Abstract: A conveyor system for translating objects is disclosed, each object with vertical protrusions extending upward and/or downward from one or more sides of the object. The conveyor system can accommodate structural members such as roof truss members, on which connector plates are affixed and from which the connector plates protrude vertically up, down, or both. The conveyor system may have a slide or some other support for the objects. The slide or other support may be narrow. The slide or other support can be tall, relative to an object. The conveyor system may have an engagement tool driven by an overhead carriage to translate the objects along the slide or other support. The engagement tool may be narrow. The engagement tool can be tall, relative to an object.

Abstract: A device for dispensing directional objects is comprised of: a case for housing the objects in a horizontal direction; a shutter covering the case and capable of leaving a window; a pivot pivotally supporting the case to allow the case to swing around the pivot; a conveyor including a plurality of slots respectively holding the objects in the horizontal direction and being disposed to receive the objects dropped through the window into the slots; a guide including a bottom end and a slit opened upward to receive the objects dropped from the conveyor and gravitationally feed the objects toward the bottom; and a dropper coupled with the bottom end of the guide, where the objects are dispensed with the tip ends thereof directed downward.

Abstract: The present invention relates to a method for returning empties, in particular bottles and cans, having a bulk input, in which the empties (10) are moved from an input space (8) past a detection unit (14) by a conveyor device (1) rotating about the longitudinal axis thereof, and further having a conveyor device for implementing said method, comprising a plurality followers mounted transversely to the direction of conveyance and spaced a distance apart. An increased throughput is to be achieved with such a method and such a conveyor device. This is achieved in that the empties (10) are parallelized out of the input space (8) by the conveyor device (1) and fed to the detection unit (14) in a field array, or in that each follower (4) is designed to be wide enough to hold at least two empties (10) side by side, and that an angular momentum is applied to the empties (10) at least in the detection field (15) of the detection unit (14).

Abstract: A vibration feeding apparatus comprises an alignment track that is operative to receive electronic components and to arrange the electronic components in a desired orientation by vibrating and accelerating the electronic components located on the alignment track. An inspection station rejects electronic components that are not in the desired orientation onto a reject track for reintroduction to the alignment track. A spreading unit adjacent to the alignment track then transfers rejected electronic components from the reject track to the alignment track for arranging the electronic components in the desired orientation.

Abstract: There is described an apparatus for loading test tubes (1) in conveying devices (6) included in an automatic conveyor (7) for test tubes, comprising a recruiting device (2) for test tubes adapted to feed test tubes to a positioning device (4) for test tubes having a lane (15, 16) consisting of two spaced, parallel walls (17) on the edges of which respective motorized belts (18) slide, the distance between said walls (17) forming the lane (15) being adjustable and such that a test tube makes a 90° rotation when horizontally falling from the recruiting device (2), thus remaining vertically hanging and resting on the belts (18) by the projecting part of the cap with respect to the lateral body of the test tube. The belts (18) convey the test tube to a loading area (8) where the test tubes are handled by a test tube handling device (5) to a working point (9) included in the conveyor (7) adapted to automatically convey test tubes from and to modules for preparing and analyzing biological material.

Abstract: A passing apparatus for a workpiece associated with an absorbent article receives a first sheet-like workpiece at a receiving position, changes a longitudinal direction of the first sheet-like workpiece to a direction that intersects the longitudinal direction at the time the first sheet-like workpiece is received, and discharges the first sheet-like workpiece with the changed longitudinal direction at a discharge position. The passing apparatus includes: a plurality of holding pads each having a plane section to be in contact with and for holding the first sheet-like workpiece, a revolution mechanism for causing the holding pads to revolve about a revolution axis normal to the plane section, and a spin mechanism for causing the holding pad to spin about a spin axis normal to the plane section. On an orbit of the holding pad determined by the revolution mechanism, the receiving position and the discharge position are set.

Abstract: Provided is a medium transferring apparatus, which comprises a plurality of side guides, one or more transfer rollers, and one or more aligning rollers. The side guides constitute both side surfaces of a medium transferring path. The transfer rollers are rotatable between the side guides, and transfer a medium in a medium transferring direction. The aligning rollers align the medium in a direction inclined from the medium transferring direction.

Abstract: A method for sorting and/or orienting caps using an automated capping line can comprise providing a single cap to a cap-receiving cavity defined in a body of a puck. In various embodiments, the body can be vibrated to settle and/or orient the cap to a properly oriented position within the cap-receiving cavity. In at least one embodiment, the vibrating can include applying horizontal vibration and/or vertical vibration to the body. As a result, the properly oriented caps can be conveyed to a capping machine configured to apply each cap to a cap-receiving portion of a container.

