Abstract: A system for wirelessly transmitting power between a track and independent movers in a motion control system includes a pick-up coil provided proximate to the magnets on the movers. The fundamental component of the voltage applied to the drive coils interacts primarily with the magnetic field generated by the permanent magnets on the movers and not with the pick-up coil. Consequently, the pick-up coil does not interfere with desired operation of the movers but rather, interacts primarily with the harmonic components and has current and voltages induced within the pick-up coil as a result of the harmonic components. The energy captured by the pick-up coil reduces the amplitude of eddy currents on the mover. After harvesting the harmonic content, the pick-up coil may be connected to another circuit on the mover and serve as a supply voltage for the other circuit.

Abstract: A method for retrieving an inventory item based on a handling robot, where the handling robot includes: a storage frame; and a material handling device installed on the storage frame, and including a telescopic arm and a manipulator installed to the telescopic arm; and the method for retrieving an inventory item includes: driving, by the telescopic arm, the manipulator to extend to a preset position of warehouse shelf along a preset horizontal reference line; loading, by the manipulator that is remained on the reference line, the inventory item located in the preset position; driving, by the telescopic arm, the manipulator loaded with the inventory item to move to the storage frame along the reference line; and unloading, by the manipulator that is remained on the reference line, the inventory item to the storage frame.

Abstract: A method for retrieving an inventory item based on a handling robot, where the handling robot includes: a storage frame; and a material handling device installed on the storage frame, and including a telescopic arm and a manipulator installed to the telescopic arm; and the method for retrieving an inventory item includes: driving, by the telescopic arm, the manipulator to extend to a preset position of warehouse shelf along a preset horizontal reference line; loading, by the manipulator that is remained on the reference line, the inventory item located in the preset position; driving, by the telescopic arm, the manipulator loaded with the inventory item to move to the storage frame along the reference line; and unloading, by the manipulator that is remained on the reference line, the inventory item to the storage frame.

Abstract: Horizontal motion conveyors for moving material and methods for reversing such horizontal motion conveyors are disclosed. In some embodiments, the horizontal motion conveyor includes a motor such as a servomotor that is connected to the driveshaft that drives the horizontal motion of the conveyor. In some embodiments, the speed profile of the pan may be changed to reverse direction of the flow of material on the pan without slowing or stopping the drive motor.

Abstract: A translation movement device includes a guide, a long slider guided by the guide, and a belt driver displacing the slider; and the belt driver includes an open belt arranged parallel to the slider, a drive pulley for the open belt, and a tension bar arranged parallel to the open belt; and the tension bar is connected to the long slider at a middle position between two belt holders that hold respective end portions of the open belt.

Abstract: A linear elastic modulus measurement method and a linear elastic modulus measurement device can reduce external disturbances such as oscillation and electrical noise, and accurately and stably measure the linear elastic modulus of a linear elastic body even in the case where damping due to viscous stress is large. The measurement device computes the oscillation velocity (dx/dt) of an oscillator from the displacement of the oscillator brought into contact with the linear elastic body, and multiplies dx/dt by a linear velocity feedback gain to generate a feedback control signal. The measurement device applies, to the oscillator, a force proportional to the oscillation velocity of the oscillator by the feedback control signal, to cause the oscillator to self-oscillate. The measurement device computes the linear elastic modulus of the linear elastic body from the frequency when the self-oscillation of the oscillator is detected and the mass of the oscillator.

Abstract: A roll-formed steel slat for use in a reciprocating floor slat conveyor system. The roll-formed steel slat is formed in a manner so as to have an upper, load-carrying surface, and a pair of downwardly depending side legs. Each side leg terminates in a foot. One foot is vertically offset from the other to provide a “hold-down” function that prevents the slat from vertically rising as the slat reciprocates back-and-forth.

