A conveyor belt unit (100) has a configuration-changing mechanism useful for switching between a ready-to-operate configuration and a not-ready-to-operate configuration. A specific embodiment uses a rotating joint element (150) with a thin material bridge (152) that defines a rotary axis. Used with a dynamic checkweigher, the conveyor belt unit has a carrier frame (110) and a belt body (130) connected to it. Rollers (132, 134) are arranged at the ends in transport direction (T) and contrary to the transport direction, with a conveyor belt (136) tensioned across the conveyor rollers. A motor drives the conveyor belt (136) by means of one of the rollers (132, 134). The configuration-changing mechanism is effective between the belt body and the carrier frame.

A device for sorting particulate material includes a main conveyor belt, a separation screen, a graded material conveyor, and an oversize material conveyor. The separation screen is configured to separate the material into a first portion and a second portion with a larger average particle diameter than the first portion. The graded material conveyor is positioned below the separation screen to receive the first portion of the material, and the oversize material conveyor is positioned at an end of the separation screen to receive the second portion of the material.

Disclosed are vehicles used in transporting coarse ore in a mine and systems using the same. The vehicles include a drive mechanism for moving the vehicle along a surface; an inclinable conveyor positioned atop the drive mechanism for moving the coarse ore from a loading position to a discharge position; and vertically extending walls positioned along the longitudinal sides of the conveyor. The loading position of the conveyor being offset from the vertically extending walls and the discharge position of the conveyor extends beyond the vertically extending walls so that one vehicle can be positioned with respect to another to form a continuous walled conveyor. The vehicles and systems described herein do not require rails, so they can be manoeuvered within a mine to form a network from the mine face to a coarse ore unloading area.

A veneer sheet feed device for multistage veneer sheet dryer is provided between an auto feeder including a carry-in conveyor and a roll dryer (veneer sheet dryer). The veneer sheet feed device is provided with a guide member and a feed conveyor for feeding a veneer sheet carried in from the carry-in conveyor to each conveyance unit of the roll dryer in this order from a conveyance up stream side. The veneer sheet feed device further provided with a pivot mechanism that allows a starting end of the guide member belonging to the conveyance stage immediately above the conveyance stage in which the veneer sheet is carried this time from the carry-in conveyor to pivot to a portion above a horizontal position of a roller shaft located at a terminal end of this guide member.

A movable material processing apparatus for handling material such as ore, gravel, rock or the like, that includes: a foldable conveyor for discharging material from the apparatus. The foldable conveyor is movable between a transport position and an operating position. The foldable conveyor includes a loading block arranged at the loading end, and a discharge block extending from the loading block towards a discharge end. The discharge block is pivotally coupled to the loading block along a first axis being perpendicular to a transport path of the foldable conveyor and parallel with a carrying surface of the foldable conveyor. The loading block is pivotally coupled to a support structure of the movable material processing apparatus along a second axis being parallel to the transport path.

A shock-absorbing conveyor boom includes a proximal portion and a distal portion, hingedly connected to the proximal portion, the proximal and distal portions supporting a laterally flexible endless conveyor belt. The distal portion is pivotal in a generally horizontal plane, and is biased toward longitudinal alignment with the proximal portion, whereby physical shock applied to the distal portion can be absorbed by lateral deflection of the distal portion.

Embodiments of the present invention generally relate to a vehicle-mounted conveyor system, and more specifically a conveyor system that can be mounted on a short-length, non-CDL truck. The conveyor can convey a wide range of materials, including shingles, shakes (e.g., loose dirt, gravel, and rocks), tiles, underlayment, solar panels, siding, bricks, fasteners, etc. In some embodiments, the conveyor system includes a frame with a four-sided FRP tube, a belt positioned on top of the tube, cleats interconnected to the belt, belt pulleys, a motor, a material backstop, and conveyor positioning features. Conveyor positioning features include a tilting hinge a conveyor carriage, a telescopic vertical post, and a slewing drive. In some embodiments, the conveyor frame is a fiber-reinforced plastic material.

Embodiments disclosed herein include a portable radial stacker for stockpiling bulk material. The stacker may include a linear conveyor having a rear portion including a hopper, and a front portion, the conveyor being designed to carry bulk material along an elevating path from a low position adjacent the rear portion to a higher position adjacent the front portion. The hopper may be pivotally mounted to the conveyor at a pivot point, with at least one hopper arm extending between the hopper and the conveyor rearward of the pivot point. The at least one hopper arm may include at least one hopper hydraulic cylinder to extend and retract the effective length of the hopper arm to raise and lower a rear end of the hopper to modify a degree of elevation of the hopper.

The present disclosure relates to a substrate transfer apparatus. The substrate transfer apparatus includes a first transfer apparatus, a second transfer apparatus, a substrate carrier driver, a sensor, a swing apparatus, and a controller. The first transfer apparatus is configured to transfer a substrate in a first direction. The second transfer apparatus is configured to receive the substrate from the first transfer apparatus and transfer the substrate and comprising a substrate carrier on which the substrate transferred from the first transfer apparatus is seated. The substrate carrier driver is configured to move the substrate carrier. The sensor is configured to detect an abnormal transfer of the substrate from the first transfer apparatus to the second transfer apparatus and generate a detection signal corresponding to the abnormal transfer of the substrate. The swing apparatus is configured to swing the substrate carrier. The controller is connected to the sensor and the swing apparatus and configured to control the swing apparatus based on the detection signal of the sensor.

A device for sorting particulate material includes a main conveyor belt, a separation screen, a graded material conveyor, and an oversize material conveyor. The separation screen is configured to separate the material into a first portion and a second portion with a larger average particle diameter than the first portion. The graded material conveyor is positioned below the separation screen to receive the first portion of the material, and the oversize material conveyor is positioned at an end of the separation screen to receive the second portion of the material.