A filling and portioning system for food products and a method for rotational speed control of a feeder and/or mixing arm and/or counterholding device present thereon for conveying the food product in a filling hopper are described. According thereto, the feeder/mixing arm in the filling hopper can be rotated about itself by way of a motor for conveying the food product and is driven independently of a downstream conveyor mechanism. The counterholding device is also arranged in the filling hopper and can optionally be rotated about itself by way of a motor for conveying the food product and is driven independently of a downstream conveyor mechanism. The rotational speed of at least one of the motors is controlled in an automated manner in dependence of at least one machine or product parameter measured during operation of the filling and portioning system.

A filling and portioning system for food products and a method for rotational speed control of a feeder and/or mixing arm and/or counterholding device present thereon for conveying the food product in a filling hopper are described. According thereto, the feeder/mixing arm in the filling hopper can be rotated about itself by way of a motor for conveying the food product and is driven independently of a downstream conveyor mechanism. The counterholding device is also arranged in the filling hopper and can optionally be rotated about itself by way of a motor for conveying the food product and is driven independently of a downstream conveyor mechanism. The rotational speed of at least one of the motors is controlled in an automated manner in dependence of at least one machine or product parameter measured during operation of the filling and portioning system.

The present disclosure refers to a filling machine and to a method for filling a foodstuff which comprises at least two components to be mixed, particularly for sausage production. The foodstuff may be filled into a filling hopper of the filling machine and thoroughly mixed with a mixing cam. The mixing cam may be driven via its own drive at different speeds according to a specific speed profile while the foodstuff is conveyed out of the lower portion of the filling hopper via a conveying mechanism and is filled via a filling unit.

The present disclosure refers to a filling machine and to a method for filling a foodstuff which comprises at least two components to be mixed, particularly for sausage production. The foodstuff may be filled into a filling hopper of the filling machine and thoroughly mixed with a mixing cam. The mixing cam may be driven via its own drive at different speeds according to a specific speed profile while the foodstuff is conveyed out of the lower portion of the filling hopper via a conveying mechanism and is filled via a filling unit.

A filling machine and a method for filling a pasty mass, in particular for the production of sausages, with a delivery pump for conveying the pasty mass with a first drive, and a dosing pump that is coupled to an outlet of the delivery pump and a transmission train via which the dosing pump is coupled to a second drive integrated into the filling machine housing.

A filling machine and a method for filling a pasty mass, in particular for the production of sausages, with a delivery pump for conveying the pasty mass with a first drive, and a dosing pump that is coupled to an outlet of the delivery pump and a transmission train via which the dosing pump is coupled to a second drive integrated into the filling machine housing.

Food or feed processors (16, 16a) include an elongated processor barrel (38) presenting an inner surface (44) with a central body or tube (60) within the barrel (38) and presenting an outer surface (62). The surfaces (38, 62) define an elongated annular processing region (70). The barrel (38) and tube (60) are steam heated by means of apparatus (52, 66). A rotatable processing element (72) is also located within the region (70). The element (72) has a plurality of vanes (88, 104), which scrape the surfaces (44, 62) to prevent buildup of material on these surfaces.

Food or feed processors (16, 16a) include an elongated processor barrel (38) presenting an inner surface (44) with a central body or tube (60) within the barrel (38) and presenting an outer surface (62). The surfaces (38, 62) define an elongated annular processing region (70). The barrel (38) and tube (60) are steam heated by means of apparatus (52, 66). A rotatable processing element (72) is also located within the region (70). The element (72) has a plurality of vanes (88, 104), which scrape the surfaces (44, 62) to prevent buildup of material on these surfaces.

Food or feed processing systems (10, 96) include an extruder (14) and a downstream processor (16, 16a), and are operable to process high meat food or feed formulations. The processors (16, 16a) include an elongated processor barrel (38) presenting an inner surface (44) with a central body or tube (60) within the barrel (38) and presenting an outer surface (62). The surfaces (38, 62) thereby define an elongated annular processing region (70). The barrel (38) and tube (60) are steam heated by means of apparatus (52, 66). A rotatable processing element (72) is also located within the region (70). The element (72) has a plurality of helical vanes (88, 104), which scrape the surfaces (44, 62) to prevent buildup of material on these surfaces.

Food or feed processors (16, 16a) include an elongated processor barrel (38) presenting an inner surface (44) with a central body or tube (60) within the barrel (38) and presenting an outer surface (62). The surfaces (38, 62) define an elongated annular processing region (70). The barrel (38) and tube (60) are steam heated by means of apparatus (52, 66). A rotatable processing element (72) is also located within the region (70). The element (72) has a plurality of vanes (88, 104), which scrape the surfaces (44, 62) to prevent buildup of material on these surfaces.