Abstract: A handling system for multiple workpieces is provided for repeatedly lifting rows of multiple workpieces on a lift assembly from a collection of workpieces in a hopper and selectively delivering one or more rows of orientated workpieces to an exit conveyor. Any disoriented workpieces on the exit conveyor can be discarded from the exit conveyor and returned to the collection of workpieces in the hopper.

Abstract: Device for separation and position alignment of metallic container closures (21), as well as for conveying the separated and position-aligned container closures (21), preferably crown corks, to a further processing machine, preferably sealing machine. It is provided that a conveying unit (2) comprises a run (2b) of an endless conveyor belt or link belt or plate belt, which conveys the container closures (21), which run is guided along a permanently magnetic or electromagnetic conveyor track configured as a magnetic bar, lying on this track at least in sections, or at a slight distance from it, and conveys the container closures (21) out of the transfer station (8).

Abstract: A method for sorting and/or orienting caps using an automated capping line can comprise providing a single cap to a cap-receiving cavity defined in a body of a puck. In various embodiments, the body can be vibrated to settle and/or orient the cap to a properly oriented position within the cap-receiving cavity. In at least one embodiment, the vibrating can include applying horizontal vibration and/or vertical vibration to the body. As a result, the properly oriented caps can be conveyed to a capping machine configured to apply each cap to a cap-receiving portion of a container.

Abstract: Apparatus for processing generally elongate curved products having two ends and having a longitudinal axis extending in the elongate direction, in particular vegetables or fruit, for instance cucumbers, the processing comprising in succession at least: conveying the products with an endless conveyor in a conveying direction T in a substantially horizontal plane, the products positioned with their longitudinal axis substantially perpendicular to the conveying direction T; orienting these products with an orienting unit, and taking up the oriented products with a take-up unit for a further handling; wherein the orienting unit comprises two supporting points for each product, with at least one supporting point situated at some distance from an end of the product, wherein the orienting unit is configured for orienting during conveying, and wherein the products upon orienting rotate substantially about their longitudinal axis.

Abstract: A handling system for multiple workpieces is provided for repeatedly lifting rows of multiple workpieces on a lift assembly from a collection of workpieces in a hopper and selectively delivering one or more rows of orientated workpieces to an exit conveyor. Any disoriented workpieces on the exit conveyor can be discarded from the exit conveyor and returned to the collection of workpieces in the hopper.

Abstract: A cap sorter for lifting and orienting caps includes a hopper section for holding randomly oriented caps. A conveyor belt travels along a belt path that extends through the hopper section. The belt path extending from the hopper section and moving upward therefrom. A plurality of spaced apart cleat attachment locations are located along a length of the conveyor belt, each cleat attachment location formed by a plurality of button members extending from an outer surface of the conveyor belt. Each button member includes an enlarged head portion. Each cleat attachment location has a cleat attached thereto with each cleat having a plurality of slots for matingly engaging with a corresponding one of the button members to removably hold the cleat to the conveyor belt when the enlarged head of the button member is located at a securing location of its corresponding slot.

Abstract: A method and apparatus for processing and inspecting pellet-shaped articles, comprises structure for of the step of conveying the plurality of pellet-shaped articles along a transport path. Each of the pellet-shaped articles includes a first side and a second side. The conveyer has a plurality of article receiving recesses (125) configured to convey the pellet-shaped articles such that either the first side or the second side of the pellet-shaped articles is randomly exposed in the recesses. A first process (laser etching, printing and/or drilling) is performed only on the pellet-shaped articles having the first side exposed. The pellet-shaped articles are manipulated such that the exposed side of all of the pellet-shaped articles is reversed. A second process is performed only on the pellet-shaped articles with the second side exposed.

Abstract: A conveyor system including a plurality of conveyor assemblies linearly arranged to move product from one conveyor assembly to the next conveyor assembly through to a point of discharge and each conveyor assembly having a pair of conveyors arranged in a V-shape, each conveyor assembly having an upstream end and a downstream end, each downstream end being positioned above the upstream end of any next adjacent conveyor assembly.

Abstract: A conveyor apparatus for conveying and orienting multi-diameter plastic closures includes a conveyor belt having a plurality of conveyor flights each having a channel configuration. Each conveyor flight includes a pair of spaced apart sidewalls which are spaced apart by a distance greater than a portion of the associated closure having a smaller diameter, but by a distance less than a larger diameter of the associated closure. By this arrangement, whereby each conveyor flight is engageable with each of the closures at generally diametrically opposed portions thereof, efficient and consistent handling and orientation of multi-diameter closures is facilitated.

