Abstract: The disclosure relates to monitoring a state of a physical passenger transport system. In an aspect, monitoring includes use of an updated digital double dataset that reproduces characterizing properties of components of the physical passenger transport system in an actual configuration of the passenger transport system after assembly and installation thereof in a building, in a machine-processable manner. At least one detection device is arranged in the physical passenger transport system, which detects a load profile which is transmitted to the updated digital double dataset. A set of rules is used to convert the load profile into modified characterizing properties of virtual components. Through the monitoring, changes and change trends on the components are tracked and evaluated using the updated digital double dataset by calculations and/or by static and dynamic simulations.

Abstract: An inspection apparatus, for inspection of cased goods, includes at least one conveyor, at least one camera for capturing case image data of each of the cased goods advanced with the at least one conveyor past the inspection apparatus, and a processor configured to receive the case image data from the at least one camera. The processor is configured to characterize, from the case image data, a case exterior protrusion of the case good as a case flap in open condition, wherein the processor is configured to resolve the case image data and determine the case exterior protrusion is a coherent planar surface, and is programmed with a parameter array of physical characteristic parameters that describe case flap coherency attributes determinative of the coherent planar surface defining an open case flap condition.

Abstract: A logistics managing method according to example embodiments may include identifying at least one tote included in a tote set, identifying a station set corresponding to the tote set among at least one station set based on an attribute of an item included in the at least one tote, and determining one of the at least one station included in the station set to be a destination of the at least one tote. Other various embodiments are also possible.

Abstract: A wafer inspection system is provided. The wafer inspection system includes: a transfer region in which a transfer device is arranged; an inspection region in which test heads for inspecting a substrate are arranged; and a maintenance region in which the test heads are maintained. The inspection region is located between the transfer region and the maintenance region, a plurality of inspection rooms accommodating the test heads are adjacent to each other in the inspection region, and the test heads are configured to be unloaded from the inspection region to the maintenance region.

Abstract: A method of operating a laboratory sample distribution system is presented. The system comprises sample container carriers comprising a magnetically active device and configured to carry a sample container, interconnected transport plane modules configured to support carriers, and electro-magnetic actuators arranged in rows and columns below each transport plane module and configured to move a carrier on top of the transport plane modules by applying a magnetic force to the carrier. The method comprises assigning transport plane modules to a route category. At least two traffic lanes are formed on the route categorized transport plane module. The carriers are moved within each traffic lane in a transport direction. The transport directions are opposite to each other. The method also comprises assigning another transport plane module to a waypoint category. A change from one transport direction to the opposite transport direction is possible on the waypoint categorized transport plane module.

Abstract: A method of operating a laboratory sample distribution system is disclosed. The laboratory sample distribution system comprises a plurality of sample container carriers. The sample container carriers carry one or more sample containers. The sample containers comprise samples to be analyzed by a plurality of laboratory stations. The system also comprises a transport plane. The transport plane supports the sample container carriers. The transport plane comprises a plurality of transfer locations. The transfer locations are assigned to corresponding laboratory stations. The system also comprises a drive. The drive moves the sample container carriers on the transport plane. The method comprises, during an initialization of the laboratory sample distribution system, pre-calculating routes depending on the transfer locations and, after the initialization of the laboratory sample distribution system, controlling the drive such that the sample container carriers move along the pre-calculated routes.

Abstract: A conveyance control device executes: a control step of detecting entering to a merging point adjacent area set on adjacent to each merging point on the conveyance route; a detection step of detecting whether there is an obstacle around the carrying cart; a communication step of performing, when the entering to each merging point adjacent area is detected, local wireless communications with another carrying cart by using a common frequency band and a common identification code set to values different among merging points; and a merging point passing control step of starting the communication step when the other carrying cart is detected in the merging point adjacent area in the detection step, and causing passing of a merging point in accordance with a priority set to each entering passage to the merging point, after a handshake with the other carrying cart is successfully performed in the communication step.

Abstract: Packaging installation having at least two packaging devices. Each packaging device has an input belt and an output belt. The input belt supplies packagings and the output belt receives packagings which are processed by the packaging device, a conveyor belt arranged between the output belt of a first packaging device and the input belt of a second packaging device, and a central control unit. A constant throughput over the packaging installation is achieved as the central control unit establishes at least the actual speed of the input belts and output belts and the conveyor belt and the central control unit establishes at least the actual packing density of the input belts and output belts and the conveyor belt and the central control unit in accordance with the actual packing density and the actual speeds determines at least desired speeds for the input belts and the output belts and the conveyor belt.

