A method of producing a carbonated beverage comprising a blend of water and syrup having a predetermined final carbonation level. The method includes the steps of: introducing CO.sub.2 into a flowing stream of a product blend comprising water, syrup and dissolved oxygen, such that CO.sub.2 is dissolved in the product blend; deaerating the CO.sub.2-containing product blend by introducing the blend into a vented atmospheric vessel, the interior of which is at ambient pressure with a headspace maintained above the surface of the liquid within the vessel, whereby dissolved oxygen is released from the product blend and vented from the vessel; pumping the deaerated product blend from the vessel, wherein the deaerated blend includes dissolved CO.sub.2 at an intermediate carbonation level less than the final carbonation level; and carbonating the deaerated product blend to the final carbonation level downstream of the vented vessel to produce a carbonated beverage for subsequent packaging. A system for performing the method is also provided, as well as a method of producing a beverage using nitrogen deaeration.

A method of producing a carbonated beverage comprising a blend of water and syrup having a predetermined final carbonation level. The method includes the steps of: introducing CO.sub.2 into a flowing stream of a product blend comprising water, syrup and dissolved oxygen, such that CO.sub.2 is dissolved in the product blend; deaerating the CO.sub.2-containing product blend by introducing the blend into a vented atmospheric vessel, the interior of which is at ambient pressure with a headspace maintained above the surface of the liquid within the vessel, whereby dissolved oxygen is released from the product blend and vented from the vessel; pumping the deaerated product blend from the vessel, wherein the deaerated blend includes dissolved CO.sub.2 at an intermediate carbonation level less than the final carbonation level; and carbonating the deaerated product blend to the final carbonation level downstream of the vented vessel to produce a carbonated beverage for subsequent packaging. A system for performing the method is also provided, as well as a method of producing a beverage using nitrogen deaeration.

Various beverage preparation systems and methods are disclosed. The beverage preparation system can include a container assembly configured to receive beverage, such as a milk. The container assembly can be removably engaged with a base. The container assembly can be temporarily removed from the base to facilitate transport of the beverage residing therein. The container assembly can be configured to receive a flow of steam, air, or additional gasses and vapors when the container assembly is mounted on the base.

Various beverage preparation systems and methods are disclosed. The beverage preparation system can include a container assembly configured to receive beverage, such as a milk. The container assembly can be removably engaged with a base. The container assembly can be temporarily removed from the base to facilitate transport of the beverage residing therein. The container assembly can be configured to receive a flow of steam, air, or additional gasses and vapors when the container assembly is mounted on the base.

Kitchen appliances usually include devices such as a water system, a cooker, a kitchen hood (range hood), an oven, a refrigerator, a microwave, a dishwasher and other devices. The devices are mostly operated independent from each other. Unlike those devices the “drinkable tap water-based liquid supply system” according to the present invention comprises a few devices controlled by an advanced control system according to the invention for providing connectivity and system management. The system is designed to provide comfort, convenience and energy saving. The water-based liquid supply system according to the present invention provides a variety of water-based liquids, dispatched with the desired properties from a countertop faucet.

Kitchen appliances usually include devices such as a water system, a cooker, a kitchen hood (range hood), an oven, a refrigerator, a microwave, a dishwasher and other devices. The devices are mostly operated independent from each other. Unlike those devices the “drinkable tap water-based liquid supply system” according to the present invention comprises a few devices controlled by an advanced control system according to the invention for providing connectivity and system management. The system is designed to provide comfort, convenience and energy saving. The water-based liquid supply system according to the present invention provides a variety of water-based liquids, dispatched with the desired properties from a countertop faucet.

An installation for rearing animals includes an injector; a water inlet line and a gas inlet line arriving in the injector; a source of oxygen or a gas mixture including oxygen, capable of delivering oxygen into the gas line; and a water recirculation loop including: a water tank, at atmospheric pressure, to supply the injector with fresh water; a coil capable of receiving water charged with dissolved oxygen from the injector through a pump, wherein the coil creates a water/oxygen contact time; and an overflow valve, to have the water resulting from the coil passed in order to be able to direct the water entirely to the animals' watering or partially to the animals' watering and partially back to the water tank. A method for rearing animals includes boosting water with dissolved oxygen up to saturation for animals' watering.

A low acid beverage product such as e.g. coffee, cold brew coffee or nitro cold brew coffee product that is shelf stable for 180 days at refrigerated conditions including a sealed container having a liquid portion and a headspace. The liquid portion has the beverage with oxygen dissolved therein. A method of manufacturing the beverage includes dissolving oxygen and into a cold beverage and packaging the liquid beverage product with oxygen dissolved therein into a sealed container. The liquid beverage product also includes flavorings or sweeteners or milk products in the sealed container and remains free from Clostridium botulinum (C. bot).

A hydrogen gas dissolving apparatus 1 has a hydrogen supply unit 2 capable of supplying hydrogen gas, and a hydrogen gas dissolution module 6 for bringing the hydrogen gas supplied from the hydrogen supply unit 2 in contact with and dissolved in water. The hydrogen gas dissolution module 6 has a supply port 62 to which the hydrogen gas is supplied, a hydrogen chamber 63 communicating with the supply port 62 and filled with the hydrogen gas supplied from the supply port 62, and an exhaust port 64 communicating with the hydrogen chamber 63 and discharging the air in the hydrogen chamber 63. The exhaust port 64 is located in a lower part of the hydrogen chamber 63.

A platform for onsite creation of consumable liquids is provided. The platform includes a liquid generating machine, a set of cubes, compatible bottles, and a user interface device. The liquid generating machine may include a water storage module, a cube module, a liquid making module and a bottle filling and cleaning module. The platform decentralizes the production of consumable liquids, such as drinking waters, enhances the consumer's experience, significantly increases consumers' choices, all while simplifying the consumption process (buying the water, carrying it, getting rid of/recycling the plastic bottle, etc.). The platform includes customizable liquid generating recipes associated with the cubes that may be provided through a network or local database and a security feature that allows the authorization of users to generate and access controlled liquids.