A system of mitigating force in a mechanical system, the system comprising a frame member, a first rail connected to the frame member, a second rail connected to the frame member and extending along the frame member in parallel to the first rail, an assembly movably engaging the first and second rails, and a first bracket located between the first and second rails, with at least one first bracket attachment secured to the frame member, the first bracket sharing an upper edge with a lower edge of the first rail, such that a downward force applied on the first rail is distributed to the first bracket and the frame member via the at least one first bracket attachment.

A system of mitigating force in a mechanical system, the system comprising a frame member, a first rail connected to the frame member, a second rail connected to the frame member and extending along the frame member in parallel to the first rail, an assembly movably engaging the first and second rails, and a first bracket located between the first and second rails, with at least one first bracket attachment secured to the frame member, the first bracket sharing an upper edge with a lower edge of the first rail, such that a downward force applied on the first rail is distributed to the first bracket and the frame member via the at least one first bracket attachment.

A system of mitigating force in a mechanical system, the system comprising a frame member, a first rail connected to the frame member, a second rail connected to the frame member and extending along the frame member in parallel to the first rail, an assembly movably engaging the first and second rails, and a first bracket located between the first and second rails, with at least one first bracket attachment secured to the frame member, the first bracket sharing an upper edge with a lower edge of the first rail, such that a downward force applied on the first rail is distributed to the first bracket and the frame member via the at least one first bracket attachment.

The present invention relates to a food processing device, for example but not exclusively, a gripper, a conveying hook, or a collection cup (1), having at least one processing surface portion of matt stainless steel having the following roughness characteristics: a roughness value Ra, 0.2Ra1.2 (m), and a peak density value Rpc, 40<Rpc<140 (1/cm). It has been found that with devices treated in this manner, the application of vision technology is appreciably improved, so that much more reliable images are obtained. An example of this concerns observing yolk in albumen upon the breaking of eggs in egg breakers. Further, a particularly advantageous combination of usefulness is obtained, in this case for vision and cleanability.

The present invention relates to a food processing device, for example but not exclusively, a gripper, a conveying hook, or a collection cup (1), having at least one processing surface portion of matt stainless steel having the following roughness characteristics: a roughness value Ra, 0.2Ra1.2 (m), and a peak density value Rpc, 40<Rpc<140 (1/cm). It has been found that with devices treated in this manner, the application of vision technology is appreciably improved, so that much more reliable images are obtained. An example of this concerns observing yolk in albumen upon the breaking of eggs in egg breakers. Further, a particularly advantageous combination of usefulness is obtained, in this case for vision and cleanability.

A system and method for optimizing mail sorting equipment based upon various commingled data files and user selected options includes a sorter, an optimizing system, and a computer for optimizing the sort plan based upon the data files and user settings.

A system and method for optimizing mail sorting equipment based upon various commingled data files and user selected options includes a sorter, an optimizing system, and a computer for optimizing the sort plan based upon the data files and user settings.

Embodiments of this disclosure include a rigid tray container and methods and equipment for using the rigid tray container in batched process operations. In one embodiment, a mass container is sized and dimensioned to receive one or several rigid tray containers. In other embodiments, equipment is configured to lid/unlid, secure, stack, load/unload, and buffer rigid tray containers. In other embodiments, equipment is configured to stack and stage mass containers. In some embodiments, methods are provided for batch processing items.

Embodiments of this disclosure include a rigid tray container and methods and equipment for using the rigid tray container in batched process operations. In one embodiment, a mass container is sized and dimensioned to receive one or several rigid tray containers. In other embodiments, equipment is configured to lid/unlid, secure, stack, load/unload, and buffer rigid tray containers. In other embodiments, equipment is configured to stack and stage mass containers. In some embodiments, methods are provided for batch processing items.

A system of mitigating force in a mechanical system, the system comprising a frame member, a first rail connected to the frame member, a second rail connected to the frame member and extending along the frame member in parallel to the first rail, an assembly movably engaging the first and second rails, and a first bracket located between the first and second rails, with at least one first bracket attachment secured to the frame member, the first bracket sharing an upper edge with a lower edge of the first rail, such that a downward force applied on the first rail is distributed to the first bracket and the frame member via the at least one first bracket attachment.