Abstract: A method of generating an event for an object on a screen by recognizing screen information based on AI includes accessing a Web-based IT operation management system platform to register a schedule in a scheduler, reporting registration of the schedule to an AI Web Socket of the Web-based IT operation management system platform, transmitting data reporting start of the scheduler from the AI Web Socket of the Web-based IT operation management system platform to an AI Web Socket of an AI screen agent of a PC through communication at a predetermined time, transmitting a PC screen image, and requesting information data, inferring a position of one or more objects on the screen, transmitting information data for the inferred position of the one or more objects, and generating an event for the one or more objects on the PC screen based on the transmitted data.

Abstract: An apparatus for executing multitasking RPA includes a scheduler configured to receive registration of a schedule for executing RPA jobs at a predetermined time from a user, an RPA job queue configured to receive registration of RPA jobs to be performed on a user PC so that the scheduler executes a job scenario at a predetermined time, each of the RPA jobs including scripts to execute the job scenario, and an RPA agent configured to receive a signal reporting start of a job from the RPA job queue, request a job to be performed from the RPA job queue, and receive a job of a corresponding type when the requested job of the corresponding type is in the RPA job queue, wherein the RPA agent includes an RPA engine and a multitasking manager.

Abstract: A method of generating an event for an object on a screen by recognizing screen information based on AI includes accessing a Web-based IT operation management system platform to register a schedule in a scheduler, reporting registration of the schedule to an AI Web Socket of the Web-based IT operation management system platform, transmitting data reporting start of the scheduler from the AI Web Socket of the Web-based IT operation management system platform to an AI Web Socket of an AI screen agent of the user PC through communication at a predetermined time, transmitting a user PC screen image, and requesting information data, inferring a position of one or more objects on the screen, transmitting information data for the inferred position of the one or more objects, and generating an event for the one or more objects on the user PC screen based on the transmitted data.

Abstract: The force or pressure sensor array of the present invention effectively has both flexibility and elasticity. Since the substrate itself is a kind of a polymer material, the substrate can be bent or expanded. Although silicon, which is a material of the semiconductor strain gauge, is easily broken and solid, mechanical flexibility can be secured if it is fabricated extremely thin.

Abstract: The force or pressure sensor array of the present invention effectively has both flexibility and elasticity. Since the substrate itself is a kind of a polymer material, the substrate can be bent or expanded. Although silicon, which is a material of the semiconductor strain gauge, is easily broken and solid, mechanical flexibility can be secured if it is fabricated extremely thin.

Abstract: Disclosed is an ion gage using a carbon nano-tube, more specifically a pressure sensor using a field emission of the carbon nano-tube. An array of carbon nano-tubes is formed on a metallic layer. A first grid is disposed on the array of the carbon nano-tubes. A second grid is disposed on the first grid in such a manner as to be spaced apart by a certain desired distance from the first grid. A collector is disposed on the second grid in such a manner as to be spaced apart by a certain desired distance from the second grid. Electrons emitted from the carbon nano-tube are collided with gas molecules to be ionized. The ionized cation is sensed by the collector to be outputted as an electrical signal.

Abstract: Disclosed is an ion gage using a carbon nano-tube, more specifically a pressure sensor using a field emission of the carbon nano-tube. An array of carbon nano-tubes is formed on a metallic layer. A first grid is disposed on the array of the carbon nano-tubes. A second grid is disposed on the first grid in such a manner as to be spaced apart by a certain desired distance from the first grid. A collector is disposed on the second grid in such a manner as to be spaced apart by a certain desired distance from the second grid. Electrons emitted from the carbon nano-tube are collided with gas molecules to be ionized. The ionized cation is sensed by the collector to be outputted as an electrical signal.

Abstract: Disclosed herein is a calibration apparatus for vacuum gauge having a combined use for an 1 Torr level, a 10 Torr level, and a 100 Torr level vacuum gauge.