Abstract: A method for the continuous production of cookies having a high content of large inclusions, such as chocolate chips, nuts, and fruit pieces includes extruding a cookie dough containing the inclusions through a die orifice to obtain an extrudate dough rope, and cutting the extrudate dough rope with an ultrasonic cutting blade. The ultrasonic cutting severs the extrudate dough rope into dough pieces which fall onto a moving conveyer into a substantially uniform or regular array for uniform baking. The ultrasonic cutter is controlled to provide a roughened top surface on a dough piece to provide a home baked appearance upon baking, while cutting through the inclusions without substantial displacement of the inclusions which would cause pock marks on the surface of the dough piece, and without substantial dough piece weight variation.

Abstract: A dough extruder is disclosed that is configured to provide a continuous dough rope suitable for cracker products using a straight extended low friction compression chamber and a die plate oriented substantially perpendicular to a laminar flow of the dough. In one embodiment, the extruder can have a compressive force sufficient to extrude a plastic mass in a laminar flow in the range of about less than 120 psi; a compression chamber providing for an interior coefficient of friction in the range of about 0.2 and 0.35; and a die plate horizontally aligned with the longitudinal axis of the compressive force.

Abstract: Shredded whole grain products, such as ready-to-eat cereals, and sweet and savory snacks, such as whole grain shredded corn chips are continuously produced by pelletizing agglomerates of cooked, tempered, whole cereal grain particles. Cooked whole grains, such as corn and other non-gluten or low-gluten containing grains have a tendency to become hard and rubbery after cooking during the cooling and tempering process. The pelletization results in the production of whole grain pellets having a soft, pliable texture, which are shreddable into continuous net-like sheets on a mass production basis. The pelletizing may be at a pressure of about 200 psig to about 600 psig, preferably from about 400 psig to about 500 psig. The pelletizing temperature may be controlled to provide a pellet temperature of about 80° F. to about 120° F., preferably from about 90° F. to about 110° F., upon exiting the pelletizer.

Abstract: A method for the continuous production of cookies having a high content of large inclusions, such as chocolate chips, nuts, and fruit pieces includes extruding a cookie dough containing the inclusions through a die orifice to obtain an extrudate dough rope, and cutting the extrudate dough rope with an ultrasonic cutting blade. The ultrasonic cutting severs the extrudate dough rope into dough pieces which fall onto a moving conveyer into a substantially uniform or regular array for uniform baking. The ultrasonic cutter is controlled to provide a roughened top surface on a dough piece to provide a home baked appearance upon baking, while cutting through the inclusions without substantial displacement of the inclusions which would cause pock marks on the surface of the dough piece, and without substantial dough piece weight variation.

Abstract: A method for the continuous production of sandwich baked goods having a high volume of filler includes conveying a bottom base cake, detecting the position of the base cake, and extruding a filler through a die aperture to form a ribbon in response to the detection of the position of the bottom base cake. In response to detection of the base cake, a signal or timing mechanism may activate a guillotine knife or blade to open the die aperture to allow filler to be deposited on the bottom base cake and to close the die aperture to sever or cut the ribbon to a predetermined dimension. The severing prevents further flow of the filler through the die aperture until the next bottom base cake is detected and the die aperture is again opened to allow filler to be deposited on the next bottom base cake.

Abstract: Shredded whole grain products, such as ready-to-eat cereals, and sweet and savory snacks, such as whole grain shredded corn chips are continuously produced by pelletizing agglomerates of cooked, tempered, whole cereal grain particles. Cooked whole grains, such as corn and other non-gluten or low-gluten containing grains have a tendency to become hard and rubbery after cooking during the cooling and tempering process. The pelletization results in the production of whole grain pellets having a soft, pliable texture, which are shreddable into continuous net-like sheets on a mass production basis. The pelletizing may be at a pressure of about 200 psig to about 600 psig, preferably from about 400 psig to about 500 psig. The pelletizing temperature may be controlled to provide a pellet temperature of about 80° F. to about 135° F., preferably from about 90° F. to about 110° F., upon exiting the pelletizer.

Abstract: Thin, baked fermented chips having an irregular shape and surface bubbles are produced by cutting a fermented, wheat-based compressed dough sheet into a plurality of pieces having different shapes and notches with a single rotary cutter so that the dough pieces form an interlocking pattern and the notches extend around the periphery of each piece. The notches are spaced around the periphery of each piece and facilitate separation of the dough pieces from each other while at least substantially avoiding tearing and breaking of the dough pieces. A plurality of notches of each piece are aligned or contiguous with notches of any adjacent piece in the interlocking pattern.

Abstract: A dough extruder is disclosed that is configured to provide a continuous dough rope suitable for cracker products using a straight extended low friction compression chamber and a die plate oriented substantially perpendicular to a laminar flow of the dough. In one embodiment, the extruder can have a compressive force sufficient to extrude a plastic mass in a laminar flow in the range of about less than 120 psi; a compression chamber providing for an interior coefficient of friction in the range of about 0.2 and 0.35; and a die plate horizontally aligned with the longitudinal axis of the compressive force.

Abstract: Shredded whole grain products, such as ready-to-eat cereals, and sweet and savory snacks, such as whole grain shredded corn chips are continuously produced by pelletizing agglomerates of cooked, tempered, whole cereal grain particles. Cooked whole grains, such as corn and other non-gluten or low-gluten containing grains have a tendency to become hard and rubbery after cooking during the cooling and tempering process. The pelletization results in the production of whole grain pellets having a soft, pliable texture, which are shreddable into continuous net-like sheets on a mass production basis. The pelletizing may be at a pressure of about 200 psig to about 600 psig, preferably from about 400 psig to about 500 psig. The pelletizing temperature may be controlled to provide a pellet temperature of about 80° F. to about 135° F., preferably from about 90° F. to about 110° F., upon exiting the pelletizer.

