Oshkosh Corporation

Oshkosh Truck Corporation

Oshkosh Truck Company

David W Archer

Eric D Betz

Eric R Linsmeier

Neil Bjornstad

Michael J Holeton

Patrick D Martin

Brian K Anderson

Brian Piller

Chad T Dolphin

Jon J Morrow

Peter K Kramer

Troy D Lind

Don Parshall

John C Schultz

Jason Shively

Geoffrey W Schmitz

David Fieber

Donald H Verhoff

John D Woelfel

Daniel J Schmidt

Bob Schulz

Neil Dekarske

Duane R Pillar

Eric E Braun

Korry D Kobel

Gary Schmiedel

Michael R Moore

Fredric L Yutzy

Bradley C Squires

Ryan F Rowe

Jennifer L Bloemer

Jeffrey D Aiken

Jeromie Johnston

Troy R Scott

James L Steiner

David J Vander Galien

Robert W Wallin

Todd Burkhard

Mark J Cherney

Todd Burkard

Paul Baierl

Jonathan Ropella

Bruce D Loomans

Nicholas J Zepnick

Terry G Seaborn

A vehicle system includes a first vehicle, a second vehicle, and a control system. The first vehicle includes a first implement and a first actuator configured to facilitate controlling a first operation of the first implement. The second vehicle includes a second implement and a second actuator configured to control a second operation of the second implement. The control system is configured to receive an input from an operator, transmit a first signal to the first actuator based on the input to control the first operation of the first implement, and transmit a second signal to the second actuator based on the input to control the second operation of the second implement such that the first operation and the second operation are coordinated.

Coordinated motion system and method

A response vehicle system includes a non-transitory computer-readable storage medium having instructions stored thereon that, upon execution by one or more processors, cause the one or more processors to determine whether a response vehicle has arrived at a scene and provide a signal to switch the response vehicle from an operational condition to a locked condition at least in response to the vehicle arriving at the scene, thereby preventing undesired operation of the response vehicle.

Response vehicle systems and methods

A support structure for a ladder assembly of a fire apparatus includes a torque box, a pedestal, and a support plate. The torque box includes a top surface defining an aperture. The pedestal has (i) a lower end received by the aperture of the torque box and (ii) an upper end configured to couple to the ladder assembly. The support plate is positioned along the top surface of the torque box. The support plate includes a first leg and a second leg. The first leg extends from a first side of the support plate and is configured to engage with a first rail of the fire apparatus. The second leg extends from an opposing second side of the support plate and is configured to engage with a second frame rail of the fire apparatus.

Support structure for a ladder assembly of a fire apparatus

A vehicle system for a vehicle includes a controller. The controller is configured to transmit a first control signal to a transmission device of the vehicle to engage a first mode of the transmission device, acquire information regarding a pressure of an inlet flow of water received by a pumping system of the vehicle, and transmit a second control signal to the transmission device to engage a second mode of the transmission device based on the information.

Systems and methods for response vehicle pump control

A system includes an outrigger assembly configured to be coupled to a chassis of the vehicle. The outrigger assembly includes a pair of outriggers. Each outrigger of the pair of outriggers includes an arm and a support foot. The arm is selectively extendable laterally outward at a fixed angle relative a horizontal.

Stability system for a fire apparatus

A fire apparatus includes a chassis, a front axle coupled to the chassis, a rear axle coupled to the chassis, a torque box coupled to the chassis, a pedestal coupled to the torque box, a ladder assembly coupled to the pedestal, and a stability assembly. The torque box has a front end and a rear end. The pedestal is positioned between the front end and the rear end of the torque box. The stability assembly includes a housing coupled to the chassis and the front end of the torque box, a pair of outriggers received within the housing, and a downrigger coupled to the rear end of the torque box. The pair of outriggers is selectively extendable laterally outward in opposing directions. The downrigger is selectively extendable downward.

Fire apparatus

A vehicle includes a cabin, a brake, a vehicle subsystem, and a processing circuit. The processing circuit is configured to receive an indication that an operator is attempting to exit the cabin and automatically engage the brake in response to the indication to prevent movement of the vehicle. The vehicle subsystem remains operational while the brake is engaged.

