Abstract: A production line operation forecast method and a production line operation forecast system are provided. The production line operation forecast method includes the following steps: obtaining an online production line work-in-process map at a time point, generating candidate simulated dispatch decisions based on the online production line work-in-process map, and inferring production-line work-in-process map changes of the candidate simulated dispatch decisions at a next time point; inputting the production-line work-in-process map changes to a forecast model, such that the forecast model outputs simulated production line operation health indicators of the candidate simulated dispatch decisions at the next time point; and selecting one of the candidate simulated dispatch decisions as a scheduling dispatch decision.

Abstract: An article storage device includes a load port configured to load and unload a plurality of articles, a plurality of shelves configured to load the articles, a transportation robot configured to transport the articles between the load port and the shelves or between the shelves, a receiving part configured to receive operation commands of the transportation robot from an upper system, a calculating part configured to calculate a setting value of an order of priority with respect to the operation commands, and a control part configured to control the transportation robot to perform an operation command having a high setting value of an order of priority among the operation commands.

Abstract: The present disclosure discloses an Industrial Internet of Things for determining a material transportation path, a control method and a medium thereof, wherein the management platform in the Industrial Internet of Things includes: an obtaining module configured to generate a first layout directed graph; a material module configured to assign a material requirement to a corresponding material end point and assign a material supply to a corresponding material start point; a reconstruction module configured to reconstruct the first layout directed graph and form a third layout directed graph; a first calculation module configured to calculate a first path; a correction module configured to form an intermediate layout directed graph; and a second calculation module configured to calculate a second path.

Abstract: A solar power generation network shut-off unit is disposed between a plurality of solar power generation modules and a power conditioner, shuts off the supply of power the power generation modules to the power conditioner when an emergency shut-off button is pressed, and comprises a first circuit breaker, second circuit breakers, and a power supply line. When the first circuit breaker detects that the emergency shut-off button has been pressed, the supply of power from the first circuit breaker to the second circuit breakers is halted, and the supply of power from the solar power generation modules through the power line is shut off at the second circuit breakers.

Abstract: An apparatus for the generation of productivity data is disclosed. The apparatus includes at least a processor and a memory communicatively connected to the at least a processor. The memory instructs the processor to receive a user profile from a user, wherein the user profile comprises industrial data. The memory instructs the processor to identify an attention parameter as a function of the industrial data and a plurality of industrial stimuli, wherein identifying the attention parameter comprises receiving physiological data from a plurality of sensors. The memory instructs the processor to generate an engagement element as a function of the attention parameter. The memory instructs the processor to determine productivity data as a function of the engagement element. The memory instructs the processor to generate a notification as a function of the productivity data. The memory instructs the processor to display the notification using a display device.

Abstract: An AMHS interface management system configured to facilitate the exchange of lot information between distinct AMHS systems. The AMHS interface management system receives lot information from a first AMHS system in a first format and translates the lot information into a format associated with a second AMHS system. The AMHS interface management system utilizes a handshake area located between the first and second AMHS systems. The handshake area includes one or more vehicles that facilitate the movement of a lot between the first AMHS system and the second AMHS system.

Abstract: A packaging plant and packaging method for packaging consumer products simultaneously in a large distribution packaging format and in customized e-commerce formats. The packaging plant and packaging method significantly improve the sustainability of e-commerce packaging of consumer products in that an e-commerce packaging area is supplied by products coming directly from a manufacturing machine without being previously packaged into large distribution packages.

Abstract: The present disclosure discloses an Industrial Internet of Things for material transportation control, a control method and a medium thereof, wherein the management platform in the Industrial Internet of Things includes: an obtaining module configured to generate a first layout directed graph; a material module configured to assign a material requirement to a corresponding material end point and assign a material supply to a corresponding material start point; a decomposition module configured to divide each material end point into a plurality of sub-nodes; a reconstruction module configured to form a third layout directed graph; a first calculation module configured to calculate a first path; a correction module configured to form an intermediate layout directed graph; and a second calculation module configured to calculate a second path.

Abstract: A control apparatus for performing control processing and user period processing within a control period for an industrial machine includes processing circuitry that sets content of the control processing, and sets an upper limit of the user period processing. The user period processing is different from the control processing.

