Servend International, Inc.

Manitowoc Foodservice Companies, Inc.

Other

Jerry L Landers

Richard K Renken

Charles P Fisher

William Derek Slone

David C Hobson

Greg A Glass

William G Lancaster

Timothy B Strandell

Charles Benjamin Miller

Alan Stevenson Lucas

Melvin D Kyees

M Scott Bennett

James R Morrow, Sr

Hershel E Fancher

Merritt Todd Teague

John M Grady

Harvey R Brandon

Thomas J Pfiefer

Matthew J Ramser

William L Ramser

Gregory E Fischer

Gregory K Thompson

James R Morrow Sr

A method of cooling multiple beverage components involves: providing a heat exchanger comprising a plurality of sheets of heat transfer material and at least first and second flow channels defined by surfaces made at least in part by the sheets of heat transfer material; directing a first and second fluid respectively through the first and second flow channels, each of the first and second fluids being selected from the group consisting of non-carbonated water, carbonated water, beverage concentrates and non-concentrated beverages; placing ice in contact with at least one of the sheets of heat transfer material.

Heat exchanger, particularly for use in a beverage dispenser

An ice crusher is attached to an ice dispenser or to a combined ice and beverage dispenser. The ice crusher occupies minimal space in order to fit the dispenser into an existing space on a serving counter or in a beverage dispensing area. The ice crusher may also elevate the ice. In embodiments using this technique, the outlet of the ice from the ice crusher is higher than the ice inlet. As the ice flows from a source of ice, such as an ice bin, the ice is elevated while it is being crushed. The ice then flows from the outlet of the ice crusher down an ice chute or other outlet of the ice crusher, into a cup or container as desired. Other embodiments convey the ice without lifting it, and still other embodiments dispense either crushed or cubed ice, as the consumer may select. In one embodiment the selected crushed ice or cubed ice are both dispensed though the same ice dispensing chute. A retrofit kit may be used to add an ice crusher to an existing ice dispenser, or to an existing combined ice and beverage dispenser.

Ice/beverage dispenser with in-line ice crusher

A beverage dispenser modular manifold routes carbonated water and non-carbonated water to a plurality of outlet ports for dispensing water for mixing with syrup and dispensing a beverage. A selector allows a store owner or manager to set the manifold to dispense one of carbonated water and non-carbonated water for each mixing and dispensing nozzle in the beverage dispenser. The manifold may be combined with similar manifolds to provide as many dispensing stations as desired in a beverage dispenser. Syrup modular manifolds may also be included.

Beverage dispenser modular manifold

A dispenser for soft-drinks and ice has an integral ice maker. The compressor and condenser for the ice making refrigeration system are located remotely from the ice making apparatus. Thus, the dispenser with an integral ice maker does not emit noise and heat from the compressor and condenser in the customer service areas where ice and soft drinks are dispensed. Refrigerant vapor is drawn from a receiver and is used for defrosting in the harvest portion of the ice making cycle. The dispenser also has an internal heat exchanger for cooling carbonated water and syrup prior to dispensing a soft drink. There is also an ice maker and dispenser, having a refrigeration system in which ice-making components and an ice dispenser are located near a customer-service area, while the hot and noisy refrigeration components are located remotely.

Beverage dispenser with integral ice maker

A selection manifold for use for use with a beverage dispenser apparatus for dispensing both carbonated and non-carbonated beverages and including a plurality of dispensing valves with a syrup and a water line feeding each dispensing valve further comprising a selection manifold connected between at least one of the water lines and sources of both carbonated and non-carbonated water, the manifold having a selecting mechanism allowing a user of the apparatus to easily switch between directing carbonated and non-carbonated water through the water line to the dispensing valve. In a preferred embodiment, the selection mechanism includes a portion that enables a viewer to easily determine whether carbonated or non-carbonated water is selected. In another preferred embodiment, the selection mechanism includes a lock to prevent inadvertent switching of the mechanism.

Selection manifold for beverage dispenser

This invention relates to an apparatus and method for the volumetric measuring and dispensing of ice from a holding bin. The ice is desirably in a crushed or cubed state and is agitated during storage to prevent its freezing into a solid block. When a volume of ice is desired, a user activates the machine to dispense the desired amount. As the ice is dispensed, it rotates a wheel that provides a volumetric measurement and closes a door to the holding bin when the proper amount is dispensed.