Abstract: An electronic component mounter having a mounting head includes: a board transporter (transport mechanism) that transports a board with a transport belt supporting the board; a recognizer (a board recognition camera or a height sensor) that is provided in the mounting head and recognizes a state of a front surface of the transport belt; and a determiner (wear determiner) that determines a degradation state (wear degree) of the transport belt based on the state of the front surface of the transport belt recognized by the recognizer.

Abstract: Probe card transfer units and probe card management apparatuses including the same may be provided. The transfer unit includes a hand part including grippers holding a package and a moving part moving the hand part. Each of the grippers includes at least one locking pin protruding from a holding bar, which extends in a direction perpendicular to the holding bar, to securely hold the package.

Abstract: A substrate stopped at a first position is transferred toward a second position and is stopped at the second position in an accurate and stable manner. An intermediate position arrival time AT is measured while the substrate is being transferred from a substrate stop position toward a mounting work position, and a transfer status of the substrate (whether or not an unexpected factor has occurred) is assessed based on the intermediate position arrival time AT. Before the substrate reaches the second position, a deceleration pattern is controlled by altering a deceleration start timing T14 and the deceleration b in accordance with the intermediate position arrival time AT, thereby accurately stopping and positioning the substrate at the mounting work position. In this manner, under feed-forward control, the substrate can be stably transferred to the mounting work position.

Abstract: A double flat detection and correction system includes a feeder for detecting a double flat from multiple flats. The system also includes (i) a stacking unit that stacks one or more flats, and (ii) a de-stacking unit that de-stacks a flat from the one or more flats. The de-stacking unit includes (a) a first sensor unit that detects (i) an edge of the first flat, and (ii) an edge of the second flat when the flat is the double flat, (b) a second sensor unit that detects a presence of the first flat, and (c) a first anti-doubler unit that is activated when (i) the first sensor unit detects the edge of the second flat, and (ii) the second sensor unit detects the presence of the first flat. The system further includes a second anti-doubler unit that is activated when the presence of the first flat is detected.

Abstract: Handling arrangement for handling individual containers or groups of containers having movable container handling structures for handling containers being moved thereby. Each of the container handling structures is adjustable using one or more positioning devices. Upon changing container types and/or container groupings, the container handling structures can be adjusted in their positions so as to handle the different containers.

Abstract: The present disclosure relates to methods and apparatuses for rejecting defective absorbent articles from a converting line. At a downstream portion of a converting process, the continuous length of absorbent articles may be subjected to a final knife and cut to create separate and discrete absorbent articles in the form of diapers. From the final knife, the discrete absorbent articles may then advance in a first direction on a first carrier. A pneumatic system may be activated to redirect the leading end portion of a defective absorbent article advancing from the first carrier, while upstream of a second carrier. In turn, the redirected leading end portion of the defective absorbent article is transferred from the first carrier to a third carrier. And the third carrier advances the defective absorbent article with the third carrier along the reject article transport path away from the converting process.

Abstract: A warehouse conveyor system can include an input conveyor path for conveying a parcel toward an inventory picking area. An input conveyor switch can divert the parcel from the input conveyor path to a predetermined pick zone for fulfillment. An output conveyor path can convey the parcel from the pick zone after fulfillment.

Abstract: The invention relates to a control unit for an egg conveyor belt, comprising a conveyor belt drive mechanically coupled with the conveyor belt and designed to drive the egg conveyor belt at one of at least two different speeds and an image recording unit to record an image section of the conveyor belt. An evaluation unit is coupled by means of signal technology to the image recording unit. A counting unit is designed to count all eggs detected in one image recording of the image recording unit on the image segment of the conveyor belt as stocking density, which is coupled by means of signal technology to an evaluation unit and to the conveyor belt drive, whereby the speed of the conveyor belt drive in dependence of the stocking density is controlled.

