A trough conveyor that transports fine bulk material and is exposed to windy conditions may include a belt for transporting bulk material, a center roll for supporting the belt, first and second wing rolls that support angled segments of the belt, a frame that supports the center roll and the first and second wing rolls, and a hood cover disposed above the belt. The trough conveyor may also include first and second baffles that form labyrinths that help attenuate wind velocity over the fine bulk material. The baffles may also help contain fine bulk material that is stirred up within a stilling space formed between the hood cover, the belt, and the baffles. In addition or in the alternative, the trough conveyor may include fairings that deflect crosswind beneath the belt.

A trough conveyor that transports fine bulk material and is exposed to windy conditions may include a belt for transporting bulk material, a center roll for supporting the belt, first and second wing rolls that support angled segments of the belt, a frame that supports the center roll and the first and second wing rolls, and a hood cover disposed above the belt. The trough conveyor may also include first and second baffles that form labyrinths that help attenuate wind velocity over the fine bulk material. The baffles may also help contain fine bulk material that is stirred up within a stilling space formed between the hood cover, the belt, and the baffles. In addition or in the alternative, the trough conveyor may include fairings that deflect crosswind beneath the belt.

A conveyance belt (12) for a conveyor (1) comprises a plurality of cavities (26a-26c). Each of the cavities (26a-26c) is configured for form-fittingly accommodating a corresponding insert (24a-24f) for connecting the conveyance belt (12) with a conveyance element (20) of the conveyor (1).

A discarding rail system for unloading waste material on a conveyor belt in continuous motion and method for using said system are disclosed. According to some embodiments, the system includes (1) an upper assembly for support the underside of a conveyor belt, (2) a actuation mechanism for inclining the upper assembly so that the conveyor belt is pivoted to one side, creating a gradient causing content on the conveyor belt to roll of the side of the conveyor belt, and (3) a set of retaining devices positioned on the side of the conveyor belt to hold conveyor belt in place as the conveyor belt is pivoted.

Disclosed herein are air-supported belt conveyors and independent conveyor subsystems that are selectively and independently designed to meet requirements that can change along the length of a conveyor, as well as from conveyor to conveyor.

Disclosed herein are air-supported belt conveyors and independent conveyor subsystems that are selectively and independently designed to meet requirements that can change along the length of a conveyor, as well as from conveyor to conveyor.

An apparatus for transporting aggregates or similar includes a conveyor belt for aggregates or similar and an actuating mechanism actuating advancement of the conveyor belt. The apparatus includes a plurality of thermal cameras positioned along the development of the conveyor belt and configured to detect the temperature of the conveyor belt in a plurality of detection positions positioned along the development of the conveyor belt. The apparatus further includes a processing and control unit communicating data with each one of thermal cameras of the plurality of thermal cameras to receive input temperature data detected by each thermal camera. The processing and control unit is configured to estimate the extent and origin position of an overheating phenomenon of the conveyor belt on the basis of the temperature detected in correspondence of at least two detection positions of the plurality of detection positions.

An apparatus for transporting aggregates or similar includes a conveyor belt for aggregates or similar and an actuating mechanism actuating advancement of the conveyor belt. The apparatus includes a plurality of thermal cameras positioned along the development of the conveyor belt and configured to detect the temperature of the conveyor belt in a plurality of detection positions positioned along the development of the conveyor belt. The apparatus further includes a processing and control unit communicating data with each one of thermal cameras of the plurality of thermal cameras to receive input temperature data detected by each thermal camera. The processing and control unit is configured to estimate the extent and origin position of an overheating phenomenon of the conveyor belt on the basis of the temperature detected in correspondence of at least two detection positions of the plurality of detection positions.

An enclosed belt conveyor system has a rail track (1) and spaced apart carriages (35) that run on wheels (40) supported by the trail track. A continuous carry belt (10) is supported by the carriages (35) and has an enclosed configuration where the carry belt (10) encloses a bulk material for transport by the system. One or more belt guides (45) are positioned along the rail track (1) and engage the continuous carry belt to maintain it in its enclosed configuration.

An enclosed belt conveyor system has a rail track (1) and spaced apart carriages (35) that run on wheels (40) supported by the trail track. A continuous carry belt (10) is supported by the carriages (35) and has an enclosed configuration where the carry belt (10) encloses a bulk material for transport by the system. One or more belt guides (45) are positioned along the rail track (1) and engage the continuous carry belt to maintain it in its enclosed configuration.