Abstract: A system for cutting a workpiece into one or more portions or final pieces, and then transferring the final pieces to a receiving location, includes a conveyor configured to support and advance workpiece, as well as a cutter configured to cut the workpiece into the final pieces. At least one fluid nozzle is positioned relative to the conveyor and selectively activatable to discharge a stream of fluid at a predetermined location(s) on the final piece, thereby to propel the final piece from the conveyor to a receiving location. A controller activates the nozzle to direct the fluid stream at the target position(s) on the final pieces.

Abstract: A continuous low temperature food pasteurization system (10) includes a conveyor system (20) for conveying food products (FP) through a pasteurization chamber (40). A pre heater (140) may be located upstream from the pasteurization chamber, and an optional post heater (160) may be located downstream from the pasteurization chamber. A chiller and/or freezer (100) rapidly chills and/or freezes the food product after pasteurization as the conveyor system conveys the food product through the freezer. A control system (250) controls the operation of the pasteurization system to ensure that a desired percentage of pathogenic microorganisms present on the surface and/or within the interior of the food product are killed.

Abstract: A thermal processing and control system (10) includes a thermal processing station (12) for receiving food products (14) being carried on a conveyor system (16). A first scanning station (18) is located upstream from a similar processing station (12) for scanning the food products being carried by the conveyor (16). A second scanning station (20) is located downstream of the thermal processing station (12). A diverter conveyor (24) diverts selected food products (14) from the conveyor (16) to a transverse conveyor (26) which is capable of positioning the diverted food product onto a temperature measurement station (28), whereat the temperature of the food product is measured, either manually or automatically.

Abstract: A thermal processing and control system (300) includes a thermal processing station (312) for receiving food products (14) being carried on a conveyor system (316). A first scanning station (318) is located upstream from the thermal processing station (312) for scanning the food products being carried by the conveyor (316). An actuator (420) automatically connects temperature measuring devices (402) with selected food products (14). A diverter conveyor (324) diverts selected food products (14) from the conveyor (316) to a transverse conveyor (326) for either further processing or alternative processing, depending on how system (300) is configured. The temperature measuring devices (402) are automatically removed from the food products at station (329).

Abstract: A portioning system (10) for cutting a work product (13) into a diced pattern as the work product is being carried by a conveyor (12). A cutter actuator (17) moves at least one cutter (18) parallel and transverse to the conveyor (12) either singularly or simultaneously at a speed significantly faster than the travel speed of the conveyor. A control system (220) is capable of controlling the direction and speed of movement of the cutter (18) and the conveyor (12) according to one or more directly controlled parameters including cutter pattern width, belt speed, cutter movement speed, cutter direction of movement, shape of desired end product(s), weight of desired end product(s), size of desired end product(s).

Abstract: Slicing guide for slicing food products using a cutting device consisting of a base unit for receiving a food product to be sliced, the base unit consisting of a bottom pan and spaced-apart side walls extending along the pan, the side walls having upper edge portions. The slicing guide also including a top having one end attached to the base unit to be rotatable between an open position rotated away from the base unit and an in-use position wherein the top is pressable against the food product to be sliced. The lower surface of the top cooperating with the upper edges of the side walls to define a guide slot for receiving and guiding the cutting device positioned transversely to the base unit to slice the food product.

Abstract: Processing a work piece by first scanning the work piece. The work piece is modeled to determine its weight, outer perimeter and/or how the work piece could be divided into portions of specific areas and perimeters based on desired portion weights of desired areas and perimeters. The modeled work piece and/or the modeled portions are compared with the one or more desired perimeter configurations. The deviation of the modeled outer perimeter size of the work piece and/or portions from the desired perimeter configuration(s) is calculated. Based on such calculations, one or more steps in processing the work piece and/or portions therefrom is carried out. Such one or more steps may include modeling the work piece again, using different modeling criteria or options, if the calculated deviation is outside an acceptable range.

Abstract: An apparatus (20) for cutting a workpiece (100) includes a conveyor (30) for advancing the workpiece. A drive mechanism (26) is disposed above the conveyor (30) and is selectively moveable in one or more directions. A cutter (50) is attached to the drive mechanism (26) to move with the drive mechanism (26) relative to the conveyor (30). The cutter 50 is adapted to intermittently cut the workpiece (100) to form a pattern that comprises a plurality of sequential cut and uncut sections.

Abstract: Processing a work piece by first scanning the work piece. The work piece is modeled to determine its weight, outer perimeter and/or how the work piece could be divided into portions of specific areas and perimeters based on desired portion weights of desired areas and perimeters. The modeled work piece and/or the modeled portions are compared with the one or more desired perimeter configurations. The deviation of the modeled outer perimeter size of the work piece and/or portions from the desired perimeter configuration(s) is calculated. Based on such calculations, one or more steps in processing the work piece and/or portions therefrom is carried out. Such one or more steps may include modeling the work piece again, using different modeling criteria or options, if the calculated deviation is outside an acceptable range.

Abstract: Processing a work piece by first scanning the work piece. The work piece is modeled to determine its outer perimeter and/or how the work piece could be divided into portions of specific areas and perimeters based on desired portion sizes of desired areas and perimeters. The modeled work piece and/or the modeled portions are compared with the one or more desired perimeter configurations. The deviation of the modeled outer perimeter size of the work piece and/or portions from the desired perimeter configuration(s) is calculated. Based on such calculations, one or more steps in processing the work piece and/or portions therefrom is carried out. Such one or more steps may include modeling the work piece again, using different modeling criteria or options, if the calculated deviation is outside an acceptable range.