Abstract: A method for transporting harvested crops from a field includes the step of providing a conveyor belt disposed adjacent a plurality of crops (such as alongside a row of crops or in-between rows). The conveyor belt has a spool attached thereto about which the conveyor belt can be wound. A winder is provided and has an attachment for receiving the spool. The spool is attached to the winder and, when crops being harvested are disposed on the conveyor belt, the winder is used to wind the conveyor belt around the spool, thereby transporting crops to the winder.

Abstract: Noise produced during phase-difference changes is minimized without decreasing the responsiveness of a vibration-wave motor. A lens-side MCU for a lens barrel controls a drive apparatus that applies a drive voltage to the vibration-wave motor by outputting an A-phase drive signal and a B-phase drive signal thereto. The lens-side MCU uses, for example, a drive-voltage setting unit and a duty-cycle change unit to change the drive voltage. Also, the lens-side MCU is provided with a phase-difference change unit that changes the phase difference between the A-phase drive signal and the B-phase drive signal. When driving the vibration-wave motor, the lens-side MCU changes the drive voltage to Vreg, and when the phase-difference change unit is changing the aforementioned phase difference, the drive voltage is changed to V1, V1 being greater than zero and less than Vreg.

Abstract: A linear motion conveyor is described and which includes an elongated conveyor bed having a product transporting surface for supporting and transporting a product between the opposite first and second ends thereof, and a drive assembly oriented in force transmitting relation relative to the elongated conveyor bed, and where the elongated conveyor bed, when reciprocated by the drive assembly is operable to move product alternatively between the opposite ends of the product elongated conveyor bed in a first direction; a second direction; and which is further rendered operable to substantially stop the movement of the product located between the opposite ends of the elongated conveyor bed.

Abstract: A linear motion conveyor is described and which includes an elongated conveyor bed having a product transporting surface for supporting and transporting a product between the opposite first and second ends thereof, and a drive assembly oriented in force transmitting relation relative to the elongated conveyor bed, and where the elongated conveyor bed, when reciprocated by the drive assembly is operable to move product alternatively between the opposite ends of the product elongated conveyor bed in a first direction; a second direction; and which is further rendered operable to substantially stop the movement of the product located between the opposite ends of the elongated conveyor bed.

Abstract: A board working system includes a board working apparatus working on a board and a board conveying apparatus including a first board conveying portion, connected to the board working apparatus. The board conveying apparatus is provided with a shutter device closing such that the maximum interval of an opening gap leading from the first board conveying portion to the board working apparatus is not more than a prescribed value when setup for the first board conveying portion is performed.

Abstract: A cover for a linear conveyer. The linear conveyer including a stationary module having a rail extending linearly and a stator including armature coils that is fixed to the rail, and a slider including a mover component having magnetic poles arranged linearly and a rail guide that is fitted on the rail. The slider sliding from an end surface of the rail along an elongated direction of the rail to be arranged on the rail and moving on the rail by a linear motor. The cover is attached to the slider to cover a magnetic pole face of the mover component of the slider. The cover has a thickness so as to come in contact with an end portion of the stationary module when the slider is mounted on the rail. The cover is detached from the slider by the contact with the end portion of the stationary module.

Abstract: A work piece conveying apparatus capable of conveying plural work pieces with differing transport pitches to each other. The work piece conveying apparatus includes a drive motor that includes an output shaft, plural drive pulleys that are fixed to the output shaft and have different diameters to each other, plural timing belts that are respectively entrained around the plural drive pulleys, and plural coupling plates that are respectively fixed to the timing belts and that move reciprocating with different transport pitches to each other accompanying forward and reverse rotation of the output shaft, and cause to convey work pieces.

Abstract: A linear motion conveyor is described and which includes an elongated conveyor bed having a product transporting surface for supporting and transporting a product between the opposite first and second ends thereof, and a drive assembly oriented in force transmitting relation relative to the elongated conveyor bed, and where the elongated conveyor bed, when reciprocated by the drive assembly is operable to move product alternatively between the opposite ends of the product elongated conveyor bed in a first direction; a second direction; and which is further rendered operable to substantially stop the movement of the product located between the opposite ends of the elongated conveyor bed.

