Abstract: A method for cleaning a vulcanization mold for tires in a curing press uses device having a collaborative mobile robot and incorporating a computer program. The robot includes an autonomous mobile platform mounted on drive wheels and having batteries supplying electricity, a dry ice dispenser, sensors for identifying the location of the mold to be cleaned, and motors ensuring its displacement between a storage location of the device and the mold to be cleaned and the displacement of an articulated mobile arm of the robot. The robot bears a nozzle for spraying dry ice from the dispenser. The device comprises means for communication with a control unit. The control unit sends a mission instruction to the device, which navigates between a storage location and the location of the mold and automatically cleans the vulcanization mold.

Abstract: An assembly for a gas turbine engine includes a casing centered on a longitudinal axis and including an upstream portion, a central portion and a downstream portion arranged successively along the longitudinal axis, an attachment system include plural tie rods, and an accessory gearbox arranged within a space delimited axially by the upstream portion and the downstream portion and radially by the central portion, the accessory gearbox being solely attached to the upstream portion or solely attached to the downstream portion by the attachment system.

Abstract: Provided are computing systems, methods, and platforms that automatically produce production-ready machine learning models and deployment pipelines from minimal input information such as a raw training dataset. In particular, one example computing system can import a training dataset associated with a user. The computing system can execute an origination machine learning pipeline to perform a model architecture search that selects and trains a machine learning model for the training dataset. Execution of the origination machine learning pipeline can also result in generation of a deployment machine learning pipeline configured to enable deployment of the machine learning model (e.g., running the machine learning model to produce inferences and/or optionally other tasks such as re-training and/or re-tuning the model).

Abstract: A tire picking system (100) performs a process for picking one or more tires stored in an unknown arrangement and for which a target location must be realized. A gripper (108) and a robot (102) including a gripping device (104) supported by a pivotable elongated arm (106), the gripping device extending from the elongated arm to a free end (104a) where the gripper is disposed, form part of the system (100). An image processing module applies data representative of the physical environment around the robot (102) to a deployed neural network in order to determine one or more parameters of a target tire (P*); the robot is set in motion based on the determined parameters of the target tire, so that the gripper can pick a target tire (P*) selected by the system (100) from among the stored tires.

Abstract: Method for checking the compliance of a workpiece, comprising the following steps: estimating a risk of non-compliance of characteristic on the basis of a law of probability associated with the characteristic; and verifying whether the estimated risk of non-compliance satisfies a decision criterion and, if so, declaring that the workpiece is compliant for characteristic; if not, measuring a value of the characteristic, determining whether or not the workpiece is compliant based on the measured value, and updating the law of probability associated with characteristic based on the measured value.

Abstract: A machine for applying spouts to containers includes a heating tunnel for heating spouts, and a conveyor for conveying spouts through the heating tunnel for heating. The conveyor is a loop conveyor including a plurality of spout holding rack assemblies mounted thereon, wherein the loop conveyor defines a conveyor path from a spout loading zone, through the heating tunnel and then back to the spout loading zone. The machine includes (i) multi-material warp resistant rack holding assemblies, and/or (ii) a spout infeed track at a spout infeed side of the conveyor that includes an adjustment assembly for permitting adjustment of a number of spouts fed from the spout infeed track into an aligned spout holding rack assembly, and/or (iii) a spout emptying passage at a spout outfeed side of the conveyor, and/or (iv) a controller configured to track the position of each spout holding rack assembly along the conveyor path.

Abstract: A machine for applying spouts to containers includes a heating tunnel for heating spouts, and a conveyor for conveying spouts through the heating tunnel for heating. The conveyor is a loop conveyor including a plurality of spout holding rack assemblies mounted thereon, wherein the loop conveyor defines a conveyor path from a spout loading zone, through the heating tunnel and then back to the spout loading zone. The machine includes (i) multi-material warp resistant rack holding assemblies, and/or (ii) a spout infeed track at a spout infeed side of the conveyor that includes an adjustment assembly for permitting adjustment of a number of spouts fed from the spout infeed track into an aligned spout holding rack assembly, and/or (iii) a spout emptying passage at a spout outfeed side of the conveyor, and/or (iv) a controller configured to track the position of each spout holding rack assembly along the conveyor path.

Abstract: The invention relates to a cutting wheel of a tunnel boring machine comprising at least one material discharge opening (5), said discharge opening (5) being delimited by a circumferential wall (10), the cutting wheel (3) being characterized in that it further comprises at least one ultrasonic emitter (6) configured to generate a mechanical vibratory motion in a range of ultrasonic frequencies, said emitter (6) being fixed against the circumferential wall (10) so as to transmit the mechanical vibratory motion to the vibrating circumferential wall (10) and to reduce its coefficient of friction.

Abstract: The invention relates to a cutting wheel of a tunnel boring machine comprising at least one material discharge opening (5), said discharge opening (5) being delimited by a circumferential wall (10), the cutting wheel (3) being characterized in that it further comprises at least one ultrasonic emitter (6) configured to generate a mechanical vibratory motion in a range of ultrasonic frequencies, said emitter (6) being fixed against the circumferential wall (10) so as to transmit the mechanical vibratory motion to the vibrating circumferential wall (10) and to reduce its coefficient of friction.

Abstract: A trailer of a backup train of a tunnel boring machine includes a rolling means configured to allow movement of the trailer on a circulation route, a chassis including a lower portion including the rolling means and an upper portion, opposite to the rolling means, conveying means, fixed in the lower portion of the chassis, the conveying means being configured to move at least one support along the trailer, the support being configured to transport at least one arch segment along the chassis.

Abstract: A trailer of a backup train of a tunnel boring machine includes a rolling means configured to allow movement of the trailer on a circulation route, a chassis including a lower portion including the rolling means and an upper portion, opposite to the rolling means, conveying means, fixed in the lower portion of the chassis, the conveying means being configured to move at least one support along the trailer, the support being configured to transport at least one arch segment along the chassis.