Abstract: A particle removal system according to this disclosure includes a particle absorption tool configured to absorb particles, and a robot. The robot is configured to perform absorption operation that includes at least one of moving the particle absorption tool and pressing the particle absorption tool down in the target area in a target area for absorption of particles during the absorption of particles.

Abstract: A charging system according to this disclosure includes a particle absorption tool configured to be electrostatically charged so as to build up a static electric charge for absorbing particles; a charger configured to electrostatically charge the particle absorption tool so as to build up the static electric charge; and a charger container configured to accommodate the charger, arranged in a place where a FOUP for accommodating substrates is arranged, and having an opening that is opened toward an interior of a substrate conveyor.

Abstract: A particle removal system according to this disclosure includes a particle absorption tool configured to be electrostatically charged so as to build up a static electric charge for absorbing particles. The particle removal system includes a charger a robot, and a controller. The controller is configured to control operation of the robot to electrostatically charge the particle absorption tool so as to build up the static electric charge by using the charger.

Abstract: A particle removal system according to this disclosure includes a particle absorption tool configured to be electrostatically charged so as to build up a static electric charge for absorbing particles. The particle removal system includes a charger a robot, and a controller. The controller is configured to control operation of the robot to electrostatically charge the particle absorption tool so as to build up the static electric charge by using the charger.

Abstract: A particle removal system according to this disclosure includes a particle absorption tool configured to absorb particles, and a robot. The robot is configured to perform absorption operation that includes at least one of moving the particle absorption tool and pressing the particle absorption tool down in the target area in a target area for absorption of particles during the absorption of particles.

Abstract: A charging system according to this disclosure includes a particle absorption tool configured to be electrostatically charged so as to build up a static electric charge for absorbing particles; a charger configured to electrostatically charge the particle absorption tool so as to build up the static electric charge; and a charger container configured to accommodate the charger, arranged in a place where a FOUP for accommodating substrates is arranged, and having an opening that is opened toward an interior of a substrate conveyor.

Abstract: A charging system according to this disclosure includes a particle absorption tool configured to be electrostatically charged so as to build up a static electric charge for absorbing particles; a charger arranged in operating space of a robot arm that is configured to convey a substrate in an interior of a substrate conveyor, and configured to electrostatically charge the particle absorption tool so as to build up the static electric charge.

Abstract: A robot control unit for a substrate conveying robot raises a hand from a first lower position below a first target position at which the hand picks up a substrate to a first upper position above the first target position, and displaces at least one of a plurality of joints in one direction, in a first interval from the first lower position to a first intermediate position between the first lower position and the first target position.

Abstract: A robot control unit for a substrate conveying robot raises a hand from a first lower position below a first target position at which the hand picks up a substrate to a first upper position above the first target position, and displaces at least one of a plurality of joints in one direction, in a first interval from the first lower position to a first intermediate position between the first lower position and the first target position.

Abstract: A method and logging tool for evaluating leakage within a wellbore. In an embodiment, a percussive hammer assembly is selectively actuated to strike the interior wall of a casing, thereby propagating a sound wave along the casing. An array of acoustic detectors are selectively recorded during short time windows based on sound propagation times from the percussive hammer assembly to each acoustic detector, thereby avoiding the need to continuously sample acoustic detectors and collecting voluminous data. A self-tuning mode may be provided to determine sound propagation times.

Abstract: A method and logging tool for evaluating leakage within a wellbore. In an embodiment, a percussive hammer assembly is selectively actuated to strike the interior wall of a casing, thereby propagating a sound wave along the casing. An array of acoustic detectors are selectively recorded during short time windows based on sound propagation times from the percussive hammer assembly to each acoustic detector, thereby avoiding the need to continuously sample acoustic detectors and collecting voluminous data. A self-tuning mode may be provided to determine sound propagation times.