Abstract: The invention concerns a laboratory product transport element for a laboratory transport system with an energy receiver and/or energy accumulator to provide drive power, at least one signal receiver to receive control signals, a control unit to generate drive signals as a function of at least one control signal obtained from the at least one signal receiver, movement devices for independent movement of the laboratory product transport element on a transfer path as a function of the drive signals of the control unit, in which the drive devices are driven by the drive power and at least one holder to hold a laboratory product being transported. The invention also concerns a laboratory transport system with at least one laboratory product transport element according to an embodiment of the invention and a transfer path arrangement. The invention also concerns methods for operation of laboratory transport systems according to an embodiment of the invention.

Abstract: An automated analyzer includes a conveyance mechanism to convey a specimen, an analysis portion to analyze the specimen, and a device cover to cover a movable mechanism including the conveyance mechanism. The automated analyzer is provided with an interlock mechanism and an interlock release mechanism. The interlock mechanism stops an operation of the movable mechanism when the device cover is opened. The interlock release mechanism disables all or part of the interlock mechanism. The interlock mechanism is enabled when a lever 301 is in contact with a safety switch 302. The interlock mechanism is disabled or partially disabled when the lever 301 is not in contact with the safety switch 302. This enables to prevent a user from inadvertently touching the movable mechanism including a hazard region during analysis of the automated analyzer or a maintenance task. Only a specific maintenance task can be performed with the device cover opened.

Abstract: An object of the invention is to provide a component mounting apparatus which includes a plurality of substrate conveying lanes and which efficiently controls the order of carrying in of substrates, thereby capable of improving productivity, and also is to provide a substrate conveyance method in the component mounting apparatus. In a configuration which includes: component supplying units (20A, 20B) positioned lateral to conveyor lines including conveyors (10A, 10B, 10C, 10D) arranged in parallel; and a substrate distributing unit (M3B) configured to distribute substrates (13) delivered from an upstream apparatus, in the case where a substrate request signal (R) is output for a plurality of conveyors, a new substrate (13) is carried in from the substrate distributing unit (M3B) into conveyors (10A, 10D) which are closest to the component supplying units (20A, 20B) among the conveyors (10A, 10B, 10C, 10D).

Abstract: In an apparatus for transporting containers, a first transport unit including a first drive unit transports the containers along a first transport section, and a second transport unit including a second drive unit transports the containers along a second transport section. First and second sensor units detect a condition of the containers transported by the first and second transport units. At least one control unit controls at least one of the first and second drive units in response to at least one of the first and second conditions detected by the corresponding first or second sensor units. At least one of the first and second sensor units includes a signal transmission unit that wirelessly emits a signal characteristic of the respective at least one first or at least one second condition to a receiving unit of the control unit.

Abstract: Provided is a loading device that is provided in a tire testing machine including a testing station (30) provided with a spindle (31) attached with a tire (50) to be tested and feeds the tire (50) from a predetermined standby position to a testing position where the center of the spindle matches the center of the tire (50) in the testing station (30). The loading device includes: conveyors (1, 2) that convey the tire (50) from the standby position toward the testing position in a direction perpendicular to the axial direction of the tire; and positioning devices (6B, 20) that position the tire to be tested to a position, in which a front end of the tire in the feeding direction matches a point separated from the spindle by a predetermined distance, as the standby position. Setting of the standby position based on the position of the front end of the tire (50) in the feeding direction shortens the feeding distance and the feeding time and hence shortens the testing cycle time.

Abstract: A method for gapping substrates conveyed through a vacuum chamber is disclosed. The method may include positioning an upstream substrate outside the vacuum chamber as a downstream substrate is conveyed within the vacuum chamber, detecting a position of the downstream substrate within the vacuum chamber and conveying the upstream substrate into the vacuum chamber at a conveyance rate greater than a conveyance rate of the downstream substrate to set a gap between the downstream substrate and the upstream substrate.

Abstract: An assembly for moving caps through a cap-lining machine includes a track for the downstream movement of the caps to a cap-lining location in the cap-lining machine. A first gate is mounted downstream from the cap-lining location for movement between first and second positions preventing and allowing downstream movement of the caps, respectively. A sensing location is formed in the track downstream from the cap-lining location. A second gate is mounted downstream from the sensing location for movement between first and second positions preventing and allowing downstream movement of the caps, respectively. The first gate moves to the first position in response to a sensor sensing the arrival of one of the caps at the sensing location, and the second gate moves to the second position in response to the first gate moving to the first position.

Abstract: Provided are an image scanning device that can prevent a rise in the temperature and overloading or overheating of a conveying motor during continuous conveying of document sheets, and a conveying device that includes the image scanning device. According to the present invention, the temperature of a drive motor and the temperature of the periphery of the drive motor are predicted, and based on the predicted values, the conveying mode is selected.

