Abstract: System comprising a clean room (50), a transport element (10) movable inside the clean room (50), and a drive element (30) of the transport element (10), which is arranged outside the clean room (50), wherein the transport element (10) is not connected to the drive element (30) and is only coupled to the drive element (30) or driven by the drive element (30) via contactless remote forces, wherein the transport element (10) is a separate element, in particular separate from the floor, ceiling, walls and/or other parts of the clean room (50), and in particular has no positive connection acting in any spatial direction to the floor, ceiling, walls and/or other parts of the clean room (50) and/or other elements. The invention also relates to a corresponding transport element (10).

Abstract: An information processing system includes a vehicle, a terminal device, and a server that can communicate with the vehicle and the terminal device. The vehicle repeatedly transmits positional information on the vehicle to the server at predetermined timings. The terminal device repeatedly transmits user identification information for identifying a user of the terminal device and positional information on the terminal device to the server at predetermined timings. The server determines, based on the positional information on the vehicle and the positional information on the terminal device, whether or not the terminal device is located in a reference region within a predetermined distance from the vehicle, and determines, based on the user identification information, that the user of the terminal device is on board the vehicle, when it is determined that the terminal device is located in the reference region.

Abstract: Provided is a high-torque low-noise rotary electric machine. In a rotary electric machine, a jumper conductor having a normal slot pitch connects slot conductors by striding slots with a slot pitch “Np=N(=6)” in one of coil ends and striding slots with a slot pitch “Np=N(=6)” in the other coil end, assuming that the number of slots per pole is set to “N(=6).” The jumper conductor having an irregular slot pitch connects the slot conductors by striding slots with a slot pitch “Np=N+1(=7)” in one of the coil ends and striding slots with a slot pitch “Np=N?1(=5)” in the other coil end, assuming that the number of slots per pole is set to “N(=6).” The stator winding has a plurality of slot conductor groups consisting of a plurality of slot conductors having the same phase.

Abstract: A toy vehicle racing system is disclosed. The toy vehicle racing system comprises a track set including a movable mechanism and a toy vehicle configured to travel along the track set and interact with the movable mechanism. The toy vehicle racing system also includes a remote control in wireless communication with the track set. The remote control is configured to transmit instructions to the track set to move the movable mechanism and also to receive information from the track set regarding the track set and/or toy vehicle.

Abstract: Transport device having a transport route, with a turnaround portion to change orientation of a transport unit by 180° in the longitudinal direction along the transport route, including a turnaround portion with an entrance connected to a first transport route portion by a first entrance end and a second, open entrance end, and an exit connected to a second transport route portion by a first exit end and a second, open exit end. A common movement path is formed at least in some portions in a region of a first transfer position, and the transport unit is movable along the path. To be turned around, the transport unit is moved to the entrance of the turnaround portion, transferred from the entrance to the exit of the turnaround portion, and moved from the exit of the turnaround portion.

Abstract: The invention relates to a method of controlling simultaneously and independently both propulsion and levitation of one or a group of linear induction motors (LIMs). The method consists of a combination of two sub-methods: a current balancing sub-method and a regenerative levitation sub-method.

Abstract: In one embodiment, a system includes a linear induction motor (LIM) installed in a curved portion of a track, a ride vehicle disposed upon the track, one or more reaction plates coupled to a side of the ride vehicle facing the track via a plurality of actuators, one or more sensors configured to monitor an air gap between the one or more reaction plates and the LIM, and a processor configured to determine which of the plurality of actuators to actuate and a desired performance of each of the plurality of actuators based on data received from the one or more sensors to maintain the air gap at a desired level throughout traversal of the curve by the ride vehicle.

Abstract: Modular transport line system for configuring a transport line of a long stator linear motor. The system includes plural modular transport line components, each having a starting point (An) and an end point (En), wherein the starting point (An) and the end point (En) of each modular transport line component lie on a raster corner point (p·a)×(q·a) of an (a×a) raster with a prespecified raster length a, wherein p, q are whole numbers. At least one of the plural modular transport line components is a curved transport line component formed by at least three modules.

