Abstract: A system for autonomous operation and management of oil and gas fields includes at least one autonomous vehicle. The system also includes a processor communicatively couplable to the plurality of autonomous vehicles and a non-transitory memory device including instructions that are executable by the processor to cause the processor to perform operations. The operations include receiving field analytics data of an oil and gas field and producing at least one hydrocarbon field model based on the field analytics data. Additionally, the operations include deploying the at least one hydrocarbon field model to a sensor trap appliance using the at least one autonomous vehicles and collecting well sensor data from the sensor trap appliance. Further, the operations include detecting an anomaly using the at least one hydrocarbon field model and the well sensor data and triggering an operational process based on detecting the anomaly.

Abstract: A method of operating a three-dimensional (3D) metal object manufacturing apparatus selects operational parameters for operation of the printer to form conductive metal traces on substrates with dimensions within appropriate tolerances and with sufficient conductive material to carry electrical currents without burning up or becoming too hot. The method identifies the material of the substrate and the bulk metal being melted for ejection and uses this identification data to select the operational parameters. Thus, the method can form conductive traces and circuits on a wide range of substrate materials including polymeric substrates, semiconductor materials, oxide layers on semiconductor materials, glass, and other crystalline materials.

Abstract: An example of a multi-fluid kit for three-dimensional (3D) printing includes an elasticity agent to be applied to at least a portion of a build material composition during 3D printing and a fusing agent to be applied to the at least the portion of the build material composition during 3D printing. The elasticity agent includes a plasticizer having: a formula (I): wherein n is an integer ranging from 3 to 8; or a formula (II): wherein m is an integer ranging from 3 to 8. The fusing agent includes an energy absorber.

Abstract: A driving force transmission device includes a rotating body that is rotated by receiving a driving force, a control unit that controls rotation of the other rotating part by being switched between a connection state where the control unit is connected to the other rotating part and a separation state where the control unit is separated from the other rotating part as states of the control unit with respect to the other rotating part, and an operation unit that is operated by receiving a force output from the rotating body and includes a contact mechanism to be in contact with the control unit, the contact mechanism being moved by the force output from the rotating body to operate the control unit and the contact mechanism then being separated from the control unit.

Abstract: A system is disclosed for driving an actuator which comprises a chamber, a shutter of an injection nozzle for molten material for injection molding, and a piston translatable inside the chamber to actuate a shutter. Means are provided for the transfer of a predetermined amount of fluid between the outside and inside of the chamber, so as to bring/move the shutter from a closing position, in which there is no passage of molten material, towards an opening position, in which there is passage of molten material, by injecting the predetermined amount of fluid from the outside into the chamber or by injecting the predetermined amount of fluid from the chamber towards the outside, or vice versa.

Abstract: Injection molding apparatus (1) comprising: an actuator (14, 940, 941, 942) comprising a rotor (940r, 941r, 942r) controllably rotatable by electric power, the actuator (14, 940, 941, 942) being interconnected to a controller (16) that generates drive signals (DC), an electrical drive device (940d, 941d, 942d) comprising an interface that receives the drive signals (DC) and controllably distributes electrical energy or power in controllably varied amounts according to the drive signals (DC) to a driver (940dr, 941dr, 942dr) that drives the rotor (940r, 941r, 942r), a valve pin (1040, 1041, 1042) having an axis (X) and a control surface (43, 45, 102m) adapted to interface with a complementary surface (47, 103s) in a downstream feed channel to vary rate of injection fluid flow to a cavity of a mold, and, a sensor adapted to sense a property of the injection fluid upstream and away from a gate, the sensed property being used in a program to controllably position the control surface relative to the complementa

Abstract: A device for handling value documents can include a dispensing compartment for the withdrawal of value documents. The dispensing compartment is delimited by a depositing element, a delimiting element, and a closure element. The delimiting element is arranged in a first delimiting position to supply the value documents into the dispensing compartment. With a movement of the depositing element in the direction of the delimiting element, the delimiting element is moved from the first delimiting position into a second delimiting position. In order to open the dispensing compartment, the closure element is moved from the closed position into the open position, wherein an engaging element of the delimiting element engages the closure element when moving the closure element, or in the open position of the closure element, if the delimiting element is in the second delimiting position.

Abstract: An injection molding apparatus comprising: An actuator having a driver receiving electrical energy or power from an electrical drive, the electrical drive comprising an interface, the electrical drive being housed within or by and actuator housing or being mounted on or to the housing, the housing and the electrical drive being mounted on, to or in close proximity to the heated manifold, a cooling device disposed between the heated manifold and the housing adapted to substantially isolate or insulate at least the electrical drive from communication with heat emanating from the heated manifold or to heat sink or absorb heat communicated or communicable to the electrical drive from the heated manifold or both.

Abstract: A drive transmission unit includes a cam member, a motor, a cam follower, and an extension spring. The cam member rotates about a rotation shaft. The cam member includes a first cam defining a maximum distance between the cam follower and the rotation shaft and a second cam having an outer peripheral surface positioned closer to the rotation shaft than the outer peripheral surface of the first cam. The motor rotates the rotation shaft. The cam follower is to be in contact with the cam member and moves in the +B direction and the ?B direction by the rotation of the cam member. The extension spring presses the cam follower against the cam member. When the cam follower moves in the ?B direction by the rotation of the cam member, this operation includes contact between the outer peripheral surface of the second cam and the cam follower.

Abstract: A sheet feed roller portion (12) feeds a plurality of bound sheets (S1) to a conveying path (18). The ultrasonic sensor (19) detects a voltage value that changes according to a thickness of the sheet (S1) at a measurement position (P2) on the conveying path (18). A determination processing portion (53) determines whether or not a voltage difference between voltage values of the sheet (S1) detected by the ultrasonic sensor (19) is equal to or greater than a preset threshold value. A light amount adjustment processing portion (54) adjusts a light amount of light emitted from a CIS sensor (23) and irradiated onto the sheet (S1) when the determination processing portion (53) determines that the voltage difference is equal to or greater than the threshold value.

Abstract: A device for processing a medium includes: a conveyor for conveying the medium; an internal storage for storing the medium, the internal storage being disposed inside a body of the device and connected to the conveyor; an external storage for storing the medium, the external storage being disposed outside the body and connected to the conveyor; a temporary storage for storing the medium temporarily, the temporary storage being connected to the conveyor; and a controller for controlling the conveyer to perform at least one of collection processing and replenishment processing, the collection processing being processing of conveying the medium from the internal storage to the external storage via the temporary storage, the replenishment processing being processing of conveying the medium from the external storage to the internal storage via the temporary storage.