Global IP Holdings, LLC

Patent Holding Company

Jvis-usa, LLC

Other

Cadence Innovation Llc.

Darius John Preisler

Christopher A Heikkila

Jason Todd Murar

Larry J Winget

Steven A Mitchell

Jeffrey P Schmelzer

David R Syrowik

Scott Allen Grajek

Donald R Schaefer

William G Krowl

Lloyd R Hilligoss

Alexis Antonio Silva Perez

Keith Blazaitis

Shawn Robert Williams

Michael G Froude

Bradley P Kusky

David Donovan Hinchman

William G Hofmann

Dan M Bui

Shawn P Murray

Ryan Richard Lucas

Joseph C Frank

Rachel Elisabeth Schmidt

Nicholas R Demiro

Bryan A Frohriep

Douglas Cleland

Phillip J Kusky

Michael John Keller

Robert C Koehn, Ii

Cedric Alves

Paul Bjorklund

David A Peash

Kendall Miller

Artem Timoshenko

James Wagner

An antimicrobial, push button switch assembly for use at a self-service, dispensing or charging station is provided. The assembly includes a housing and a selection button supported for bi-directional movement within an opening in the housing. The selection button includes a plastic substrate and a plastic film sheet bonded to the substrate in a molding process. The film sheet has an outer touch surface configured to be pressed by a customer to initiate a dispensing or charging transaction. The film sheet is configured to allow at least one of germicidal light and antimicrobial agents to travel therethrough to the outer touch surface to disinfect the outer touch surface of pathogenic microorganisms.

Antimicrobial, push button switch assembly for use at a self-service, dispensing or charging station

A solid, multi-plastic handlebar is provided. The handlebar includes an inner substrate component made of a load-bearing, structural plastic material. In one embodiment, the substrate component includes a first set of circumferentially-spaced, longitudinally-extending locking members. The handlebar also includes an outer component overlying the substrate component and made of a plastic material less rigid than the plastic material of the substrate component. The outer component is configured to be gripped by a human hand. The outer component includes a second set of circumferentially-spaced, longitudinally-extending locking members which interlock with the first set of locking members to mechanically lock the substrate component and the outer component together.

Solid, multi-plastic handlebar

An antimicrobial, injection molded air duct for use in an air distribution system which delivers air to a passenger cabin of a vehicle or into an enclosed space within a residential structure is provided. The air duct includes a hollow, injection molded housing having an air passageway for communicating airflow therethrough. The housing includes a layer of molded material which at least partially defines the passageway and which absorbs airborne liquid droplets containing infectious, disease-causing pathogens moving with the airflow. The molded material includes antimicrobial agents disbursed throughout the layer to reduce the number of pathogens contained within droplets absorbed by the layer.

Antimicrobial, injection molded air duct for use in an air distribution system

A low-profile, backlit panel assembly and a controller for displaying images and/or data within a passenger compartment of a vehicle are provided. The assembly includes a substrate panel perforated with a two-dimensional array of closely-spaced holes. The panel is configured to be attached to a support structure of the vehicle. The assembly further includes a plurality of semiconductor-based, lighting devices supported at a back surface of the panel. Each of the lighting devices includes at least one lighting element. Each of the lighting elements is individually addressable by the controller to control luminous intensity of the light emitted by the at least one lighting element. Each of the lighting devices is aligned with one of the holes so that light emitted by each of the lighting devices travels through its hole to the passenger compartment in the form of a pixel of a two-dimensional image.

Low-profile, backlit, panel assembly for displaying images and/or data within a passenger compartment of a vehicle

An actuator assembly for actuating air blocking elements of an outlet assembly is provided. The actuator assembly includes an actuator arm and a selector member operatively connected to the actuator arm to rotate the actuator arm about an arm axis. The actuator arm is operatively connected to a first air blocking element to rotate the first air blocking element towards its air blocking position without moving a second air blocking element upon rotation of the actuator arm in a first direction from a neutral, non-blocking position of the actuator arm about the arm axis. The actuator arm is operatively connected to the second air blocking element to rotate the second air blocking element towards its air blocking position without moving the first air blocking element upon rotation of the actuator arm in a second direction opposite the first direction from the neutral, non-blocking position.

Actuator assembly for actuating air blocking elements of an outlet assembly

A sandwich-type, composite component having an injection molded backside protective covering including 3-D structures which provide at least one pattern at an outer surface of the component is provided. The component includes a first outer layer having an outer surface, a second outer layer and a core bonded to and positioned between the outer layers and having a plurality of cavities. The covering is integrally formed from at least one elastomeric material and includes the 3-D structures bonded to the outer surface by injection molding. The 3-D structures are sized, shaped and arranged in one or more patterns at the outer surface. The one or more patterns may form a textured surface finish, a logo or indicia such as instructions at the outer surface. The component may be a vehicle interior component such as a vehicle load floor component.

