Methods, apparatus, and systems are disclosed to record and execute mission plans. An example apparatus includes a data collection memory to collect first and second data, the first data corresponding to a machine and the second data corresponding to an implement, a mission aggregator to determine a machine path based on the first data, determine an implement path based on the second data, and determine a machine speed and an implement action based on the first and second data, a mission generator to generate a three-dimensional mission plan including the machine path, the implement path, the machine speed, and the implement action for subsequent use, and a mission application controller to, when an interface determines the mission plan is available, instruct the machine and the implement to follow the machine path, the implement path, the machine speed, and the implement action to execute the mission plan.

An alternative traction control system, in addition to a primary traction control system, is associated with an agricultural machine in which a user selectable input can allow wheels of an the agricultural machine to spin freely, such as for clearing debris from tires, until a predetermined deactivate condition occurs. Such a deactivate condition could comprise, for example, reaching a maximum rotation speed and/or temperature threshold with respect to a wheel. To minimize the risk of damage to propulsion components which may be caused by excessive rotation speeds and/or temperatures, upon reaching such a threshold, operation can return from the alternative traction control system to the primary traction control system. Such a system can therefore allow an on the fly change that would permit an operator to selectively spin the tires without damaging mechanical aspects of the agricultural machine.

An alternative traction control system, in addition to a primary traction control system, is associated with an agricultural machine in which a user selectable input can allow wheels of an the agricultural machine to spin freely, such as for clearing debris from tires, until a predetermined deactivate condition occurs. Such a deactivate condition could comprise, for example, reaching a maximum rotation speed and/or temperature threshold with respect to a wheel. To minimize the risk of damage to propulsion components which may be caused by excessive rotation speeds and/or temperatures, upon reaching such a threshold, operation can return from the alternative traction control system to the primary traction control system. Such a system can therefore allow an on the fly change that would permit an operator to selectively spin the tires without damaging mechanical aspects of the agricultural machine.

A below-grade smart irrigation object includes: an input signal portion configured to receive an energizing signal for the below-grade smart irrigation object; an output signal portion configured to indicate the location of the below-grade smart irrigation object in response to receiving the energizing signal; and an irrigation portion configured to effectuate an irrigation operation.

A below-grade smart irrigation object includes: an input signal portion configured to receive an energizing signal for the below-grade smart irrigation object; an output signal portion configured to indicate the location of the below-grade smart irrigation object in response to receiving the energizing signal; and an irrigation portion configured to effectuate an irrigation operation.

An intelligent, automated system for loading agricultural product application equipment is provided in which a control system can determine a necessary amount of product for completing a field operation and can automatically couple with a tendering system to receive such product at an optimal time and location. The control system can determine a current amount of product, a projected amount of product necessary to complete a field operation and a refill amount of product from the current amount and the projected amount, then transmit the refill amount to the tender. The control system can further determine whether a position of the equipment relative to the tender is within a threshold, and whether an intake coupler of the equipment is connected to a supply coupler of the tender, and can control valve(s) to open and close channel(s) for loading fluid into the storage tank.

An intelligent, automated system for loading agricultural product application equipment is provided in which a control system can determine a necessary amount of product for completing a field operation and can automatically couple with a tendering system to receive such product at an optimal time and location. The control system can determine a current amount of product, a projected amount of product necessary to complete a field operation and a refill amount of product from the current amount and the projected amount, then transmit the refill amount to the tender. The control system can further determine whether a position of the equipment relative to the tender is within a threshold, and whether an intake coupler of the equipment is connected to a supply coupler of the tender, and can control valve(s) to open and close channel(s) for loading fluid into the storage tank.

A working device includes: a working portion configured to perform work; a frame supporting the working portion and being configured to be coupled to a vehicle body; and a wireless tag attached to the working portion or to the frame, having: a storage part configured to store at least identifying information; and a communication part configured to transmit the identifying information.

A turf maintenance machine includes: a moveable platform configured to move the turf maintenance machine within an area to be maintained; a wireless transmitter system configured to provide a wireless energizing signal to a below-grade smart irrigation object; and a turf aeration system configured to aerate turf within the area to be maintained.

An adaptive operating device (1) has at least one operating area (2) with at least one manually operable operating element (3). At least one of the operating elements (3) is arranged on an operating module (4) formed as a cylinder (5) rotatably mounted in the operating area (2). The operating device (1) further includes a configuration device (6) which, by changing the rotational position of the operating module (4) and/or changing the functionality of the operating element (3), configures the at least one operating element (3) in such a way that a movement of the operating element (3) corresponds to an identical movement of an item of work equipment (9) which is attached when in use.