Abstract: In order to be able to plan and control the movement of a transportation unit of a conveying device along a conveying line more easily and more quickly, provision is made so that at least part of the conveying line (2) is assigned at least one logical sector (LSi), wherein the at least one logical sector (LSi) is allocated to one or more conveying segments (FSi) or parts thereof, a movement profile for the transportation unit (TEi) is allocated to the at least one logical sector (LSi), the transportation unit (TEi) is moved in accordance with the specified movement profiles along the at least one logical sector (LSi) and in doing so a new setpoint (S) of the movement is ascertained in each cycle step of the setpoint selection, and the setpoint (S) is transferred via the allocation to one or more conveying segments (FSi), or parts thereof, to the allocated conveying segment(s) (FSi) for adjustment.

Abstract: A transport system for linear movements includes at least two sensors configured to determine a position of one or more carriers along a carrier track. Each of the sensors are interconnected with each other and arranged in a daisy-chained manner along the carrier track. The sensors create a position sensor bus configured to transmit a digital position sensor signal. The transport system further includes a motion controller connected to the sensor bus and configured to control at least one position of the carriers along the carrier track.

Abstract: There is provided a roller conveyor that has a function capable of specifying a failure part or a defective part. When a signal for executing a failure detection operation is transmitted from a host controller (50) to each zone controller (10), each zone controller (10) immediately activates the corresponding motor-incorporating roller (5a). Then, after a certain time, the motor-incorporating roller (5a) is stopped. A pulse interval thereafter is detected by a pulse interval monitoring program (36) to determine whether a delay phenomenon has occurred. The delay phenomenon is a phenomenon in which the pulse signal generation interval is temporarily extended.

Abstract: A linear motor control apparatus includes a plurality of coil units which are continuously arranged, a plurality of position detecting units configured to detect positions of a first truck and a second truck which move over the plurality of coil units, and a first deviation calculating unit configured to arithmetically operate deviation information as differences between values of the plurality of position detecting units and a target position. In addition, a first position control unit arithmetically operates current control signals on the basis of the deviation information, a first current control unit supplies driving currents to the plurality of coil units on the basis of the current control signals, and a switching unit outputs the values of the plurality of position detecting units for the first truck to the first position control unit and outputs the values of the plurality of position detecting units for the second truck to a second position control unit.

Abstract: An electrical machine with a rotor or the stator including a plurality of discrete field modules, and the other one of the rotor and the stator including a plurality of armature coils connected to different power converters. Each field module includes one or more field coils which can be activated independent of the field coils of the neighbouring field modules. When at least one of the field coils is inactivated, e.g. because of a defect, each of the power converters is allowing less power to pass through when an armature coil connected to it is moving over an inactivated field coil, and more power to pass through when the armature coil connected to it is moving over an activated field coil.

Abstract: Disclosed is a linear synchronous motor comprising an elongate stator extending in a longitudinal direction and having a plurality of coil windings, and a runner having a multiplicity of successive magnets disposed along the length thereof the longitudinal direction. The elongate stator has a plurality of elongate-stator segments arranged successively in the longitudinal direction, with each elongate-stator segment separated from the next successive elongate-stator segment by a gap. A total section length of one elongate-stator segment and an adjacent gap is a constant value over a plurality of successive elongate-stator segments, wherein a runner length measured in the longitudinal direction across all magnets successively disposed on the runner, is an integer multiple of the total section length.

Abstract: A controlled motion system having a plurality of movers controlled as they travel along both smart and simple sections of a track. The controlled motion system comprises a control system for controlling the speed of a mover as it travels along a simple section, and permits the pitch or distance between movers to increase or decrease as they travel along a simple section. In a preferred embodiment the controlled motion system includes at least one coupling feature having a driving feature on a simple section for engaging and operably driving a driven feature on each mover such that positive control of each mover is maintained throughout its transition from a smart section to a simple section.

Abstract: A passenger transportation system having at least one rail extending along a path; at least one trolley movable along the rail; an actuating device having a linear electric motor, in turn having at least one slide fitted to the trolley, and a linear stator extending at least partly along the path, and having an elongated body, and a quantity of power windings embedded in the elongated body; and a quantity of sensors configured to control the position of the trolley, the sensors being fitted to the elongated body and so positioned as to minimize noise generated by the power windings on the sensors.

