Abstract: An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component having an inner surface. The first valve is opened to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode. The first valve is closed when the apparatus is in the sanitizing mode. The sanitizing system comprises a processing unit having a discharge cell configured to initiate a cold plasma discharge in an air flow. A tank may be configured to receive the air flow from the discharge cell of the processing unit and expose water in the tank to the air flow for a time sufficient to provide dissolution of ozone from the air flow into the water and form ozone-containing water.

Abstract: An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component comprising an inner surface. The first valve has an open position to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode, in a closed position when the combination is in the sanitizing mode. The sanitizing system comprises a processing unit, having an electrochemical cell configured to produce an anolyte solution and a catholyte solution. The sanitizing system comprises a second valve having an open position to send the anolyte solution and the catholyte solution to the at least one component when the apparatus is in the sanitizing mode. The second valve has a closed position when the apparatus is in the dispensing mode.

Abstract: An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component having an inner surface. The first valve is opened to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode. The first valve is closed when the apparatus is in the sanitizing mode. The sanitizing system comprises a processing unit having a discharge cell configured to initiate a cold plasma discharge in an air flow. A tank may be configured to receive the air flow from the discharge cell of the processing unit and expose water in the tank to the air flow for a time sufficient to provide dissolution of ozone from the air flow into the water and form ozone-containing water.

Abstract: An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component having an inner surface. The first valve is opened to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode. The first valve is closed when the apparatus is in the sanitizing mode. The sanitizing system comprises a processing unit having a discharge cell configured to initiate a cold plasma discharge in an air flow. A tank may be configured to receive the air flow from the discharge cell of the processing unit and expose water in the tank to the air flow for a time sufficient to provide dissolution of ozone from the air flow into the water and form ozone-containing water.

Abstract: A dispensing nozzle comprising an ultrasound emitter is disclosed. A wall of the ultrasound emitter defines a channel. The ultrasound emitter comprises an inlet, a top and a bottom. The bottom of the ultrasound emitter may comprise a conical outlet. The conical outlet comprises an outer diameter that decreases in size in a direction towards an outlet opening defined by the conical outlet. The channel may extend from the inlet to the conical outlet. The dispensing nozzle further comprises a tube. The tube may be configured to deliver free-flowing material to the inlet. The ultrasound emitter may be configured to deliver ultrasound waves to free-flowing material flowing through channel. The ultrasound emitter may be configured to induce cavitation in free-flowing material passing through the conical outlet. The cavitation may be sufficient to destroy microorganisms and reduce microbial contamination of the free-flowing material dispensed from the dispensing nozzle.

Abstract: A reusable aseptic connector is provided. The connector may be used to provide fluid communication between a bag-in-box (BIB) container and a beverage dispenser. The connector may provide aseptic properties of the connection by insulation of an inner volume of a first part and an inner volume of a second part, with the beverage component kept from contacting any of the part of the connector structure that are exposed to the environment and have a risk of induced contamination. The connector may comprise a resilient membrane and a sliding tube wherein the sliding tube is configured to have a portion move toward and through the resilient membrane to establish fluid communication between the first part and the second part, and for the portion to move away from the resilient membrane to destablish fluid communication between the first part and the second part when desired.

Abstract: An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component comprising an inner surface. The first valve has an open position to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode, in a closed position when the combination is in the sanitizing mode. The sanitizing system comprises a processing unit, having an electrochemical cell configured to produce an anolyte solution and a catholyte solution. The sanitizing system comprises a second valve having an open position to send the anolyte solution and the catholyte solution to the at least one component when the apparatus is in the sanitizing mode. The second valve has a closed position when the apparatus is in the dispensing mode.

Abstract: An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component having an inner surface. The first valve is opened to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode. The first valve is closed when the apparatus is in the sanitizing mode. The sanitizing system comprises a processing unit having a discharge cell configured to initiate a cold plasma discharge in an air flow. A tank may be configured to receive the air flow from the discharge cell of the processing unit and expose water in the tank to the air flow for a time sufficient to provide dissolution of ozone from the air flow into the water and form ozone-containing water.

Abstract: An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component comprising an inner surface. The first valve has an open position to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode, in a closed position when the combination is in the sanitizing mode. The sanitizing system comprises a processing unit, having an electrochemical cell configured to produce an anolyte solution and a catholyte solution. The sanitizing system comprises a second valve having an open position to send the anolyte solution and the catholyte solution to the at least one component when the apparatus is in the sanitizing mode. The second valve has a closed position when the apparatus is in the dispensing mode.

Abstract: An apparatus comprises a dispensing system and a sanitizing system. The apparatus has a dispensing mode and sanitizing mode. The dispensing system may comprise a first valve and at least one component, the at least one component having an inner surface. The first valve is opened to send a free-flowing material to the at least one component when the apparatus is in the dispensing mode. The first valve is closed when the apparatus is in the sanitizing mode. The sanitizing system comprises a processing unit having a discharge cell configured to initiate a cold plasma discharge in an air flow. A tank may be configured to receive the air flow from the discharge cell of the processing unit and expose water in the tank to the air flow for a time sufficient to provide dissolution of ozone from the air flow into the water and form ozone-containing water.

Abstract: A reusable aseptic connector is provided. The connector may be used to provide fluid communication between a bag-in-box (BIB) container and a beverage dispenser. The connector may provide aseptic properties of the connection by insulation of an inner volume of a first part and an inner volume of a second part, with the beverage component kept from contacting any of the part of the connector structure that are exposed to the environment and have a risk of induced contamination. The connector may comprise a resilient membrane and a sliding tube wherein the sliding tube is configured to have a portion move toward and through the resilient membrane to establish fluid communication between the first part and the second part, and for the portion to move away from the resilient membrane to destablish fluid communication between the first part and the second part when desired.

Abstract: A reusable aseptic connector is provided. The connector may be used to provide fluid communication between a bag-in-box (BIB) container and a beverage dispenser. The connector may provide aseptic properties of the connection by insulation of an inner volume of a first part and an inner volume of a second part, with the beverage component kept from contacting any of the part of the connector structure that are exposed to the environment and have a risk of induced contamination. The connector may comprise a resilient membrane and a sliding tube wherein the sliding tube is configured to have a portion move toward and through the resilient membrane to establish fluid communication between the first part and the second part, and for the portion to move away from the resilient membrane to destablish fluid communication between the first part and the second part when desired.

Abstract: An edible foamable composition that is whippable and is stable in temperature above freezing. The composition includes fat, emulsifier, water, and calcium carbonate particles. The composition can further including one or more additives selected from the group consisting of preservatives, protein, salt, flavoring, coloring agent, sweetener, stabilizer and thickener.