Abstract: Some embodiments may include a multi-product management system including a modular container for re-supplying partially or fully automated agricultural operations. The modular container may include a liquid-holding portion, a granular solid-holding portion, and, optionally, an add-on portion. In some embodiments, the liquid-holding portion may be formed of a plurality of liquid-holding portions. Other embodiments may be disclosed and/or claimed.

Abstract: Some embodiments may include a working machine comprising 1) a frame assembly including first and second sections, 2) ground implements to work a ground surface, the first section including at least one first implement of the ground implements and the second section including at least one second different implement of the ground implements, respectively, and 3) a transportation system including transportation devices and at least one actuator to pivotally or hingably move one part of the working machine relative to another part of the working machine; the working machine further including: at least one sensor to produce at least one measurement indicative of a degree of engagement of the at least one first implement or the at least one second implement with a corresponding part of the ground surface; and one or more processors to operate the at least one actuator of the transportation system while the machine is working the ground surface, based on the at least one measurement.

Abstract: Some embodiments may include a working machine comprising 1) a frame assembly including first and second sections, 2) ground implements to work a ground surface, the first section including at least one first implement of the ground implements and the second section including at least one second different implement of the ground implements, respectively, and 3) a transportation system including transportation devices and at least one actuator to pivotally or hingeably move one part of the working machine relative to another part of the working machine; the working machine further including: at least one sensor to produce at least one measurement indicative of a degree of engagement of the at least one first implement or the at least one second implement with a corresponding part of the ground surface; and one or more processors to operate the at least one actuator of the transportation system while the machine is working the ground surface, based on the at least one measurement.

Abstract: A system for controlling work vehicles used for towing agricultural implements across a field includes an implement controller supported on and configured to control an operation of an agricultural implement, and at least one sensor communicatively coupled to the implement controller. The sensor(s) is configured to provide an indication of a location of the agricultural implement within the field. The implement controller is configured to: access a field map; anticipate a change in loading of one or more of the ground-engaging tools of the implement based on the location of the implement relative to the field map; and transmit a request instructing a vehicle controller of a work vehicle towing the agricultural implement to initiate a control action associated with adjusting at least one vehicle-related operational parameter to accommodate the anticipated change.

Abstract: In one aspect, a system for monitoring operational parameters associated with a tillage implement may include a first sensor configured to detect data indicative of a first distance between an implement frame forward of a ground engaging tool and a soil surface prior to engagement of the soil by the tool. The system may also include a second sensor configured to detect data indicative of a second distance between the frame aft of the tool and the soil surface following engagement of the soil by the tool. A controller of the system may be configured to determine a soil density change caused by engagement of the soil by the tool based on the first and second distances. Furthermore, the controller may be configured to determine a penetration depth of the tool based at least in part on the determined change in the soil density.

Abstract: A method for reducing material accumulation relative to ground-engaging tools of a tillage implement includes receiving measurement signals from at least one accumulation sensor mounted to the tillage implement during a tillage operation. The measurement signals include a three-dimensional (3D) representation of an environment containing material accumulation relative to a plurality ground-engaging tools. The method also includes estimating an amount of material accumulation relative to the plurality of ground-engaging tools based on the 3D representation. Further, the method includes comparing the amount of material accumulation to an accumulation threshold. The material accumulation threshold is indicative of a given degree of material accumulation relative to the plurality of ground-engaging tools.

Abstract: A method for controlling a work vehicle towing an agricultural implement across a field during a tillage operation includes receiving one or more soil compaction parameters of the field, the work vehicle, and/or the implement. The method also includes determining one or more soil compaction levels for the field based on the one or more soil compaction parameters. Further, the method includes determining an estimated yield loss for each location in the field based on the one or more soil compaction levels. Moreover, the method includes generating a prescription map for the field based on the estimated yield loss for each location in the field. In addition, the method includes actively adjusting at least one tillage parameter of at least one of the implement or the work vehicle based on the prescription map during the tillage operation to reduce an actual yield loss of the field.

Abstract: In one aspect, the present subject matter is directed to a method for maintaining a desired amount of residue coverage in a field during a tillage operation. The method includes generating, with a computing device, an available residue map that includes an amount of available residue at each location of the field using a yield map and/or crop biomass. The method also includes generating, with the computing device, a desired residue coverage map that includes a desired amount of residue coverage for each location within the field. Further, the method includes determining, with the computing device, an amount of residue that needs to be incorporated into the surface of the field based on the available residue map and the desired residue coverage map.

Abstract: A method for controlling a work vehicle towing an agricultural implement across a field during a tillage operation includes receiving one or more soil compaction parameters of the field, the work vehicle, and/or the implement. The method also includes determining one or more soil compaction levels for the field based on the one or more soil compaction parameters. Further, the method includes determining an estimated yield loss for each location in the field based on the one or more soil compaction levels. Moreover, the method includes generating a prescription map for the field based on the estimated yield loss for each location in the field. In addition, the method includes actively adjusting at least one tillage parameter of at least one of the implement or the work vehicle based on the prescription map during the tillage operation to reduce an actual yield loss of the field.