Automatic vehicle braking in response to operator egress

A vehicle includes a chassis, a driveline coupled to the chassis, and a control system. The control system is configured to monitor a condition of at least one of the vehicle, an area around the vehicle, or an operator of the vehicle; and control operation of the driveline based on the condition. Controlling the operation of the driveline includes at least one of limiting a speed at which the driveline drives the vehicle or shutting down the driveline and isolating a component of the driveline.

Condition based vehicle performance management

A vehicle includes an energy storage system, a battery cooling system, and a thermal event management system. The energy storage system includes a battery arranged within a battery housing. The battery cooling system includes a first conduit positioned internal to the battery housing and adjacent the battery. The first conduit is configured to facilitate circulating a first fluid through the battery housing to thermally regulate the battery. The thermal event management system includes a second conduit with a fluid diverter positioned therealong. The second conduit is positioned adjacent to at least one of the battery or the battery housing. The second conduit is configured to receive a second fluid. The fluid diverter is configured to facilitate selectively providing fluid communication between the second conduit and the battery housing so that the second fluid flows out of the second conduit and at least one of into or around the battery housing.

Systems and methods for battery thermal management on a vehicle

An electrified vehicle includes a chassis, an energy storage system supported by the chassis, and a battery cooling system. The energy storage system includes a battery positioned within a battery housing. The battery cooling system includes a conduit positioned adjacent at least one of the battery or the battery housing and a fluid diverter positioned along the conduit. The fluid diverter is configured to facilitate selectively providing fluid communication between the conduit and the battery housing so that a fluid flowing through the conduit flows out of the conduit and at least one of into or around the battery housing.

A mid-mount fire apparatus includes a chassis, a body assembly coupled to the chassis, a front cabin coupled to the chassis forward of the body assembly, a front axle coupled to the chassis, a rear axle coupled to the chassis, and a ladder assembly having a proximal end that is coupled to the chassis rearward of the front cabin and between the front axle and the rear axle. The ladder assembly includes a plurality of ladder sections. The ladder assembly is extensible to a horizontal reach of at least 88 feet. A distal end of the ladder assembly does not extend beyond the rear end of the body assembly when fully retracted.

Mid-mount fire apparatus

A fluid supply system includes a fluid delivery system including a pump, a sensor configured to acquire data regarding the fluid delivery system, and a processing circuit coupled to the sensor. The processing circuit is configured to determine a health level of the fluid delivery system based on the data and provide a notification in response to the health level not satisfying a threshold.

Fluid delivery system health monitoring systems and methods

A vehicle system includes a processing circuit. The processing circuit is configured to determine whether a vehicle has arrived at a destination and provide a signal to switch the vehicle from an operational condition to a locked condition at least the in response to the vehicle arriving at the destination, thereby preventing undesired operation of the vehicle.

A vehicle includes a chassis, an implement assembly coupled to the chassis, a stability system coupled to the chassis, and a control system. The stability system includes extendable components that selectively engage a ground surface. The control system is configured to control the stability system to level the vehicle and enable the stability system to lean the vehicle when an operational capability of the implement assembly is at a limit thereof while the vehicle is level to effectively improve the operational capability relative to when the vehicle is level.

Leaning control scheme for a fire apparatus

A vehicle includes a support assembly extending between a chassis and a cab. The support assembly includes a first bracket coupled to the chassis, a second bracket coupled to the cab, a stay arm having a first end coupled to the first bracket and an opposing second end, and a locking assembly. The stay arm defines a locking interface between the first end and the opposing second end. The locking assembly includes a slide, an actuator, a release arm, and a pawl. The slide is translatable along the stay arm. The slide defines a first interface coupled to the second bracket, a second interface coupled to the actuator, and a third interface. The release arm is coupled to the actuator and the third interface. The pawl is coupled to release arm at the third interface. The pawl selectively engages with the locking interface based on a configuration of the actuator.

Stay arm for a vehicle cab

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Hortonville, WI, United States of America

David W Archer