Cornelius, Inc.

Marmon Foodservice Technologies, Inc.

Imi Cornelius, Inc.

Other

Starbucks Corporation

David K Njaastad

E Scott Sevcik

Andrew J Tobler

Scott E Sevcik

James Bendig

Thaddeus M Jablonski

Vincenzo DiFatta

Dusan N Ivancevic

Zachary Dresser

Peter S Tinucci

Kurt Zoellick

Daniel Prochaska

Steven M Shei

Michael Graef

Daniel C Leaver

Nicholas Michael Giardino

Christopher F Zemko

Fernando Sanchez

Slawomir Kielian

Richard Schultz

Brian Mathews

Craig Pavlich

Brian Mastro

Jeffrey DeBuhr

Bogdan M Gheorghe

Shishirdas Kasaragod Ravindran

Mark Miller

Michael Hanley

Steve Miller

Daniel Muskin-Pierret

Kevin Michael Carrara

Mark Lytell

Stan Valsaint

Carmelo Hernandez

Wieslaw Tomzyk

Bassey E Duke

Luis Campos

Michael A Graef

Zach Dresser

In an automated beverage dispensing system, a conveyance system defines a plurality of cup locations and operates to sequentially move the plurality of cup locations through a plurality of indexed locations. A cup dispensing system is configured to receive a supply of cups. The cup dispensing system is operable to dispense a cup to a cup loading location that coincides with an indexed location of the plurality of indexed locations. A beverage dispensing system is configured to dispense a beverage at a beverage dispense location of the plurality of indexed locations. A computer associates an ordered beverage to a cup location of the plurality of cup locations.

Beverage dispensing apparatus

A cup dispensing system in an automated dispensing beverage dispensing system receives a first supply of cups at a first dispensing assembly with a first selective release device and receives a second supply of cups at a second dispensing assembly with a second selective release device. The first and second dispensing assemblies respectively coincide with first and second indexed locations on a cup conveyance system. The cup dispensing system operates to dispense a first cup from the first dispensing assembly to the first indexed location and a second cup from the second dispensing assembly to the second indexed location.

Beverage dispensing machine with cup dispenser

An example of a system for touchlessly dispensing ice into a receptacle includes a dispense chute configured to direct dispensed ice therethrough to a dispense area. A visual feedback device is configured to present a visual indication of an operational status of the system. A sensor is configured to produce a beam within the dispense area and to provide a signal indicative of a proximity of an object within the beam to the sensor. A controller is configured to receive the signal and to determine the proximity of the object to the sensor from the signal. The controller is configured to operate the system to initiate a dispense of ice through the dispense chute based upon the determined proximity of the object. The controller is configured to operate the visual feedback device to present a visual indication of the initiated ice dispense.

Systems and methods of accurate touchless dispensing

A beverage dispensing machine includes a dispensing valve having a first flow path configured to dispense a first fluid and a second flow path configured to dispense a second fluid such that the first fluid and the second fluid mix downstream and form a mixed beverage. A flow control device regulates flow rate of the first fluid through the first flow path, and a shutoff valve selectively closes to stop flow of the first fluid through the first flow path. A sensor is configured to sense the flow rate of the first fluid, and a controller automatically controls the flow control device to adjust the flow rate of the first fluid and thereby obtain a desired fluid ratio of the mixed beverage.

Beverage dispensing machines with dispensing valves

A touchless beverage dispensing valve assembly includes a nozzle and a valve configured to control a flow of a substance through the valve to the nozzle. A solenoid is configured to operate the valve between open and closed conditions. A trigger sensor includes an optical sensor and a controller. The controller executes a trigger sensor control module to receive an output from the optical sensor and operate the solenoid to control the valve between the open condition and the closed condition. A feedback device is operable to selectively provide a visual indication an operational status of the valve.

Touchless beverage dispenser valve

An ice dispensing system is provided. The system includes multiple sidewalls forming an ice bin cavity configured to store ice. The system further includes an auger drive assembly. The auger drive assembly includes a drive assembly that is coupled to one of the multiple sidewalls and has a motor configured to rotate a drive gear. The auger drive assembly further includes an auger assembly positioned within the ice bin cavity. The auger assembly includes a helical auger coupled to an auger gear. The drive gear is configured to mate with the auger gear to drive rotation of the helical auger and cause ice to be dispensed through an ice chute. The drive assembly is additionally configured to move relative to the auger assembly between a closed position and an opened position. The opened position permits removal of the auger assembly from the ice bin cavity.

Space saving ice and beverage dispenser with accessible auger drive

A detection device for detecting that a source is sold-out for a beverage dispenser, the beverage dispenser dispensing from the source via a valve controlled by a solenoid. A circuit board is configured to be positioned on the valve proximal to the solenoid. A detector is coupled to the circuit board, where the solenoid creates a magnetic field when dispensing from the valve, and where the detector detects the magnetic field created by the solenoid and consequently produces an electrical output. A control system is coupled to the circuit board in communication with the detector. The control system is configured to access threshold data and to compare the electrical output of the detector to the threshold data. The control system indicates that the source is sold-out based upon the comparison of the electrical output to the threshold data.

