A fish decapitating apparatus includes a fish holder configured to receive a fish with the belly side facing up at an in-feed station, a cutting station and a conveying apparatus configured to convey the fish in the fish holder from the in-feed station to the cutting station. The fish holder includes opposingly arranged guide members moveable in a hinge like manner. The guide members are configured to clamp the fish behind the collar bones such that the collar bones rest on an outer side of the guide members in the clamped state with the fish head sticking out from the fish holder. The fish decapitating apparatus includes a measuring device configured to measure the position of the collar bones when in the clamped position, and a control unit configured to automatically adjust the position of the cutting station during cutting in accordance with the measured position of the collar bones.

A fish pumping system for moving upload water and fish includes a buffer pipe section having an upstream end and a downstream end. An inlet valve assembly is at the upstream end and provides fluid communication between the buffer pipe and an upstream fish origin. An outlet valve assembly is at the downstream end 5 and provides fluid communication between the buffer pipe and a fish destination. An inlet branch pipe is in fluid communication with the upstream end and an outlet branch pipe is in fluid communication with the downstream end. A production water piping circuit is in communication with the inlet branch pipe and the outlet branch pipe and forms a loop with the buffer pipe section. The 10 production water circuit pumps production water into the buffer pipe section through the inlet branch pipe and out from the buffer pipe section through the outlet branch pipe.

Apparatus for removing pin bones from fish fillets includes at least one pin bone removal device and a conveying device configured to convey the fish fillets past the at least one pin bone removal device. The pin bone removal device utilizes a rotationally driven profiled roller and a counter-bearing element. A clamping gap is formed between the rotationally driven profiled roller and the counter-bearing element. A control is configured to control a relative movement between the rotationally driven profiled roller and the counter-bearing element. The pin bone removal device is configured to grasp and remove the pin bones via tensile force from the fish fillets in the clamping gap.

Apparatus for removing pin bones from fish fillets includes at least one pin bone removal device and a conveying device configured to convey the fish fillets past the at least one pin bone removal device. The pin bone removal device utilizes a rotationally driven profiled roller and a counter-bearing element. A clamping gap is formed between the rotationally driven profiled roller and the counter-bearing element. A control is configured to control a relative movement between the rotationally driven profiled roller and the counter-bearing element. The pin bone removal device is configured to grasp and remove the pin bones via tensile force from the fish fillets in the clamping gap.

The present invention relates to an apparatus for optical inspection of the opened abdominal cavity (10) of gutted fish (11), comprising a conveying device (12) configured for conveying the fish (11) along a processing line in the longitudinal direction, pivotable ventral flaps holding elements (17) configured for holding open the abdominal cavity (10) of the fish, at least one optical imaging system (21, 22, 23) arranged along the processing line, said optical imaging system being designed and configured to take at least one sequence of images of abdominal cavity regions of one of the fish (11) in each case, said sequence comprising a plurality of single images, at least one illumination device (24, 25) configured for illuminating the abdominal cavity regions in each case with light of a predetermined spectral composition, in each case at the times the single images are taken, an evaluation unit (26) configured to evaluate the image sequence according to prescribed quality parameters, said evaluation unit being designed to activate an ejection device to remove the relevant fish (11) from the processing line by ejecting it, should the evaluation reveal any deviation from the prescribed quality parameters. The invention further relates to a corresponding method.

The present invention relates to an apparatus for optical inspection of the opened abdominal cavity (10) of gutted fish (11), comprising a conveying device (12) configured for conveying the fish (11) along a processing line in the longitudinal direction, pivotable ventral flaps holding elements (17) configured for holding open the abdominal cavity (10) of the fish, at least one optical imaging system (21, 22, 23) arranged along the processing line, said optical imaging system being designed and configured to take at least one sequence of images of abdominal cavity regions of one of the fish (11) in each case, said sequence comprising a plurality of single images, at least one illumination device (24, 25) configured for illuminating the abdominal cavity regions in each case with light of a predetermined spectral composition, in each case at the times the single images are taken, an evaluation unit (26) configured to evaluate the image sequence according to prescribed quality parameters, said evaluation unit being designed to activate an ejection device to remove the relevant fish (11) from the processing line by ejecting it, should the evaluation reveal any deviation from the prescribed quality parameters. The invention further relates to a corresponding method.

An infeed system is arranged for receiving and turning incoming food products before entering a processing machine. The food products are arranged so a longitudinal axis of the food products is essentially parallel to a conveying direction of the incoming food products. The system comprises a pair of conveyor structures having at least two side by side arranged endless belts extending from an infeed end of the infeed system to an outfeed end of the infeed system. The belts are twisted towards the outfeed end so at the outfeed end the conveyor structures are arranged side by side. At the infeed end, the incoming food products are received and clamped between the belts of the conveyor structures and advanced from the infeed end towards the outfeed end while simultaneously rotating the received food products around said longitudinal axis of the food products.

An infeed system is arranged for receiving and turning incoming food products before entering a processing machine. The food products are arranged so a longitudinal axis of the food products is essentially parallel to a conveying direction of the incoming food products. The system comprises a pair of conveyor structures having at least two side by side arranged endless belts extending from an infeed end of the infeed system to an outfeed end of the infeed system. The belts are twisted towards the outfeed end so at the outfeed end the conveyor structures are arranged side by side. At the infeed end, the incoming food products are received and clamped between the belts of the conveyor structures and advanced from the infeed end towards the outfeed end while simultaneously rotating the received food products around said longitudinal axis of the food products.

A conveyor system 24 carries work items, such as flexible, pliable, food products 22, through a scanning system 28 which generates data pertaining to various physical parameters of the food products. Thereafter, the food products are transported through a processing station which may be in the form of a portioning system 30. Next, the portioned food products are transported to a harvesting system 32 utilizing a actuator 34 to unload the food product portions 36 by vacuuming the portions into a nozzle 90. Such food products are transported to one or more desired locations through a hose/tube connected to a nozzle or may be launched through the air in a trajectory aimed at the desired placement location.

A conveyor system 24 carries work items, such as flexible, pliable, food products 22, through a scanning system 28 which generates data pertaining to various physical parameters of the food products. Thereafter, the food products are transported through a processing station which may be in the form of a portioning system 30. Next, the portioned food products are transported to a harvesting system 32 utilizing a actuator 34 to unload the food product portions 36 by vacuuming the portions into a nozzle 90. Such food products are transported to one or more desired locations through a hose/tube connected to a nozzle or may be launched through the air in a trajectory aimed at the desired placement location.