A conveying system (100) is described, comprising: two axially spaced supporting frames (2, 3) extending substantially in parallel along the feed direction (F) of the conveying system (100); at least one plurality of driving elements (12) supported by said supporting frames (2, 3); at least one motor (9) for driving at least one portion of said plurality of driving elements (12); at least one transmission assembly for transferring the motion from said motor (9) to said at least one portion of the plurality of driving elements (12); a control system for controlling the driving of said plurality of driving elements (12); a power supply system for electrically supplying said control system and said at least one motor (9); said power supply system comprises at least one power supply board (7) designed to convert the mains voltage into at least one DC voltage;
characterized in that it comprises: at least one housing compartment (1) transversely extending between the two supporting frames (2, 3); said at least one housing compartment (1) being provided with at least one housing seat for accommodating said at least one power supply board (7) of said power supply system.

A belt driving device includes a plurality of rollers, an endless belt, a contact surface, and a non-contact surface. The rollers include a driving roller that is rotationally driven. The endless belt is stretched between the rollers such that a predetermined tension is applied to the endless belt, and the endless belt protrudes from opposite end portions of the rollers in an axis direction of each of the rollers. The contact surface is formed at a first end portion of at least one of the rollers and comes in contact with the endless belt. The first end portion is located on a meandering direction side of the endless belt. The non-contact surface is formed at each of second end portions of the rollers and doesn't come in contact with the endless belt. The second end portions are located on a side opposite to the meandering direction of the endless belt.

Various embodiments illustrated herein disclose an axle lock assembly comprising a first plate with a first aperture, a second plate with a second aperture, a shaft, wherein the shaft is inserted through the first aperture and the second aperture and a bush. When the bushing is in contact with the first plate and the second plate, the bush creates a lateral force to move the first plate and the second plate in opposite directions to secure the shaft.

Various embodiments illustrated herein disclose an axle lock assembly comprising a first plate with a first aperture, a second plate with a second aperture, a shaft, wherein the shaft is inserted through the first aperture and the second aperture and a bush. When the bushing is in contact with the first plate and the second plate, the bush creates a lateral force to move the first plate and the second plate in opposite directions to secure the shaft.

Singulating conveyors having transporting rollers are divided into multiple longitudinal zones in a forward or herringbone portion of the conveyor, preferably six or eight zones. Each longitudinal zone is divided into a pair of side-by-side outside and inside lateral zones. The rollers of each lateral zone are driven by a separate motor so that the speed of the rollers in the multiple longitudinal zones can vary along the herringbone portion, and the speed of the rollers in the outside lateral zones can operate at a higher speed than the rollers of the adjacent inside lateral zones. The discharge or skew portion of the conveyors is also divided into multiple longitudinal zones, preferably seven, each of which is driven by a separate motor so that the speed of the discharge rollers can be varied. The singulating conveyors can be expanded by utilizing a modular manufacturing method.

Singulating conveyors having transporting rollers are divided into multiple longitudinal zones in a forward or herringbone portion of the conveyor, preferably six or eight zones. Each longitudinal zone is divided into a pair of side-by-side outside and inside lateral zones. The rollers of each lateral zone are driven by a separate motor so that the speed of the rollers in the multiple longitudinal zones can vary along the herringbone portion, and the speed of the rollers in the outside lateral zones can operate at a higher speed than the rollers of the adjacent inside lateral zones. The discharge or skew portion of the conveyors is also divided into multiple longitudinal zones, preferably seven, each of which is driven by a separate motor so that the speed of the discharge rollers can be varied. The singulating conveyors can be expanded by utilizing a modular manufacturing method.

A motor-driven conveyor roller comprises a conveyor roller tube, a first axle unit inserted into a first end of the conveyor roller tube, a first bearing unit at the first end, around which the conveyor roller tube is mounted so as to be correspondingly rotatable around the first axle unit, a drive unit, and a first gearing arranged in the conveyor roller tube and which transmits a torque, generated by the drive unit, between the conveyor roller tube and the first axle unit.

An end cap is connected fixedly in terms of torque to the conveyor roller tube at the first end and to which the first gearing is connected fixedly in terms of torque at a first gearing connection section of the end cap, wherein the end cap has a second gearing connection section, which is different from the first gearing connection section.

A modular conveying assembly including a plurality of modules joined together, each module including a bushing housing, a coupling housed in the bushing housing, an axle coupled to the coupling and supported for rotation relative to the module, a drive pin coupled to the coupling, and a driven surface fixed to the drive pin. The modular conveying assembly also including a driving member that is in selective engagement with the driven surface to affect rotation of the axle.

A roller system has a frame, a plurality of rollers (supported by the frame) forming a roller plane, and an external rotor motor (motor) spaced from the roller plane. As an external rotor motor, the motor has a stator and an external rotor radially outward of the stator to substantially circumscribe the stator. To kinetically couple the motor with the rollers, the system also has a transmission coupling coupled with the external rotor and at least one of the rollers. The transmission coupling and external rotor are configured so that rotation of the external rotor causes the at least one roller to rotate in response to a torque received through the transmission coupling.

A motor-driven conveying roller comprises a roller body which extends along a longitudinal axis, an axle element, a bearing unit for rotatably mounting the roller body in relation to the axle element, a drive motor which is arranged within the roller body and is mechanically coupled to the axle element and to the roller body for generating a torque between the axle element and the roller body, an electrical plug-in connection which is arranged in a cavity in the axle element and which comprises a plug and a socket that may be coupled to one another in a releasable manner to establish a single- to multiple-pole electrical plug-in connection, and an electrical connecting line between the electrical plug-in connection and the drive motor.