Abstract:
In one embodiment, an electrical control system (400, 450) comprises at least one sensor (800, 900) that is configured to illuminate multiple light sources (924, 926) with each light source having a different wavelength and to sense one or more products (832) flowing in a product line (822, 922) of an agricultural implement (10, 1240). Processing logic (416, 1226) is coupled to the at least one sensor and the processing logic is configured to obtain sensor data from the at least one sensor, to determine response signals for each product when illuminated based on the sensor data, and to analyze the response signals for each product to determine product characteristics including color of each product to distinguish each product.
Abstract:
A method of calibrating a meter module wherein the meter module comprises: an opening; a bottom opening; a metering mechanism disposed in the meter module; a bottom plate to selectively open and close the bottom opening; and a load cell for measuring a mass of material in the meter module, the method comprising: starting the metering mechanism to flow material through the meter module; at any time before counting, closing the bottom opening with the bottom plate; during a counting time, counting a number of metering units of the metering mechanism and measuring an amount of material with the load cell; and calculating an amount of mass per metering unit.
Abstract:
Apparatus, systems and methods for monitoring one or more agricultural implements during agricultural operations and for monitoring operator performance criterion. In some embodiment, the operator performance criterion may be reported to a monitor on the agricultural implement as well as a remote fleet monitor.
Abstract:
Air seeders that have force actuators acting on the firming implement and/or the closing wheel to adjust the downforce. In one example, the seeding implement includes a support arm having first and second portions. A finning implement support arm is pivotally connected to the support arm second portion at a first pivot at a first end of the finning implement support arm. A firming implement force actuator is pivotally connected to the support arm second portion at a first end of the firming implement force actuator and connected to the firming implement support arm at the second end of the firming implement force actuator.
Abstract:
In one embodiment, an air seeder tower includes a valve with an actuator, and a closed loop feedback control with a sensor to control actuation of the valve to control air flow out of the air seeder vent tower.
Abstract:
In one embodiment, an air seeder tower includes a valve with an actuator, and a closed loop feedback control with a sensor to control actuation of the valve to control air flow out of the air seeder vent tower.
Abstract:
Air seeders that have force actuators acting on the firming implement and/or the closing wheel to adjust the downforce. In one example, the seeding implement includes a support arm having first and second portions. A finning implement support arm is pivotally connected to the support arm second portion at a first pivot at a first end of the finning implement support arm. A firming implement force actuator is pivotally connected to the support arm second portion at a first end of the firming implement force actuator and connected to the firming implement support arm at the second end of the firming implement force actuator.
Abstract:
A downforce load sensor for a planter row unit includes a load sensing connector rod coupled with a depth selector of the planter row unit. The load sensing connector rod is disposed to receive a load applied by a stop member supported on the row unit frame, the stop member being in abutment with an abutment member of a gauge wheel arm of a furrow opening assembly of the planter row unit. The load sensing connector rod generating load signals corresponding to a downforce applied to the soil by the gauge wheels of the furrow opening system of the planter row unit.
Abstract:
Air seeders that have force actuators acting on the firming implement and/or the closing wheel to adjust the downforce. In one example, the seeding implement includes a support arm having first and second portions. A finning implement support arm is pivotally connected to the support arm second portion at a first pivot at a first end of the finning implement support arm. A firming implement force actuator is pivotally connected to the support arm second portion at a first end of the firming implement force actuator and connected to the firming implement support arm at the second end of the firming implement force actuator.
Abstract:
A meter module (200A, 200B, 200) for metering a product in communication with the meter module (200A, 200B, 200). The meter module (200A, 200B, 200) includes a meter housing portion (203) and a lower chamber portion (205), the meter housing portion (203) having a top opening (204) through which the product enters the meter housing portion (203). A metering mechanism is disposed in the meter housing portion (203) and is driven by an electric motor (216). As the metering mechanism is driven, the metering mechanism meters the product into the lower chamber portion (205), the metered product exits the lower chamber portion (205) through a bottom opening (158, 208) in the lower chamber portion (205). The lower chamber portion (205) may include a flow sensor and/or internal structure (260) to capture and weigh the metered product before exiting through the bottom opening (158, 208).