Abstract: A postal item collating system is disclosed. The system includes a postal item feeding path (3), a plurality of grippers (8) receptive of a postal item (2) from the feeding path(3), and a drive (11) for driving the plurality of grippers (8) along a circulation path (10). A collector (12) is disposed downstream from the postal item feeding path(3) and removes a received postal item (2) from a gripper (8) as it proceeds past the stationary collector (12). A controller (21) in signal communication with the drive (11) is responsive to a property signal (31, 34) based upon a property of the received postal item (2) to adjust a velocity of the string of grippers (8).

Abstract: A media transport assembly includes a plurality of pallets arranged to circulate on an endless track through a print zone and a handling zone. In the print zone, the pallets are temporarily grouped together to support and move a print media during printing at a substantially constant velocity. In the handling zone, the pallets are spaced apart from each other as they circulate back to the print zone without supporting any print media.

Abstract: Circuitry to control reflective optical sensors is provided that reduces false detections due to ambient light without compromising the performance of the optical sensors to detect dark materials. A reflective optical sensor includes an emitter LED and photo-detector arranged to receive light from the LED that is reflected by an object being detected. A first input of a comparator is coupled to the output of the photo-detector. A second input of the comparator is coupled to the output of the photo-detector through a filtering circuit. The filtering circuit operates to filter the detector's output and adaptively adjust the trigger threshold of the comparator, thereby enabling the photo-detector to be sensitive enough to detect dark mail pieces, i.e., those mail pieces that are minimally reflective, while being immune to repeated false triggers due to excessive ambient light.

Abstract: A production device includes a plurality of processing units (41 to 45) arranged so as to consecutively perform a plurality of types of processing with respect to workpieces, a transport unit (30) that successively transports the workpieces toward processing units, a plurality of monitor operation panels (80, 90) capable of monitoring the processing in the plurality of processing units and performing an adjustment operation regarding the processing or performing an operation regarding the overall operation and stop, and a plurality of movable holding mechanisms (60, 70) that movably hold the respective monitor operation panels.

Abstract: Disclosed is a printed circuit board production apparatus which comprises a first working unit, a second working unit, and a control section. The first working unit includes a board conveying section, and a working mechanism section for subjecting the board conveyed to a given working process, wherein the board conveying section and the working mechanism section are configured to be relatively displaceable between a machine-setup position where a gap defined between the board conveying section and the working mechanism section and leading to the second working unit becomes equal to or less than a given value, and a position where the gap becomes greater than the given value. The board conveying section and the working mechanism section are arranged in the machine-setup position by the control section when machine setup for the first working unit is performed during operation of the second working unit.

Abstract: Circuitry to control reflective optical sensors is provided that reduces false detections due to ambient light without compromising the performance of the optical sensors to detect dark materials. A reflective optical sensor includes an emitter LED and photo-detector arranged to receive light from the LED that is reflected by an object being detected. A first input of a comparator is coupled to the output of the photo-detector. A second input of the comparator is coupled to the output of the photo-detector through a filtering circuit. The filtering circuit operates to filter the detector's output and adaptively adjust the trigger threshold of the comparator, thereby enabling the photo-detector to be sensitive enough to detect dark mail pieces, i.e., those mail pieces that are minimally reflective, while being immune to repeated false triggers due to excessive ambient light.

Abstract: A bottle treatment system having a safety unit that improves the operational process, including a first accessible safety region, a second accessible safety region and a shut-off device. The first safety region is delimited by a first protection in which a first machine has a drive associated with the first protective region. The second accessible protective region is delimited by a second protection direction following the first protection, with a second machine having at least one further drive associated to the second protective region. A bottle transport from the first machine to the second machine is provided via a transport device, as provided with an individual drive and exceeds the protective region. The shut-off device turns off the machine drive associated with at least one of the respective protective regions and the drive of the transport device exceeding the protective region, if access to protective region is detected.

Abstract: To provide a substrate transport apparatus and a substrate transport method that enable curtailing of a mounting wait time incidental to movement of support pins. Height data pertaining to components 10 mounted on a back side of a substrate 1 are stored beforehand. During substrate carrying-in operation, support pins 7 are caused to descend according to component height data and wait at a height h1 where to be able to avoid interference with the components 10. During substrate carrying-out operation, the support pins 7 are caused to descend according to the component height data and recede to the height h1 where to be able to avoid interference with the components 10.

