Method of transporting an article with a computer controlled transport vehicle to a destination includes transporting an article carried by a computer controlled transport vehicle to a destination, wherein a tray, belt, or carrier attached to the computer controlled transport vehicle engages the article. The method further includes determining a characteristic for the article. The method furthermore includes manipulating the tray, belt, or carrier from a first position to a second position to deposit the article at the destination, wherein the manipulation of the tray, belt, or carrier is adjusted based on the characteristic determined for the article to adjust a deposit characteristic of the article.

An information system for industrial equipment includes processing circuitry that controls processing apparatuses that each execute a predetermined process with respect to at least one workpiece, respectively collects, from the processing apparatuses, processing information sets that are respectively related to processing steps executed by the processing apparatuses until one corresponding product is manufactured from the at least one workpiece, and associates the processing information sets by assigning to the processing information sets a link identifier that permits a linkage between respective steps of the processing steps related to the one corresponding product.

A method for controlling machines (M1, M2, . . . ), which are provided for the processing of objects (O1, O2, . . . ), includes introducing an object (O1, O2, . . . ) into a working region of a machine (M1, M2, . . . ) and accessing, in a local environment of the machine (M1, M2, . . . ), a process key (PS1, PS2, . . . ), which is associated with the object (O1, O2, . . . ) and which contains at least one URI (unified resource identifier). The object (O1, O2, . . . ) is then processed using the URI contained in the process key (PS1, PS2, . . . ).

A portable shippable automated calibration system for high torque power tools is disclosed. The system includes a self-contained highly durable and shippable container that may comprise a power source, central processor, visual user interface, mechanical interface for coupling with power tools to be calibrated, communications systems for communicating with a power tool being calibrated and/or with on-site or cloud based data systems. The system may be delivered to sites desiring on-site power tool calibration, tools are calibrated and updated calibration factors are automatically uploaded into the calibrated tool and a calibration certificate is published with the particulars of the calibration completion.

A method for inspecting a plurality of elements of an industrial plant includes developing an application having a user interface with a command for each element to be inspected; repeatedly acquiring image data of the elements of the industrial plant using a mobile device, and storing the image data in an acquisition memory, each image datum comprising at least one image and a timestamp indicating a time at which the image datum was acquired; activating commands at respective activation times; and associating the image data with the elements. The image data is associated with a given element being chosen exclusively from the image data having a timestamp between the time of activation of the command corresponding to said element and the time of activation of either the preceding or the following command.

A system for determining the location of a toolpiece, the system comprising: a tool carrying a toolpiece and comprising an imaging device for capturing images of the environment around the tool, the tool being actuable to manipulate the toolpiece to work on a workpiece; and an image processor remote from the tool and communicatively coupled to the imaging device for receiving images therefrom and having access to reference data representing an expected environment, the image processor being configured to compare an image captured by the imaging device with the reference data to identify a match therebetween and to determine in dependence on characteristics of that match the location of the toolpiece; wherein the system is configured to cause the tool to transmit images captured by the imaging device to the image processor in response to actuation of the tool.

A method for assisting a user with sorting workpieces disposed on a sorting table uses a positioning system for determining a spatial position of a user's hand. The position can be determined by a sorting assistance unit worn near a hand of the user and the position of which is detected by the positioning system, or by image-based positioning using one or more cameras. The method comprises providing a position data set that includes the positions of the workpieces produced of the machining plan on the sorting table; by the positioning system, detecting a position of the user's hand and comparing it with the positions of the position data set; identifying at least one workpiece that is paired with the position of the user's hand; and outputting a sorting signal which comprises information about the at least one workpiece paired with the position of the user's hand.

A method of calibrating an additive manufacturing machine includes obtaining a model for the additive manufacturing machine, obtaining a baseline sensor data set for a particular additive manufacturing machine, creating a machine-specific nominal fingerprint for the particular additive manufacturing machine with controllable variation for one or more process inputs, producing on the particular additive manufacturing machine a test-page based object, obtaining a current sensor data set of the test-page based object on the particular additive manufacturing machine, estimating a scaling factor or a bias for each of the one or more process inputs from the current data set, and updating a calibration file for the particular additive machine if the estimated scaling error or bias are greater than a respective predetermined tolerance. A system for implementing the method and a non-transitory computer-readable medium are also disclosed.

The present disclosure belongs to the field of offshore oil, and in particular relates to a method for assessing the safety integrity level of offshore oil well control equipment. The method for assessing the safety integrity level of the offshore oil well control equipment comprises three major steps: creating a safety instrumented function evaluation module and dividing the related devices for performing the safety instrumented functions into a sensor subsystem; a controller subsystem and an actuator subsystem, establishing a dynamic Bayesian network model for respective subsystems for calculation; and integrating, analyzing and optimizing the safety integrity data of the subsystems.

The present disclosure provides an ID number complement method for a engraving machine, including the steps of: sequentially acquiring a first distance a and a second distance g of a character located in a first digit of an identification number to an edge of an identification area in each identification area; respectively subtracting the first distance a and the second distance g from a first preset value a and a second preset value g, and acquiring an offset information in X-axis direction and Y-axis direction of the identification number in each identification area. The disclosure also provides an ID number complement system for an engraving machine, including: a measuring device, a statistical process control system and an engraving machine. Compared with the prior art, the automatic filling of the engraving machine is realized, and the working efficiency is improved by the above method.