Roxar Flow Measurement As

Rosemount Inc.

Ivar Breen

David Andrew Broden

David Matthew Strei

Per Hassel Sørensen

Jay I Scheldorf

Morten Ivar Andersen

Christophe Tarayre

Gokhan Aydar

Brent Wayne Miller

Christophe Sartiaux

Brent W Miller

Jay Scheldorf

David Strei

Clamp (') comprising a main body (&#x2032;) adapted to encircle an inner element () or to be encircled by an outer element to which the clamp () can releasably connect. An axially extending opening extends through the main body (&#x2032;). The clamp comprises a locking arm () which is connected to said main body (&#x2032;) at a base end (), and which can bend elastically to move its oppositely positioned free end () in a substantially radial direction. The locking arm () comprises a locking pad () at a distance from the base end (), which in a locking position of the locking arm () extends radially beyond an inner () or outer (&#x2032;) diameter, respectively, of the main body (&#x2032;). The locking pad () is adapted to engage with a recess () in said inner () or outer (&#x2032;) element.

Clamp

A remote seal assembly for subsea applications is provided. The assembly includes an upper housing having a fluid coupling for coupling the remote seal to a process fluid pressure measurement device. A lower housing is coupled to the upper housing and has an interface that is configured to mount to a pressure vessel. The lower housing also has a process fluid inlet. An isolation diaphragm is disposed between the upper and lower housings. At least one of the upper housing, lower housing and isolation diaphragm are constructed from a material suitable for immersion in saltwater. In some embodiments, the lower housing has a shoulder disposed about the process fluid inlet and a plurality of self-energizing seals configured to couple the assembly to a venturi flow meter body. A subsea process fluid flow measurement system is also provided that includes a pressure transmitter and at least one subsea remote seal assembly.

Remote seal pressure measurement system for subsea use

A co-planar differential pressure sensor module is provided. The module includes a base having a pair of recesses. A pair of pedestals is also provided where each pedestal is disposed in a respective recess and is coupled to a respective isolation diaphragm. A differential pressure sensor has a sensing diaphragm and a pair of pressure sensing ports. Each port of the differential pressure sensor is fluidically coupled to a respective isolation diaphragm by a fill fluid. The module also includes circuitry coupled to the differential pressure sensor to measure an electrical characteristic of the sensor that varies with differential pressure. The base is constructed from a material that is suitable for submersion in seawater. A method of constructing a co-planar differential pressure sensor module is also provided. In another embodiment, a pressure sensor module is provided. The pressure sensor module includes a base having a recess. A pedestal is disposed in the recess and is coupled to an isolation diaphragm. A pressure sensor having a sensing diaphragm and a pressure sensing port is fluidically coupled to the isolation diaphragm by a fill fluid. Circuitry is coupled to the pressure sensor to measure an electrical characteristic of the sensor that varies with pressure. The base is constructed from a material that is suitable for submersion in seawater.

Pressure sensor module for sub-sea applications

Electrical and/or optical connector housing () with a wet-mateable connector receiving part (), adapted to receive a mating electrical and/or optical connector counterpart when surrounded by a hydrostatic pressure, such as the pressure of surrounding water. The connector housing () exhibits a compartment () that is pressure balanced with respect to said hydrostatic pressure, wherein one or more electrical and/or optical conductors () are guided from the receiving part () to a penetrator (), said penetrator () constituting a pressure barrier between said compartment () and an opposite end of the penetrator (). The housing () comprises at least one wall part () adapted to be flexed by an exterior hydrostatic pressure exerting force on the housing (), thereby changing the volume of said inner compartment (), whereby said wall part () constitutes at least a part of the encapsulation of said compartment ().

Housing for wet-mateable connector and penetrator assembly

This invention relates to a device for mounting in a fixed mounted frame () on a subsea pipe comprising a locking device comprising a sensor housing (), a spring () surrounding the sensor housing (), at least one wedge () placed in one of the ends of the spring (), and a edge () placed in the other end of the spring (), where the sensor housing () is arranged to be guided into the mounting frame (), and that a force () is applied in the longitudinal axis of the sensor housing () so that the spring () is compressed and the wedge(s) () are spanned radial out towards the mounting frame () to center and support the sensor housing () in the mounting frame (), the sensor housing () is designed to fit into the mounting frame ().

Locking mechanism with acoustic barrier for mounting a sensor on a pipe

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Stavanger, Norway

Ivar Breen