Patent classifications
F16L59/16
Methods and systems for jacket joints
A system comprising a protective jacket for insulating pipe is provided. The protective jacket comprises a first metal shell comprising an interior surface and an exterior surface, wherein the interior surface comprises a moisture protective coating, and the exterior surface comprises a film adhered to the exterior surface by an adhesive, and wherein the adhesive provides for a toolless removal of the film.
SYSTEMS AND METHODS FOR THERMAL MANAGEMENT OF SUBSEA CONDUITS USING A SELF-DRAINING JUMPER
Disclosed are systems and methods for thermal management of subsea conduits. A jumper that carries oil and/or gas produced from a subsea well in a subsea production facility located on a seabed has a first end for connecting to a first subsea component and a second end for connecting to a second subsea component. The jumper includes a jumper segment that is sloped relative to the horizontal, such that gravity assists with drainage of fluid from the second end of the jumper independent from fluid pressure in the jumper. At least a portion of the jumper is uninsulated to allow exchange of heat with seawater surrounding the jumper as produced fluid travels through the jumper. The amount of insulation on the jumper can be varied such that heat transfer from the production fluids to seawater surrounding the jumper circuit is adjusted as desired.
Pipe joint and piping structure
A pipe joint (1) comprising: a tubular main body (10) having a flow path inside, which is formed of a resin comprising a copolymer having one or more selected from a vinyl cyanide monomer unit and an acrylic monomer unit, a rubber component, and an aromatic vinyl monomer unit; and a socket section (20a) integrally formed with the main body (10), wherein: the main body (10) has a foamed resin layer (30) and a non-foamed resin layer (50) covering the foamed resin layer (30); the amount of the rubber component in the foamed resin layer (30) as determined by pyrolysis-gas chromatography/mass spectrometry is within a specific range; the amount of the rubber component in the non-foamed resin layer (50) is within a specific range; and a ratio (L.sub.a/L.sub.a) of length (L.sub.a) from a base end (21a) to an opening end (22a) of the socket section (20a) to a thickness (d.sub.a) of the socket section (20a) at the opening end is 2.0 or more and 10.0 or less.
Access port seal
An apparatus for sealing an opening in a metal sheath surrounding an insulated pipe is provided, the apparatus including a base comprising an outer flange securable within the opening, and defining an inner passage therethrough, the base having an annular ridge extending into the inner passage; a flexible waterproof body positionable within the inner passage, the body having a periphery therearound and a groove located within the periphery adapted to engage around the annular ridge; and a flexible metal element within the base.
Access port seal
An apparatus for sealing an opening in a metal sheath surrounding an insulated pipe is provided, the apparatus including a base comprising an outer flange securable within the opening, and defining an inner passage therethrough, the base having an annular ridge extending into the inner passage; a flexible waterproof body positionable within the inner passage, the body having a periphery therearound and a groove located within the periphery adapted to engage around the annular ridge; and a flexible metal element within the base.
PRE-INSULATED VALVES FOR FLUID SYSTEM
The present disclosure relates to pre-insulated valves (102, 144) for a fluid system, comprising valve body (104, 146) having lugs (128, 168). The valves (102, 144) comprises first insulating layer (134, 172) comprising an inner surface (136, 174) being adapted to cover an entire outer surface (132, 176) of the plurality of lugs (128, 168) and an entire outer surface (130, 170) of the valve body (104, 146) such that the first insulating layer (134, 172) is in close physical contact with the outer surface (130, 170) of the valve body (104, 146) including an outer surface (132, 176) of the plurality of lugs (128, 168). The valves (102, 144) comprises second insulating layer (138, 178) comprising an inner surface (140, 180) being adapted to be in close physical contact with an entire outer surface (137, 182) of the first insulating layer (134, 172).
THERMAL INSULATING SLEEVE LINER FOR FLUID FLOW DEVICE AND FLUID FLOW DEVICE INCORPORATING SUCH LINER
A monolithic metal thermal insulating sleeve liner for fluid flow devices such as valves and piping used in severe industrial applications is additively manufactured (e.g., by 3D printing) to fit the bore of a protected fluid flow device. Tessellated support structures obliquely extending between inside surfaces of inner and outer shells provide increased resistance to thermal conduction while also providing increased strength against compression forces. Example support structures include an array of four obliquely oriented elongated members mutually intersecting mid-way between the inside surfaces of inner and outer cylindrical shells. If internal interstices are sealed they can be vacuumed or pressurized to enhance thermal insulating properties. A pressure equalizing aperture can be provided on or through the sleeve if needed in some applications.
Heated Throttle Valve Apparatus and Methods of Use and Manufacture
A heated throttle valve apparatus is disclosed herein, which includes a valve system with a valve driver configured to provide a rotational force to a valve assembly via a thermal isolating drive coupler configured to prevent the transfer of thermal energy from the valve assembly to the valve driver. The valve assembly includes a valve body and a valve closure member, a valve shaft with a valve shaft heater in a first heating zone and one or more body heaters in a second heating zone, permitting the user to control temperature in the heating zones independently. An electrical conductor strain relief is provided, configured to eliminate strain in the shaft heater electrical conductors when the valve closure member undergoes a change in angular orientation. The electrical conductor strain relief includes a flexible member with a curvilinear shape wound between a first connection area and a second connection area.
METHOD OF USING ROLLED CONNECTING SYSTEMS FOR ADJACENT ENDS OF INSULATION TUBING
A method of applying a pressure sensitive transfer adhesive to at least two end faces of insulation tubing, using a rolled connection system for adjacent ends of insulated tubing sections having a substrate roll of continuous release liner. Pressure sensitive transfer adhesive material members configured to conform with the ends of insulated tubing sections to be joined are spaced at selected distances from each other along the length of the continuous release liner. A second release liner covers each pressure sensitive adhesive material member and includes a tab to facilitate removal of the second release liner from the adhesive material members to facilitate joining juxtaposed face portion of the ends of the insulated tubing to be connected.
Reusable hose bundling sleeve
A reusable hose bundling sleeve having hooks and loops attached to an elongated section of material. The loops have a portion that extends beyond an edge of the elongated section and the portion of the loops has an identifiable portion.