Abstract:
A system is provided that automatically assesses weight rating characteristics of a truck and trailer combination. The system coordinates movement and unloading functions of the grain cart to automatically load the trailer to correspond to a target total weight value and a target weight distribution value based on axle weight ratings of the axles of the truck and trailer combination.
Abstract:
A system is provided that automatically assesses weight rating characteristics of a truck and trailer combination. The system coordinates movement and unloading functions of the grain cart to automatically load the trailer to correspond to a target total weight value and a target weight distribution value based on axle weight ratings of the axles of the truck and trailer combination.
Abstract:
A system shares a telematics access point between agricultural or industrial machines or vehicles utilizing short-range wireless connection devices for each of the machines or vehicles. The short-range wireless connection devices create a short-range local wireless network and transmit status messages from each of the machines or vehicles, indicating whether the machine or vehicle to which each short-range wireless connection device is connected has a cellular telematics modem and an active valid subscription for cellular internet access. At least one telematics access point is chosen from among the machines or vehicles having a modem and a subscription. The wireless connection devices transmit data and informatics to the telematics access point. The telematics access point transmits the data and informatics to a back-office server using the cellular telematics modem by way of a telecommunication system.
Abstract:
A system shares a telematics access point between agricultural or industrial machines or vehicles utilizing short-range wireless connection devices for each of the machines or vehicles. The short-range wireless connection devices create a short-range local wireless network and transmit status messages from each of the machines or vehicles, indicating whether the machine or vehicle to which each short-range wireless connection device is connected has a cellular telematics modem and an active valid subscription for cellular internet access. At least one telematics access point is chosen from among the machines or vehicles having a modem and a subscription. The wireless connection devices transmit data and informatics to the telematics access point. The telematics access point transmits the data and informatics to a back-office server using the cellular telematics modem by way of a telecommunication system.
Abstract:
A transport vehicle arrangement includes a transport vehicle, a transport implement coupled with the transport vehicle, a sensor arrangement for establishing an angular orientation of the transport implement relative to the transport vehicle, a wireless receiver for receiving harvester information related at least to the speed and direction of an agricultural harvester vehicle, and an electrical processing circuit coupled with the sensor arrangement and the wireless receiver. The electrical processing circuit is configured for steering the transport vehicle arrangement in a reverse direction such that the transport implement is positioned at a desired position relative to an unloading conveyance of the agricultural harvester vehicle, based upon the sensed angular orientation of the transport implement and the harvester information.
Abstract:
An agricultural harvester for harvesting crop material and generating residue for distribution by a spreader. A pair of deflectors are moveable by actuators to direct residue between a right limit and a left limit. An initial selection deflection selection is made and a control system compares the accurate actual heading of the agricultural harvester to the initial selection for controlling the residue pattern in accordance with prevailing winds.
Abstract:
A control system for an agricultural vehicle includes a first transceiver configured to receive a first signal from a second transceiver of a target vehicle. The first signal is indicative of a first determined position and a first determined velocity of the target vehicle. The control system also includes a controller communicatively coupled to the first transceiver. The controller is configured to automatically control the agricultural vehicle by determining a target position and a target velocity of the agricultural vehicle based at least in part on the first determined position and the first determined velocity of the target vehicle, instructing an automated steering control system and an automated speed control system to direct the agricultural vehicle toward the target position, and instructing the automated steering control system and the automated speed control system to substantially maintain the target position and the target velocity upon substantially reaching the target position.
Abstract:
A transport vehicle arrangement includes a transport vehicle, a transport implement coupled with the transport vehicle, a sensor arrangement for establishing an angular orientation of the transport implement relative to the transport vehicle, a wireless receiver for receiving harvester information related at least to the speed and direction of an agricultural harvester vehicle, and an electrical processing circuit coupled with the sensor arrangement and the wireless receiver. The electrical processing circuit is configured for steering the transport vehicle arrangement in a reverse direction such that the transport implement is positioned at a desired position relative to an unloading conveyance of the agricultural harvester vehicle, based upon the sensed angular orientation of the transport implement and the harvester information.
Abstract:
An unloading arrangement includes and agricultural harvester and a transport vehicle arrangement. The agricultural harvester includes an unloading conveyance and a wireless transmitter for transmitting information relating at least to a speed and direction of the harvester. The transport vehicle arrangement includes a transport vehicle; a transport implement coupled with the transport vehicle; a sensor arrangement for establishing an angular orientation of the transport implement relative to the transport vehicle; a wireless receiver for receiving the transmitted information from the harvester; and an electrical processing circuit coupled with the sensor arrangement and the wireless receiver. The electrical processing circuit is configured for steering the transport vehicle arrangement in a reverse direction such that the transport implement is positioned at a desired position relative to the unloading conveyance, based upon the sensed angular orientation of the transport implement and the transmitted information received from the harvester.
Abstract:
A method for altering a swath path of a vehicle includes the steps of: loading a base swath path and an original swath width into a memory of the vehicle; generating a plurality of swath paths from the base swath path and the original swath width, each of the generated swath paths defining at least two geographic locations; measuring a current geographic location of the vehicle; determining a difference between the current geographic location and a geographic location of a swath path nearest to the current geographic location; determining a number of swath paths that the generated swath path nearest to the current geographic location is subsequent to the base swath path; dividing the difference by the determined number of swath paths to produce a swath width remark distance; and adding the swath width remark distance to the original swath width to produce a modified swath width.