Abstract: A system is provided for heating or cooling discrete, linearly conveyed substrates having a gap between a trailing edge of a first substrate and a leading edge of a following substrate in a conveyance direction. The system includes a chamber, and a conveyor operably configured within the chamber to move the substrates through at a conveyance rate. A plurality of individually controlled temperature control units, for example heating or cooling units, are disposed linearly within the chamber along the conveyance direction. A controller is in communication with the temperature control units and is configured to cycle output of the temperature control units from a steady-state temperature output as a function of the spatial position of the conveyed substrates within the chamber relative to the temperature control units so as to decrease temperature variances in the substrates caused by movement of the substrates through the chamber.

Abstract: A manufacturing chain includes a plurality of modular manufacturing stations positioned in series and defining a forward transport direction. An article transportation device of at least one modular manufacturing station is configured to move a carrier in a reverse transport direction while an article transportation device of at least one other modular manufacturing station is driven in the forward transport direction.

Abstract: A wireless-IC-device main component is disposed on a surface opposite to a surface for receiving signals from a reader/writer. The wireless-IC-device main component includes an insulating substrate, which is provided with a loop electrode and an electromagnetically coupled module coupled to the loop electrode. A signal from the reader/writer causes an eddy current to flow across a conductor principal plane of a metal article. The eddy current causes a magnetic field to be generated in a direction perpendicular or substantially perpendicular to the conductor principal plane of the metal article. Then, the loop electrode is coupled to the magnetic field. Thus, the wireless-IC-device main component functions as an RFID tag even for signals from the principal plane opposite to the wireless-IC-device main component. Thus, it is possible to reduce the cost of manufacturing a metal article, and to provide a wireless IC device using the metal article as a radiator.

Abstract: A modular conveyor system is disclosed in which components of each conveyor module is designed for wireless mesh communication. The communications may be within a module or between modules. Certain of the components may be powered by battery, such that the components may be completely wireless. The network may be entirely self-configuring such that the modules may be assembled and the network established in a straightforward manner.

Abstract: In an overhead conveyance/storage system 1 including at least a storage area 100 for the storage of products (e.g., tires) 200, at least one transfer holder 300 adapted to move through a ceiling space in the storage area 100 in three dimensions, including vertical, transverse and longitudinal directions while holding the products 200, and unloader 500 for carrying out the products 200 from the storage area 100, a product receiving position (product unloading position) 501 of the unloader 500 is set to a nearly central part of the storage area 100 when seen in plan. The overhead conveyance/storage system 1 further includes loader 400 for carrying the products 200 into the storage area 100, and product discriminator 402 is disposed in the loader 400.

Abstract: A rotary transport system has a main track with transport(s) or shuttle(s) moving along the main track and an auxiliary storage unit. The auxiliary storage unit has a plurality of storing positions, and the storing positions are rotating around the main track. Therefore, the object, such as a FOUP (Front Opening Unified Pod) can be loaded on or unloaded from the storing positions.

Abstract: A method for transferring an article from a first conveying device to a second conveying device, where at least one conveying device comprises at least one motor, including determining a load of the at least one motor, and adjusting the relative positioning of the first conveying device with respect to the second conveying device depending on the determined load.

Abstract: A method and an apparatus measure a quantity parameter during the transport of objects. The objects are in particular flat mail items and are tipped onto a conveyor component of a transport device and are transported by the latter. At least one recording time, in each case at least one photograph of a measurement sector of the conveyor component is taken. For each recording time, the value which a quantity parameter which describes the quantity of objects in the measurement sector has at the recording time is calculated. For this purpose, the proportion of the area of the measurement sector which is covered by objects is measured. A prescribed functional relationship between the quantity parameter and the measured proportion is evaluated. The speed at which the conveyor component transports the objects is changed depending on the quantity parameter value measured.

Abstract: A device for conveying objects includes a conveyor belt for the transport of the objects and fluid nozzles for the treatment of the objects. The device is characterised in that in addition to the conveyor belt a second belt is provided which is arranged above the conveyor belt in order to retain an object on the conveyor belt. This transport device can be installed in a packaging system, in particular in a tunnel dryer or in a shrink tunnel for packages.

