A system and a process for producing cold brew coffee are provided. The system and method include the use of an extraction tank adapted to receive ground coffee beans therein. Water is pumped into the extraction tank. A back pressure control valve is provided so as to pulse the back pressure within the tank. This pulsed back pressure increases turbulence within the tank. Combined with the flow rate and pressure within the tank, the turbulence allows for cold brewed coffee concentrate to be produced in a much quicker time than associated with prior art methods. A number of extraction tanks may be provided in the system of the present invention so as to increase yield.

Disclosed is a brewing system that utilizes a curved pedestal that allows brewed effluent to drain in a manner that travels toward the center of the curved pedestal to maximize the exposure of the effluent to the organic material used for brewing, while also maximizing yield. The pedestal 112 sits above the lowest effluent level to allow the brewed effluent to drain from the organic material that is used for brewing to maximize the amount of effluent obtained. By allowing the brewed effluent to drain from the organic material, the weight and size of the organic material is reduced, so that the filter bag can be removed from the brewing system without ripping or tearing. The brewing system eliminates the need for a separate mesh bag and allows the effluent to drain without squeezing the filter bag and which would otherwise cause the release of harsh oils and acids, which can also be unsanitary as a result of a user handling the bag filter.

Shown are a coffee extraction system and a coffee extraction method using the same. A coffee extraction system, according to one embodiment of the present invention, includes: an extraction water storage tank which stores extraction water; a body unit which accommodates ground coffee beans and includes a coffee extractor which is supplied with the extraction water from the extraction water storage tank to extract liquid coffee, wherein the coffee extractor accommodates the ground coffee beans and has a first extraction water supply channel communicating with the extraction water storage tank and with a side portion to which the extraction water is supplied; an upper cover, coupled to an upper portion of the body unit, which has a second extraction water supply channel, which communicates with the extraction water storage tank and through which the extraction water is supplied, and which has a first liquid coffee discharge channel through which the extracted liquid coffee is discharged; and a lower cover, coupled to a lower portion of the body unit, which has a third extraction water supply channel, which communicates with the extraction water storage tank and through which the extraction water is supplied, and which has a second liquid coffee discharge channel, through which the extracted liquid coffee is discharged.

The present general inventive concept provides, for example, an oil infuser and metered dispenser for creating botanical extracts, and in particular cannabis-infused oil for use in consumable products such as foodstuffs. The dispenser comprises an infusing compartment and a filter disposed therein for receiving one or more botanical pods. A pump draws a base oil from a heated infusing compartment through the filter and botanical pods, and out the filter back into the infusing compartment. The oil continues circulating in this fashion until the concentration of the infusion reaches a desired level at which time the oil is pumped into a dispensing compartment. The filter prevents particulate matter from accumulating in the infused oil. A sensor is included for measuring predetermined amounts of infused oil. Flavored botanical pods are provided for infusing seasoning, herbs, and other flavors into the base oil in addition to cannabis floral material.

An apparatus, system, and method for beverage dispensing, and control and management of a beverage dispenser. The beverage dispenser can have an enclosure. The enclosure includes a base section, a control section, and a dispensing section. The base section can be configured to house one or more BIBs, and support one or more beverage containers. The control section can be configured to house a heating device, one or more pumps, control circuits, communication circuits, distribution circuits, and fluid management systems. The dispensing section can be configured to house a computing device, one or more fluid dispensers, and support a brewing or mixing container. The brewing or mixing container can allow for the brewing, mixing, or blending of a beverage that can be dispensed to one or more beverage containers. The beverage dispenser can communicate through a computer network to a management, maintenance, and support portal.

A dosing pump for dosing metered amounts of liquid product, includes an inlet adapted to be fluidly connected to a storage container, an output adapted to be connected to a beverage dispensing machine for receiving metered amounts of liquid product, and a dosing chamber arranged for transferring a liquid from the inlet to the output. The dosing chamber is at least partly filled with a liquid different from the liquid product. The different liquid can be a cleaning fluid, or be food compliant. The dosing pump can be included in an exchangeable supply pack filled with the liquid product for connecting to a beverage dispensing machine, and the output can be adapted to be brought into fluid connection with a beverage dispensing machine. When associated with a beverage dispensing machine, the dosing pump can be operated to allow the different fluid to be pumped through the beverage dispensing machine prior to a first dosing cycle of liquid product.

A refrigerator appliance having a cold brewed coffee system positioned within a chilled chamber of the refrigerator appliance is provided. In one example aspect, the system includes a housing defining a water reservoir and a coffee reservoir. The water reservoir is in fluid communication with a water supply via an inlet supply conduit. An inlet valve is positioned along the inlet supply conduit and selectively allows water into the water reservoir. The water within the water reservoir drips into the coffee reservoir where the water mixes with coffee materials received therein. Cold brewed coffee is produced within the coffee reservoir and may slowly drip into a coffee container positioned or docked beneath the housing.

System and methods according to the present invention provide for an automated coffee brewing system, the automated coffee brewing system may comprise a system cavity which comprises at least one of a bean storage cavity, grinding assembly, brewing assembly, housing, water heating assembly, a controller, at least one sensing unit, a selection control, and a pouring unit providing the ability to produce at least one of bean-to-cup coffee and multi-serving container coffee, further a method operating at least one of a first embodiment of the automated coffee brewing system, a second embodiment of the automated coffee brewing system, and a third embodiment of the automated coffee brewing system is provided, and a method of operating a fourth embodiment of the automated coffee brewing system is provided.

A coffee brewing apparatus and method that produces coffee using an agitation and cold brew operation. A high temperature strike stage with agitation is followed by a cold brew stage, with a displacement pump configured to transfer the coffee oils and extracts, shortening the time necessary to achieve a brew cycle. The brewing cycle of the present invention preferably uses a six stage sequence that includes introduction of strike water, agitation, bloom, brew water introduction, extraction, and dilution. The various stages are performed using a brewing system that includes an agitation system, a displacement pump, and a filtering system used to extract the oils and extracts of the coffee for brewing.

An apparatus includes a body, a removable first container for water for positioning on the body, a boiler within the body receives water from the first container, a heater adjacent to the boiler heats the water in accordance with at least one preparation parameter. The apparatus further includes a removable second container that is a combination milk carafe and boiler for positioning on the body and a separate heater adjacent to the milk carafe and boiler for heating the milk in accordance with at least one preparation parameter. A filter and a dispensing valve are controlled electronically. An interface and display for entering brewing parameters and a microcomputer for the controlling the apparatus.