Abstract: A filling unit and a method for filling a confectionery mass into a container or a mold includes a fill housing with a filling nozzle (2) and at least two dosing pistons in a cylinder which is connected to the fill housing. In the fill housing, a valve is arranged for each cylinder. A mixing block with internal ducts connects each of the outlets with a respective internal duct in the filling nozzle. The confectionery mass is conducted from a filling nozzle into at least one of the cylinders after which the confectionery mass is dosed down into the mold or container by actuating the dosing pistons. The speeds of the pistons are controlled independently of each other, providing varying patterns in longitudinal direction of the ice-cream/confectionery product. The movement of the filling unit relative to the container or mold can be varied providing additional options for variation in patterns.

Abstract: A filling unit and a method for filling a confectionery mass into a container or a mold includes a fill housing with a filling nozzle (2) and at least two dosing pistons in a cylinder which is connected to the fill housing. In the fill housing, a valve is arranged for each cylinder. A mixing block with internal ducts connects each of the outlets with a respective internal duct in the filling nozzle. The confectionery mass is conducted from a filling nozzle into at least one of the cylinders after which the confectionery mass is dosed down into the mold or container by actuating the dosing pistons. The speeds of the pistons are controlled independently of each other, providing varying patterns in longitudinal direction of the ice-cream/confectionery product. The movement of the filling unit relative to the container or mold can be varied providing additional options for variation in patterns.

Abstract: The content of casein in milk is determined by two measurements of infrared absorbance in a milk sample by infrared spectrometry before and after a separation of the casein. The casein content is calculated by use of absorbance data recorded during the two absorbance measurements. The new method is considerable faster than the known wet-chemical methods, such as the normal wet chemical reference method for casein determination in milk using a Kjeldahl nitrogen determination of the milk sample, then a coagulation of the milk, and finally a Kjeldahl nitrogen determination of the filtrate. Further the new method provides a more reliable accuracy than the know determination using a single infrared analysis of a milk sample.

Abstract: The content of casein in milk is determined by two measurements of infrared absorbance in a milk sample by infrared spectrometry before and after a separation of the casein. The casein content is calculated by use of absorbance data recorded during the two absorbance measurements. The new method is considerable faster than the known wet-chemical methods, such as the normal wet chemical reference method for casein determination in milk using a Kjeldahl nitrogen determination of the milk sample, then a coagulation of the milk, and finally a Kjeldahl nitrogen determination of the filtrate.

Abstract: The content of casein in milk is determined by two measurements of infrared absorbance in a milk sample by infrared spectrometry before and after a separation of the casein. The casein content is calculated by use of absorbance data recorded during the two absorbance measurements. The new method is considerable faster than the known wet-chemical methods, such as the normal wet chemical reference method for casein determination in milk using a Kjeldahl nitrogen determination of the milk sample, then a coagulation of the milk, and finally a Kjeldahl nitrogen determination of the filtrate. Further the new method provides a more reliable accuracy than the know determination using a single infrared analysis of a milk sample.