Abstract: An article transport facility allows transport carriages to travel with sufficient stability while avoiding damages to any transport carriage when the connection to another adjacent transport carriage is disengaged. Each of a plurality of transport carriages, which forms a carriage sequence, includes a carriage main body, a wheel which rolls on a travel surface formed along the travel path, a first connecting portion provided to a forward end portion of the carriage main body, and a second connecting portion provided to a back end portion of the carriage main body. The first connecting portion is connected to the second connecting portion of another transport carriage that is immediately in front so as to be pivotable about a carriage pivot axis extending along a vertical direction. The wheel is provided in the forward end portion of the carriage main body.

Abstract: A amusement ride feature comprises a waterslide sliding surface, a vehicle having a vehicle bottom surface adapted to slide on said sliding surface and to convey at least one rider thereon, and at least one reaction plate and at least one permanent magnet each mounted to one of said vehicle and said sliding surface. The at least one reaction plate and the at least one permanent magnet are positioned to affect motion of the vehicle when the motion of the vehicle brings the reaction plate under the influence of the permanent magnet.

Abstract: A waterslide amusement ride having in a portion thereof, a linear induction motor to efficiently and effectively affect the motion of a vehicle sliding on the ride. The linear induction motor comprises linear induction motor units embedded below a sliding surface, and a reaction plate mounted to the bottom of the vehicle. Depending on the configuration of the linear induction motor units and the reaction plate, the linear induction motor drive can be used to accelerate the vehicle, decelerate the vehicle, maintain the speed of the vehicle up an uphill section, or rotate the vehicle.

Abstract: A rail mounted wind turbine includes a pivotable housing placed between rails of a rail track. The pivotable housing can move into at least one upward position and at least one downward position and includes a wind turbine. The wind turbine has a blade that moves when a force, such as a wind force, is applied to provide mechanical energy to generate electrical power. An electrical generator communicates with the wind turbine to generate electrical power from the mechanical energy. A controller controls the movement of the pivotable housing into the at least one upward position and the at least one downward position. At least one sensor associated with the rail mounted wind turbine communicates with the controller to provide at least one signal to the controller to indicate a position of a vehicle operating on the rail track in relation to the pivotable housing.

Abstract: Control of Linear Synchronous Motors involves a number of low level issues of motor control—such as sensing precise position, controlling current in stator windings, and obeying commands from high level controllers—and high level vehicle control—such as stopping and starting, switching and merging, limiting speed and acceleration, synchronizing relative motion, preventing collisions and accidents, and dealing with failures. In most cases there is a master controller that directs vehicles based on simple commands but in other cases it is desirable to allow an external agent to provide more detailed control—such as synchronizing motion between a vehicle and a robot or allowing human operator control. This patent describes a versatile control scheme that allows both simplified high level control and, when or where necessary, control by an external agent. The result is a transport system and method that provides efficient and precise movement of vehicles on a guideway.

Abstract: A passenger transportation system having at least one rail extending along a path; at least one trolley movable along the rail; an actuating device having a linear electric motor, in turn having at least one slide fitted to the trolley, and a linear stator extending at least partly along the path, and having an elongated body, and a quantity of power windings embedded in the elongated body; and a quantity of sensors configured to control the position of the trolley, the sensors being fitted to the elongated body and so positioned as to minimize noise generated by the power windings on the sensors.

Abstract: The automobile described herein employs an aerodynamic chassis control system to limit and/or control the affect of yaw and roll created by environmental and operating conditions on an automobile with minimal penalty to improve ride comfort and performance of the automobile. The aerodynamic chassis control system employs various movable stabilization elements to control yaw and roll. Moreover, aerodynamic chassis control system constantly monitors environmental and operating conditions of the automobile and adjusts the stabilization elements to provide ride comfort and automobile performance.

Abstract: Aspects of the invention provide a transport system powered by short block Linear Synchronous Motors (LSMs). The use of short blocks allows vehicles to move under precise control even when they are in close proximity to each other. The design allows the vehicles to be propelled and guided while negotiating sharp turns and negotiating merge and diverge switches. A coreless LSM can be used to create propulsive force without attractive force so as to allow a relatively high drag vehicle suspension, such as a vehicle sliding on a smooth surface.

