A belt or a belt segment has a plurality of strength members that run in the longitudinal direction (X) and are disposed so as to be mutually parallel, and has a connection element forming one end of the belt, or of the belt segment and is configured to be connected to a further connection element at the other end of the belt, or to an end of a further belt segment, or is configured to connect two ends of the belt, or of the belt segment, wherein at least one end of a strength member is connected in a force-fitting manner to a clamping body, wherein the clamping body can be held in a form-fitting manner by the connection element at least in the longitudinal direction (X) through a strength member leadthrough. A strength member leadthrough in the longitudinal direction (X) has a widening facing the clamping body.

The present invention concerns a traction means (2), preferably a belt (2), for an inclined conveyor (12) of a combine harvester (1), with a traction means body (20) which extends substantially in the longitudinal direction (X) of the belt (2) and is endlessly closed or designed to be endlessly closable. The traction means (2) is characterized in that at least one tension strand (22) which runs in the longitudinal direction (X) is embedded in the traction means body (20) and is enclosed by the traction means body (20).

An industrial fabric/belt including spiral coils shaped as a symbol for infinity or a lemniscate, i.e., infinity elements, are joined to each other with a pintle. A fabric element is configured as a continuous loop to form an industrial fabric employing a plurality of infinity coil elements.

An industrial fabric/belt including spiral coils shaped as a symbol for infinity or a lemniscate, i.e., infinity elements, are joined to each other with a pintle. A fabric element is configured as a continuous loop to form an industrial fabric employing a plurality of infinity coil elements.

Disclosed herein is an assembly, method of assembling and kit for assembling an assembled helical belt that is mounted within a mounting space defined by a continuous mechanical constraint of a device wherein the assembled helical belt includes a flexible helical belt having two distinct ends that is further comprised of a plurality of belt teeth affixed on a first planar surface of the helical belt, where at least a subset of the plurality of belt teeth of the flexible helical belt are each pierced by a through hole which extends through the respective belt tooth and where the flexible helical belt is of sufficient length such that, when the flexible helical belt is mounted within the intended mounting space, the flexible helical belt overlaps itself by at least one rotation such that each of the plurality of through holes are transversely aligned with at least one other through hole, and a plurality of transverse compression devices, each of which is fitted through one of the plurality of through holes of the belt teeth, and further through the at least one transversely aligned through hole, wherein each respective transverse compression device creates a compressive force on the flexible helical belt in a direction that is generally transverse to the length of the flexible helical belt, such that the assembled, compressed, flexible helical belt forms a single, continuous, unending drive belt that passes through the mounting space.

A method for closing modular belts and a belt closer having two clamps for clamping to a side edge of a modular flat-top conveyor belt. A ratchet strap or other pulling tool is connected between the two clamps of the belt closer. Once the clamps are clamped to unconnected end sections of a belt, the ratchet strap is used to pull the two sections together so that they can be joined by a hinge rod to form an endless belt.

A method for closing modular belts and a belt closer having two clamps for clamping to a side edge of a modular flat-top conveyor belt. A ratchet strap or other pulling tool is connected between the two clamps of the belt closer. Once the clamps are clamped to unconnected end sections of a belt, the ratchet strap is used to pull the two sections together so that they can be joined by a hinge rod to form an endless belt.

A transmission belt includes a belt body, two spaced-apart mounting axles and a reinforcing unit. The belt body forms a loop that defines an inner space. The mounting axles and the reinforcing unit are embedded in the belt body. The reinforcing unit includes at least one cord that includes a plurality of winding segments and a plurality of connecting segments. The winding segments alternately extend around the mounting axles. Each of the connecting segments interconnects a corresponding pair of the winding segments that respectively extend around the mounting axles.

A transmission belt includes a belt body, two spaced-apart mounting axles and a reinforcing unit. The belt body forms a loop that defines an inner space. The mounting axles and the reinforcing unit are embedded in the belt body. The reinforcing unit includes at least one cord that includes a plurality of winding segments and a plurality of connecting segments. The winding segments alternately extend around the mounting axles. Each of the connecting segments interconnects a corresponding pair of the winding segments that respectively extend around the mounting axles.

A method for pulling a modular conveyor belt and a belt puller for performing the method. The belt puller has eyelets on one end that interleave with hinge elements on an end of a modular conveyor belt. A rod through the eyelets and the hinge elements connects the belt to the puller, which can then be used to pull the belt. Two ends of an unconnected belt can be pulled together by connecting a belt puller to each end, joining the belt pullers with a ratchet strap or other pulling tool, and tightening the strap to pull the ends together.