A roller modular conveyor belt module for motorized continuous conveyors includes, first and second hinge elements extending from a main body along opposite directions orthogonal to the first direction and spaced from each other. Each of the hinge elements has a through hole with axis parallel to the first direction and being coaxial to each other to receive a respective hinge pin. The first hinge elements are adapted to interpose to second hinge elements of another module with through holes coaxial to each other to receive a hinge pin articulating therebetween. In the space between adjacent hinge elements, there is at least one roller passed through by an axial hole arranged coaxially with the through holes of the adjacent hinge elements delimiting the space. The module includes at least one bushing having an end portion inserted in the through hole, and extending through the roller axial hole.

An accessory assembly (1) of toothed belts (9), toothed conveyor belts (9a) or portions thereof, comprising a base piece (2), a first piece (3) and a second piece (4) with respectively a first, a second and a fourth coupling part (21, 31, 41). The first and the second coupling part (21, 31) are complementary to one another so that the first piece (3) is couplable above the base piece (2) in one or more predetermined positions and the fourth and the first coupling part (41, 21) are complementary to one another so that the second piece (4) is couplable above the base piece (2) in one or more predetermined positions. The first piece (3) comprises a third coupling part (32) complementary to the fourth coupling part (41) and which faces in an opposite direction to the second coupling part (31).

A splice system for a conveyor belt system includes a plurality of spaced tractive rods; a plurality of rows of flat wire pickets transversely disposed with respect to a direction of travel and interconnecting the plurality of spaced tractive rods, wherein at least one of the rows of flat wire pickets includes an outer edge link on each end thereof, the outer edge link including a reverse-turn closed edge on an outer side thereof; and wherein movement of at least one of the plurality of rods is restricted by the reverse-turn closed edge on the outer edge link.

A conveyor system and drive element for same include a chain including a plurality of links that hinge with respect to each other and a plurality of moving elements such as balls that freely move in the links. A drive element drives the chain in a conveying direction and includes an elongated body with a surface that has a plurality of planar facets arranged around the longitudinal axis of the body. The facets extend along the body and engage respective links of the chain as the body is rotated to drive the chain. Relief elements are located in each facet and are configured for receiving the moving elements of the chain links engaging the facets so the links lie generally flat on the facets when the chain is driven. Other versions of the drive element are faceted for driving a chain with links but without relief elements.

A motorized transfer apparatus is described, comprising: a conveyor belt movable along a predetermined feeding direction and comprising a plurality of modular elements arranged in closed loop; a support structure comprising a sliding surface having a substantially cross-sectional triangular shape, so as to form in sequence: a first flat portion, which is substantially horizontal and which defines a transport plane for the objects transported by said conveyor belt, a second flat portion, which defines a descent path for the conveyor belt, and a third flat portion, which defines an ascent path for said the conveyor belt. The apparatus further comprises a motorized actuator device for the conveyor belt and a drive unit, inserted inside the support structure and arranged to transmit the motion generated by the motorized actuator device to the conveyor belt. Each modular element has a length, measured along the feeding direction, which is between 1.5% and about 6% of the overall length of the conveyor belt. The third flat portion connects the second flat portion with the first flat portion.

A conveyor module includes a module body with a pair of first link ends extending in a first direction of travel and a second link end extending in a second direction of travel opposite the first direction. Each of the first and link ends has a transverse opening therethrough. At least one of the first link ends has a first mating portion. A pin is configured to be received in the first transverse openings of the module body. The pin has a shaft and a lever affixed at a first end of the shaft. The lever has a second mating portion configured to be rotatably coupled with the first mating portion of the module body, thereby preventing transverse movement of the shaft.

A modular conveyor belt module includes a base body extending along a first direction transverse with respect to the transport direction, between two opposite lateral faces. The module includes upper and lower surfaces; two opposed longitudinal edges; hinge elements projecting respectively from the two edges along a second direction. Each of the first and second hinge elements is crossed by a first and second hole, respectively, the axes of the holes being parallel to the first direction. The holes are each coaxial to each other. The first hinge elements interpose the second hinge elements of another module with the respective holes coaxially aligned. The hinge elements are interposed to each other leaving free spaces to receive a roller. Each roller projects with a portion from the upper surface, the plane parallel with respect to the two directions and tangent to the portion of the rollers projecting from the upper surface.

A conveyor belt system includes a conveyor belt and a sensor assembly integrated in the conveyor belt. The conveyor belt includes a plurality of wickets, and a plurality of interconnecting rods about which the wickets hinge. The sensor assembly includes a load-bearing member and a sensor fitted in the load-bearing member. The load-bearing member is coupled to two adjacent rods such that a belt tension is sustained between the adjacent rods. A method of using a conveyor belt system include pinging the sensor assembly using a reader with an antenna positioned on a conveyor frame, collecting a signal from the sensor assembly using the reader, and processing the collected data to determine a history of belt tension and to estimate overall belt elongation.

A conveyor system and drive element for same include a chain including a plurality of links that hinge with respect to each other and a plurality of moving elements such as balls that freely move in the links. A drive element drives the chain in a conveying direction and includes an elongated body with a surface that has a plurality of planar facets arranged around the longitudinal axis of the body. The facets extend along the body and engage respective links of the chain as the body is rotated to drive the chain. Relief elements are located in each facet and are configured for receiving the moving elements of the chain links engaging the facets so the links lie generally flat on the facets when the chain is driven. Other versions of the drive element are faceted for driving a chain with links but without relief elements.

A conveyor belt configured for a direction of travel, the conveyor belt including a plurality of connecting rods; and a spiral overlay; wherein each of the connecting rods has a flattened oblong cross section. In addition, a method a manufacturing a connector rod for a conveyor, belt includes providing a connector rod having a circular cross section; rolling the connector rod along a longitudinal axis thereof, and thereby producing a flattened oblong cross section.