Cameron International Corporation

Hydril USA Manufacturing LLC

Salvador Reyes

Emanuel John Gottlieb

Andrew Jaffrey

Donald Roy Augenstein

Mark Saunders

Ryan Cheaney Gustafson

Donald Scott Coonrod

Kody Carrillo

Edward C Gaude

Perrin Rodriguez

A monitoring system for a blowout preventer (BOP) of a mineral extraction system includes a sensor assembly having a housing, a rotatable wheel supported within the housing, wherein the rotatable wheel extends from the housing to enable linear movement of a movable component of the BOP to drive rotation of the rotatable wheel. The sensor assembly also includes an encoder configured to detect rotation of the rotatable wheel and to generate a signal indicative of the rotation of the rotatable wheel to enable determination of a position of the movable component of the BOP.

Blowout preventer monitoring systems and methods

An apparatus and method for monitoring valve operation. In one embodiment, an apparatus for monitoring valve operation includes a first acoustic sensor and a monitoring system. The first acoustic sensor is to couple to a valve to detect vibration of the valve. The monitoring system is communicatively coupled to the first acoustic sensor. The monitoring system is configured to receive a signal generated by the first acoustic sensor. The signal is representative of vibration of the valve. The monitoring system is also configured to identify leakage in the valve based on the signal.

Apparatus and method for monitoring valve operation

A monitoring system for a blowout preventer (BOP) includes an ultrasonic transceiver configured to be coupled to a body that supports a movable component of the BOP. The system also includes a reflector configured to be positioned within a channel formed in the body. The ultrasonic transceiver is configured to emit an acoustic wave and the reflector is configured to reflect the acoustic wave to facilitate transmission of the acoustic wave from the ultrasonic transceiver to the movable component of the BOP and to facilitate transmission of a reflected acoustic wave from the movable component to the ultrasonic transceiver to enable the ultrasonic transceiver to generate a first signal indicative of a position of the movable component. The system further includes a controller configured to receive the first signal from the ultrasonic transceiver and to determine the position of the movable component based on the first signal.

An apparatus for characterizing objects in the bore of a well assembly is provided. In one embodiment, the apparatus includes a sensing array including ultrasonic transducers and a data analyzer coupled to receive input from the sensing array. The sensing array is positioned to transmit ultrasonic waves into the bore of a well assembly and to receive ultrasonic waves from the bore. The data analyzer processes data representative of ultrasonic waves received by the sensing array to identify a location of a component in the bore. Additional systems, devices, and methods are also disclosed.

Bore object characterization system for well assemblies

A system for a blowout preventer (BOP) stack assembly includes one or more pairs of ultrasonic transducers coupled to a body that is configured to support a movable component of the BOP stack assembly, wherein each pair of ultrasonic transducers comprises a first ultrasonic transducer disposed on a first side of the body and a second ultrasonic transducer disposed on a second side of the body, opposite the first side. The system also includes a controller configured to receive a first signal indicative of a position of the movable component from the one or more pairs of ultrasonic transducers, to determine the position of the movable component based on the first signal, and to provide a first output indicative of the position of the movable component.

Systems and methods for monitoring blowout preventer equipment

A system for determining the position of a piston in a subsea accumulator, comprising: a sensor module comprising: a housing; an ultrasonic transducer facing the piston and configured to transmit an ultrasonic pulse through a fluid medium toward a surface of the piston; a pressure sensor configured to; and a temperature sensor; a control connector coupled to the sensor module capable of providing hardware and software functions to measure transit time of the ultrasonic signal from the ultrasonic transducer to the surface of the piston, comprising electronics for controlling the ultrasonic transducer, pressure sensor and temperature sensor; wherein the transit times of the ultrasonic signals across the fluid medium are measured and combined with a computed velocity of sound as a function of temperature/pressure to determine the distance between the ultrasonic transducer and the surface of the piston.

System and method for position monitoring using ultrasonic sensor

A flow regulator includes a flow regulating part configured to receive at an inlet a working fluid at a first pressure and to release the working fluid at an outlet at a second pressure; a slide provided inside the flow regulating part and configured to move along an axis to reduce the pressure of the working fluid; a control part attached to the flow regulating part, the control part including a chamber; a spring housing provided in the chamber and connected to the slide though a shaft, the spring housing configured to move the slide along the axis; a cap provided in the chamber and facing the spring housing, the cap being configured to have plural blind holes; and plural pins extending along the axis and attached to the spring housing, the plural pins being configured to enter the plural blind holes.

Growing community of inventors

Houston, TX, United States of America

Salvador Reyes