A method for batching articles constituted by solid food products having a first property and a first quantity. The first property may be lean degree and the first quantity may be weight. The method provides a conveyor system and a batcher having a plurality of batcher heads such that articles within the batcher heads may be selected and batched according to a first target range of the first property and a first target interval of the first quantity. The method may ensure that different grades of the first property may not contaminate each other.

A piping structure (1A) comprises a first pipe (10) to which food (H) is supplied, a plurality of second pipes (20) provided downstream of the first pipe (10) and connected to the first pipe (10), and a plurality of third pipes (30) provided downstream of the second pipes (20), a number of the plurality of third pipes being connected to each of the second pipes (20).

A batching system (200) for use in a food packaging system comprises a batching table (202) having a plurality of filling stations (206) positioned around an axis of a predefined delivery position. A weigher (204) is operable to provide food product in predefined batches at the delivery position; and a conveyor (230) is provided for transporting said batches provided from the weigher (204) to at least one of said plurality of filling stations.

Techniques and technologies are generally described herein for providing shape memory polymer packaging for meat products from sheets or films of shape memory polymer material. Shape memory polymers are a class of smart materials which have the ability to return to their original or trained state from a deformed or temporary state when a stimulus is provided. The stimulus is typically a temperature change. The stimulus may also be exposure to an electric or magnetic field, exposure to light, or even exposure to a particular atmosphere, e.g., water. Shape memory polymers now include many materials, including both thermoplastic materials and thermoset materials (covalently cross-linked). The memory effect of the shape memory polymer is used to shape a meat product and to make the meat product more attractive to a consumer.

A process and an apparatus for controlling temperature loss and shrinkage of meat after an animal is slaughtered for food. Shrinkage is controlled by compressing the meat during cooling, the compression offsetting a natural tendency of the meat to contract and providing a measure of control over the shaping of the meat. Apparatus for the process includes one or more rigid rings for placement around the meat. Each ring is wrapped with a thread secured rigidly to one side of the ring and secured movably to the other side such as to allow the length of thread on the second side of the rigid ring to form at least one winding around the meat. As the meat cools, the thread shrinks, applying the thermal contraction of the thread along the ring to constrict the winding around and thus longitudinally elongate the meat.

A robot gripper that takes stacked patties from a conveyor and moves then to a packaging device.

A gripper device is configured to pick up a pliable food product having a tail-like part from a pick-up area and releasing it at a releasing area, where a support is provided. A pair of jaws is mounted to the support for movement of distal ends thereof towards each other defining a closing position of the pair of jaws and away from each other defining an open position of the pair of jaws. A tail bender device is attached to the support and adjacent to one end of the pair of jaws. The tail bender device is moveable in relation to the pair of jaws and is configured to bend the tail-like part while transferring the food product from the pick-up area until releasing it at the releasing area.

In an embodiment, an apparatus for processing meat product and a method of using same is provided. A first station includes a scanner which scans features of a meat product. A second station side straps the meat product in accordance with information received from the scan of the features. The second station includes a support, and spaced-apart knifes disposed on opposite sides of the support. Each knife has an axis of rotation that is normal to the longitudinal axis of the support. A position of each knife relative to the support in a direction normal to the longitudinal axis can be varied. A controller is programmed to control movement of each knife in accordance with the information received from the scanner.

A conveyor system includes a frame, a plurality of rollers, a driving mechanism, a plurality of endless belts, and a lifting assembly. The plurality of rollers is rotatably attached to the frame. The driving mechanism is configured to rotate the plurality of rollers. The plurality of endless belts surrounds the plurality of rollers. The lifting assembly includes a plurality of surface and an actuator. The actuator is configured to move the plurality of surfaces between a raised position disposed above the plurality of belts and a lowered position disposed below the plurality of belts.

This disclosure relates to apparatuses and methods for processing and grading food articles. For example, provided herein is a system for grading a portioned food article, in which the system includes: a first conveyor; a first receiving conveyor and a second receiving conveyor, defining a space therebetween; at least one spray-removal robot; and a third receiving conveyor. The spray-removal robot may include at least one valve with a nozzle, in which the valve ejects fluid through the nozzle to impact a food article being moved on the first conveyor toward the third receiving conveyor, such that at least one portion of the food article is moved by the impact through the space between the first receiving conveyor and the second receiving conveyor, and such that at least one portion of the food article is moved by the first receiving conveyor and the second receiving conveyor to the third receiving conveyor.