Abstract: A bulk bag conditioner assembly is disclosed herein. The assembly includes a frame assembly defining a bulk bag conditioning area. The frame assembly includes a first carrier frame with a first ram, and a second carrier frame with a second ram. A first actuator assembly includes a first end fixed to the first carrier frame and a second end fixed to the second carrier frame. A second actuator assembly includes a first end fixed to the first carrier frame and a second end fixed to the second carrier frame. A control unit is configured to simultaneously drive the first ram and the second ram linearly towards each other to engage a bulk bag within the bulk bag conditioning area.

Abstract: A drag conveyor assembly is disclosed that allows for improved functionality and connectivity to form an endless loop. The assembly includes a traction element and a plurality of slugs fixedly attached to the traction element. When any one of the slugs is split, each split slug section of the slug remains fixedly attached to the traction element. In one embodiment, each slug of the plurality of slugs includes a cutting groove. A ferrule pair is provided to attach each slug to the traction element. The cutting grooves facilitate a cutting or slicing process to split the slug into split slug sections.

Abstract: A drag conveyor assembly is disclosed that allows for improved functionality and connectivity to form an endless loop. The assembly includes a traction element and a plurality of slugs fixedly attached to the traction element. When any one of the slugs is split, each split slug section of the slug remains fixedly attached to the traction element. In one embodiment, each slug of the plurality of slugs includes a cutting groove. A ferrule pair is provided to attach each slug to the traction element. The cutting grooves facilitate a cutting or slicing process to split the slug into split slug sections.

Abstract: An automated tensioning system is provided for a conveyor with an endless traction element that travels around an adjustably mounted pulley or sprocket. The tensioning system includes a spring housing with a lead screw/drive shaft assembly located therein that has a pushing face that extends out of one housing end. A spring compression plate is threadingly engaged with the lead screw. A plate indicator is located on the spring compression plate. A tensioner spring is located between the tensioner spring support provided by a first housing end and the spring compression plate. A sensor is located on the spring housing that is configured to detect a position of the plate indicator.

Abstract: An automated tensioning system is provided for a conveyor. The tensioning system includes a spring housing with a lead screw/drive shaft assembly located therein that has a pushing face that extends out of one housing end. A spring compression plate is threadingly engaged with the lead screw. A plate indicator is located on the spring compression plate. A tensioner spring is located between the tensioner spring support provided by a first housing end and the spring compression plate. A sensor is located on the spring housing that is configured to detect a position of the plate indicator. A driven wheel, rotationally engaged with the drive shaft and axially slideable thereon, is driven by a motor to drive the driven wheel and rotate the lead screw and advance or retract the face so that a desired tension is maintained.