Abstract: A breathing apparatus including a case containing a chemical for generating oxygen and a monitoring circuit in the case is disclosed. The monitoring circuit includes multiple sensors that sense parameters within the case relevant to an operational status of the breathing apparatus, and a controller to receive signals from the sensors and to produce an output signal indicating the operational status of the breathing apparatus. A method for monitoring a breathing apparatus is also disclosed. The method includes using multiple sensors within a case of a breathing apparatus to sense parameters relevant to an operational status of the breathing apparatus, and processing signals from the sensors to produce an output signal representative of the operational status of the breathing apparatus. The sensors may include humidity, impact, pressure and temperature sensors.

Abstract: A method for reducing material accumulation relative to ground-engaging tools of a tillage implement includes receiving measurement signals from at least one accumulation sensor mounted to the tillage implement during a tillage operation. The measurement signals include a three-dimensional (3D) representation of an environment containing material accumulation relative to a plurality ground-engaging tools. The method also includes estimating an amount of material accumulation relative to the plurality of ground-engaging tools based on the 3D representation. Further, the method includes comparing the amount of material accumulation to an accumulation threshold. The material accumulation threshold is indicative of a given degree of material accumulation relative to the plurality of ground-engaging tools.

Abstract: In one aspect, the present subject matter is directed to a method for maintaining a desired amount of residue coverage in a field during a tillage operation. The method includes generating, with a computing device, an available residue map that includes an amount of available residue at each location of the field using a yield map and/or crop biomass. The method also includes generating, with the computing device, a desired residue coverage map that includes a desired amount of residue coverage for each location within the field. Further, the method includes determining, with the computing device, an amount of residue that needs to be incorporated into the surface of the field based on the available residue map and the desired residue coverage map.

Abstract: A system for controlling a work vehicle towing an agricultural implement having ground-engaging tools across a field includes a vehicle controller configured to control operation of the work vehicle, an implement controller configured to control operation of the implement, and at least one sensor communicatively coupled to either or both of the vehicle controller and/or the implement controller. The vehicle controller and/or the implement controller is also programmed with a field map. The sensor(s) is configured to provide an indication of a location of the implement within the field.

Abstract: In one aspect, a system for monitoring operational parameters associated with a tillage implement may include a first sensor configured to detect data indicative of a first distance between an implement frame forward of a ground engaging tool and a soil surface prior to engagement of the soil by the tool. The system may also include a second sensor configured to detect data indicative of a second distance between the frame aft of the tool and the sod surface following engagement of the soil by the tool. A controller of the system may be configured to determine a soil density change caused by engagement of the soil by the tool based on the first and second distances. Furthermore, the controller may be configured to determine a penetration depth of the tool based at least in part on the determined change in the soil density.

Abstract: A breathing apparatus including a case containing a chemical for generating oxygen and a monitoring circuit in the case is disclosed. The monitoring circuit includes multiple sensors to that sense parameters within the case relevant to an operational status of the breathing apparatus, and a controller to receive signals from the sensors and to produce an output signal indicating the operational status of the breathing apparatus. A method for monitoring a breathing apparatus is also disclosed. The method includes using multiple sensors within a case of a breathing apparatus to sense parameters relevant to an operational status of the breathing apparatus, and processing signals from the sensors to produce an output signal representative of the operational status of the breathing apparatus. The sensors may include humidity, impact, pressure and temperature sensors.

Abstract: A multiple robot control architecture including a plurality of robotic agricultural machines including a first and second robotic agricultural machine. Each robotic agricultural machine including at least one controller configured to implement a plurality of finite state machines within an individual robot control architecture (IRCA) and a global information module (GIM) communicatively coupled to the IRCA. The GIMs of the first and second robotic agricultural machines being configured to cooperate to cause said first robotic agricultural machine and said second agricultural machine to perform at least one agricultural task.

Abstract: A breathing apparatus comprising a case containing a chemical for generating oxygen and a monitoring circuit in the case is disclosed. The monitoring circuit includes multiple sensors configured to sense parameters within the case relevant to an operational status of the breathing apparatus, and a controller configured to receive signals from the sensors and to produce an output signal indicating the operational status of the breathing apparatus. A method for monitoring a breathing apparatus is also disclosed. The method includes using multiple sensors within a case of a breathing apparatus to sense parameters relevant to an operational status of the breathing apparatus, and processing signals from the sensors to produce an output signal representative of the operational status of the breathing apparatus. The sensors may include humidity, impact, pressure and temperature sensors.

Abstract: A multiple robot control architecture including a plurality of robotic agricultural machines including a first and second robotic agricultural machine. Each robotic agricultural machine including at least one controller configured to implement a plurality of finite state machines within an individual robot control architecture (IRCA) and a global information module (GIM) communicatively coupled to the IRCA. The GIMs of the first and second robotic agricultural machines being configured to cooperate to cause said first robotic agricultural machine and said second agricultural machine to perform at least one agricultural task.

Abstract: A seed planter comprises a seed transport member having a porous surface and an air jet directed normally to this surface. The porous surface is moved past a plurality of seeds, whereupon the air jet retains a single seed on the porous surface, and the seed transport member carries this retained seed to a seed unloading station, where the impingement of the air jet upon the surface is interrupted, thus allowing the retained seed to fall from the porous surface. The planter is capable of metering both flat and spherical seeds very accurately at metering rates of about 40 seeds per second and can be made of small width so that a single row of planters on a planter assembly can plant closely spaced rows. A planter assembly capable of planting multiple rows of seeds is provided by mounting a plurality of the seed planters on a frame.