Abstract: A semiconductor manufacturing apparatus includes a loadlock module including a loadlock chamber in which a substrate container is received, wherein the loadlock module is configured to switch an internal pressure of the loadlock chamber between atmospheric pressure and a vacuum; and a transfer module configured to transfer a substrate between the substrate container received in the loadlock chamber and a process module for performing a semiconductor manufacturing process on the substrate, wherein the loadlock module includes a purge gas supply unit configured to supply a purge gas into the substrate container through a gas supply line connected to the substrate container; and an exhaust unit configured to discharge a gas in the substrate container through an exhaust line connected to the substrate container.

Abstract: A multimodal sensing system for agricultural machines may include an agricultural machine operable in a first operating mode and a second operating mode and a sensor which is movable to adjust its field-of-view between a first field-of-view and a second field-of-view depending on the operating mode of the agricultural machine. The sensor may be configured to generate sensor data associated with the first field-of-view when the agricultural machine is operating in the first operating mode and generate sensor data associated with the second field-of-view when the agricultural machine is operating in the second operating mode. A controller may analyze the sensor data generated when the sensor has the first and second field-of-views so as to provide respective first and second output signals associated with the first and second operating modes, respectively, of the agricultural machine.

Abstract: The present invention relates to a single integrated multi-function apparatus for programming and repackaging programmable devices comprising: input means operable to provide a plurality of un-programmed devices; programming means operable to program the un-programmed devices; checking means operable to inspect predefined characteristics of devices programmed by the programming means; moving means operable to convey programmed devices to the checking means in a path of movement defining a first (X) axis of the apparatus, and placement means operable to move devices to and from the programming means in a path of defining a second (Y) axis of the apparatus. The moving means further conveys programmed devices along the first (X) axis to checking means operable to inspect predefined characteristics of devices programmed by the programming means, and operation of the input means, programming means, moving means, placement means and checking means are coordinated and controlled by software control means.

Abstract: An inspection device having a plurality of inspection chambers and configured to inspect target objects in the inspection chambers comprises a display unit, a maintenance control unit, a display control unit, a connection unit and an exclusive control unit. The display unit displays a screen for operating the inspection device. The maintenance control unit performs a maintenance process on a mechanism related to the inspection chambers. The display control unit displays a maintenance screen for receiving an operation for performing the maintenance process on the display unit. The connection unit connects the inspection device and an external device. The exclusive control unit performs exclusive control for preventing competition in the inspection process or the maintenance process for the same mechanism.

Abstract: The present invention relates to a method for monitoring a manufacturing process, comprising the steps of: detecting a workpiece with a sensor unit of a portable device, sending the information acquired by the sensor unit to a database and applying a workpiece-specific data set, detecting the workpiece before, during and/or after carrying out a machining step or a handling step on the workpiece by the sensor unit of the portable device, updating the data set stored in the database before, during and/or after carrying out a machining step or handling step on the workpiece. The manufacturing process can, for example, relate to the machining of a board-shaped workpiece, such as a solid wooden board, a chipboard, a MDF board, a HDF board, or a workpiece made of another wood material.

Abstract: The present disclosure provides an automated warehousing system, a display panel production line and a logistics delivery method. The automated warehousing system includes a plurality of zones, a server host, a controller, and at least one moving device. Each zone corresponds to one manufacturing process for an in-process product. The server host is configured to manage production information of the in-process product and send the production information to the controller. The controller is configured to, based on the received production information, after completion of one corresponding manufacturing process, control the moving device to move the in-process product to the zone that corresponds to the next manufacturing process to be performed at the in-process product.

Abstract: A stocker may include a load port which a cassette for receiving wafers is either loaded on or unloaded from, an aligner configured to align the wafers and to confirm identification codes of the wafers, a plurality of shelves each having slots for receiving the wafers, a first transfer robot having a first robot arm for transferring the wafers between the load port and the aligner and a second transfer robot having a second robot arm for transferring the wafers between the aligner and the shelves.