Abstract: A slip conveyor assembly 10 is disclosed. The assembly 10 includes six slip conveyors 11 to 16 being arranged in series. Each of the conveyors 11 to 16 includes a tray 18 of “U” transverse cross-section. Each tray 18 is operated by a drive assembly 19 that horizontally reciprocates (oscillates) the associated tray 18 to cause product to advance along the assembly 10. Adjacent trays 18 may be displaced so that there is a gap between adjacent trays through which product may be delivered.

Abstract: Disclosed are a moving rail assembly and a bill receiving and dispensing apparatus which are configured such that an angle at which a carriage unit moves along a rail can be adjusted to various angles. The moving rail assembly includes a moving body, a main rail and a sub-rail. The moving body includes a main rotating roller and a sub-rotating roller disposed at a different widthwise position from the main rotating roller. The main rail has a first path for guiding the main rotating roller, and a second path for guiding the sub-rotating roller. The first path and the second path extend parallel to each other. The sub-rail branches off from the second path and extends in a different direction from the main rail. The sub-rail guides the sub-rotating roller.

Abstract: A shaker conveyor assembly including a housing, a drive system supported by the housing and at least one transport tray supported by the housing and operatively connected to the drive system. The drive system includes an electric motor that produces a rotary output. A cam assembly is operatively connected in driven relationship to the rotary output of the electric motor so as to rotate therewith. A cam follower assembly is operatively connected to the transport tray and is responsive to the rotation of the cam assembly to produce repeated, reciprocating, linear motion and to transmit this motion to the transport tray so as to convey items therealong.

Abstract: A conveyor apparatus including a control module, an unwinding module, at least one tension sensing module, and a rewinding module is provided. The tension sensing module includes a load cell disposed between a set of rollers. An objet is conveyed along a conveying direction perpendicular to an axis of the roller. A wrap angle is formed by the object and the roller with a fulcrum of the loadi cell served as a center, and the wrap angle is less than 180°. The rewinding and unwinding modules have different actuating units electrically connected to the control module respectively, such that the object is wound or unwound by the rewinding and the unwinding modules.

Abstract: The object is to provide an article transporting device in which dust generation can be prevented and in which it is hard for the operator at the operator's transfer location to be injured. The device comprises a reciprocating movable body configured to move in a forward and backward directions on a travel path extending between an operator's transfer location P and a non-operator's transfer location Q, a cover body 22 which partially covers an area above the reciprocating movable body which travels over an entire length of the travel path, an article support 20 connected to the reciprocating movable body by a connecting portion which extends upwardly from the reciprocating movable body and vertically through the slit 24 provided to the cover body, the article support being configured to move above the cover body along a direction of the travel path. The slit is formed such that the connecting portion remains out of contact with the cover body, when the reciprocating movable body moves along the travel path.

Abstract: An apparatus includes a chamber configured to form a reduced-pressure space, a carrier which holds a substrate, and a conveyer which conveys the carrier in the chamber. The chamber includes a side wall including an opening portion, and a partition wall arranged in the opening portion, the conveyer includes a permanent magnet provided on the carrier, and a driving magnet arranged outside the partition wall so as to drive the carrier, and the partition wall includes a first portion arranged between the driving magnet and a path through which the carrier passes, and a second portion arranged to connect the first portion to the side wall, the first portion having a smooth surface in a portion in which the first portion faces the path, and the first portion including a plurality of ribs arranged on a surface thereof on a side on which the driving magnet is arranged.

Abstract: A device for delivering a conveying truck into a screw driving area has a truck delivery screw and a truck propulsion screw which are connected in tandem via a single position electromagnetic clutch and both the screws are configured to rotate in the same phase in the transmission state of the electromagnetic clutch. Two front and back driven rollers are pivotally connected to a conveying truck at an interval at which the driven rollers can engage both screws. A truck delivery mechanism is provided for delivering the conveying truck in the disengaged state of the electromagnetic clutch while rotating the truck delivery screw by the front-side driven roller until the roller arrives at a fixed position in the truck delivery screw.

