Layer Formation

Instead of allowing goods to passively slide or be actively conveyed in the fall direction, the patent inverts the approach by using a moveable interrupt that actively prevents goods from entering the slip point until the lowest layer is properly formed. This reversal of the conventional passive conveyance method eliminates wedging damage while maintaining tight packing.

The interrupt is designed to be moveable rather than fixed, allowing it to dynamically adjust its position. During the filling phase, the interrupt moves to block the slip point and prevent goods from wedging. Once the lowest layer is formed, the interrupt moves away to allow controlled discharge. This dynamic behavior resolves the contradiction between preventing damage and enabling efficient storage.

The interrupt is made moveable to dynamically control the formation of the lowest layer. By positioning the interrupt to allow only one layer to form before blocking further passage, the system prevents excessive back pressure accumulation while still enabling multi-layer storage capacity. The moveable nature allows the system to adapt pressure management to the current filling state.

The system uses the moveable interrupt to preliminarily control and regulate the formation process of the lowest layer before allowing subsequent layers to accumulate. This preliminary action ensures that goods are properly positioned and distributed before additional layers are added, preventing excessive compression and back pressure buildup during the storage process.

The patent extracts the drive means from the slide surface and replaces it with a moveable interrupt mechanism. Instead of integrating complex drive systems into the slide surface to control goods movement, the solution uses a simpler moveable interrupt that passively controls the formation and discharge of goods layers, thereby reducing system complexity while maintaining damage prevention.

The moveable interrupt system allows the transport slide to self-regulate the formation and discharge of goods layers without requiring complex active drive means. The interrupt automatically positions itself to control the process based on the filling state, enabling the system to manage goods flow and prevent damage through self-service rather than complex external control mechanisms.