Abstract: A crop input transfer system for transferring a crop input to an implement tank supported on an implement dispensing the crop input, the crop input transfer system includes a mobile supply vehicle powered independent of the implement. The mobile supply vehicle has a boom and a supply tank holding a crop input supply. The crop transfer system includes a coupler with a first coupler portion that matingly couples with a second coupler portion. The first coupler portion is mounted to the boom and the second coupler portion is mounted to the implement. The crop input supply in the supply tank is communicated to implement tank via the matingly coupled first and second coupler portions.

Abstract: In one aspect, a crop input applicator is provided. In one aspect, the applicator comprises a valve (e.g., voice coil valve) disposed to deposit liquid on or near a seed furrow and/or on or near a seed. In one aspect, the applicator includes one or more seed sensors disposed to detect passage of seeds.

Abstract: A crop input applicator is provided. The crop input applicator monitors the presence of applied liquid crop in a seed trench and/or the relative placement of liquid crop and seed in a seed trench. In another aspect, the crop input applicator minimizes an offset between the liquid crop and seed placement.

Abstract: In one aspect, a crop input applicator is provided. In one aspect, the applicator comprises a valve (e.g., voice coil valve) disposed to deposit liquid on or near a seed furrow and/or on or near a seed. In one aspect, the applicator includes one or more seed sensors disposed to detect passage of seeds.

Abstract: Crop input application systems, methods and apparatus are provided. In some embodiments, an irrigation system is provided with a reel in fluid communication with a wellhead, secondary cart or fluid supply line outlet. In some embodiments, a drop assembly is incorporated in an irrigation system.

Abstract: An automated steering system for an agricultural vehicle operating in a row crop field. The automated steering system includes a correction system having a controller and an alignment sensor. The alignment sensor is disposed between two adjacently spaced crop rows and generates output signals indicative of the alignment sensor's lateral position relative to the two adjacently spaced crop rows as the vehicle advances in the forward direction of travel. The controller receives the generated output signals from the alignment sensor and determines an offset distance of said alignment sensor from a centerline between the two adjacently spaced crop rows. The controller outputs a modified vehicle position signal corresponding to the latitude and longitude position received from said GPS receiver shifted by the offset distance. The vehicle's on board navigation controller causes the vehicles on-board steering control system to steer the vehicle based on the modified vehicle position signal.

Abstract: A crop input transfer system for transferring a crop input to an implement tank supported on an implement dispensing the crop input, the crop input transfer system includes a mobile supply vehicle powered independent of the implement. The mobile supply vehicle has a boom and a supply tank holding a crop input supply. The crop transfer system includes a coupler with a first coupler portion that matingly couples with a second coupler portion. The first coupler portion is mounted to the boom and the second coupler portion is mounted to the implement. The crop input supply in the supply tank is communicated to implement tank via the matingly coupled first and second coupler portions.

Abstract: A liquid applicator implement includes a boom vertically adjustable with respect to a vehicle. The boom supports a plurality of drop assemblies laterally spaced along the boom in communication with a liquid product source. A height sensor assembly is attached to at least one of the drop assemblies and generates signals indicative of a distance between the drop assembly and a ground surface as the vehicle advances in a direction of travel. An adjustment mechanism coupled to the boom is responsive to the signals generated by the height sensor assembly for vertically adjusting the boom. In some embodiments, a breakaway sensor is used to determine whether at least one drop assembly has broken away from its normal substantially vertical operating orientation. In some embodiments, a data processing and/or height control action is determined upon detection of a breakaway event.

Abstract: In one aspect, a crop input applicator is provided. In one aspect, the applicator comprises a valve (e.g., voice coil valve) disposed to deposit liquid on or near a seed furrow and/or on or near a seed. In one aspect, the applicator includes one or more seed sensors disposed to detect passage of seeds.

Abstract: A crop input applicator is provided. The crop input applicator monitors the presence of applied liquid crop in a seed trench and/or the relative placement of liquid crop and seed in a seed trench. In another aspect, the crop input applicator minimizes an offset between the liquid crop and seed placement.

Abstract: An automated steering system for an agricultural vehicle operating in a row crop field. The automated steering system includes a correction system having a controller and an alignment sensor. The alignment sensor is disposed between two adjacently spaced crop rows and generates output signals indicative of the alignment sensor's lateral position relative to the two adjacently spaced crop rows as the vehicle advances in the forward direction of travel. The controller receives the generated output signals from the alignment sensor and determines an offset distance of said alignment sensor from a centerline between the two adjacently spaced crop rows. The controller outputs a modified vehicle position signal corresponding to the latitude and longitude position received from said GPS receiver shifted by the offset distance. The vehicle's on board navigation controller causes the vehicles on-board steering control system to steer the vehicle based on the modified vehicle position signal.

Abstract: A liquid applicator implement includes a vehicle supporting a boom which is vertically adjustable with respect to the vehicle. The boom supports a plurality of drop assemblies laterally spaced along the boom, each of the plurality of drop assemblies is in communication with a liquid product source. At least one height sensor assembly is attached to one of the plurality of drop assemblies. The at least one height sensor generates signals indicative of a distance between the one drop assembly and a ground surface as the vehicle advances in a direction of travel. At least one adjustment mechanism coupled to the boom is responsive to the signals generated by the at least one height sensor assembly for vertically adjusting the boom as said vehicle advances in the direction of travel.

Abstract: In one aspect, a method of sampling soil is provided and includes determining a soil sampling location in a land area of interest by using, at least in part, an electronic device, displaying a first visual image associated with the soil sampling location on a display of the electronic device, navigating to the soil sampling location with the electronic device, sampling soil at the soil sampling location with a soil tester, and displaying a second visual image on the display of the electronic device associated with a result obtained from the soil sample. In one aspect, the electronic device may be a mobile electronic communication device.

Abstract: In one aspect, an agricultural system is provided and includes an information gathering component and a computing element. The information gathering component is configured to gather information pertaining to at least one agronomic characteristic of a land area of interest and generate agricultural data associated with the gathered information. The agricultural data is configured to be transmitted over a network. The computing element includes a processor and a memory. The computing element is configured to receive at least one of the agricultural data from the information gathering component and agricultural data from a source. The computing element is configured to determine an agronomic ratio associated with two agronomic characteristics based on the received data, and the computing element is configured to generate agronomic ratio data associated with the agronomic ratio. The agronomic ratio data is configured to be transmitted over the network.