A lift gate apparatus includes a movable conveyor device and a bracket. The movable conveyor device is configured to transition between a conveying position and a non-conveying position. The bracket configured to bridge a gap between the movable convey or device and a fixed conveyor device, wherein the bracket pivots and slides over the fixed conveyor device when the movable conveyor device is transitioned from the conveying position to the non-conveying position.

Systems and methods are provided for conveyor operation and maintenance that employ one or both of a “smart shoe” technology where one or more conveyor shoes incorporate features, such as an RFID tag, and a “missing pin detection” technology where one or more pin components of conveyor shoes incorporate features, such as an RFID tag, allowing selective wireless tracking and identification capability. A conveyor system comprises a shoe management system allowing interactions directly with one or more RFID readers, which can detect, store and/or monitor information associated with “smart shoe” and/or “missing pin detection” RFID tags, where interface between this application and the reader can be implemented via a socket interface. An open platform communications (OPC) wrapper can be created around the interface so that a Human Machine Interface (HMI) could interact directly with shoe management system.

Systems and methods are provided for conveyor operation and maintenance that employ one or both of a “smart shoe” technology where one or more conveyor shoes incorporate features, such as an RFID tag, and a “missing pin detection” technology where one or more pin components of conveyor shoes incorporate features, such as an RFID tag, allowing selective wireless tracking and identification capability. A conveyor system comprises a shoe management system allowing interactions directly with one or more RFID readers, which can detect, store and/or monitor information associated with “smart shoe” and/or “missing pin detection” RFID tags, where interface between this application and the reader can be implemented via a socket interface. An open platform communications (OPC) wrapper can be created around the interface so that a Human Machine Interface (HMI) could interact directly with shoe management system.

An apparatus (10) adapted to lift a conveyor belt (12) relative to a supporting structure (14). The apparatus (10) includes a cradle (16) adapted to support the conveyor belt (12), a base arrangement (17) adapted to locate with the supporting structure (14) and a lifting mechanism (20) operatively coupled between the base arrangement (17) and the cradle (16) so that the conveyor belt is elevatable in a supported condition. The apparatus including a load sensor arrangement (22) configured to measure a load carried by the apparatus associated with lifting the belt. A system (100) including the apparatus (10) and method are also disclosed

The invention relates to idler diagnosis systems on conveyors, comprising a rail system as a track for suitable running gears and the running gear, the rail system being formed from a closed profile or tube. The rail system comprises a multi-part track holder arranged on the belt frame, a fixing rod and a running rail, the track holder being suitable for accommodating the running rail at at least one end by insertion, thus creating a track without cross-section differences. The running gear has at least one two-roller system as a guide and drive system, and at least one chassis that accommodates and connects the two roller systems and has connection options for sensor-system carriers and/or energy control module. The guide system encloses the track so only one movement (forwards/backwards) along the track is provided. The drive system moves the chassis and all the connected systems with respect to the track.

A thermal processing apparatus (20) includes a spiral conveyor system (22) configured into an ascending spiral stack (26). An inner mezzanine (40) is disposed within the circular interior of the stack (26) and an exterior mezzanine (42) encircles the spiral stack. The mezzanines divide the processing chamber (32) into a plurality of processing zones. A sealing system (90) seals the interior mezzanine (40) relative to the spiral stack (26). A sealing system (130) seals the outer mezzanine (42) relative to the exterior of the spiral stack, and a seal system (132) seals the outer mezzanine relative to the walls (56, 58) of the housing, thereby to limit the leakage of the processing fluid between the mezzanines and the spiral stack (26) and housing walls so that as much as the thermal processing medium is possible is forced through the spiral stack for processing work products carried on the conveyor system (22).

According to an embodiment, a conveyance apparatus includes an upstream-side conveyance portion and a downstream-side conveyance portion. The upstream-side conveyance portion is configured to convey a test object from a conveyance direction deviating with respect to a conveyance direction of a conveyance path of a radiation inspection apparatus to the conveyance path. The radiation inspection apparatus is configured to irradiate the test object with radiation to inspect the test object. The downstream-side conveyance portion is configured to convey the test object from the conveyance path in a conveyance direction deviating with respect to the conveyance direction of the conveyance path. The upstream-side conveyance portion and the downstream-side conveyance portion respectively include a shielding section that is on an extension line of the conveyance direction of the conveyance path and is configured to block the radiation.

According to an embodiment, a conveyance apparatus includes an upstream-side conveyance portion and a downstream-side conveyance portion. The upstream-side conveyance portion is configured to convey a test object from a conveyance direction deviating with respect to a conveyance direction of a conveyance path of a radiation inspection apparatus to the conveyance path. The radiation inspection apparatus is configured to irradiate the test object with radiation to inspect the test object. The downstream-side conveyance portion is configured to convey the test object from the conveyance path in a conveyance direction deviating with respect to the conveyance direction of the conveyance path. The upstream-side conveyance portion and the downstream-side conveyance portion respectively include a shielding section that is on an extension line of the conveyance direction of the conveyance path and is configured to block the radiation.

A conveyor device, comprising a) a plurality of rack elements arranged in a first row to define a first conveyor track. The conveyor device also comprises b) a plurality of rack elements arranged in a second row to define a second conveyor track. The conveyor device includes c) a robot unit with a traction device and a driving device, wherein said traction device is adapted to move said robot unit along said first or said second conveying direction and said driving device is adapted to engage said coupling interface of said movable carrier device to drive said movable carrier device. The conveyor device also includes d) a cross traverse rack element adapted to take up said robot unit, wherein said cross traverse rack element comprises a traverse movable load carrying device having an upper traverse load surface adapted to take up an object and a traverse coupling interface.

The invention relates to a rail system as a track for suitable running gears and also to the running gear for a carrier roller diagnostic system, wherein the rail system is formed from a closed profile or tube. The rail system according to the invention comprises at least one running rail (2), a multi-part track holder (1) and a holding element (14) which is arranged with a first region (A) in a running rail support (13) of the track holder (1) and is arranged with a second region (B) in the running rail (2) when the running rail (2) and the running rail support (13) are connected to one another in the longitudinal direction, wherein the second region (B) of the holding element (14) is arranged in a passage opening (21) of the running rail (2) or projects through it. The running gear (3) according to the invention has at least one two-roller system as a guide and drive system, and at least one chassis which receives and connects both roller systems, has connection options for sensor system carriers and/or the energy control module. The guide system is formed such that it surrounds the geometry of the track in such a way that it limits the kinematic degrees of freedom to one and, if necessary, omits the holding of the track. Thus, only one movement (forward/back) along the track is provided. The drive system is designed to move the chassis and all connected systems relative to the track.