Multimatic Inc.

International Truck Intellectual Property Company, LLC

Other

Rudolf Gruber

Andrew R Daniels

Balathas Nagamany

David Edward Carswell

Scott David Worden

Thomas Alexander Sparrow

Dennis Tak-Man Loui

Ryan Warren Alexander

Robert John Murray

Chean Wang Ng

Pasith Banjongpanith

Prad Lad

John David Fehring

Michael Gordon Lehti

Michael John Eifert

Robert Howell

Andrea Brown

Daniel James Gebbing

Joel David Causley

David H Grandinett

John J Salmon

Billy Chean Wang Ng

Paul Dowden

Richard Anthony Czapka

Mike Lehti

Robert Hadisutanto

Robert Alexander Howell

Scott Worden

A row of docking stations to stow containers or trolleys is provided along at least one side of a van cargo storage area and a corridor for loading and unloading containers or trolleys individually or in groups from the rear of the van is provided. Preferably, the docking stations are automated. Interference with the storage and removal of containers or trolleys by the wheel wells of the vans or other vehicles is eliminated. Motorized mechanisms capture and lift the containers or trolleys above the level of the wheel wells for stowage in the docking stations to maximize the available storage area beyond that available on the floor of the cargo area. Individual containers or trolleys may be maintained in docking stations until needed.

Van cargo management system

A method of manufacturing a ball joint includes arranging a ball in a bore of a housing, and enclosing an end of the bore. Plastic is injected into a space between the housing and the ball to form a bearing that has a bearing surface that engages the ball. The bearing shrinks to form a recess in the bearing surface so that the recess can be filled with a grease.

Ball joint with injection molded bearing

A ball joint includes a stud extending from a ball. A housing has a bore that receives the ball. The housing has an interior surface facing the ball that includes a groove. A plastic bearing is arranged between the ball and the housing. The plastic bearing has first and second sides opposite one another. The first side has a spherical surface engaging the ball. The second side has a protrusion opposite the spherical surface that is received in and fills the groove and a recess in the spherical surface opposite the protrusion.

A door power drive module includes a housing and a motor arranged in the housing. First and second gearboxes are arranged in the housing and are coupled in series with one another by a shaft member. The first gearbox connects the motor to the second gearbox. An output shaft is coupled to the second gearbox. A brake assembly is selectively connected to the shaft member. The brake assembly has a normally closed position in which the shaft member is grounded to the housing. The brake assembly includes an open position corresponding to one of a door closing mode and a door opening mode. The shaft member is configured to be rotatable relative to the housing in the brake open position in response to the motor driving the first gearbox. The brake assembly includes a holding torque in the normally closed position. A torque is applied to the brake assembly above the holding torque that permits the shaft member to rotate in any direction of rotation. A position sensor is configured to detect rotation of the output shaft.

Vehicle door system with power drive module

A method of actuating a door includes the steps of manually pivoting a door in a direction about a hinge to provide a manual input, detecting the manual input and energizing a motor to drive the door in the direction in response to the manual input. The manual door pivoting step includes exceeding a holding torque of a brake assembly that holds the door. The direction can be any direction for opening or closing the door.

A door checker includes a housing which has a base from which first and second opposing flanges extend. First and second guide pins are spaced apart from one another and are interconnected to the first and second flanges. The first and second guide pins are configured to deflect in response to a load. A check arm extends through the base and is arranged between the first and second guide pins. The check arm is configured to move relative to the housing and includes a profile that corresponds to a variable door holding force. A bearing member is arranged on one side of the check arm and the bearing member coacts with the profile and is supported on the first and second guide pins and is configured to slide thereon in response to movement of the check arm relative to the bearing member. The bearing member transfers the load from the check arm to the first and second guide pins.

Vehicle door checker

A deployable vehicle rear wing conforms closely to the styled surface of the vehicle body in a retracted, or stowed, position while adaptively changing its cross section in a deployed position so as to provide a highly efficient airfoil section, with an integrated Gurney flap. Additionally, the adaptive cross section changes and Gurney flap deployment is provided via a linkage that utilizes a drive mechanism of a main deployment system.

Vehicle rear wing with adaptive section and extendable flap

An automotive door system includes a hinge that supports a door. A switch provides a first input in response to a user request to automatically open or close the door. An output shaft of a power drive module is connected to the door and a gearbox to provide an output torque that corresponds to a desired motion of the door about the hinge. A brake assembly is connected to a shaft member and has a normally closed position in which the shaft member is grounded to the housing and an open position that corresponds to one of a door closing mode and a door opening mode. A position sensor detects rotation of the output shaft and provides a second input in response thereto, which corresponds to a manually initiated movement of the door that exceeds a slip torque of the brake assembly in the normally closed position.

A door checker includes a housing which has a base from which first and second opposing flanges extend. First and second guide pins are spaced apart from one another and are interconnected to the first and second flanges. A check arm extends through the base and is arranged between the first and second guide pins. The check arm is configured to move relative to the housing and includes a profile that corresponds to a variable door holding force. A bearing member is arranged on one side of the check arm and is slidably supported by the first and second guide pins. The bearing member coacts with the profile.

An automotive door system includes a hinge supporting a door. A door check module interconnects to one of the vehicle and the door by a linkage assembly. An output shaft is connected to the linkage assembly and rotates relative to a door check module housing. The output shaft provides an output torque to check the door in a desired door position. A sensor detects rotation of the shaft and produces a signal in response thereto. A brake assembly includes a shaft member operatively connected to the output shaft. The brake assembly has a normally closed position in which the shaft member is grounded to the housing in a door check mode. The brake assembly includes an open position that corresponds to one of a door closing mode and a door opening mode. The brake assembly moves from the normally closed position to the open position in response to the signal.

Vehicle door system with infinite door check

A method is provided which forms a closed section hollow structural element by performing the following steps which include press forming an upper sheet metal component configured with two primary parallel downstanding interface flanges; press forming a lower sheet metal component configured with two primary parallel upstanding interface flanges; complementarily trimming the downstanding interface flanges and the upstanding interface flanges using five-axis laser cutting; and butt welding the interface flanges of the upper and lower sheet metal components to one another to form a continuous hollow structural element of variable cross section.

Butt jointed closed section hollow structural element

An automotive hinge assembly adapted to facilitate motion of a closure panel relative to a fixed body structure comprises a door component constructed from two press formed angle brackets structurally connected via a pivot pin and adapted to be mounted to a vehicle closure panel, a body component constructed from two press formed angle brackets structurally connected via a simple formed feature and the pivot pin and adapted to be mounted to a vehicle body structure, such that the pivot pin structurally assembles the two hinge components, facilitates relative rotary motion between them and structurally connects the multiple press formed angle brackets so that the resulting assembly achieves a much higher material efficiency than the prior art with an associated significant cost reduction.

Multiple piece construction automotive door hinge

A bumper for a closure, such as a tailgate, acts between the tailgate and a frame to bias a striker in to engagement with a latch. The bumper is moved to a retracted position during closing to reduce the force needed to close the tailgate. After latching, the bumper is conditioned to an extended position to assert the bias between the tailgate and frame.

Growing community of inventors

Uxbridge, Canada

Rudolf Gruber