A monitoring system for an agricultural sprayer includes spray nozzles, spray monitoring sensors, electromagnetic sensors, and control circuitry in electronic communication with the electromagnetic sensors. Each spray nozzle is configured to spray a fluid. Each spray monitoring sensor is disposed adjacent to a corresponding one of the spray nozzles and is configured to measure a spray parameter of that spray nozzle. The electromagnetic sensors are configured to generate signals when the electromagnetic sensors sense a magnetic field. Each electromagnetic sensor is disposed adjacent to and each of is representative of one of the spray monitoring sensors. The control circuitry is configured to receive the signals from the electromagnetic sensors in a received signal order and assign physical locations to the spray monitoring sensors based on the sequential communication order and a predetermined sequential order. Related methods and systems are also disclosed.

A monitoring system for an agricultural sprayer includes a spray nozzle, a pressure sensor, a flow rate sensor, and control circuitry. The spray nozzle is configured to generate a spray of a fluid, the pressure sensor is adjacent to the spray nozzle and is configured to measure a pressure of the fluid sprayed by the spray nozzle, and the flow rate sensor is adjacent to the spray nozzle and is configured to measure a flow rate of the fluid sprayed by the spray nozzle. The control circuitry is configured to receive the measured pressure from the pressure sensor, receive the measured flow rate from the flow rate sensor, and cause a user interface to display the measured pressure and the measured flow rate. Related methods and systems are also disclosed.

Described herein are implements and applicators for placement of fluid applications with respect to agricultural plants of agricultural fields. In one embodiment, a fluid applicator includes at least one applicator arm, a first nozzle disposed to apply fluid to a rhizosphere of the plants, and a second nozzle disposed to apply fluid between the row of plants.

Systems for delivering biological products are provided. The biological products may be delivered, for example, to a field. The systems may include a container (110, 210, 310) for holding the biological product. The systems may also include a fluid flow unit (120, 220, 320) configured to subject the biological product to flow from within the container along a fluid flow path (115, 215, 315). Methods of delivering biological products are also provided.

The invention relates to a liquid circuit for an agricultural sprayer having a main tank, a sealed transfer system able to transfer a liquid product contained in a drum to the liquid circuit in a sealed manner, a suction mechanism designed to suck the liquid product coming from the sealed transfer system and to discharge said liquid product to the main tank, a dosing mechanism and a control unit designed to determine a quantity of liquid product to be provided to the suction mechanism for the filling of the main tank, and to control the dosing mechanism to provide the determined quantity of liquid product to the suction mechanism, in such a way as to meter the liquid product transferred from the sealed transfer system to the main tank.

A planter system includes a seeder assembly including a seed meter configured to dispense groups of seeds at intervals through a seed tube. The planter system also includes a sensor configured to transmit a first detection signal upon detection of a first seed passing through the seed tube and a second detection signal upon detection of a second seed passing through the seed tube. A control system is configured to compare a time between the first and second detection signals to a threshold time; determine that the first seed and the second seed are in a single group of seeds when the time between the first and second detection signals is less than the threshold time; and determine that the first seed and the second seed are in different groups of seeds if the time between the first and second detection signals is greater than the threshold time.

A planter system for planting seeds and spraying fluid includes a seeder assembly including a seed tube, a seed meter configured to dispense a seed into the seed tube, and a conveyor apparatus configured to carry the seed through the seed tube. The planter system also includes a sensor configured to transmit a detection signal upon detection of the seed passing a detection location. The planter system also includes a control system configured to determine a travel time of the seed from the detection location to a furrow based on a baseline drop time for the seed, a baseline travel speed of the seeder assembly, and an operating travel speed of the seeder assembly. The control system is configured to transmit a control signal to a valve coupled to a nozzle assembly based on the travel time and the detection signal to spray the fluid on or adjacent the seed.

A system for identifying weeds present within a field includes an imaging device configured to capture an image depicting a plurality of plants present within the field. Furthermore, the system includes a computing system communicatively coupled to the imaging device, with the computing system configured to receive the image captured by the imaging device. Additionally, the computing system is configured to identify a stalk of each of the plurality of the plants depicted within the received image. Moreover, the computing system is configured to determine a parameter associated with each identified stalk. In addition, the computing system is configured to identify each plant of the plurality of plants as a crop or a weed based on the corresponding determined parameter.

An agricultural sprayer includes a computing system configured to receive a first input associated with a target application rate at which agricultural fluid is to be dispensed onto the field. Moreover, the computing system is configured to receive a second input associated with a turn being made or to be made by the sprayer. Additionally, the computing system is configured to determine a maximum ground speed for the turn at which a selected nozzle dispenses the agricultural fluid onto the field at the target application rate based on the received first and second inputs. Furthermore, when the turn is being made, the computing system is configured to control an operation of the sprayer such that the ground speed of the sprayer is at or below the determined maximum ground speed.

Systems, devices, and methods for detecting agrochemicals in environments associated with agricultural equipment are described. Certain agrochemicals that are formulated for being detected using the systems, devices, and methods disclosed herein are also described. The devices, systems, and methods disclosed herein are generally configured to use spectral characteristics to detect agrochemicals in an environment associated with agricultural equipment. The spectral characteristics can be analyzed in various ways to provide different types of information about the agrochemicals and/or the environment.