Abstract: A scraper assembly for a construction machine includes a housing pivotally coupled to a frame of the construction machine for moving the scraper assembly between a stowed position and a deployed position. The scraper assembly also includes a scraper partially received within the housing. In the deployed position of the scraper assembly, the scraper engages with a machine component to remove material stuck to the machine component. The scraper assembly further includes a biasing device received within housing. The biasing device biases the scraper towards the machine component. Further, the biasing device travels in a substantially linear path for biasing the scraper towards the machine component.

Abstract: A scraper assembly for a construction machine includes a housing pivotally coupled to a frame of the construction machine for moving the scraper assembly between a stowed position and a deployed position. The scraper assembly also includes a scraper partially received within the housing. In the deployed position of the scraper assembly, the scraper engages with a machine component to remove material stuck to the machine component. The scraper assembly further includes a biasing device received within housing. The biasing device biases the scraper towards the machine component. Further, the biasing device travels in a substantially linear path for biasing the scraper towards the machine component.

Abstract: A compactor vibration system, apparatus, and method that selectively provide access to vibration control settings. The control can include receiving a setting for a first set of selectable amplitudes of vibration force at which to operate a vibratory system for a first predetermined amount of time, operating the vibratory system during the first predetermined amount of time by inducing the vibration force at amplitudes by the vibratory system, wherein the amplitudes of the vibration force are selected from among the first set of selectable amplitudes, and after the first predetermined amount of time, changing the setting to a second set of selectable amplitudes of the vibration force that is different from the first set of selectable amplitudes.

Abstract: A work machine control device determines an operation mode of a work machine. The operation mode indicates that a subset of a set of zones near the work machine are to be ignored for object detection alerts. The work machine control device receives, from one or more object detection sensors, an indication that an object is within a zone of the set of zones. The work machine control device may determine to not provide an alert for the object based on a determination that the zone is within the subset of the set of zones, or may provide the alert for the object based on a determination that the zone is not within the subset of the set of zones.

Abstract: A steering wheel control system associated with a vehicle includes a steering wheel movable between a stowed position and a deployed position, wherein, in the deployed position, the steering wheel is centrally located relative to an operator of the machine. The steering wheel control system also includes a sensor assembly configured to generate a control signal pertaining to a position of the steering wheel. The steering wheel control system further includes a control module communicably coupled with the sensor assembly. The control module is configured to receive the control signal corresponding to the position of the steering wheel. The control module is also configured to control at least one operation of the vehicle based on receipt of the control signal from the sensor assembly.

Abstract: A compactor vibration system, apparatus, and method that selectively provide access to vibration control settings. The control can include receiving a setting for a first set of selectable amplitudes of vibration force at which to operate a vibratory system for a first predetermined amount of time, operating the vibratory system during the first predetermined amount of time by inducing the vibration force at amplitudes by the vibratory system, wherein the amplitudes of the vibration force are selected from among the first set of selectable amplitudes, and after the first predetermined amount of time, changing the setting to a second set of selectable amplitudes of the vibration force that is different from the first set of selectable amplitudes.

Abstract: A steering wheel control system associated with a vehicle includes a steering wheel movable between a stowed position and a deployed position, wherein, in the deployed position, the steering wheel is centrally located relative to an operator of the machine. The steering wheel control system also includes a sensor assembly configured to generate a control signal pertaining to a position of the steering wheel. The steering wheel control system further includes a control module communicably coupled with the sensor assembly. The control module is configured to receive the control signal corresponding to the position of the steering wheel. The control module is also configured to control at least one operation of the vehicle based on receipt of the control signal from the sensor assembly.

Abstract: A work machine control device determines an operation mode of a work machine. The operation mode indicates that a subset of a set of zones near the work machine are to be ignored for object detection alerts. The work machine control device receives, from one or more object detection sensors, an indication that an object is within a zone of the set of zones. The work machine control device may determine to not provide an alert for the object based on a determination that the zone is within the subset of the set of zones, or may provide the alert for the object based on a determination that the zone is not within the subset of the set of zones.

Abstract: A scraper coupled to a drum surface of a compactor is provided. The scraper includes an inlet port. The scraper includes a first channel fluidly coupled to the inlet port. The first channel extends across the scraper in a first direction. The scraper includes at least one second channel fluidly coupled to the first channel. The second channel extends across the scraper in a second direction. The scraper further includes at least one outlet port fluidly coupled to the second channel.

Abstract: A tire skirt system configured for attachment to a vehicle is disclosed. The system may include a first skirt bracket adapted for attachment to the vehicle, a skirt panel having a first edge adapted for attachment to the first skirt bracket, and a transparent window in the first skirt bracket, the window having an outside face and an inside face. The window may be aligned with at least a portion of a tire when the tire skirt system is attached to the vehicle.

Abstract: A ballast system for a machine is provided. The ballast system includes a plurality of ballast assemblies interlocked with one another. Each of the plurality of ballast assemblies includes a body defining a first surface and a second surface. The first surface is distal to the second surface. The body includes a hollow configuration. The ballast assembly includes a first cover plate affixed to the first surface. The ballast assembly also includes a second cover plate affixed to the second surface. The ballast assembly further includes a passage provided on at least one of the first cover plate and the second cover plate. The passage is adapted to interlock with a passage of an adjacent ballast assembly of the plurality of ballast assemblies. The passage is further adapted to allow flow of a ballast material therethrough.

Abstract: A tire skirt system configured for attachment to a vehicle is disclosed. The system may include a first skirt bracket adapted for attachment to the vehicle, a skirt panel having a first edge adapted for attachment to the first skirt bracket, and a transparent window in the first skirt bracket, the window having an outside face and an inside face. The window may be aligned with at least a portion of a tire when the tire skirt system is attached to the vehicle.

Abstract: A pneumatic compactor includes a power source configured to generate power, a pneumatic tire configured to rotate, a chain drive assembly that couples the power source to the pneumatic tire, a proximity sensor, an indicator, a braker controller, and a controller. The chain drive assembly has a chain case and a chain housed in the chain case. The proximity sensor is coupled to the chain case and configured to detect a breakage of the chain and generate a signal signifying the breakage of the chain. The indicator is configured to indicate the breakage of the chain. The brake controller is configured to stop rotation of the pneumatic tire. The controller is configured to receive the indication from the proximity sensor signifying the breakage of the chain, command the indicator to indicate the breakage of the chain, and command the brake controller to stop rotation of the pneumatic tire.

Abstract: A ground contact pressure controller may be configured to automatically manage tire inflation pressure in a pneumatic compactor machine. The controller may determine a target tire inflation pressure for the machine according to the parameters of, inter alia, machine weight, number of tires on the machine, ground contact area of the tires, compaction surface type, and ambient temperature. The machine may include a compressor and vent unit coupled to the pneumatic tires, and the compressor and vent unit may be configured to adjust the tire pressure of the pneumatic tires according to a target tire pressure. A unified pressure subsystem coupled to the compressor and vent unit may be configured to measure pressure of the tires, and to adjust tire pressure to the target pressure.

Abstract: A ground contact pressure controller may be configured to automatically manage tire inflation pressure in a pneumatic compactor machine. The controller may determine a target tire inflation pressure for the machine according to the parameters of, inter alia, machine weight, number of tires on the machine, ground contact area of the tires, compaction surface type, and ambient temperature. The machine may include a compressor and vent unit coupled to the pneumatic tires, and the compressor and vent unit may be configured to adjust the tire pressure of the pneumatic tires according to a target tire pressure. A unified pressure subsystem coupled to the compressor and vent unit may be configured to measure pressure of the tires, and to adjust tire pressure to the target pressure.