Abstract: A feeding device is used for hanging a workpiece on a fixture. The fixture includes two elastic portions. The feeding device includes a base for carrying the workpiece, a mounting seat, a driving member for driving the mounting seat, a guiding assembly, and a driving mechanism mounted on the mounting seat and connected to the guiding assembly for driving the guiding assembly. The guiding assembly passes through the base, and includes first and second guiding members. The driving member is capable of driving the first and second guiding members in the workpiece. The driving mechanism is capable of driving the first and second guiding members move away from each other to a position adjacent the inner walls of the workpiece, and the elastic portions resist against the inner walls of the workpiece, such that the workpiece is hung on the fixture.

Abstract: To provide a conveying apparatus that includes: a fixed section; a movable section movable with respect to the fixed section; and a pair of linear motors each located so as to be partially included in the fixed section and the movable section. Each linear motor includes a primary magnetic pole section and a secondary magnetic pole section, and these pole sections are arranged to face each other so as to enable the movable section to move with respect to the fixed section. The movable section includes a movable body capable of conveying a conveyed object, and one of the magnetic pole sections of each linear motor. Each linear motor is located at each of opposite ends of the movable body in a width direction that is orthogonal to a moving direction, and the fixed section includes the other of the magnetic pole sections.

Abstract: A device for exchanging and for preventing the bending of the pushing-in bar (27) having two pivoting arms (15) which are pivotably mounted on a support (9) and can be pivoted by a drive pinion (21). Supporting legs (25) which support the pushing-in bar (27) are fastened to the pivoting levers with the aid of a fastening element (29). One of the fastening elements (29) is fixedly connected to one of the supporting legs (25); the second fastening element (29) carries the pushing-in bar (27) without securing it in the longitudinal direction.

Abstract: A conveying device includes a base, a sliding mechanism and a bearing mechanism. The base includes a mounting plate and a fixed bracket fixed on the mounting plate. The sliding mechanism includes a bottom plate slidably mounted on the mounting plate, a mounting platform fixedly mounted upon the bottom plate, a conveying assembly and a driver. The conveying assembly includes a driving wheel, a driven member and a conveying belt sleeved on the driving wheel and the driven member. The driver is mounted on the bottom plate and connected with the driving wheel. The bearing mechanism is slidably mounted on the mounting platform, and fixed with the conveying belt. The driving wheel and the driven member are oppositely and rotatably mounted on the bottom plate, the fixed bracket is positioned adjacent to the driven member and fixed with the conveying belt.

Abstract: An oscillating conveyor includes a support, a conveying element arranged to carry objects to be moved and supported by the support in order to be displaced between a first extreme position and a second extreme position, and a driving device to displace the conveying element. The driving device includes a crank mechanism, which includes a pendulum pin, which in relation to a rotational axis of the crank mechanism is mounted such that, when the crank rotates, at the pendulum pin an angle between the axis of rotation and a first pivot pin varies within an angular range being either obtuse or acute, resulting in the desired displacement of the conveying element at different speeds, the position of the pendulum pin in relation to the rotational axis being adjustable to vary the displacement speed of the conveyor element.

Abstract: Disclosed is a device and method for automated beverage dispensing, for staging beverages, and a cup carrier. Based on beverage orders, a cup picker having a telescoping mast picks a cup and places it on a cup carrier typically having a plurality of slots in its base. The cup carrier moves the cup to an ice dispenser, to a beverage dispenser, and typically to one of a couple transfer locations. From the transfer location, the cup is moved down a lane to a staging position. The identity of staged beverages is displayed on a human-readable display.