Sandwich-type, composite component having an injection molded backside protective covering

A marine deck member and the process for forming the same are provided. The marine deck member comprises a sandwich-type composite panel made by a compression molding process. In such a process, the panel is made by subjecting a heated stack of layers of material to cold pressing in a mold. The cellular core has a 2-D array of cells, with end faces open to the respective layers or skins. The surface traction of this type of composite panel can be enhanced for marine deck applications by controlled debossing, or embossing, of the first skin while it cools in the compression mold. The debossing effect can be affected by applying pressurized gas, e.g., pressurized air, onto the outer surface of the first skin while in the compression mold. The embossing can be affected by applying vacuum pressure on the outer surface of the first skin while in the compression mold.

Marine decking with sandwich-type construction and method of making same

A sandwich-type, composite component having a sprayed backside protective coating is provided. The component includes a first outer layer having an outer surface, a second outer layer and a core positioned between and bonded to the outer layers and having a plurality of cavities. The protective coating is integrally formed from an elastomeric material. The material is sprayed to form the coating and the coating is bonded to the outer surface by curing. The component may be a vehicle interior component such as a vehicle load floor component.

Sandwich-type, composite component having a sprayed backside protective coating

A marine deck member with enhanced surface traction and the process for forming the same. The marine deck member comprises a sandwich-type composite panel made by a compression molding process. In such a process, the panel is made by subjecting a heated stack of layers of material to cold-pressing in a mold. The cellular core has a 2-D array of cells, each of the cells having an axis substantially perpendicular to the outer surfaces, and extending in the space between the layers or skins, with end faces open to the respective layers or skins. The surface traction of this type of composite panel can be enhanced for marine deck applications by controlled debossing, or embossing, of the first skin while it cools in the compression mold. The debossing effect can be effected by applying pressurized gas, e.g., pressurized air, onto the outer surface of the first skin while in the compression mold. The embossing can be effected by applying vacuum pressure on the outer surface of the first skin while in the compression mold.

Method of making marine decking

A vibrating panel assembly configured to radiate sound into a passenger compartment of a vehicle having a support structure is provided. The assembly includes a substrate panel having front and back surfaces. The panel includes an inner portion, an outer boundary portion formed on the perimeter of the panel and an intermediate portion between the inner portion and the outer boundary portion. The vibrating panel has a frequency distribution of modes in a range of audible frequencies. The panel is configured to be attached to the support structure. An electroacoustic vibrator is mounted on the inner portion at the back surface at a predetermined location and is configured to vibrate the panel over the range of audible frequencies in response to an electrical signal. The intermediate portion is configured to increase modal density of the panel.

Vibrating panel assembly for radiating sound into a passenger compartment of a vehicle

A marine deck member and the process for forming the same. The marine deck member comprises a sandwich-type composite panel made by a compression molding process. In such a process, the panel is made by subjecting a heated stack of layers of material to cold-pressing in a mold. The cellular core has a 2-D array of cells, with end faces open to the respective layers or skins. The surface traction of this type of composite panel can be enhanced for marine deck applications by controlled debossing, or embossing, of the first skin while it cools in the compression mold. The debossing effect can be affected by applying pressurized gas, e.g., pressurized air, onto the outer surface of the first skin while in the compression mold. The embossing can be affected by applying vacuum pressure on the outer surface of the first skin while in the compression mold.

A carpeted automotive vehicle load floor including a composite panel having first and second reinforced thermoplastic skins and a thermoplastic cellular core disposed between and bonded to the skins is provided. The first skin as a top surface. A cover having top and bottom surfaces is spaced apart from the composite panel. A substantially continuous top covering layer is bonded to the top surface of the panel and the top surface of the cover to at least partially form a carpeted load floor having a carpeted cover. An intermediate portion of the top covering layer between the cover and the panel is not bonded to either the panel or the cover to form a living hinge which allows the carpeted cover to pivot between different use positions relative to the rest of the load floor.

Carpeted automotive vehicle load floor having a living hinge

A system for managing wireless inductive charging of mobile electronic devices within the interior of a vehicle having engine stop-start capability and a mat for use in the system are provided. The system includes a wireless inductive charger including a power transmitter coil configured to transmit power by inductive coupling and having a charging area for charging a mobile electronic device located in the charging area. A detection circuit includes an inductive proximity sensor to detect foreign objects that disturb power transmission in the charging area and to provide a signal indicating detection of a foreign object in the charging area. A vehicle controller includes control logic to command electrical power shut off to the charger based on the signal and to allow the charger to continue to charge the device during a period of time when the engine is temporarily turned off.

System for managing wireless inductive charging of mobile electronic devices within the interior of a vehicle having engine stop-start capability and mat for use therein

An automated method and system for making painted vehicle body panel skins and vehicle body panels, such as instrument panels, are provided wherein throughput and equipment utilization are greatly improved at a relatively low cost. The method includes transferring a mold having a mold surface from an entrance station to a paint station within a dispensing area. The method further includes applying paint on the mold surface to form a layer of paint on the mold surface at the paint station. The method still further includes spraying curable polyurethane elastomer on the painted surface at a spray station within the dispensing area. The paint and spray stations may be coincident. The method still further includes, after the step of spraying and while the polyurethane elastomer is uncured, transferring the mold with the paint and the uncured polyurethane elastomer from the spray station to at least one accumulator station in a curing area to allow the polyurethane elastomer to completely cure in the mold and form the skin.

Growing community of inventors

Macomb, MI, United States of America

Darius John Preisler