Abstract: Methods and systems provided for generating an irrigation map. In one computer-implemented method, a user is instructed, by a computing device, to draw an irrigation boundary in a map of an agricultural field. In response, the computing device receives a first input, from the user, at the map of the agricultural field displayed to the user, where the input includes a point of the irrigation boundary. A second input is solicited from the user and, in turn, the computing device receives the second input, which defines a dimension of the irrigation boundary. The computing device then appends a shape of the irrigation boundary to the map, based on the point and the dimension, wherein the irrigation boundary is positioned based on the point indicated by the user.

Abstract: Methods are provided for generating a prescription map for the application of crop inputs. In one method, the user draws a boundary on a map within a user interface and the system identifies relevant soil data and generates a soil map overlay and legend for changing the application prescription for various soils and soil conditions. In another method, the user instead drives a field boundary which is recorded on a planter monitor using a global positioning receiver, and the system generates a soil map and legend for changing the application prescription.

Abstract: Methods are provided for generating a prescription map for the application of crop inputs. In one method, the user draws a boundary on a map within a user interface and the system identifies relevant soil data and generates a soil map overlay and legend for changing the application prescription for various soils and soil conditions. In another method, the user instead drives a field boundary which is recorded on a planter monitor using a global positioning receiver, and the system generates a soil map and legend for changing the application prescription.

Abstract: Methods are provided for generating a prescription map for the application of crop inputs. In one method, the user draws a boundary on a map within a user interface and the system identifies relevant soil data and generates a soil map overlay and legend for changing the application prescription for various soils and soil conditions. In another method, the user instead drives a field boundary which is recorded on a planter monitor using a global positioning receiver, and the system generates a soil map and legend for changing the application prescription.

Abstract: Methods are provided for generating a prescription map for the application of crop inputs. In one method, the user draws a boundary on a map within a user interface and the system identifies relevant soil data and generates a soil map overlay and legend for changing the application prescription for various soils and soil conditions. In another method, the user instead drives a field boundary which is recorded on a planter monitor using a global positioning receiver, and the system generates a soil map and legend for changing the application prescription.

Abstract: Methods are provided for generating a prescription map for the application of crop inputs. In one method, the user draws a boundary on a map within a user interface and the system identifies relevant soil data and generates a soil map overlay and legend for changing the application prescription for various soils and soil conditions. In another method, the user instead drives a field boundary which is recorded on a planter monitor using a global positioning receiver, and the system generates a soil map and legend for changing the application prescription.

Abstract: Methods are provided for generating a prescription map for the application of crop inputs. In one method, the user draws a boundary on a map within a user interface and the system identifies relevant soil data and generates a soil map overlay and legend for changing the application prescription for various soils and soil conditions. In another method, the user instead drives a field boundary which is recorded on a planter monitor using a global positioning receiver, and the system generates a soil map and legend for changing the application prescription.

Abstract: Methods are provided for generating a prescription map for the application of crop inputs. In one method, the user draws a boundary on a map within a user interface and the system identifies relevant soil data and generates a soil map overlay and legend for changing the application prescription for various soils and soil conditions. In another method, the user instead drives a field boundary which is recorded on a planter monitor using a global positioning receiver, and the system generates a soil map and legend for changing the application prescription.

Abstract: Methods are provided for generating a prescription map for the application of crop inputs. In one method, the user draws a boundary on a map within a user interface and the system identifies relevant soil data and generates a soil map overlay and legend for changing the application prescription for various soils and soil conditions. In another method, the user instead drives a field boundary which is recorded on a planter monitor using a global positioning receiver, and the system generates a soil map and legend for changing the application prescription.

Abstract: A method and system for producing production control software for a plurality of electronic control modules, is provided. The electronic control modules are located on production machines. Each production machine includes a subset of the electronic control modules. The system includes a part file staging area for receiving and storing new production control software from a design engineering group. A product engineering workstation is coupled to the part file staging area and operated by a product engineering user. The product engineering user can review, modify and approve the new production control software. A production staging area, coupled to the product engineering workstation, receives and stores approved production control software and receives an order for a production machine.

Abstract: A method of operating a computer to produce control software for a hydraulic system is provided. The hydraulic system includes a pump, at least one valve, a motor and an electronic controller. The method includes the steps of defining a set of valve features of the electronic controller as a function of user input; and producing control software to operate the controller as specified by said set of valve features.