Kx Technologies LLC

Whirlpool Corporation

Matthew W Hartmann

Robert A Astle

Garett L Strandemo

Jason N Morgan

Gregory Gene Hortin

William Li

Jordan Robert Fuhs

Brian K Culley

Daryl Lee Reuter

Ravindra S Kavchale

Johnny R Revlett

Gary William Wilson, Sr

Matthew P Deig

Garett Strandemo

A filtration system interconnection structure having a filter manifold and a filter cartridge in magnetic communication with one another, such that a latching mechanism of the manifold secures the filter cartridge within a manifold sump when the filter cartridge is inserted therein. The magnetic communication is formed between two complementary coded polymagnets capable of producing a magnetic shear force when in close proximity to one another. The magnetic shear force removes a latch blocking structure from interfering with the latch, allowing the latch to secure the filter cartridge. Movement of the latch blocking structure coded polymagnet relative to the filter cartridge coded polymagnet may be perpendicular or parallel with respect to each other such that a shear force is generated therebetween, allowing for actuation of the latch blocking mechanism against a biasing force, and allowing the latch to move radially inwards against a separate biasing force.

Filter interconnects utilizing magnetic shear force generated by coded polymagnets

A gravity-fed filtration system and method of initiating flow from a filter cartridge to a holding reservoir for a gravity-fed filtration system. The method comprises providing a filter cartridge having a filter magnet, a holding reservoir for filtered fluid, and a first reservoir having a recess receiving cavity in a bottom surface thereof for receiving ingress fluid. Upon inserting the filter cartridge into the recess receiving cavity and moving the filter magnet to be in in magnetic communication with the carrier magnet, a magnetic force moves the carrier magnet from a first position which blocks fluid flow, to said second position which allows fluid flow to the holding reservoir.

Gravity-fed filter interconnect utilizing coded polymagnets

An interconnection scheme between a filter cartridge and its corresponding manifold whereby a magnetic shear force is introduced to remove a blocking mechanism that would otherwise prohibit attachment. The magnetic shear force may also be employed to activate or deactivate a switch or valve, or engage or disengage an engagement mechanism relative to other components upon interconnection. The magnetic shear force is generated by complementary correlated magnet structures moved into close proximity to one another. The interconnection scheme may be a linear or rotational attachment of the filter cartridge with respect to the manifold. A valve assembly utilizing magnetic shear force may be employed to activate a bypass action between a manifold ingress port and egress port, thereby allowing water to flow when a filter cartridge is removed from the manifold and directing water to the filter cartridge when the valve assembly is activated.

Filter interconnect using a magnetic shear force

A filtration system interconnection structure includes a filter manifold and a filter cartridge in magnetic communication produced by two complementary correlated magnets capable of generating a magnetic force when in close proximity to one another. The filter magnet polarity transitions are aligned with the manifold magnet polarity transitions such that a repulsion force is generated between the magnets when the filter cartridge is inserted within the manifold sump. The magnetic repulsion force may be used to move a blocking mechanism or actuate a latch structure in the manifold to secure the filter cartridge within the manifold sump upon insertion, or to provide non-contacting actuation of a downstream valve so as to permit or prevent the flow of fluid. Utilizing correlated magnetism in a filter interconnect further provides enhanced authentication and/or anti-counterfeiting means to ensure that only authorized or OEM filter cartridges can be installed.

Filter interconnect utilizing a magnetic repulsion force

A filtration system interconnection structure having a filter manifold including a sump housing and a first correlated magnet located on or connected to a portion of the manifold, and a filter cartridge including a filter media, first and second end caps sealed to the filter media, and a second, paired correlated magnet located on or connected to the filter cartridge housing body. The first and second correlated magnets are interconnected via magnetic communication upon insertion of the filter cartridge into the sump housing, and upon movement of the filter cartridge into an alignment position, the correlated magnet located on or connected to the manifold is permitted to translate as a result of the magnetic communication. The polarity profiles of the paired correlated magnets are aligned such that a repulsion force is created when the filter cartridge is inserted within the manifold sump housing.

Filter interconnect utilizing correlated magnetic actuation for downstream system function

A gravity-fed filtration system interconnection structure comprising a reservoir for receiving ingress fluid, and a second, dispensing reservoir. A carrier or shuttle having a carrier magnet is connected to a sluice gate valve which normally blocks the opening to the second reservoir. A filter cartridge may be received by the reservoir and includes a housing body, and a filter magnet disposed within or fixedly connected to the housing body. The filter magnet and the carrier magnet are interconnected via magnetic communication upon insertion of the filter cartridge into the reservoir recess, to move the carrier and/or sluice gate valve as a result of shear force or rotational force generated between the magnets.

A filtration system interconnection structure having a filter manifold and a filter cartridge in magnetic communication with one another, such that a latching mechanism and latch blocking structure in the manifold secures the filter cartridge with a manifold sump when the filter cartridge is inserted within the manifold sump. The magnetic communication is formed between two complementary coded magnets capable of producing a magnetic shear force when in close proximity to one another. The magnetic shear force removes the latching blocking structure from interfering with the latch, allowing the latch to secure the filter cartridge. Movement of the latching blocking structure coded magnet relative to the filter cartridge coded magnet may be perpendicular or parallel with respect to each other. The filter magnet polarity transitions are aligned with the manifold magnet polarity transitions such that a shear force is generated between the magnets when the filter cartridge is inserted within the manifold sump housing, allowing for actuation of the latch blocking mechanism against a biasing force, and allowing the latch to move radially inwards against a separate biasing force.

An ice shaving mechanism may include a blade arranged with an edge to engage an ice mass to shave a layer of ice from the ice mass. A support may be provided upon which the blade may be mounted. An opening may be arranged adjacent to the edge of the blade to permit the shaved layer of ice to pass through the opening. At least one guide surface may extend away from the opening opposite the blade to intercept the shaved layer of ice that has passed through the opening, and to direct the shaved layer in a desired direction.

Mechanism for shaving ice in a refrigeration appliance

An air tower is provided for a refrigeration appliance that has a first cooled compartment and a second cooled compartment. The air tower has a diffuser section with a plurality of vent outlets to communicate with the first cooled compartment. A central duct section is defined by walls extending away from the diffuser section. An outlet is located at an end of the central section opposite the diffuser section to communicate with the second cooled compartment. A heat trap compartment is formed along one of the walls defining the central duct section. The heat trap compartment may communicate with a defrost heater.

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Evansville, IN, United States of America

Matthew W Hartmann