Abstract: A method and a system. The system may include (a) evaluation units, (b) an object distribution system for receiving the objects and distributing the objects between the evaluation units, and (c) at least one controller. Each evaluation unit may include (i) a chamber housing that has an inner space, (ii) a chuck, (iii) a movement system that is configured to move the chuck, and (iv) a charged particle module that is configured to irradiate the object with a charged particle beam, and to detect particles emitted from the object. In each evaluation unit a length of the inner space is smaller than twice a length of the object, and a width of the inner space is smaller than twice a width of the object.

Abstract: The invention relates to a transport system, in particular to a multi-carrier system, comprising a central control; a plurality of drive units, wherein the drive units are coupled to the central control by means of a data link; and a plurality of transport elements that are movable by means of the drive units, wherein the central control is configured to communicate control commands to the drive units, with the control commands causing the drive units to make a movement of the transport elements in dependence on the control commands. The transport system in accordance with the invention is characterized in that at least two of the drive units, preferably all the drive units, receive the same control commands.

Abstract: A feeding unit to feed a component in an automatic manufacturing machine; has: at least one holding head designed to receive and hold the component; a closed curved guide arranged in a fixed position along an application path; an equipment supporting the holding head and provided with at least one slide coupled to the guide by a plurality of wheels; a linear electric motor, and a movable slider electro-magnetically coupled to the stator and is rigidly connected to the slide. The guide has, on the surface in contact with the wheels, a first transverse profile having a concavity or a convexity; the wheels have, on the surface in contact with the guide, a second transverse profile, which has a convexity or a concavity, and generates, with the first profile, a shape coupling between the guide and the wheels, which forbids a transverse movement of the slide relative to the guide.

Abstract: A substrate processing system includes a processing section that includes a plurality of process modules each of which performs a predetermined processing; a carrying-in/out section that holds the plurality of substrates, and carries the substrates into/out of the processing section; a transfer unit that transfers the substrates; and a controller that controls the processing section, the carrying-in/out section, and the transfer unit. The controller performs a control such that the plurality of substrates is sequentially transferred from the carrying-in/out section to the processing section, and the transferred substrates are sequentially and serially transferred to the plurality of process modules, sets an interval until a next substrate is unloaded after a substrate is unloaded from a predetermined module of the carrying-in/out section, and performs a control such that the plurality of substrates is sequentially unloaded from the predetermined module with a setting value of the interval.

Abstract: A substrate processing system comprising: a first chamber comprising loading tables, on which a plurality of substrates are to be loaded; a second chamber comprising loading tables, on which a plurality of substrates are to be loaded; a first transfer device comprising a plurality of blades configured to hold a plurality of substrates in a lengthwise direction thereof, and configured to transfer a plurality of substrates loaded on the loading tables of the first chamber to the loading tables of the second chamber with the substrates held at the same height; a substrate sensor provided on paths, along which the blades enter the second chamber, and configured to detect a substrate held by the blades; and a controller configured to control the first transfer device.

Abstract: A substrate processing apparatus according to an embodiment includes a carrier mounting part, a substrate mounting part, a first transfer device, a plurality of processing parts, a second transfer device and a controller. The carrier mounting part mounts a carrier that accommodates a plurality of substrates. The first transfer device transfers the substrates between the carrier and a substrate mounting part. The controller causes the first transfer device to execute a take-out operation for taking out the substrate from the carrier to mount the substrate on the substrate mounting part at time intervals equal to or longer than a time required for the first transfer device to take out the substrate from the carrier to mount the substrate on the substrate mounting part and to take out the substrate from the substrate mounting part to accommodate the substrate in the carrier.

Abstract: A plasma processing apparatus includes a storage; processors; a liquid supply which supplies, into the storage, at least a first liquid composed of a processing liquid or source liquids for composing the processing liquid; a detector which detects a value of a parameter indicating a state of the first liquid supplied into the storage or a state of the processing liquid in the storage; and a controller which controls the processors to perform a liquid processing in sequence. The controller determines, based on a detection result of the value of the parameter, whether it is possible to supply the processing liquid continuously into a preset number of processors concurrently under a condition requested by the processors, and, if not, the controller performs a simultaneous processing restricting control of reducing a number of processors which are supposed to perform the liquid processing concurrently to be lower than the preset number.