Abstract: A method and apparatus for selectively orienting an article (28) can include a selective indexing of a movable carriage (94) between a first carriage position and at least a second carriage position, thereby providing a selected face-alignment of a datum surface (74) of the article. In particular aspects, the first carriage position can be configured to provide for a first, twist displacement of the article, and the second carriage position can be configured to provide for a second, twist displacement of the article with the second twist displacement directionally opposite to the first twist displacement. In another aspect, the movable carriage can include an indexing wheel (120). In a further aspect, at least one set of twist-belts (66) can be connected to the carriage (94).

Abstract: A specimen-conveying conveyor includes a holding roller mechanism including a roller unit having a plurality of holding rollers, which are arranged in a horizontal direction so as to form a valley region in which a test tube is laid down and held, along a conveyance path, a rotation driving mechanism which simultaneously rotates the holding rollers of the roller unit of the holding roller mechanism in a first direction and thus rotates the test tube laid down and held in the valley region in a second direction opposite to the first direction, and a slide driving mechanism which slides the test tube laid down and held in the valley region in a direction along an axis of each of the holding rollers.

Abstract: A patterning apparatus for advancing packaged baked goods such as loaves of bread, and positioning the packages for precise loading into delivery containers includes an endless conveyor having a horizontally disposed upper flight and a series of turner assemblies spaced along the conveyor. Each turner assembly, when on the upper flight, receives one or more packages, which rest by gravity effect on the turner assembly. The turner assemblies are adapted to rotate the received package in a horizontal plane while also achieving longitudinal conveyance in the direction of motion of the upper flight, and lateral movement transversely to the longitudinal direction.

Abstract: A method and a device are disclosed for stacking unpacked processed cheese slices. Single stacks consisting of a plurality of superimposed processed cheese slices are continuously supplied by a transportation device to a first turning station. At the first turning station, the single stacks are individually rotated through 90° in the direction of transportation. These rotated single stacks subsequently are supplied to a second turning station. At the second turning station, two or more single stacks are arranged behind one another in a row and then are rotated together through 90° in the direction of transportation. Thus, the two or more single stacks come to rest on top of one another and form a multiple stack of processed cheese slices.

Abstract: A parts feeder for an automated robotic selection system has a hopper with an integral hopper conveyor for transporting parts to a chute integral with a frame. A feed conveyor transports parts from the chute to a tilting pan which alternately dumps parts received from the feed conveyor to first and second return conveyors. The first and second return conveyors alternately move the parts into the operating range of a robotic arm whereupon the robotic arm selects and picks a part to be reoriented as desired. Parts not picked by the robotic arm are recycled back to the chute where they will be thereafter transported by the feed conveyor to the parts pan. A parts sensor is provided to detect the quantity of parts held within the chute to determine if more parts need to be supplied from the hopper to the parts feeder.

Abstract: A board unscrambler for lumber processing provides an upwardly and forwardly extending S-shaped curvilinear conveyor with a rearward horizontal portion to receive an agglomeration of scrambled boards, a medial uprising portion to unscramble and align the boards and a forward portion to deliver the boards at an elevated position. The conveyor provides at least two spaced link chains and interconnecting bars that are carried on an S-shaped conveyor support surface defining spaced parallel open top channels where each link chain is supported and maintained by synchronously driving both the lower rearward input portions of the chains to push the lower chain portions and the upper output portions to pull the upper chain portions to maintain the chains in the channels without vertical restraints. The unscrambled boards are delivered in an aligned single layer from the forward elevated portion of the conveyor.

Abstract: In a method for automated grouping of objects, the objects are randomly placed onto a conveyor belt and transported in a steady conveying flow to a grouping device. A recognition device determines a location and a position of the objects transported on the conveyor belt before reaching the grouping device and communicates the location and the position of the objects to a control unit. The control unit evaluates the random ordered state of the objects on the conveyor belt based on the location and the position of the objects. The control unit determines, based on the evaluation result of the evaluating step, sorting positions on the conveyor belt. The handling device groups, taking into account the belt speed, the objects in a group on each one of the determined sorting positions on the conveyor belt. The groups of objects are then further transported on the conveyor belt.

Abstract: An orientation apparatus (10) includes a pair of conveyor chains (21a,21b) with pins (22) on alternate links for moving a component tube (40) to a lift station (26,27) where the component tube (40) is rotated until it is in a desired orientation. The component tube (40) is rotated by rollers (30,33) until an index tab (28a) falls into an opening (40a)in the component tube (40), stopping its rotation. The component tube (40) is then lowered onto the conveyor chains (21a,21b) and moved to the end of the apparatus where is it removed from the orientation apparatus. A component tube chamber (50) located above the conveyor chains drops one component tube (40) at a time, utilizing two singulators (58,59), onto the conveyor chains (21a,21b).