The invention provides a powder dispenser comprising a tube of circular cross-section; an auger extending axially through the tube; and a disc-shaped distributor extending laterally to the axis of the tube and partially closing the tube, wherein the disc-shaped distributor comprises a central ring and arms extending radially therefrom, characterised in that, the central ring has a radius of between 55%-90% of the internal radius of the tube; at least one of the arms extends to no more than 1 mm from the internal wall of the tube; and wherein there is a distance defined by a ciruculararcconcen tric with the tube between each arm at a distance of 1 mm from the tube wall of between 30%-65% of the internal radius of the tube.

The disclosure relates to a metering apparatus for free-flowing material and to a method for operating such a metering apparatus. The metering apparatus has a metering duct having a closed cross section and further has a rotary drive (M). The metering duct is wound in the form of a screw with a vertical longitudinal axis. The free-flowing material is fed to the metering duct. The metering duct is set via the rotary drive (M) in an oscillating rotary motion about its longitudinal axis with individual rotary strokes, wherein, with each rotary stroke, a partial quantity of the free-flowing material falls out of a lower discharge opening of the metering duct.

The present document presents a system and a method for packaging powders in containers (S) through a hopper (T) and a first tube (TC) connected to the hopper (T). Air is sucked both in the area of the first tube and in the area of the hopper. The powder is then drawn directly from inside the hopper thus keeping the flow rate and the degree of compacting of the system constant. Moreover, the powder sucked inside the first tube is thus compacted and can be conveyed compacted towards the outlet. In this way it is possible to control the dosing of the product exiting from the system with high precision.

The present document presents a system and a method for packaging powders in containers (S) through a hopper (T) and a first tube (TC) connected to the hopper (T). Air is sucked both in the area of the first tube and in the area of the hopper. The powder is then drawn directly from inside the hopper thus keeping the flow rate and the degree of compacting of the system constant. Moreover, the powder sucked inside the first tube is thus compacted and can be conveyed compacted towards the outlet. In this way it is possible to control the dosing of the product exiting from the system with high precision.

Apparatuses and methods for tamping the contents of a container are disclosed. An embodiment of an apparatus includes a tamp head for tamping the contents of the container; and a container support assembly structured and arranged to temporarily support the bottom surface of the container during tamping, the container support assembly comprising a support element having a protrusion extending upward from a substantially flat and horizontal upper surface, wherein the protrusion is sized and shaped to correspond to the size and shape of the bottom surface of the container.

Disclosed herein are methods and systems of preparing containment vessels which contain a precise volume of fluid. An auger filler, comprising a rotor and a stator, may dispense this precise volume of fluid into a containment vessel when the rotor is rotated relative to the stator in a first direction, causing fluid contained the auger filler to be dispensed into the containment vessel, until the precise volume of fluid is dispensed. The rotor may then be rotated relative to the stator in a second direction to prevent more fluid from being dispensed, ensuring that the containment vessel is not significantly overfilled past this precise volume of fluid. The containment vessel may then be sealed to define a prepared containment vessel. The methods and systems herein may allow for a continuous process flow that continuously produces prepared containment vessels, with each being near identical to one another.

Disclosed herein are methods and systems of preparing containment vessels which contain a precise volume of fluid. An auger filler, comprising a rotor and a stator, may dispense this precise volume of fluid into a containment vessel when the rotor is rotated relative to the stator in a first direction, causing fluid contained the auger filler to be dispensed into the containment vessel, until the precise volume of fluid is dispensed. The rotor may then be rotated relative to the stator in a second direction to prevent more fluid from being dispensed, ensuring that the containment vessel is not significantly overfilled past this precise volume of fluid. The containment vessel may then be sealed to define a prepared containment vessel. The methods and systems herein may allow for a continuous process flow that continuously produces prepared containment vessels, with each being near identical to one another.

The invention provides a powder dispenser comprising a tube of circular cross-section; an auger extending axially through the tube; and a disc-shaped distributor extending laterally to the axis of the tube and partially closing the tube, wherein the disc-shaped distributor comprises a central ring and arms extending radially therefrom, characterised in that, the central ring has a radius of between 55%-90% of the internal radius of the tube; at least one of the arms extends to no more than 1 mm from the internal wall of the tube; and wherein there is a distance defined by a circular arc concentric with the tube between each arm at a distance of 1 mm from the tube wall of between 30%-65% of the internal radius of the tube.

The invention provides a powder dispenser comprising a tube of circular cross-section; an auger extending axially through the tube; and a disc-shaped distributor extending laterally to the axis of the tube and partially closing the tube, wherein the disc-shaped distributor comprises a central ring and arms extending radially therefrom, characterised in that, the central ring has a radius of between 55%-90% of the internal radius of the tube; at least one of the arms extends to no more than 1 mm from the internal wall of the tube; and wherein there is a distance defined by a circular arc concentric with the tube between each arm at a distance of 1 mm from the tube wall of between 30%-65% of the internal radius of the tube.

An inline vending machine for ice and water vending installed within a store wall allowing a user to purchase ice and water without entering the store. A shipping frame for shipping and installation of the insulated wall into the store wall is also disclosed.