Abstract: A differential impulse conveyor (10) is provided for moving goods, including a tray (12) having a tray floor (14) supporting goods, with the tray movable in a forward direction and a backward direction. A drive motor (16) is provided for moving the tray floor in the forward direction and the backward direction. The tray floor includes plurality of dimples (20) each projecting upward from an adjacent product supporting surface (22) of the tray floor. Each dimple (20) includes an upwardly projecting pusher portion (24) for pushing goods forward during the forward movement of the tray, and a tapered ramp portion (26) extending upward from the product supporting surface and engaging the pusher portion for moving goods in front of the pusher portion.

Abstract: A conveying device includes a base, a sliding mechanism and a bearing mechanism. The base includes a mounting plate and a fixed bracket fixed on the mounting plate. The sliding mechanism includes a bottom plate slidably mounted on the mounting plate, a mounting platform fixedly mounted upon the bottom plate, a conveying assembly and a driver. The conveying assembly includes a driving wheel, a driven member and a conveying belt sleeved on the driving wheel and the driven member. The driver is mounted on the bottom plate and connected with the driving wheel. The bearing mechanism is slidably mounted on the mounting platform, and fixed with the conveying belt. The driving wheel and the driven member are oppositely and rotatably mounted on the bottom plate, the fixed bracket is positioned adjacent to the driven member and fixed with the conveying belt.

Abstract: A differential impulse conveyor (10) is provided for moving goods, including a tray (12) having a tray floor (14) supporting goods, with the tray movable in a forward direction and a backward direction. A drive motor (16) is provided for moving the tray floor in the forward direction and the backward direction. The tray floor includes plurality of dimples (20) each projecting upward from an adjacent product supporting surface (22) of the tray floor. Each dimple (20) includes an upwardly projecting pusher portion (24) for pushing goods forward during the forward movement of the tray, and a tapered ramp portion (26) extending upward from the product supporting surface and engaging the pusher portion for moving goods in front of the pusher portion.

Abstract: A door transportation method in a vehicle body assembly line, in which the vehicle body is placed and transported on a vehicle body transportation carriage of a floor conveyer, and thereby components are assembled to the vehicle body, includes: placing and transporting the door, which is detached from the vehicle body, on a door placing section arranged on a base stand of the vehicle body transportation carriage.

Abstract: Method and apparatus for imparting movement to one or more articles includes placing the one or more articles on a surface of a support member and imparting vibratory motion to the support member by vibrating actutators connected to the support member wherein the vibratory motion includes at least a rotational vibratory component about one or more axes out-of-alignment with the gravity vector to produce effective force fields on the surface.

Abstract: Scrap metal pieces are conveyed from a mechanical press by a shaker conveyor having horizontal and parallel spaced elongated trays supported for reciprocating movement by an elongated carriage positioned above a compact drive unit attached to and supported by the press. The drive unit includes an electric motor connected to rotate an elliptical input gear on an eccentric axis and in continuous mesh with an elliptical output gear eccentrically connected to an output shaft. A rocker arm and link assembly is eccentrically connected to the output shaft and oscillates a shaft connected to the carriage by one or more rocker arm and link assemblies for reciprocating the trays with rapid acceleration and rapid deceleration. The elliptical input and output gears are identical in size and have the same odd number of teeth, and in one embodiment, the drive unit is located between a set of rocker arm and link assemblies.

Abstract: The invention relates to a device (10) and a method for handling notes of value. The device comprises a first module (14) and a second module (12). The first module (14) is movable relative to the second module (12) and/or the second module (12) is movable relative to the first module (14) in at least one direction (P1, P2, P5). In a first operating state of the device (10), notes of value can be transported between the modules (12, 14). The second module (12) comprises at least one guiding element (24, 26, 100, 106) for guiding the notes of value during the transport of the notes of value between the modules (12, 14).

Abstract: A display table assembly for displaying an urn. The display table has a plurality of retractable legs and a table top. Swivably connected to the table top is an urn carriage so that the urn carriage may be rotated for display. The urn carriage has first, second, front, and back sidewalls that enclose an open interior that is of size and shape to receive an urn chest.