Abstract: The present invention provides various aspects for processing multiple types of substrates within cleanspace fabricators or for processing multiple or single types of substrates in multiple types of cleanspace environments. In some embodiments, a collocated composite cleanspace fabricator may be capable of processing semiconductor devices into integrated circuits and then performing assembly operations to result in product in packaged form. Customized smart devices, smart phones and touchscreen devices may be fabricated in examples of a cleanspace fabricator. In some examples, the smart devices, smart phones and touchscreen devices may have two touchscreens on opposite sides of the device along with hardware based encryption.

Abstract: An example test system includes robotics configured to operate on devices at a first level of precision, and stages configured to operate at levels of precision that are less than the first level of precision. Each of the stages may include parallel paths that are configured to pass the devices between adjacent stages.

Abstract: An embodiment includes a plurality of transport modules forming a transport path on which a carriage that transports a workpiece travels, and a control unit that controls a position of the carriage on the plurality of transport modules based on a drive instruction, and the control unit corrects the drive instruction during carriage motion that is based on the drive instruction and stops the carriage.

Abstract: A substrate processing apparatus, includes: a substrate transfer mechanism configured to advance and retreat a holding body that holds a substrate by symmetrically arranging two link mechanisms each including a driving arm and a driven arm; a processing module; a rotation angle measuring part configured to measure a rotation angle the driving arms; a holding body detection part configured to detect that a specific portion of the holding body is located at a predetermined position; and a controller configured to execute a step of acquiring a measurement value of the rotation angle of the driving arm, a step of obtaining a moving average of the measurement value of the rotation angle, and a step of obtaining a correction amount of the rotation angle so that a substrate transfer position of the holding body of the substrate transfer mechanism for the processing module becomes a reference position.

Abstract: A component mounting system includes a board transport line for transporting a board from an upstream to a downstream and a work station disposed in the board transport line and performing component mounting work. The board transport line transports a board introduced in the downstream of the work station to the work station, and transports the board from the work station to the downstream when mounting of a component on the board is completed in the work station.

Abstract: A food preparation device or system which utilizes pre-packaged food containers to prepare a food item for consumption.

Abstract: Provided is an article conveying apparatus including a three-dimensional sensor that measures a three-dimensional shape of an article; an adhering portion that is made to adhere to a surface of the article; a moving mechanism that moves a position of the adhering portion in a three-dimensional manner; and a control unit that controls the moving mechanism. The control unit is provided with a center-of-gravity calculating portion that calculates a center of gravity of the article on the basis of the three-dimensional shape of the article measured by the three-dimensional sensor and controls the moving mechanism so as to place the adhering portion in the vicinity of the center of gravity calculated by the center-of-gravity calculating portion.

Abstract: A method, a computer program product, and a computer system for providing a cognitive solution for maintaining a microenvironment. A cognitive service in an infrastructural computing system receives from a user computing device data of one or more sensors in the microenvironment. The cognitive service receives from the user computing device a profile of a user of the microenvironment. The cognitive service determines one or more current conditions of the microenvironment, based on the data of the one or more sensors. The cognitive service determines a cognitive solution for maintaining the microenvironment, based on the profile of the user and the one or more current conditions of the microenvironment. The cognitive service sends to the user computing device the cognitive solution. The user computing device adjusts one or more devices based on the cognitive solution.

Abstract: The various processes of a plant are segmented into separate process blocks that are connected to one another using fluid conduits or electrical connections. Each process block is specialized to perform specific tasks in an assembly line manner to achieve an overall goal. For example, multiple distillation process blocks could be daisy-chained to create fuel from crude oil. Each process block is generally small enough to be mounted on a truck or a flatbed for easy transport, allowing for an assembly line of process blocks to be transported anywhere in the world with ease.

Abstract: A robot system includes an image pickup apparatus that picks up images of a plurality of kinds of articles conveyed by a conveyor; an article controlling portion that controls time and a position of each of the plurality of kinds of articles being supplied onto the conveyor, to limit kinds of articles to be image-picked-up by the image pickup apparatus in advance; a detecting portion that detects the plurality of kinds of articles from among images picked up by the image pickup apparatus, on the basis of the kinds of articles limited in advance by the article controlling portion; and a robot that is configured to take out the plurality of kinds of articles detected by the detecting portion from the conveyor.

Abstract: A manufacturing management system capable of appropriately evaluating a degree of consumption of each component of a manufacturing machine, and efficiently operating a manufacturing cell including the manufacturing machines.