Abstract: Systems and methods of transporting containers are disclosed. In one embodiment, an apparatus for transporting shipping containers is provided. The apparatus is configured to move along rails of a railroad track. The apparatus comprises a coupling configured to couple with a trailer configured to transport shipping containers. The coupling is attached to a source of magnetic flux. The source of magnetic flux is positioned so as to be driven by a source of varying magnetic flux positioned along the railroad track. In one embodiment, the source of magnetic flux comprises one or more permanent magnets and the source of varying magnetic flux comprises at least one electromagnet.

Abstract: Disclosed is a linear transport device. A platform car of the linear transport device is detachably mounted on a rail fixed to a base in an opposing direction along which the platform car faces the mounting surface of the base. A linear motor that drives the platform car is provided. The linear motor includes a stator disposed on the base and a mover disposed on the platform car so as to face the stator. One of the stator and the mover is a permanent magnet, and the other is an electromagnet. A relative position variable mechanism for relatively displacing the stator and the mover so as to reduce the magnetic suction force generated between the stator and the mover is provided.

Abstract: A device for supplying energy to a long stator winding having multiple winding sections. The device includes an energy source, a supply line connected to the energy source, section switches that are connected to the supply line and that each have a connection for connecting the switch to one winding section each. The device is configured to enable reactive (idle) power compensation independently of the closed-loop control of the energy source. The device for the reactive power compensation is configured to adjust the impedance of the device.

Abstract: A cable transportation system has a pull cable; at least one transportation unit moving along a given path and connectable selectively to the pull cable by a coupling device; at least one passenger station where the transportation unit is detached from the pull cable; and an auxiliary drive device having a linear electric motor extending along a portion of the given path to move the transportation unit along the passenger station.

Abstract: Control of Linear Synchronous Motors involves a number of low level issues of motor control—such as sensing precise position, controlling current in stator windings, and obeying commands from high level controllers—and high level vehicle control—such as stopping and starting, switching and merging, limiting speed and acceleration, synchronizing relative motion, preventing collisions and accidents, and dealing with failures. In most cases there is a master controller that directs vehicles based on simple commands but in other cases it is desirable to allow an external agent to provide more detailed control—such as synchronizing motion between a vehicle and a robot or allowing human operator control. This patent describes a versatile control scheme that allows both simplified high level control and, when or where necessary, control by an external agent. The result is a transport system and method that provides efficient and precise movement of vehicles on a guideway.

Abstract: A starting apparatus is disclosed for at least two synchronous machines, which starting apparatus includes an exciter unit which is provided for each synchronous machine and is associated with the respective synchronous machine. Each exciter unit can be connected to the field winding of the associated synchronous machine. A superordinate control unit is provided, with the superordinate control unit being connected via a communication link to each exciter unit. Furthermore, the starting apparatus includes at least one stator feed unit and at least one switching device, which is provided for each stator feed unit and is associated with the respective stator feed unit, in which case the respective switching device can be connected to the associated stator feed unit, the respective switching device can be connected to at least one synchronous machine, and the switching devices can be connected to one another when there are a plurality of switching devices.

Abstract: A power generating system includes a railroad track configured to define a looped track; a series of railroad cars riding on and extending substantially the full length of the looped track forming a train loop; a drive gear mounted to the train loop and having a gear circumference substantially concentric with the looped track; and several turbine generators secured relative to the ground at the outer periphery of the drive gear, the turbine generators having individual generator pinion gears in meshed driving contact with the drive gear, so that movement of the train loop around the looped track causes the drive gear to rotate the generator pinion gears and thereby operate the turbine generators. The turbine generators preferably are electrically connected by cables to a power station. The train loop and track preferably include electromagnets for propelling the train loop around the looped track, and alternatively includes a diesel locomotive.

Abstract: A contactless energy supply for electrical consumers mounted on the mobile part of a linear motor is provided, the energy supply being provided without additional voltage sources. A higher frequency energy supply field is superposed over the propulsion field, the energy supply field being inductively decoupled using the energy transmitting interface of the secondary part, and supplying consumers mounted on the secondary part with energy.

