To provide a control panel having NC function for machine tool, which is capable of using an information medium that is easily and securely manageable without requiring manual input of information to the control unit for simplifying the data reading system construction. The control panel having NC function for machine tool includes an image pickup device for reading a matrix-type two-dimensional code, which is installed on the front surface of the control panel, or on the on-hand manual pulse generator connected to the control panel. The control unit inside the control panel includes a reader which processes image data of the matrix type two-dimensional code captured by the image pickup device, and outputs the image data as read data, and start driving control to the machining section based on the work instruction information contained in the read data.

A drop perception system is disclosed that includes an open housing structure having an internal volume, an open top and an open bottom, and a plurality of perception units positioned to capture perception data within the internal volume at a plurality of locations between the open top and the open bottom of the open housing.

Embodiments generally relate to robots and enabling robots to locate objects in a physical environment. In some embodiments, a method includes charging a radio-frequency identification (RFID) tag with an RFID reader, where the RFID tag is coupled to an object, and where the RFID reader is coupled to a robot arm. The method further includes receiving a plurality of responses from the RFID tag, where each response includes a power value to which the RFID tag was charged and a time value for charging the RFID tag to the power value. The method further includes moving the RFID reader to a plurality of RFID reader positions using the robot arm, where each RFID reader position is associated with one of the responses of the plurality of responses. The method further includes determining a plurality of distances from the RFID reader to the RFID tag based on power values and the time values of the respective responses at the respective RFID reader positions. The method further includes determining a location of the RFID tag based on the plurality of distances.

A secure lockable enclosure having a compartment therein, includes an electronically-actuated latching mechanism coupled to a door; a network interface; a sensor for sensing a characteristic related to a user attempting to gain access to the compartment; an environmental controller for heating and/or cooling the compartment; and a processor. The processor being adapted to (i) cause the network interface to transmit information indicative of a sensed characteristic of a user attempting to gain access to the compartment and capable of processing an unlock signal, and (ii) control the environmental controller based on a characteristic of an item placed in the compartment. An exemplary method controlling access by a user to the enclosure includes the steps of receiving identification information of the user from sensors associated with the enclosure; receiving identification information of an account holder; verifying the received identification information of the user against the account holder information and providing an unlock code to the lock device if the identification information of the user and account holder matches.

Provided is a production line that includes a conveying section (2) for conveying a plurality of pallets (8 and 8) along a loop-shaped circulation route, a workpiece setting section (3) for setting workpieces on the pallets (8 and 8), a setting-position measuring section (4) for measuring setting position of the workpiece on the pallets (8 and 8), a production process performing section (5) for performing one or multiple production processes at each of a plurality of locations on the circulation route for the workpieces on the pallets (8 and 8), and a workpiece extracting section (6) for extracting workpieces for which the production processes have been performed from the pallets (8 and 8). At least two of the production processes in the production process performing section (5) are performed while taking into account the setting positions of the workpieces on the pallets (8) measured by the setting-position measuring section (4).

A motor drive system includes a motor drive processor, a motor drive memory component, a server, and a display that displays a machine readable code, wherein the motor drive forms a secure wireless connection with a smart device once the smart device has scanned the machine readable code.

Disclosed herein is a management method of a processing tool mounted to a processing apparatus. The management method includes an information input step of inputting product type information that indicates a product type and a serial number displayed on the processing tool or a case of the processing tool to the processing apparatus when the processing tool is mounted to the processing apparatus, and a tallying step of counting the number of inputs of the serial number regarding each identical product type and tallying the number of uses regarding each product type from the input information. Order timing of each product type is determined from the number of uses.

Embodiments of the present invention provide an information system for providing mounting information for a number of connectable devices and electrical devices to a user, comprising a camera configured to record a scene, a display, and a processing device coupled to the camera and the display and configured to display the scene in the display, and to identify in the scene a number of at least one of connectable devices or receptacles, and to overlay the scene in the display with mounting information for the identified connectable devices or the identified receptacles.

A motor drive system includes a motor drive processor, a motor drive memory component, a server, and a display that displays a machine readable code, wherein the motor drive forms a secure wireless connection with a smart device once the smart device has scanned the machine readable code.

Tracing forged parts over their production process includes: capturing process parameters of a forging process; marking a workpiece with a first identifier; storing the captured process parameters and the first identifier in a database; reading the identifier from the workpiece produced in the previous process step; capturing process parameters during subsequent process steps; storing the process parameters of the subsequent process steps in the database for the read identifier, if legibility of the first identifier of the workpiece remains during the subsequent process step; marking the workpiece produced in the subsequent process step with a further identifier, if legibility of the first identifier of the workpiece does not remain during the subsequent process step of the production process; and storing the process parameters of the subsequent process step together with the further identifier and process parameters of the previous process steps and the first identifier in the database.