Systems and methods for wirelessly detecting a sold-out state for beverage dispensers

A beverage dispenser has a diluent manifold that dispensing a first diluent, a second diluent, or a mixed diluent to a beverage dispensing valve that receives and dispense the first diluent, the second diluent, or the mixed diluent with a concentrate from a concentrate source. The diluent manifold has a first inlet configured to receive the first diluent, a second inlet configured to receive the second diluent and an outlet that dispenses the first diluent, the second diluent, or a mixed diluent comprising the first diluent and the second diluent. A flow control spool is included that selectively permits the first diluent, the second diluent, or both the first diluent and the second diluent to convey through the diluent manifold such that the first diluent, the second diluent, or the mixed diluent dispenses from the outlet.

Diluent manifold for beverage dispensers

A beverage dispenser for dispensing either a hot or cold beverage, for example tea, from a common mixing chamber and a method for making and/or operating the same is disclosed. The dispense has a source of hot water, usually a heater, and a source of water, a refrigeration system to cool the water and one or more sources of flavor. The hot or cold water, or both can be provided to the common or same, mixing chamber and mixed assisted with a static and/or dynamic mixer and then dispensed. The last portion of the water is used to rinse for the next beverage. Flavor or syrup pump current is sensed to provide the appropriate amount of flavor concentrate to a known quantity of water to form a beverage of appropriate strength or syrup.

Dynamic Mixer apparatuses for beverage dispensers

A batch carbonation apparatus includes a housing defining a vessel cavity. The housing includes an agitation mechanism. The pressure vessel includes a cap that has a CO2 inlet and a CO2 outlet is provided. The pressure vessel also includes a seal. The pressure vessel is moveable into an out of the vessel cavity. A locking mechanism is provided and is attached to the agitation mechanism to removably lock the cap and seal relative to the pressure vessel. A CO2 source is connected to a plurality of valves where each valve has a differing pressure. A selection toggle is attached to the housing. A control mechanism is coupled to the plurality of valves. A user selects a desired carbonation level using the selection toggle and CO2 is introduced to the pressure vessel at a specified pressure wherein the agitation mechanism agitates liquid within the pressure vessel forming a carbonated beverage having a selected carbonation level. Also disclosed is a process of forming a carbonated beverage in a batch.

Batch carbonator and method of forming a carbonated beverage

Systems and methods of beverage dispensing include a dispensing unit, at least one diluent source, and at least one flavoring source. An amount of beverage product to dispense is calculated and a beverage product including at least one diluent and at least one flavoring is dispensed. An actual diluent-to-flavoring ratio is calculated based upon at least one value from the sensing unit during the dispense of the beverage product.

Beverage dispensing systems and methods of dispensing beverages from beverage dispensing systems

A carbonation apparatus includes a pressure vessel includes a cap that has a gas inlet and a gas outlet. The carbonation device also includes a seal. The seal includes a labyrinth preventing contact of a liquid within the pressure vessel with the cap during a carbonation process. A locking mechanism removably locks the cap and seal and antifoam device relative to the pressure vessel.

Seal and anti foam device

The present invention recognizes the need for an apparatus and method for creating carbonated beverages having a customizable carbonation level. The invention uses a CPU to control an inlet valve which connects a tank of pressurized carbon dioxide to a vessel containing the beverage to be carbonized. The tube connecting the tank of pressurized carbon dioxide to the vessel contains an orifice for reducing the carbon dioxide's flow rate, thereby increasing control over the amount of carbon dioxide introduced to the vessel. A motor agitates the vessel, causing the carbon dioxide to become absorbed in the beverage. Then, an outlet valve causes excess pressure to drain from the vessel. An outlet orifice causes the pressure to release gradually, thus preventing the beverage from foaming.

Method for carbonating a beverage

The present invention recognizes the need for an apparatus and method for creating carbonated beverages having a customizable carbonation level. The invention uses a CPU to control an inlet valve which connects a tank of pressurized carbon dioxide to a vessel containing the beverage to be carbonized. The tube connecting the tank of pressurized carbon dioxide to the vessel contains an orifice for reducing the carbon dioxide's flow rate, thereby increasing control over the amount of carbon dioxide introduced to the vessel. A motor agitates the vessel, causing the carbon dioxide to become absorbed in the beverage. During the pressurization process, the pressure inside the vessel is monitored by the CPU to determine whether more CO2 should be added to the vessel. An outlet valve causes excess pressure to drain from the vessel. An outlet orifice causes the pressure to release gradually, thus preventing the beverage from foaming.

Method for customizing a beverage's carbonation level

Growing community of inventors

Palatine, IL, United States of America

David K Njaastad