Abstract: Persons on a bicycle or other muscle-powered vehicle, equipped through an attachment means, with a reaction plate secondary of a linear induction motor, LIM, receive intermittent, augmenting propulsion forces from a sequence of spaced LIM primary coil assemblies, positioned flush with a surface on a pathway, to augment the rider's muscle-created propelling forces when the LIM primaries are receiving power supplied by a utility. At each LIM primary, interacting magnetic fields are commonly created as the attached bicycle LIM secondary is moveably positioned by the rider proximately the centerline of a respective LIM primary. The augmenting propelling force results as thrust, derived from the interaction of the respective magnetic fields of the primary and secondary of the now temporarily completed linear induction motor at the respective, spaced locations of the primaries along the pathway.

Abstract: Aspects of the invention provide a transport system powered by short block Linear Synchronous Motors (LSMs). The use of short blocks allows vehicles to move under precise control even when they are in close proximity to each other. The design allows the vehicles to be propelled and guided while negotiating sharp turns and negotiating merge and diverge switches. A coreless LSM can be used to create propulsive force without attractive force so as to allow a relatively high drag vehicle suspension, such as a vehicle sliding on a smooth surface. Further aspects of the invention provide a switching member that is selectively moveable relative to a guideway in order to change a magnetic force acting on the vehicle transverse to a direction of motion of the vehicle.

Abstract: A propulsion system that uses an alternating series of magnetic forces, inertia, and gravitational drops to propel a magnetic object along a pathway. The pathway can be an undulating track that can retain an object thereon. A plurality of magnet pairs are placed along the track, one of each pair on either side of the track, the pairs in spaced relation from each other along the track. The magnet pairs are positioned and aligned so as to propel the object up each up-slope to a crest, at which point the object falls through gravity down the down-slope and gains inertia. The track can be configured linearly or in a circle, for example, depending upon the desired orientation. In an alternate embodiment, a magnet can be positioned atop the track to attract the object up the slope.

Abstract: A flying vehicle-launching apparatus and method for launching a winged flying vehicle by accelerating the vehicle in a predetermined direction includes a flying vehicle-supporting platform, a guide device, and a driving device. The flying vehicle-supporting platform supports the winged flying vehicle so that it can lift off therefrom. The guide device supports the flying vehicle-supporting platform across two or more separated and parallel guide ways and guides the flying vehicle-supporting platform along the guide ways. In the flying vehicle-launching method, a propulsive engine of the winged flying vehicle is started after initiating acceleration with a flying vehicle-accelerating device. The winged flying vehicle is released from the flying vehicle-accelerating device in a predetermined angle of attack that is positive to a direction of acceleration after reaching a predetermined velocity.

Abstract: The invention provides a steel wheel-type linear motor in which a protective cover 11 having insulating properties and coming in direct contact with a stator coil 9 is located on the ground side of the stator coil 9 protruding from a stator core 7; a vent hole 11a is formed in the protective cover 11 to be opposite to a gap formed between ends of the stator coil 9 protruding from the stator core 7; and a bar 10 protrudes from the stator core 7 and thus the protective cover 11 on the stator core 7 side is pressed onto the stator coil 9 to be supported by the bar 10, the protective cover 11 on the side opposite to the stator core 7 is fixed to the stator coil 9 by a fastener member 12 having insulating properties that goes through the vent holes 11a, and the stator coil 9 and the protective cover 11 are formed to be of integral structure using an insulating varnish.

Abstract: A system is disclosed that controls the power flow to Linear Synchronous Motor (LSM) stators for a vehicle transport system. This invention allows multiple vehicles to operate in close proximity in a guideway without requiring an excessive number of separate controllers. It can be used in conjunction with schemes now in use and is particularly useful in elevator hoistways or for automated people movers near stations.

Abstract: A reaction component or plate for a linear induction motor incorporates a flexibility increasing feature and a wear resistant feature.

Abstract: The invention relates to an arrangement for operating a magnetically levitated vehicle by means of an arrangement having at least one long-stator linear motor. The linear motors are sub-divided, longitudinally of a track, into individual motor regions (A) in each of which only one vehicle (7) is able to travel at a time. To make possible different frequencies of service for the vehicles (7), i.e. different intervals between the vehicles (7), the region boundaries (B) between at least two motor regions (A1, A2) which follow one another in the direction of travel are arranged to be variable.

Abstract: A path for a linear motor system includes routing system between a trunk of the path and two or more branches. The routing system is operative to couple the trunk with a selected branch to enable a stage to travel between the trunk and the selected branch. The routing system includes armature windings that may be energized to effect movement of the stage in a desired direction between the trunk and the selected branch.