Volumetric ice dispensing and measuring device

Low volume beverage dispenser

A system for transporting ice pieces or the like from a primary bin to one or more satellite bins is disclosed. A dispenser forms a charge of ice pieces in a precharge chamber, which is then transferred by air assist to a delivery tube. A driver member is provided to engage and move the substantially defined charge of ice pieces to the selected satellite bin. The driver member is propelled by a differential pressure within the tube. This permits the defined charge to be exposed only to the low pressure side and insulated from the high pressure propelling medium to minimize breakage and melting during delivery. Before reaching the satellite bin, the piston is reversed to shuttle back to the home position. The satellite bins are connected in series and delivery of a charge to an intermediate bin is provided by moving a tube section out of alignment with the delivery tube. Lubrication and continuous cleaning is performed by the driver member sweeping minimal residual water from melting ice. A full, two phase cleaning cycle is also provided by injecting cleaning fluid/rinse water into the tube for delivery by the piston. Single or dual fans are used to provide the differential pressure. A controller coordinates the system operation and allows monitoring and adjustment of all parameters.

Ice transportation system and method

Combined ice and beverage dispenser

A pivoted ice dispensing chute is pushed rearward to lift a door lock, lift a door and contact a microswitch for starting an ice dispensing mechanism. Release of the chute allows the chute to swing forward, opening the microswitch and stopping the ice dispensing mechanism, and allowing the door to drop downward and the lock to drop downward below the door. In its downward position, the door is adjacent the back of the chute to prevent lifting of the door and unwanted movement of ice through the chute. The chute is generally rectangular in planform, with a sloping back, sides and a rounded front. The top of the chute and the bottom of the chute are open. The back of the chute has a rib with a lateral extension which operates the microswitch. The rib lifts the door lock and lifts the door. A push plate bracket is relocatable on the chute to rest on the front of the chute for pushing with a hand and to be positioned beneath a lower end of the back of the chute to be pushed with a cup or with a hand that holds a cup. The chute, the door, the lock and the microswitch are mounted on two brackets which are mounted on a face of an ice dispenser near an ice dispensing opening. The chute is supported on pins at the distal ends of the bracket, which extend through sides of the chute near the front.

Ice dispenser controlling rocking chute

Out-turned upper edge portions of cabinet walls support a drop-in dispenser on edges of a counter top opening. A trim ring overlies and covers the out-turned edge portions. A tower with valves extends upward from the cabinet, and an anchor extends downward inside the cabinet walls for supporting the tower. A large curved drain pan extends over the trim ring beneath valves on the tower. A drain tube at the back of the drain pan extends straight downward to a drain opening at the bottom of the dispenser. The drain tube is straight and uninterrupted and has a large diameter. A channel extends from the front to the back of the base. An ice storage bin with a cold plate at its bottom is installed in the cabinet, and inlet fittings from the cold plate extend downward and rearward in the channel for ease of connection of liquid lines when the dispenser is tipped on its back, and for preventing damage to the fittings. The ice bin drain and the ice pan drain open in the widened rear of the channel from non-clogging large straight tubes. A T-shaped smooth plastic runner is mounted in the front center of the base, and two inward angled runners are mounted near rear corners of the base for supporting the unit on flat surfaces. Vertical conduits extend from the top to the bottom corners of the base for inserting non-cooled syrup lines or electrical lines. The drain pan, splash plate and ice door are readily removable without tools.

Drop-in beverage and ice dispenser

An ice dispensing apparatus having a storage bin with a paddle wheel which moves the ice from a storage bin to a delivery chute. A straight door is utilized to selectively open and close the delivery chute. A drip pan is provided on the outside of the chute to collect the melt water from the ice, which is in the delivery chute.

Cable operated ice dispensing door

An ice dispensing apparatus having a storage bin with a paddle wheel which moves the ice from a storage bin to a delivery chute. An arcuate door is utilized to selectively open and close the delivery chute. A drip pan is provided on the outside of the chute to collected the melt water from the ice which is in the delivery chute.

Ice dispenser door and method

An ice dispensing bin has an inward and rearward sloped front wall and a downward and forward sloped semi-cylindrical bottom wall. The rear wall and side walls and an upper portion of the front wall are generally vertical. A paddle wheel is positioned in a recess in the sloping front wall. The paddle wheel has a circular plate lying along a central portion of the annular recess. A truncated conical plate converges axially about 10 degrees from the circular plate. Paddles extend radially from the conical plate. Turbine blade-like paddles curve circumferentially and then axially and stop short of the front wall to trap and move ice along the front wall of the recess as the paddle wheel is rotated. A shaft extends through the paddle wheel and rearwardly to a bearing in the rear wall. An angular arm on the shaft breaks ice bridges as the shaft rotates with the paddle wheel. A speed reducer mounted on the front of the sloping wall and a motor mounted on a lower portion of the speed reducer turn the paddle wheel and ice bridge breaker. A switch opens the gate and starts movement of the paddle wheel.

Growing community of inventors

Memphis, IN, United States of America

Jerry L Landers