Abstract: A food processing apparatus includes a tank defining an inner compartment having an inlet end for receiving food product and an outlet end for discharging food product, an open-top screen mounted within the compartment and positioned relative to the tank in a first position, and a rotatable auger mounted such that at least a portion of the auger is within the screen for advancing food product within the tank from the inlet end of the tank toward the outlet end.

Abstract: A food processing apparatus includes a pressure vessel defining a compartment having an inlet end for receiving food product and an outlet end for discharging food product, an open-top screen mounted within the compartment and movable relative to the compartment between a first position, for food processing, and a second position, to facilitate cleaning, a rotatable auger mounted such that at least a portion of the auger is within the screen, the auger being operable to advance food product within the compartment from the inlet end of the pressure vessel toward the outlet end, and a transfer mechanism including a conduit in communication with the compartment, a fluid discharge positioned substantially within the conduit, and a pressurized fluid source in communication with the fluid discharge and operable to propel a fluid through the fluid discharge to move food product through the conduit.

Abstract: A food processing apparatus includes a tank defining an inner compartment having an inlet end for receiving food product and an outlet end for discharging food product, an open-top screen mounted within the compartment and positioned relative to the tank in a first position, and a rotatable auger mounted such that at least a portion of the auger is within the screen for advancing food product within the tank from the inlet end of the tank toward the outlet end.

Abstract: A transfer mechanism for transferring food product from a compartment of a food processing system includes a conduit having a first end portion configured to be in communication with the compartment and a second end portion, a fluid discharge positioned substantially within the conduit between the first end portion and the second end portion, and a pressurized fluid source in communication with the fluid discharge. The pressurized fluid source is operable to propel a fluid through the fluid discharge to move the food product from the first end portion of the conduit toward the second end portion.

Abstract: A food processing apparatus including a tank having an inlet end for receiving food product and an outlet end for discharging food product, the tank having an inner wall defining a compartment and including a solid, imperforate wall portion, fluid being contained in the compartment, and a rotatable auger mounted in the compartment, the auger for advancing food product within the compartment from the inlet end toward the outlet end, the auger including flights having a flight wall with a radial edge, a clearance space being defined between the radial edge of the flights and the solid, imperforate wall portion of the inner wall. Flow of fluid through the clearance space may be inhibited. One of the inner wall and the flight wall may include a perforated wall portion. Flow of fluid between the first auger section and the second auger section may be provided through the perforated wall portion.

Abstract: A food processing apparatus includes a tank defining an inner compartment having an inlet end for receiving food product and an outlet end for discharging food product, an open-top screen mounted within the compartment and positioned relative to the tank in a first position, and a rotatable auger mounted such that at least a portion of the auger is within the screen for advancing food product within the tank from the inlet end of the tank toward the outlet end.

Abstract: A food processing apparatus includes a tank having an inlet end and a discharge end and at least one baffle divides the tank into a first compartment and a second compartment, wherein a temperature of the first compartment is greater than a temperature of the second compartment. A first drum is rotatably mounted within the first compartment of the tank such that a heat transfer medium contained in the first compartment of the tank will enter the first drum and a second drum is rotatably mounted within the second compartment of the tank such that a cool transfer medium contained in the second compartment of the tank will enter the second drum. A food product transfer device transfers food product from the first drum to the second drum.

Abstract: A food processing system having a wastewater screen apparatus includes a recirculation system having a self-cleaning filter for receiving fluid from the wastewater screen apparatus. The filter is operable in a first mode wherein the filter screens particulate matter from the fluid and the filter is operable in a second mode wherein the filter is purged of the screened matter. A pump pumps cleaned fluid from the filter to the wastewater screen apparatus, wherein a substantially continuous supply of cleaned fluid is delivered to the pump. A first fluid flow path fluidly connects the wastewater screen apparatus, the filter, and the pump. A control valve is operable to direct fluid along the first fluid flow path when the filter is in the first mode and the control valve is operable to direct fluid and screened matter along a second fluid flow path when the filter is in the second mode.

Abstract: A knife for a snipping apparatus includes a knife body having two side edges and a top edge, wherein the two side edges define cutting edges angularly disposed on the knife body. The knife body is formed of a non-metallic material.

Abstract: A food processing apparatus includes a tank defining an inner compartment having an inlet end for receiving food product and an outlet end for discharging food product, an open-top screen mounted within the compartment and positioned relative to the tank in a first position, and a rotatable auger mounted such that at least a portion of the auger is within the screen for advancing food product within the tank from the inlet end of the tank toward the outlet end.

Abstract: A rotary product processing device that has a frame made of endplates and at least one sidewall of one piece and unitary construction that encompasses a product processing chamber and product conveyor that is rotatively supported by a plurality of bearings that are each of one-piece, unitary and homogeneous construction. A drive cantilevers outwardly from an upraised mount of one of the endplates disposing it so it overlies part of the chamber. The endplate also carries and helps enclose a drivetrain that rotatively couples the conveyor to the drive. At least one of the bearings also functions as a thrust bearing for part of the drivetrain. Complementary angled tabs and slots facilitate assembly of the endplates and sidewall producing an integral frame. In one frame assembly method, angled lugs are received slots locating and helping self-fixture the endplates and sidewall enabling them to be attached along adjoining regions.

Abstract: A food processing apparatus includes a tank defining a heat compartment having an inlet end for receiving food product and an outlet end for discharging food product, an inlet for introducing a non-liquid heat transfer medium to the heat compartment, and a drum rotatably mounted within the inner compartment and having an auger therein. The auger advances food product within the tank from the inlet end toward the outlet end and through the non-liquid heat transfer medium. The apparatus includes a recirculation mechanism configured and adapted to create a uniform temperature pattern within the heat compartment and to transfer non-liquid heat transfer medium from the outlet end of the heat compartment to the inlet end of the heat compartment.