Abstract: A plant and system for the automatic horizontal assembly of photovoltaic panels with front-back-contact solar cells of crystalline silicon, of the type called H-type, the contacting being carried out at a temperature lower than 150° C. also with the pre-fixing of conductive elements onto the encapsulating layer. The plant and system solve the main problems of the conventional stringing systems and provides high production capacity with a precise positioning of the components. The plant is made up of single workstations of the modular type which are arranged sequentially in a linear series, individually equipped according to the specific working process, being adjacent and laterally open to be crossed by the conveying line of the trays containing the panels being worked. After the automatic assembly in the plant, the panels are ready to be rolled in conventional furnaces.

Abstract: For execution of substrate processing using multiple processing units available in parallel, two or more processing units to be used in parallel are selected from the multiple processing units such that an conveying-out standby time does not exceed a given permissible time. The conveying-out standby time is a time when a substrate after subjected to substrate processing by the processing unit is placed in standby until the substrate is transported from the processing unit by a transporting part. A schedule is made that includes processing by the transporting part of transporting a substrate toward the two or more processing units, substrate processing by the two or more processing units, and processing by the transporting part of transporting a substrate from the two or more processing units. The processing unit and the transporting part are controlled to execute substrate processing on multiple substrates in order according to the schedule.

Abstract: A device may receive a request for a product. Based on the request, the device may determine a geographic location and delivery time for delivery of the product, and the device may identify product locations that are capable of providing the product and located near the geographic location. The device may determine, for each of the product locations and based on the product and at least one product location characteristic, a fulfillment time indicating when the product will be prepared for delivery. In addition, the device may identify at least one potential courier capable of transporting the product. Based on the fulfillment time, the delivery time, the geographic location for delivery, and at least one courier characteristic associated with the potential courier, the device may select a particular product location and a particular courier and perform an action based on the particular product location or the particular courier.

Abstract: A ready for rotation state detection device is configured to detect a state in which a substrate, which is placed on a concave portion formed in a surface of a turntable, will not fly out of the concave portion when the turntable is rotated in a chamber. The ready for rotation state detection device includes a ready for rotation state detection unit configured to detect that a height of a surface of an end of the substrate is equal to or lower than a predetermined value indicating that the turntable is rotatable, upon receiving the substrate on the concave portion.

Abstract: A transport control system divides a series of data-processing operations into mutually independent processes, and causes the process execution units to execute the respective processes. The data input or output by each process execution unit is stored in the data storage separate from the process execution unit, and transfer of the data between the respective process execution units is performed via the data storage instead of being performed directly between the process execution units. By separating the processes from each other and also separating the processes from the data in this manner, without affecting process execution units other than a process execution unit to be changed and the data storage, the process execution unit to be changed can be changed to a different process execution unit.

Abstract: Disclosed is a substrate processing method including: placing a plurality of substrates on a rotary table in a processing container; and performing a processing on the substrates while rotating the rotary table. A dummy workpiece is disposed in a gap between the substrates placed on the rotary table.

Abstract: Disclosed are a method and a system of a train based community, according to one embodiment. In one embodiment, a method includes forming a train track adjacent to a set of homes in a residential community, placing a boarding location in a property boundary of each one of the set of homes in the residential community, and routing the train track to a merchant in the residential community. A shopping cart is autonomously routed from at least one boarding location of the property boundary to the merchant based on a request of an occupier of a home associated with the property boundary.

Abstract: A method for calculating an optimized trajectory with a simulation program and an optimization routine includes making available a trajectory and adjusting it to boundary conditions, implementing a loop having the steps of a provision of one first trajectory, a modification of a (further) trajectory and adjustment of the (further) trajectory on the basis of boundary conditions, using as the optimized trajectory a trajectory which has been made available on the basis of an extremal or predetermined parameter, and, after being calculated, making available the optimized trajectory to a control device in order to move a holder for a component part.

Abstract: Automatic process control of additive manufacturing. The system includes an additive manufacturing device for making an object and a local network computer controlling the device. At least one camera is provided with a view of a manufacturing volume of the device to generate network accessible images of the object. The computer is programmed to stop the manufacturing process when the object is defective based en the images of the object.