Abstract: An apparatus for handling portions of products, in particular food products, includes a product conveyor which conveys the portions sequentially along a conveying direction and at least one sensor which serves to determine the weight of the conveyed portions. The apparatus includes an automatic weight compensation unit which is arranged in the vicinity of the product conveyor and which serves additionally to place at least one single product on a portion in dependence on the determined weight of the portion.

Abstract: An apparatus for the treatment of containers may include at least one conveying device, which conveys the containers along a pre-set conveying path, and at least one treatment device, which treats the container in a pre-determined manner. The apparatus may include at least one size part which is capable of being arranged in an exchangeable manner on a carrier. A first transmitter device, which at least intermittently emits a signal which is characteristic of the first transmitter device, is arranged on the size part, and the apparatus has at least one first receiver device for receiving the first signal. The apparatus may further include a second signal communication device, which emits or receives a second characteristic signal, wherein the receiver device is designed in such a way that it determines from the signals emitted whether the size part is in a predetermined position with respect to the apparatus.

Abstract: In a method and a device for transporting paper within a paper handling installation from a first conveyor to a second conveyor, the second conveyor has a velocity which at least partially follows a drive curve of the first conveyor. A frictional force between the second conveyor and the paper is set to a first value when the first conveyor and the second conveyor are in engagement with the paper. The frictional force between the second conveyor and the paper is set to a second value, which is higher than the first value, when the papers is conveyed by the second conveyor.

Abstract: A method and a device for handling containers is described, wherein the containers (10) are transported along a predetermined transport path (T) and combined with at least one other product, the amount of which can be determined, in such a way that the product is fed to each individual container (10) in a predetermined feed area (D) of the transport path (T), wherein the other product is routed along a feed path (6) to the feed area (D). At least one characterizing state (Z) is determined in a detection area (8) disposed upstream relative to the feed area (D) in a direction of transport of the containers (10), said state being characteristic of a number of containers fed, and a residual amount (M) for the product that remains to be fed to the predetermined feed area (D) until the product is switched is determined as a function of this characteristic state (Z).

Abstract: A modular conveyor system is disclosed in which components of each conveyor module is designed for wireless mesh communication. The communications may be within a module or between modules. Certain of the components may be powered by battery, such that the components may be completely wireless. The network may be entirely self-configuring such that the modules may be assembled and the network established in a straightforward manner.

Abstract: A production device according to the present invention includes a plurality of processing units (41 to 45) arranged so as to consecutively perform a plurality of types of processing with respect to workpieces, a transport unit (30) that successively transports the workpieces toward the plurality of processing units, a plurality of monitor operation panels (80, 90) capable of monitoring the processing in the plurality of processing units and performing an adjustment operation regarding the processing or performing an operation regarding the overall operation and stop, and a plurality of movable holding mechanisms (60, 70) that movably holds the respective monitor operation panels toward each of the plurality of processing units.

Abstract: A conveyance device includes a linear encoder that outputs an encoder signal corresponding to displacement of a conveyed object. The encoder includes an encoder fence provided on an intersecting plane that intersects a reference plane orthogonal to a direction in which a guide element supports the conveyed object. The encoder fence is configured such that a plurality of light-transmitting portions and light-shielding portions are arranged alternately on a side of the encoder fence. The light-transmitting portions and the light-shielding portions are formed so that a first point on each boundary between each of the light-transmitting portions and each of the light-shielding portions adjacent to each other and a second point on the each boundary, which is positioned separately from the first point with respect to a direction along the side of the encoder fence and perpendicular to the conveying direction, are separately positioned with respect to the conveying direction.

Abstract: A conveying apparatus includes: a movable portion that performs an operation related to conveying an article to be conveyed when provided with a driving force; a first component that constitutes part of an exterior of the conveying apparatus, and is attachable and detachable with respect to the conveying apparatus; a second component that is openable and closable by a user in state where the first component is detached, through a space formed by the detached first component, and that operably exposes at least part of the movable portion to the user in an open state; and a drive controller that drives the movable portion in a case where the first component is detached and the second component is closed, and performs control to prevent at least part of the movable portion from being driven in a case where the first component is detached and the second component is open.

Abstract: A method for checking container closures with a checking means, including passing the container closures by the checking means by means of a conveyor medium without isolating the container closures upstream of the checking means, and checking the container closures with the checking means.