A floodwater redistribution assembly for redirecting flood waters to a predetermined location for irrigation and municipal water service includes a subterranean vault that is positioned adjacent to a body of water known for periodic flooding. An inlet pipe is integrated into the subterranean vault to direct the water from the body of water into the subterranean vault. An outlet pipe is integrated into the subterranean vault to direct the water outwardly to a predetermined location for the purposes of irrigation and municipal water service. A ball valve is positioned within the subterranean vault to facilitate the water to flow into the outlet pipe. A ball valve control unit is coupled to the ball valve. The ball valve control unit is in remote communication with a remote control source and the ball valve control unit actuates the ball valve between an open position and a closed position.

A cartridge flow rate adjusting assembly of a hydraulic valve may include a rod having a first end and a second end, a shutter integrally formed with the first end of the rod and to slidingly positioned against a passage opening of the valve for adjusting flow. The assembly may also include an elastic element to hold the rod with the shutter in a monostable position with the opening of the valve. A plunger element may be integrally formed with the rod and interposed between the shutter and second end. The assembly may further include a conduit formed in the rod. The opening of the valve may be in fluid communication with a portion of the chamber disposed between the plunger and second end so that a pressure in the portion of the chamber is equal to a pressure in the passage opening.

Blocking device for pressurized gas pipelines includes: a blocking valve, which includes: a connection body; a movable shutter; a stem carrying the shutter; a fluid-dynamic actuator, configured to translate the stem; thrust means to bring the shutter from an operating position of opening to an operating position of complete closure; a control system for controlled actuation of the fluid-dynamic actuator, having a by-pass group for equalizing upstream pressures in an upstream chamber and downstream pressures in a downstream chamber, and a pressure reducer group interconnected with the bypass group, the pressure reducer group configured to receive a motorization fluid at a supply pressure as input, and to supply the fluid-dynamic actuator with a motorization pressure through a motorization line, the control system having a pressure differential selector that detects a signal of the upstream pressure and a signal of the supply pressure.

A mass flow control apparatus is capable of controlling a flow rate of a fluid to a tool. Pressure of the fluid is regulated by a solenoid valve, which receives signals from a control module. Various set points may be inputted to the control module, whereby control module receives pressure sensor signals from across a flow restrictor and adjusts the solenoid valve to control the fluid flow rate to equal a set point.

A mass flow control apparatus is capable of controlling a flow rate of a fluid to a tool. Pressure of the fluid is regulated by a solenoid valve, which receives signals from a control module. Various set points may be inputted to the control module, whereby control module receives pressure sensor signals from across a flow restrictor and adjusts the solenoid valve to control the fluid flow rate to equal a set point.

The invention relates to a pressure reduction unit for use in processing equipment handling high pressure fluid, where the pressure reduction unit comprises at least one inlet and an outlet, the pressure reduction unit being adapted to receive a pressurized fluid at process pressure level at the inlet, being adapted to isolate the received pressurized fluid from the upstream process and from the outlet and being adapted to reduce the pressure of the fluid to a lower predetermined level and further being adapted to output the fluid through the outlet while still isolated towards the upstream process.

The invention relates to a pressure reduction unit for use in processing equipment handling high pressure fluid, where the pressure reduction unit comprises at least one inlet and an outlet, the pressure reduction unit being adapted to receive a pressurized fluid at process pressure level at the inlet, being adapted to isolate the received pressurized fluid from the upstream process and from the outlet and being adapted to reduce the pressure of the fluid to a lower predetermined level and further being adapted to output the fluid through the outlet while still isolated towards the upstream process.

A pressure reference resetting structure of an inflatable mattress, the inflatable mattress contains a valve connected with an end of the inflatable mattress, an inflatable air pump connected with the valve, and the valve being connected with a pressure detection pipe which is coupled with a pressure sensing element. The valve includes an air orifice communicated with the pressure detection pipe so that the pressure sensing element detects a pressure of an external environment via the pressure detection pipe and the air orifice, and a reference pressure of the inflatable mattress is reset to inflate the inflatable mattress based on the reference pressure.

A cartridge flow rate adjusting assembly of a hydraulic valve may include a rod having a first end and a second end, a shutter integrally formed with the first end of the rod and to slidingly positioned against a passage opening of the valve for adjusting flow. The assembly may also include an elastic element to hold the rod with the shutter in a monostable position with the opening of the valve. A plunger element may be integrally formed with the rod and interposed between the shutter and second end. The assembly may further include a conduit formed in the rod. The opening of the valve may be in fluid communication with a portion of the chamber disposed between the plunger and second end so that a pressure in the portion of the chamber is equal to a pressure in the passage opening.

An apparatus for monitoring a power swivel system includes a smart box comprising a processing device electrically associated with a memory, communication technology and least one of a local display device or a remote display device where the communication technology. The smart box is associated with a power swivel system comprising a power swivel unit in fluid communication with a hydraulic pump system driven by a motor. The hydraulic pump system is configured to pump a hydraulic fluid through the power swivel unit to activate rotating elements. A plurality of sensors are connected to the processing device and various components of the power swivel system including the rotating elements to monitor such elements and minimize the possibility of an over speed and/or over torque condition. Data providing a status of the power swivel system components is transmitted to a remote device and presented to a user via a GUI.