Abstract: An area-based open pit mine designer is disclosed. One example includes an economic shell receiver module to receive an economic shell. In addition, a user input module receives a user parametric input denoting an open pit mine shape based on the economic shell. The open pit mine designer module automatically develops an open pit mine design based on the user parametric input.

Abstract: Automatic change propagation in an area-based open pit mine designer is disclosed. One example includes an economic shell receiver module to receive an economic shell. In addition a user input module receives a user parametric input denoting an open pit mine shape based on the economic shell. An open pit mine designer module automatically develops an open pit mine design from the user parametric input. The user input module receives an additional area to be incorporated into the open pit mine design. The open pit mine designer module automatically propagates the additional area into the open pit mine design to generate a modified open pit mine design.

Abstract: An area-based open pit mine designer is disclosed. One example includes an economic shell receiver module to receive an economic shell. In addition, a user input module receives a user parametric input denoting an open pit mine shape based on the economic shell. The open pit mine designer module automatically develops an open pit mine design based on the user parametric input.

Abstract: Automatic change propagation in an area-based open pit mine designer is disclosed. One example includes an economic shell receiver module to receive an economic shell. In addition a user input module receives a user parametric input denoting an open pit mine shape based on the economic shell. An open pit mine designer module automatically develops an open pit mine design from the user parametric input. The user input module receives an additional area to be incorporated into the open pit mine design. The open pit mine designer module automatically propagates the additional area into the open pit mine design to generate a modified open pit mine design.

Abstract: An open pit mine designer is disclosed. One example includes a metric receiver receives an economic shell metric including ore information and an open pit mine metric. In addition, a user input is provided to receive user modifiable criteria. The open pit mine designer combines the open pit mine metrics, the user modifiable criteria and a waste reduction criteria to develop an open pit mine design, wherein user modifiable information may be used to adjust the open pit mine design during the life of the open pit mine.

Abstract: The invented system and method provide the capability to permit user-defined objects to be displayed in a virtual environment application (VEA). An externally-rendered object (ERO) includes at least one graphic instruction defining an object. The ERO is dynamically linked to the VEA so that the ERO can be rendered in the VEA preferably along with a virtual environment generated by the VEA. The ERO thus provides the user with the capability to customize the VEA without changing the source code thereof, and without using a complicated communication protocol between the VEA and ERO that would otherwise be required. The ERO can be used in a wide range of specific implementations. For example, the ERO can represent a remotely operated vehicle (ROV) operating in a virtual environment representing undersea topography. The ERO could also represent a drill operating in an undersea environment for oil exploration, for example.