Abstract: Method and system for batching of supplied objects in batches in such a manner that a batch fulfils predefined criteria as regards the number of objects, weight, orientation and/or type(s) of objects, wherein the weight of each object is determined the objects are transported by means for object transport, a selective transferral of the objects from said means for object transport to batching means is performed by means of a plurality of handlings means of the robot type in as a group or batch of objects is produced in consideration of said predefined criteria, and wherein said group or batch of objects is transported further on by means of means for batch transportation. Preferably, said means for batch transportation may comprise a plurality of conveyor means.

Abstract: A moving conveying device is provided which extends in a planar manner, such as a conveyor belt or a mat top conveyor, for conveying piece goods or bulk goods and which lies in a conveying apparatus. A rolling element including a plurality of rollers is arranged between the conveying device and a support element. The conveying device moves relative to the rolling element, wherein the rollers roll on the conveying means and on the support element, and the rollers are interconnected at a distance from each other by way of a flexible connecting element.

Abstract: A remote-controlled vehicle for collecting and transporting bio-waste that is capable of compacting bio-waste, dumping the waste in a variety of ways, and that has a rechargeable battery, among other functions, is disclosed. A system for collecting the bio-waste material also is provided. The system includes a plurality of collection receptacles associated with a structure, each of the plurality of collection receptacles receiving the bio-waste material without the use of water as a carrier. A transport network extends from each of the plurality of collection receptacles to at least one storage receptacle located at the structure. A plurality of vehicles, or carts, is disposed within the transport network and collect the bio-waste material.

Abstract: A storage device, such as a case, in particular for storing goods, the device comprising a storage housing, characterized in that it further comprises: a rack element (10) intended to engage with driving means in order to move the device or with another rack element in order to immobilize the device, a resting surface (11) intended to engage with a support element, the resting surface being adjacent to the rack element, and means intended to engage with the immobilizing elements.

Abstract: A rail conveyor system comprises a base member supporting a rail conveyor mechanism that includes a mechanical power transfer assembly mounted within the base member. A plurality of parallel support rods mounted upon the base member is rotatable by the mechanical power transfer assembly. A plurality of parallel square tubes rests perpendicularly to and upon the support rods providing a uniform support surface above the base member. The tubes are operatively connected to the power transfer assembly for sequential, longitudinal reciprocation, perpendicular to the support rods. The support rods each include a series of indented surfaces for sequentially lowering one of the tubes relative to three adjacent tubes. The mechanical power transfer assembly provides sequential, longitudinal movement of three adjacent tubes in one direction and movement of a fourth bracketed tube in an opposite direction, while simultaneously rotating the support rods to first lower, then raise the opposite moving fourth bracketed tube.

Abstract: The invention relates to a conveying system for moving containers (14), the conveying system (4) comprising an inclined track (8) and a conveying device (24), where the track (8) has an container inlet (11) at the bottom (12) and an container outlet (15) at the top (16) and where the conveying device (24) is arranged to travel down (R) the track (8) and comprises a container moving unit (54) which after passage below a container (14) moves the container (14) one step up (L) the track (8), the conveying device (24) thus moving one container (14) at a time one step up (L) the track (8) during the downward (R) travel of the conveying device (24). The invention also relates to a tower structure (2) comprising a container conveying system (4), and a method for conveying containers (14) with a conveying system (4).

Abstract: A conveyor includes a support base, a linear driving mechanism mounted on the support base, a carrier, and a linkage bar mechanism pivotally connecting the carrier and the linear driving mechanism. The linear driving mechanism includes two substantially parallel threaded rods, two threaded members respectively engaging the two threaded rods, two actuators respectively rotating the two threaded rods, and two slide members slidable relative to the support base and respectively secured to the two threaded members. The linkage bar mechanism includes a first, second, and third bars pivotally connected to the slide member and the carrier, respectively. The first bar, the third bar, the slide member carrying the first bar, and the carrier cooperatively form a parallel four-bar mechanism. The first bar, the second bar, the slide member carrying the second bar, and the carrier cooperatively form a trapezoidal four-bar mechanism.