Abstract: A food processing apparatus includes a tank having an inlet end and a discharge end and at least one baffle divides the tank into a first compartment and a second compartment, wherein a temperature of the first compartment is greater than a temperature of the second compartment. A first drum is rotatably mounted within the first compartment of the tank such that a heat transfer medium contained in the first compartment of the tank will enter the first drum and a second drum is rotatably mounted within the second compartment of the tank such that a cool transfer medium contained in the second compartment of the tank will enter the second drum. A food product transfer device transfers food product from the first drum to the second drum.

Abstract: A lift bucket, food product transport mechanism, food product processor and method of processing food product while providing improved dewatering. The processor is equipped with a lift that includes at least one bucket of latticework construction that preferably is made of wedgewire. The bucket has a plurality of pairs of spaced apart and interlocking wires that define dewatering perforations. In one preferred embodiment, wires defining dewatering slots are supported by wire retainers. In a preferred embodiment, each dewatering slot preferably has a width of at least 0.02 inches and no greater than about 0.13 inches. Each wire retainer can be equipped with a knife edge that minimizes dewatering flow obstruction through the slots. In a preferred method, an auger food product transport mechanism equipped with a lift bucket of the invention is rotated at a speed of at least 5 RPM.

Abstract: A frameless food blancher has a steel tank of generally U-shaped, transverse cross sectional shape and also has an open top with opposite sides. The opposite sides each have an upper edge bent inwardly and downwardly to form an upwardly facing water trough. A rigidifying steel member co-extensive in length with the trough is welded to it, and is also welded to the outer side of the tank. The trough and member form a cross section shape of triangular-box-cross-section and act to rigidify the sides. The blancher has opposite ends and an end plate is fabricated from sheet steel and has a main portion welded to each of the opposite ends of the tank. These plates also each having a leg portion integral with the main portion for supporting the blancher. The end plates are formed by being cut by a CNC laser machine which simultaneously forms a series of holes extending through the end plate.

Abstract: A frameless food blancher has a steel tank of generally U-shaped, transverse cross sectional shape and also has an open top with opposite sides. The opposite sides each have an upper edge bent inwardly and downwardly to form an upwardly facing water trough. A rigidifying steel member co-extensive in length with the trough is welded to it, and is also welded to the outer side of the tank. The trough and member form a cross section shape of triangular-box-cross-section and act to rigidify the sides. The blancher has opposite ends and an end plate is fabricated from sheet steel and has a main portion welded to each of the opposite ends of the tank. These plates also each having a leg portion integral with the main portion for supporting the blancher. The end plates are formed by being cut by a CNC laser machine which simultaneously forms a series of holes extending through the end plate.

Abstract: A lift bucket, food product transport mechanism, food product processor and method of processing food product while providing improved dewatering. The processor is equipped with a lift that includes at least one bucket of latticework construction that preferably is made of wedgewire. The bucket has a plurality of pairs of spaced apart and interlocking wires that define dewatering perforations. In one preferred embodiment, wires defining dewatering slots are supported by wire retainers. In a preferred embodiment, each dewatering slot preferably has a width of at least 0.02 inches and no greater than about 0.13 inches. Each wire retainer can be equipped with a knife edge that minimizes dewatering flow obstruction through the slots. In a preferred method, an auger food product transport mechanism equipped with a lift bucket of the invention is rotated at a speed of at least 5 RPM.

Abstract: A frameless food blancher has a steel tank of generally U-shaped, transverse cross sectional shape and also has an open top with opposite sides. The opposite sides each have an upper edge bent inwardly and downwardly to form an upwardly facing water trough. A rigidifying steel member co-extensive in length with the trough is welded to it, and is also welded to the outer side of the tank. The trough and member form a cross section shape of triangular-box-cross-section and act to rigidify the sides. The blancher has opposite ends and an end plate is fabricated from sheet steel and has a main portion welded to each of the opposite ends of the tank. These plates also each having a leg portion integral with the main portion for supporting the blancher. The end plates are formed by being cut by a CNC laser machine which simultaneously forms a series of holes extending through the end plate.

Abstract: A method and rotary blancher for processing food product using a heat transfer medium and directed flows of a fluid that can comprise a liquid, a gas, a vapor or a combination thereof. The directed flows can be discharged from orifices or banks of orifices that are distributed around the food products in the blancher. The flows are discharged at a high flow rate, a high pressure, or a combination of both. Where a liquid is discharged, it preferably is discharged at a flow rate of at least 20 gpm and at least 30 psi. Where a gas is discharged, it is discharged at a flow rate of at least 60 CFM at a pressure of at least 2 psi or at a flow rate of at least 10 CFM at a pressure of at least 80 psi. If desired, discharged fluid can be recirculated to save energy. To help increase agitation and help break up clumps of food products in the blancher, direct-contact mechanical agitation devices, such as baffles, can be used.

Abstract: A method and rotary blancher for processing food product using a heat transfer medium and directed flows of a fluid that can comprise a liquid, a gas, a vapor or a combination thereof. The directed flows can be discharged from orifices or banks of orifices that are distributed around the food products in the blancher. The flows are discharged at a high flow rate, a high pressure, or a combination of both. Where a liquid is discharged, it preferably is discharged at a flow rate of at least 20 gpm and at least 30 psi. Where a gas is discharged, it is discharged at a flow rate of at least 60 CFM at a pressure of at least 2 psi or at a flow rate of at least 10 CFM at a pressure of at least 80 psi. If desired, discharged fluid can be recirculated to save energy. To help increase agitation and help break up clumps of food products in the blancher, direct-contact mechanical agitation devices, such as baffles, can be used.