Abstract: An apparatus for gas treatment of products rises a housing having top, bottom and side walls; a conveyor belt for transporting the products along a first path in the housing; a tunnel having perforated walls and enclosing the conveyor belt along the first path; a gas circulation device communicating with the tunnel via the perforated walls for circulating gas into the tunnel in the form of gas jets impinging upon the products carried by the conveyor belt, and out of the tunnel in a return channel back to the gas circulation device; and a gas conditioning device positioned in the return channel. At least one substantially vertical part of the connecting walls of the high-pressure chamber is removable so as to provide access to the inside of the pressure chamber, and at least one of the side walls of the housing along the high-pressure chamber may be movable so as to widen the space between at least one wall and the high-pressure chamber.

Abstract: An apparatus for destroying pathogens on food, including a steam chamber having an entrance opening and an exit opening. An entrance door structure nominally closes the entrance opening in the steam chamber and an exit door structure nominally closes the exit opening of the steam chamber. Each of the entrance and exit door structures are composed of a plurality of closely vertically adjacent segments that are mounted to the entrance and exit openings to open and close independently of each other. Flanges extend horizontally from the upper and lower edges of the door segments to maintain a relatively close seal with the adjacent door segment even though the door segments are opened or closed a relatively differing amount.

Abstract: An apparatus for destroying pathogens on meat includes a dewatering station, a steam heating chamber, and a cooling chamber. The meat is treated as it is moved along by a conveyor. The dewatering chamber includes an air blower with nozzles for blowing air at the surface of the meat to remove surface water from the meat. The steam heating chamber is disposed adjacent the dewatering chamber and includes a steam heating chamber enclosure that is sealed for maintaining a positive pressure in the steam heating chamber relative to the dewatering chamber. In one embodiment the steam chamber moves along with the meat on the conveyor. The cooling chamber is disposed adjacent the steam chamber opposite from the dewatering station. The cooling chamber has nozzles for spraying chilled water onto the surface of the meat for rapidly cooling the meat after it is passed through the steam heating chamber. The meat conveyor extends through the dewatering chamber, the steam chamber, and the chilled water chamber.

Abstract: An apparatus for destroying pathogens on meat includes a dewatering station, a steam heating chamber, and a cooling chamber. The meat is treated as it is moved along by a conveyor. The dewatering chamber includes an air blower with nozzles for blowing air at the surface of the meat to remove surface water from the meat. The steam heating chamber is disposed adjacent the dewatering chamber and includes a steam heating chamber enclosure that is sealed for maintaining a positive pressure in the steam heating chamber relative to the dewatering chamber. In one embodiment the steam chamber moves along with the meat on the conveyor. The cooling chamber is disposed adjacent the steam chamber opposite from the dewatering station. The cooling chamber has nozzles for spraying chilled water onto the surface of the meat for rapidly cooling the meat after it is passed through the steam heating chamber. The meat conveyor extends through the dewatering chamber, the steam chamber, and the chilled water chamber.

Abstract: A conveyor belt washer having a plurality of nozzles (12) for ejecting water jets towards an upper side of a foraminous conveyor belt (5). A tank (2) is positioned under the foraminous conveyor belt for receiving water ejected from the nozzles, the tank having a foraminous top side (17) for separating particles accompanying the water, an outlet opening (16) in a lower part (9) thereof and a ventilating opening in an upper part (8) thereof. The conveyor belt washer further having a pump (24) with an inlet and an outlet (29), and pipings (27, 28) connecting the outlet opening of the tank to the inlet of the pump, and the outlet of the pump to the plurality of nozzles, such that the water is recirculated and air entrained by the water through the foraminous top side of the tank escapes through the ventilating opening thereof.

Abstract: An apparatus for stabilizing food products prior to freezing thereof comprises a frame defining a vertical channel. A plurality of rollers are rotatably mounted in the frame and form a substantially horizontal conveyor across the channel. The rollers are rotated in a direction providing conveyance of food products thereon. Cold gas is blown up through the channel and between the rollers, such that a thin bottom layer of each one of the food products is frozen during conveyance thereof on the rollers across the channel.

Abstract: A refrigeration system comprises an evaporator overfed with liquid refrigerant and discharging a mixture of vapor refrigerant and liquid refrigerant; a compressor for compressing vapor refrigerant discharged from the evaporator; a condenser receiving compressed vapor refrigerant from the compressor for transforming it into liquid refrigerant; and a receiver receiving the liquid refrigerant from the condenser and supplying it to the evaporator. A separator receiving the refrigerant discharged from the evaporator separates the-vapor refrigerant for the compressor from the liquid refrigerant for recirculation. A feeder stores the pressurized liquid refrigerant and overfeeds the evaporator therewith. An educer feeds liquid refrigerant from the separator to the feeder using liquid refrigerant from the receiver as pressurizing agent.

Abstract: An apparatus for gas treatment of products rises a housing having top, bottom and side walls; a conveyor belt for transporting the products along a first path in the housing; a tunnel having perforated walls and enclosing the conveyor belt along the first path; a gas circulation device communicating with the tunnel via the perforated walls for circulating gas into the tunnel in the form of gas jets impinging upon the products carried by the conveyor belt, and out of the tunnel in a return channel back to the gas circulation device; and a gas conditioning device positioned in the return channel. At least one substantially vertical part of the connecting walls of the high-pressure chamber is removable so as to provide access to the inside of the pressure chamber, and at least one of the side walls of the housing along the high-pressure chamber may be movable so as to widen the space between at least one wall and the high-pressure chamber.