Disclosed embodiments include a gantry assembly that has (i) a moveable carriage with a laser head affixed thereto and (ii) two sides (moveable subassemblies) that are connected by a joining subassembly. One side of the gantry has two motors: (i) a first motor (x-axis motor) that moves the carriage along a first axis (x-axis) between the two sides of the gantry, and (ii) a second motor (y-axis motor) that moves the gantry along a second axis (y-axis) perpendicular to the first axis. In some embodiments, the gantry assembly also includes a drive shaft (or alternative drive mechanism) operated by the second motor (y-axis motor) to facilitate movement of the two sides of the gantry together along the second axis (y-axis).

The present application provides laser machine automatic operating method and system, which method comprises: basing on feature information to judge whether a wafer has completed operation on a laser machine, if yes, skipping over the laser machine to perform the next procedure, if not, executing step; processing the wafer on the laser machine, wherein the laser machine generates record information, and the record information is related to operation information of the wafer on the laser machine; and acquiring the record information, and basing on the record information to generate feature information, the feature information serving as judging criteria in step.

A laser processing system includes a processing machine for performing laser processing on a processing target using a laser beam according to a predetermined processing design; a setting module for preparing a processing recipe including a plurality of set values for testing of processing parameters for the controlling the quality value of a predetermined quality item; a controller for repeatedly performing test processing for the processing target in multiple implementation rounds by driving the processing machine by selectively using any one of the set values for testing as the set value of the processing parameters according to a predetermined order; and an analysis module for analyzing each of results of the test processing and individually measuring the quality value of each of the results of the test processing.

A system for coordinated laser marking of mid-conveyance food includes a controller, multiple lasers, and one or more industrial components. The lasers are in network communication with the controller. The controller can send a first instruction set, having a first language, to a first laser, and a second instruction set, having a second language different from the first language, to a second laser, the first laser associated with a first conveyor of multiple conveyors, and the second laser associated with a second conveyor different from the first conveyor. During operation, the first laser applies a marking to a first product as the first product is conveyed along the first conveyor, based on the first instruction set. Also during operation, the second laser applies the marking to a second product as the second product is conveyed along the second conveyor, based on the second instruction set.

The present disclosure relates to a laser processing system including a processing machine for performing laser processing on a processing target using a laser beam according to a predetermined processing design; a setting module for preparing a processing recipe including a plurality of set values for testing of processing parameters for the controlling the quality value of a predetermined quality item; a controller for repeatedly performing first test processing for the processing target in multiple implementation rounds by driving the processing machine by selectively using any one of the set values for testing as the set value of the processing parameters according to a predetermined order; and an analysis module for analyzing each of results of the first test processing and individually measuring the quality value of each of the results of the first test processing, and selecting, among the set values for testing, a set value for testing used in a specific implementation round of the first test processing, at which the quality value that most satisfies predetermined reference quality is measured, as a set value for mass production of the processing parameters.

A robot includes a robot main body that includes a base and an arm configured to include a first casing and a second casing connected to the first casing, a motor that drives the arm, and a light emitting element that emits light and in which the first casing and the second casing form a first space and a second space isolated from the first space in a state of being connected to each other, the light emitting element is disposed in the first space, and the motor is disposed in the second space.

A machine learning device observes a state variable of the inside and the outside of a laser device including time-series data of light output, which is detected by an output light sensor, and a light output command through a control unit of the laser device, and acquires a determination result on correctness with respect to a quantitative failure occurrence mechanism outputted for each failure in the laser device. The machine learning device learns the quantitative failure occurrence mechanism corresponding to each failure while associating the quantitative failure occurrence mechanism with the state variable and the determination result on correctness with respect to the quantitative failure occurrence mechanism, and decides a quantitative failure occurrence mechanism which is to be outputted when an occurrence of each failure is detected.

A system for coordinated laser marking of mid-conveyance food includes a controller, multiple lasers, and one or more industrial components. The lasers are in network communication with the controller. The controller can send a first instruction set, having a first language, to a first laser, and a second instruction set, having a second language different from the first language, to a second laser, the first laser associated with a first conveyor of multiple conveyors, and the second laser associated with a second conveyor different from the first conveyor. During operation, the first laser applies a marking to a first product as the first product is conveyed along the first conveyor, based on the first instruction set. Also during operation, the second laser applies the marking to a second product as the second product is conveyed along the second conveyor, based on the second instruction set.

A facility management system capable of suppressing an increase in cost and man-hours, and capable of transmitting sensor information on a facility item sensing sensor to an outside from the facility is provided. A facility management system includes: a communication unit provided with a communication processing part capable of communicating sensing signals sensed by sensors over the wireless, and a facility status management apparatus provided with a management communication part capable of communicating with the communication processing part over the wireless. The communication unit includes a communication unit terminal attachable/detachable to/from a first light sensing sensor terminal of light sensing sensor units and attachable/detachable to/from a facility item sensing sensor terminal of a facility item sensing sensor unit.

A laser beam is readily positioned with a simple arrangement. A laser processing apparatus includes a processing stage on which a processing target object is processed, a light irradiator that performs irradiation by selecting one of a visible laser beam and a processing laser beam, and an adjuster that adjusts a position of the processing stage based on an irradiation position of the visible laser beam with which one of the processing stage and the processing target object is irradiated. The light irradiator irradiates, with the processing laser beam, the processing target object arranged on the processing stage adjusted by the adjuster.