Abstract: In order to prevent a sample from thermally expanding and contracting when the sample is placed on a sample stage inside a vacuum chamber, the related art has proposed a coping method of awaiting observation by setting a standby time from when the wafer is conveyed into the vacuum chamber until the wafer and the sample table are brought into thermal equilibrium. In addition, the coping method is configured so as to await the observation until the wafer is cooled down to room temperature when the wafer is heated in the previous step. Consequently, throughput of an apparatus decreases. A temperature control mechanism which can control temperature of the sample is installed inside a mini-environment device. The sample temperature control mechanism controls the temperature of the sample inside the mini-environment device so as to become a setting temperature which is set in view of a lowered temperature of the sample inside a load lock chamber.

Abstract: A computationally implemented system and method that is designed to, but is not limited to: electronically directing control of at least partial treatment of the one or more portions of the one or more ingestible substrate structures according to the treatment instructional information regarding the one or more subsequent ingestible substrate structure duct operations including flowing one or more fluids through one or more ducts to treat at least in part the one or more portions of the one or more ingestible substrate structures to form at least in part the one or more selected ingestible products subsequent to and based at least in part upon the electronically receiving the user status information and the electronically receiving the selection information. In addition to the foregoing, other method aspects are described in the claims, drawings, and text forming a part of the present disclosure.

Abstract: A stocker includes a storage shelf, an output-relay shelf, a first crane, an output shelf, a second crane, and a controller. The storage shelf has a plurality of storage spaces. The output-relay shelf has a plurality of first output-relay spaces. The output shelf has an output space. The controller is configured to drive the first crane to preferentially transfer a first wafer carrier stored in one of the storage spaces to an empty one of the first output-relay spaces according to a delivery command defining a high priority of the first wafer carrier, and configured to drive the second crane to preferentially transfer the first wafer carrier from the first output-relay space storing the first wafer carrier to the output space according to the delivery command if the output space is empty.

Abstract: In the operation execution step wherein the operation switches are clicked to execute the operation related to product-type switching, if the substrate presence/absence detecting sensors S1, S2 that detect the presence/absence of substrates in the front-side substrate transporting mechanism 11A and rear-side substrate transporting mechanism 11B detect the presence of substrates, it is judged that the manufacturing operation of the corresponding substrate type has not ended, and the input control processing is executed so that the input operation by the operation switch for executing the operation related to product-type switching is prohibited. As a result, it is possible to prevent the problems related to reloading of the mounting program before the manufacturing has ended.

Abstract: Technologies are described herein for automating a selection of data inputs. Some technologies are adapted to select a product that is a component part of a segment. The technologies select an external product that is utilized for production of the segment and an external component of the external product. If the name of the external component matches a name of the product, then the technologies add the external component as an external input to the product. The technologies also select an internal product that is utilized for the production of the segment and an internal component of the internal product. If the name of the internal component matches the name of the product, then the technologies add the internal component as an internal input to the product.

Abstract: In a method for setting substrate-treatment time, substrate-treatment time is set by the following method. A predicted supply time of wafers of a following lot to a substrate processing apparatus is calculated based on a predicted plasma-treatment completion time of another substrate processing apparatus. A predicted plasma-treatment completion time of all of wafers of a present lot is calculated. A predicted idle time after the completion of the plasma treatment of all of the wafers of the present lot is calculated based on the predicted supply time of the following lot and the predicted plasma-treatment completion time of the present lot. If the predicted idle time is equal to or longer than the idle time required for dummy treatment, supplementary idle time is added between the plasma treatments of unprocessed wafers of the present lot.

Abstract: A substrate transfer apparatus includes a substrate transfer device which loads and unloads multiple substrates into and from a cassette capable of accommodating the multiple substrates, a substrate detector device which detects the positions of the substrates in the cassette, and a control device which controls the transfer device. The control device includes a computation component which calculates a shifted amount between a base position and the position of each substrate such that the shifted amount from the base position is set as a positive value, a verification component which verifies whether the difference between the maximum and minimum values among the shifted amounts is equal to or less a threshold value, and a transfer control component which controls the transfer device such that the transfer device unloads the substrates from the cassette when the verification component verifies that the difference is equal to or less than the threshold value.