Abstract: A conveyor includes a support base, a linear driving mechanism mounted on the support base, a carrier, and a linkage bar mechanism pivotally connecting the carrier and the linear driving mechanism. The linear driving mechanism includes two substantially parallel threaded rods, two threaded members respectively engaging the two threaded rods, two actuators respectively rotating the two threaded rods, and two slide members slidable relative to the support base and respectively secured to the two threaded members. The linkage bar mechanism includes a first, second, and third bars pivotally connected to the slide member and the carrier, respectively. The first bar, the third bar, the slide member carrying the first bar, and the carrier cooperatively form a parallel four-bar mechanism. The first bar, the second bar, the slide member carrying the second bar, and the carrier cooperatively form a trapezoidal four-bar mechanism.

Abstract: A method and apparatus for transporting a product within a diffuser during a continuous lixiviation process. The apparatus comprises at least one screen deck for the continuous lixiviation process and at least one longitudinal transport zone, the longitudinal transport zone extending between an inlet and outlet of the diffuser. The transport zone may include a plurality of transport zones. A drive means is arranged to move the longitudinal transport zone at a first speed towards the outlet end of the diffuser and to retract the longitudinal transport zone at a second speed which is substantially faster than the first speed towards the inlet end of the diffuser, so that the transport zone drive the product towards the outlet of the diffuser.

Abstract: A method of mounting a floor slat (14) of a reciprocating floor to an associated drive beam (18.1) of the floor slat includes mounting an elongate clamp member (200) to the drive beam (18.1). The clamp member (200) has opposed side walls defining a longitudinally extending clamping slot between them. The floor slat (14) is located on the clamp member (200). The floor slat (14) has a downwardly depending longitudinally extending mounting member (208) which is received in the clamping slot. The mounting member (208) is clamped in the clamping slot thereby to attach the floor slat (14) to the clamp member (200) and thus to the drive beam (18.1).

Abstract: The subject invention provides for a slider bed conveyor system that allows for lateral movement of a longitudinally moving conveyor of a fixed length. The system includes a first conveyor section having a first surface that extends between opposing first walls. A second conveyor section is operatively connected with the first conveyor section and includes a second surface that extends between opposing second walls. The first and second conveyor sections support the longitudinally moving conveyor and the second conveyor section is laterally moveable in relation to the first conveyor section.

Abstract: The deck for lifting a layer of products (2) onto a pallet (10) is constituted by a sole plate (26) of reduced thickness carried by a frame defined by crosspieces (22) and (23) also of reduced thickness and by side pieces (21). The side pieces (21) are of square-shaped cross-section with at least the horizontal wing (40) thereof being provided so as to receive and enable the locking of a piece of equipment forming said sole plate (26) and which is adapted to the nature of said products (2) constituting the layer to be loaded onto a pallet, said piece of equipment being in the form of tabular components (27) of small diameter, about 30 mm, placed between and parallel to said crosspieces (22), (23), said components (27) being able to constitute fully or partially free rolls (28), or able to be locked.

Abstract: There is equipped with a forward and reverse winder (31), a forwardly winding liner body (51), a reversely winding liner body (61) and a reciprocating body (71). The forwardly winding linear body (51) and the reversely winding linear body (61) are connected to the reciprocating body (71). The amounts of winding and rewinding the forwardly and reversely winding linear bodies (51) (61) by the winding drum (37) of the forward and reverse winder are equal to each other. The winding drum (37) of the forward and reverse winder (51) when the forwardly winding linear body (51) is forwardly wound axially moves corresponding to the winding and rewinding pitches of the linear bodies whereby a high precision based on a quiet stabilization of an operation state, durability and miniaturization of construction and a high precision based on proper winding and rewinding of the linear bodies and durability can be improved.

Abstract: The present invention is a conveyor using a non-uniform pulsating movement created by multiple interactions between a solenoid and switch to move parts along a transporting tray.