Automated control of a longwall stageloader bootend using a plurality of sensors. The sensors include lift sensors, side shift sensors, advance sensors, angle sensors, and conveyor belt sensors. Signals from the plurality of sensors are received by a controller and used to control the operation of the bootend. Controlling the operation of the bootend includes controlling, for example, one or more lift actuators, one or more side shift actuators, one or more advance actuators, and one or more belt actuators. These various actuators can be controlled to, for example, advance the bootend, level the bootend, or match the interfaces between the bootend and a stageloader or a conveyor structure. By automating the operation of the bootend, the need for human positioning control is reduced and the safety of operators is improved.

Automated control of a longwall stageloader bootend using a plurality of sensors. The sensors include lift sensors, side shift sensors, advance sensors, angle sensors, and conveyor belt sensors. Signals from the plurality of sensors are received by a controller and used to control the operation of the bootend. Controlling the operation of the bootend includes controlling, for example, one or more lift actuators, one or more side shift actuators, one or more advance actuators, and one or more belt actuators. These various actuators can be controlled to, for example, advance the bootend, level the bootend, or match the interfaces between the bootend and a stageloader or a conveyor structure. By automating the operation of the bootend, the need for human positioning control is reduced and the safety of operators is improved.

Automated control of a longwall stageloader bootend using a plurality of sensors. The sensors include lift sensors, side shift sensors, advance sensors, angle sensors, and conveyor belt sensors. Signals from the plurality of sensors are received by a controller and used to control the operation of the bootend. Controlling the operation of the bootend includes controlling, for example, one or more lift actuators, one or more side shift actuators, one or more advance actuators, and one or more belt actuators. These various actuators can be controlled to, for example, advance the bootend, level the bootend, or match the interfaces between the bootend and a stageloader or a conveyor structure. By automating the operation of the bootend, the need for human positioning control is reduced and the safety of operators is improved.

Automated control of a longwall stageloader bootend using a plurality of sensors. The sensors include lift sensors, side shift sensors, advance sensors, angle sensors, and conveyor belt sensors. Signals from the plurality of sensors are received by a controller and used to control the operation of the bootend. Controlling the operation of the bootend includes controlling, for example, one or more lift actuators, one or more side shift actuators, one or more advance actuators, and one or more belt actuators. These various actuators can be controlled to, for example, advance the bootend, level the bootend, or match the interfaces between the bootend and a stageloader or a conveyor structure. By automating the operation of the bootend, the need for human positioning control is reduced and the safety of operators is improved.

Apparatuses, systems, and methods are disclosed for a dual conveyor sorting system. An apparatus includes a first conveyor belt assembly that includes a first conveyor belt moving at a first rate in a first direction. An apparatus includes a second conveyor belt assembly that includes a second conveyor belt moving at a second rate in a second direction. The first rate is faster than the second rate and the first direction is the same as the second direction. The first conveyor belt assembly is positioned along a first axis perpendicular to the second conveyor belt assembly positioned along a second axis. A first edge of the first conveyor belt assembly is positioned substantially adjacent to a first edge of the second conveyor belt assembly.

Apparatuses, systems, and methods are disclosed for a dual conveyor sorting system. An apparatus includes a first conveyor belt assembly that includes a first conveyor belt moving at a first rate in a first direction. An apparatus includes a second conveyor belt assembly that includes a second conveyor belt moving at a second rate in a second direction. The first rate is faster than the second rate and the first direction is the same as the second direction. The first conveyor belt assembly is positioned along a first axis perpendicular to the second conveyor belt assembly positioned along a second axis. A first edge of the first conveyor belt assembly is positioned substantially adjacent to a first edge of the second conveyor belt assembly.

A storage apparatus for bulk material, in particular wood chips, is provided, the storage apparatus including a bunker for receiving the bulk material and a conveyor apparatus for transporting the bulk material. The conveyor apparatus is arranged within the bunker. The conveyor apparatus is a belt conveyor for transporting the bulk material. A method of controlling uniform filling of a bunker of a storage apparatus is also provided.

A storage apparatus for bulk material, in particular wood chips, is provided, the storage apparatus including a bunker for receiving the bulk material and a conveyor apparatus for transporting the bulk material. The conveyor apparatus is arranged within the bunker. The conveyor apparatus is a belt conveyor for transporting the bulk material. A method of controlling uniform filling of a bunker of a storage apparatus is also provided.

A package sort cell includes a robot with an end of arm tool for transporting packages from an in-feed conveyor to a selected one of a plurality of out-feed conveyors or bins, the robot receiving instruction from the package reader as to which of the plurality of conveyors or bins to hand-off the package. An end of arm tool may be in the configuration of a conveyor which may be aligned with the out-feed conveyor on a bottom up movement. The end of arm tool may also be in the configuration of a hanging carriage frame suspending a conveyor in a top down movement. A worker platform may be provided which may be movable between in-use and out-of-use positions whereby upon robot downtime, the platform may move into the in-use position for a worker to temporarily takeover the transfer functions of the robot. A plurality of sort cells may be arranged in side by side relation adjacent a like plurality of package delivery points (e.g., truck bays) and include diverter conveyors to allow diversion of a selected quantity of packages from one cell to an adjacent cell when the adjacent cell has no associated package delivery occurring at that time.

A package sort cell includes a robot with an end of arm tool for transporting packages from an in-feed conveyor to a selected one of a plurality of out-feed conveyors or bins, the robot receiving instruction from the package reader as to which of the plurality of conveyors or bins to hand-off the package. An end of arm tool may be in the configuration of a conveyor which may be aligned with the out-feed conveyor on a bottom up movement. The end of arm tool may also be in the configuration of a hanging carriage frame suspending a conveyor in a top down movement. A worker platform may be provided which may be movable between in-use and out-of-use positions whereby upon robot downtime, the platform may move into the in-use position for a worker to temporarily takeover the transfer functions of the robot. A plurality of sort cells may be arranged in side by side relation adjacent a like plurality of package delivery points (e.g., truck bays) and include diverter conveyors to allow diversion of a selected quantity of packages from one cell to an adjacent cell when the adjacent cell has no associated package delivery occurring at that time.