Abstract: Shredded whole grain products, such as ready-to-eat cereals, and sweet and savory snacks, such as whole grain shredded corn chips are continuously produced by pelletizing agglomerates of cooked, tempered, whole cereal grain particles. Cooked whole grains, such as corn and other non-gluten or low-gluten containing grains have a tendency to become hard and rubbery after cooking during the cooling and tempering process. The pelletization results in the production of whole grain pellets having a soft, pliable texture, which are shreddable into continuous net-like sheets on a mass production basis. The pelletizing may be at a pressure of about 200 psig to about 600 psig, preferably from about 400 psig to about 500 psig. The pelletizing temperature may be controlled to provide a pellet temperature of about 80° F. to about 120° F., preferably from about 90° F. to about 110° F., upon exiting the pelletizer.

Abstract: Shredded whole grain products, such as ready-to-eat cereals, and sweet and savory snacks, such as whole grain shredded corn chips are continuously produced by pelletizing agglomerates of cooked, tempered, whole cereal grain particles. Cooked whole grains, such as corn and other non-gluten or low-gluten containing grains have a tendency to become hard and rubbery after cooking during the cooling and tempering process. The pelletization results in the production of whole grain pellets having a soft, pliable texture, which are shreddable into continuous net-like sheets on a mass production basis. The pelletizing may be at a pressure of about 200 psig to about 600 psig, preferably from about 400 psig to about 500 psig. The pelletizing temperature may be controlled to provide a pellet temperature of about 80° F. to about 120° F., preferably from about 90° F. to about 110° F., upon exiting the pelletizer.

Abstract: Thin, baked fermented chips having an irregular shape and surface bubbles are produced by cutting a fermented, wheat-based compressed dough sheet into a plurality of pieces having different shapes and notches with a single rotary cutter so that the dough pieces form an interlocking pattern and the notches extend around the periphery of each piece. The notches are spaced around the periphery of each piece and facilitate separation of the dough pieces from each other while at least substantially avoiding tearing and breaking of the dough pieces. A plurality of notches of each piece are aligned or contiguous with notches of any adjacent piece in the interlocking pattern.

Abstract: Thin snack chips having a curved or wave shape are obtained by forming, shaping or curling baked chips into a curved or wave configuration before they become too cold and rigid so as to result in breakage during forming. The essentially flat, malleable baked chips, still hot from baking in an oven may be continuously transported on a conveyer belt into a nip or gap formed between the conveyer belt and a rotating forming roller to curve or curl the malleable baked chips around the roller. The malleable baked chips are subjected to a guided curtain of air to cool and set the chips in a curved or wave configuration and to remove or blow the curved or wave chips off of the rotating forming roller onto the conveyor belt.

Abstract: Thin, baked fermented chips having an irregular shape and surface bubbles are produced by cutting a fermented, wheat-based compressed dough sheet into a plurality of pieces having different shapes and notches with a single rotary cutter so that the dough pieces form an interlocking pattern and the notches extend around the periphery of each piece. The notches are spaced around the periphery of each piece and facilitate separation of the dough pieces from each other while at least substantially avoiding tearing and breaking of the dough pieces. A plurality of notches of each piece are aligned or contiguous with notches of any adjacent piece in the interlocking pattern.

Abstract: Thin snack chips having a curved or wave shape are obtained by forming, shaping or curling baked chips into a curved or wave configuration before they become too cold and rigid so as to result in breakage during forming. The essentially flat, malleable baked chips, still hot from baking in an oven may be continuously transported on a conveyer belt into a nip or gap formed between the conveyer belt and a rotating forming roller to curve or curl the malleable baked chips around the roller. The malleable baked chips are subjected to a guided curtain of air to cool and set the chips in a curved or wave configuration and to remove or blow the curved or wave chips off of the rotating forming roller onto the conveyor belt.

Abstract: A method for the continuous production of sandwich baked goods having a high volume of filler includes conveying a bottom base cake, detecting the position of the base cake, and extruding a filler through a die aperture to form a ribbon in response to the detection of the position of the bottom base cake. In response to detection of the base cake, a signal or timing mechanism may activate a guillotine knife or blade to open the die aperture to allow filler to be deposited on the bottom base cake and to close the die aperture to sever or cut the ribbon to a predetermined dimension. The severing prevents further flow of the filler through the die aperture until the next bottom base cake is detected and the die aperture is again opened to allow filler to be deposited on the next bottom base cake.

Abstract: A method for the continuous production of cookies having a high content of large inclusions, such as chocolate chips, nuts, and fruit pieces includes extruding a cookie dough containing the inclusions through a die orifice to obtain an extrudate dough rope, and cutting the extrudate dough rope with an ultrasonic cutting blade. The ultrasonic cutting severs the extrudate dough rope into dough pieces which fall onto a moving conveyer into a substantially uniform or regular array for uniform baking. The ultrasonic cutter is controlled to provide a roughened top surface on a dough piece to provide a home baked appearance upon baking, while cutting through the inclusions without substantial displacement of the inclusions which would cause pock marks on the surface of the dough piece, and without substantial dough piece weight variation.

Abstract: Thin snack chips having a curved or wave shape are obtained by forming, shaping or curling baked chips into a curved or wave configuration before they become too cold and rigid so as to result in breakage during forming. The essentially flat, malleable baked chips, still hot from baking in an oven may be continuously transported on a conveyer belt into a nip or gap formed between the conveyer belt and a rotating forming roller to curve or curl the malleable baked chips around the roller. The malleable baked chips are subjected to a guided curtain of air to cool and set the chips in a curved or wave configuration and to remove or blow the curved or wave chips off of the rotating forming roller onto the conveyor belt.