Abstract: Linear electric motors suitable for transportation of one or more vehicles along a road which may be a railroad, having electric coils as powerable motor parts and either nonferous metal plates, superconducting magnets or shorted coils as passive motor parts; employing a pulsating power source for powered motor parts, which power may be of constant or varying frequency; and having motor part spacing, and a space time relationship of motor part spacing and timing of said power source operation so as to require a minimum number of road parts per mile, and so as to provide continuous power transmission for propulsion and braking of said vehicles.

Abstract: A track support for the track of a magnetic levitation railway consists of a steel support having a closed hollow trapezoidal or hollow triangular cross section with closed end faces, whose cover plate projects, in the manner of a jib, with its longitudinal edge sections over the side wall web plates, and at the end of which cover plate a side guidance rail is arranged in each case. In order to keep the surfaces of the track support that are exposed to environmental influences as small as possible, a stator support web plate is arranged on the underside of each jib, between the ground-side end section of which plate and the adjacent side wall web plate and the adjacent side guidance rail horizontal plates are arranged, forming closed cavities, where two parallel web flanges between which the grooved cross members are screwed are provided per jib on the underside of the plates.

Abstract: A path for a linear motor system includes routing system between a trunk of the path and two or more branches. The routing system is operative to couple the trunk with a selected branch to enable a stage to travel between the trunk and the selected branch. The routing system includes armature windings that may be energized to effect movement of the stage in a desired direction between the trunk and the selected branch.

Abstract: A transportation system includes a guideway lane and a power cable assembly extending along the guideway lane. The system further includes a vehicle configured to travel on the guideway lane. The vehicle includes a self-centering transformer that is movable along the cable assembly and configured to cooperate with the cable assembly to transfer power to the vehicle. In addition, the transformer includes a magnet array that creates a magnetic field for centering the transformer-with respect to the cable assembly as the transformer moves along the cable assembly.

Abstract: A guideway system for conveying vehicles includes a first guideway lane and a plurality of control cells. Each cell includes a particular portion of the first guideway lane and a cell:controller for monitoring and controlling traffic flow on the first guideway lane portion within the respective cell. Furthermore, the cell controllers are in communication with each other so as to share information with each other.

Abstract: A method is provided for controlling operation of a vehicle on a guideway system, wherein the vehicle includes a first element of a linear induction motor and an alternate power source, and the guideway system has an acceleration section including a second element of the linear induction motor, and a computer control system. The method includes utilizing the second element in cooperation with the first element so as to accelerate the vehicle on the acceleration section of the guideway system, and providing speed instructions to the vehicle using the computer control system so as to cause the vehicle to use the alternate power source to maintain a desired cruising speed on a main section of the guideway system.

Abstract: A transport system includes at least one product carrier which is adapted to be moved along a slide way by means of a linear motor drive unit comprising a primary part and a secondary part. In order to improve the transport system in such a way that basically any number of product carriers can be moved along the slide way independently of one another and can be used in a versatile manner for transporting a great variety of products or workpieces, the product carrier is provided with a substantially flat base plate for transporting objects, the base plate having associated therewith the primary part, and the slide way having associated therewith the secondary part.

Abstract: The present invention relates to an integrated system in which a bilateral permanent magnet excited synchronous motor part and a non-contact power feeding part are combined in order to generate a linear driving force and to feed an electric power without any contact.

Abstract: A module for a linear motor propulsion guideway contains a combination of linear motor propulsion, vehicle guidance, position sensing, communication, and vehicle or pallet running surface subcomponents. These are integrated during the manufacturing into a single component or module for ease of shipping and precision of installation at a site where the guideway is to be installed. A single manufacturing operation is used to position, affix, and encapsulate the selected subcomponent(s) in a module or modules. For example, the component(s) can be designed to be located in a plastic injection mold, typically, a reaction injection mold (RIM), which allows the subcomponent(s) to be positioned, aligned, and encapsulated in a single manufacturing step that has only a several minute cycle time. In this manner positional accuracy among the relationship of the subcomponent(s) can be maintained within a small tolerance (on the order of 0.25 mm) while costs remain very low.