Description

API 6A Surface Safety Valve for Wellhead & Christmas Tree ESD

SGPE supplies API 6A Surface Safety Valves (SSVs) for emergency shutdown and fail-safe isolation of oil and gas wells. Typical installations include production wellheads, Christmas trees, production wings, high-pressure gas wells, surface well testing systems, flowback packages, temporary production facilities, offshore wellheads and remote well pads.

A typical Hydraulic Surface Safety Valve combines an API 6A gate valve with a spring-return hydraulic actuator. Hydraulic pressure opens the valve during normal production. When the Emergency Shutdown System vents the control pressure, stored spring energy moves the gate toward its fail-safe closed position and isolates the well from downstream surface equipment.

This makes the SSV an important shutdown element in wellhead ESD systems, Christmas tree safety systems, production wing shutdown systems and surface well test emergency shutdown packages.

Typical SGPE projects range from 2,000 psi to 15,000 psi, with commonly requested bores from approximately 1-13/16″ to 7-1/16″, subject to the approved configuration. Project options can include API 6B or API 6BX RTJ connections, full-bore flow paths, spring-return hydraulic actuators, hardfaced gates and seats, sour-service materials, CRA trim, selected Alloy 625 overlay, manual override, position feedback and remote shutdown interfaces.

For a new project, the valve, actuator and control interface should be reviewed together. Bore, working pressure, API connection, produced fluid, maximum differential pressure, available hydraulic pressure, materials and required closing response all affect the final configuration.

For a replacement API 6A Surface Safety Valve, provide the existing nameplate, drawings, face-to-face dimensions, actuator data and field photographs. These details help confirm mechanical fit, hydraulic compatibility and the existing ESD interface before quotation.

Product Short Description

SGPE API 6A Surface Safety Valves provide remote fail-safe isolation for oil and gas production wellheads, Christmas trees, high-pressure gas wells, surface well testing, flowback, offshore production and replacement projects.

The same equipment may appear in specifications as a Hydraulic Surface Safety Valve, Hydraulic SSV, Wellhead Surface Safety Valve, Wellhead Safety Valve, Wellhead ESD Valve, Christmas Tree Safety Valve, Production Wing Safety Valve, Surface Shutdown Valve or Fail-Close Surface Safety Valve.

Typical projects cover approximately 1-13/16″ to 7-1/16″ bores and 2K to 15K pressure classes. SGPE also supports H2S and sour-service requirements, actuator sizing, API connection matching, replacement SSV engineering, FAT, third-party inspection, technical documentation and spare-parts planning.

API 6A Surface Safety Valve Product Overview

An API 6A Surface Safety Valve provides remotely controlled isolation in the surface flow path of an oil or gas well.

Unlike a manually operated gate valve, an SSV works with an actuator and an emergency shutdown system. The operator can therefore shut in the well remotely when a defined abnormal condition occurs.

During production, hydraulic pressure holds the actuator open while the return spring stores mechanical energy. When the ESD system releases control pressure, the spring moves the valve toward closure.

A shutdown command may come from abnormal line pressure, a downstream equipment problem, hydraulic pressure loss, a manual ESD station, fire-related shutdown logic or a remote production control system.

A buyer asking only for a “3-1/16″ 10K SSV” has defined only part of the requirement. Maximum differential pressure, hydraulic supply pressure, failure mode, closing time, API interface and service conditions can be just as important as nominal bore and working pressure.

The valve body, actuator, hydraulic circuit, API connection and shutdown philosophy need to work as one system.

This also matters when comparing an API 6A Surface Safety Valve manufacturer or supplier. A useful technical quotation should address the complete valve-and-actuator package rather than only size and pressure rating.

API 6A Surface Safety Valve Technical Specifications

Valve Design, Pressure, Connection & Service Specifications

The following specifications cover the main valve design, pressure rating, API connection, materials and operating conditions. Final values depend on the approved SGPE data sheet, well conditions and project requirements.

Hydraulic Actuator, ESD Control, Testing & Documentation

The actuator and control system should be reviewed together with valve differential pressure, available hydraulic pressure, shutdown response and installation conditions.

API 6A SSV Sizes, Pressure Ratings and Connections

SGPE reviews 2K, 3K, 5K, 10K and 15K Surface Safety Valve projects across commonly used API 6A wellhead bore sizes.

Not every bore, pressure class and connection arrangement forms a valid combination, so the final interface should follow approved project data.

API 6A SSV Pressure Class Reference

Pressure class alone does not determine actuator size.

A 3-1/16″ 10K Surface Safety Valve, for example, may require a different actuator from another 3-1/16″ 10K SSV if differential pressure or available hydraulic control pressure changes.

API 6A Surface Safety Valve Bore Sizes

Common purchasing searches include 2-1/16 Surface Safety Valve, 2-9/16 Hydraulic SSV, 3-1/16 10K Surface Safety Valve, 4-1/16 Hydraulic Surface Safety Valve and 7-1/16 Wellhead Safety Valve.

API 6B and API 6BX Connections

The SSV must match the mating wellhead, Christmas tree or surface test equipment.

For replacement work, drawings and photographs help identify the existing equipment, but actual field measurements remain important. A valve can match bore and pressure class and still fail to fit an existing Christmas tree if the face-to-face dimension or actuator envelope differs.

Need a 5K, 10K or 15K Hydraulic SSV? Send the nominal bore, API connection, maximum differential pressure and available hydraulic control pressure for configuration review.

How a Hydraulic SSV Works with a Wellhead ESD System

A Hydraulic Surface Safety Valve normally uses hydraulic pressure to open and stored spring energy to close.

During startup, the wellhead control system sends pressure to the actuator. The piston moves, compresses the return spring and transfers force to the valve stem. Once the gate reaches full travel, its port aligns with the valve bore.

During production, the system maintains enough hydraulic pressure to keep the SSV open. When a shutdown condition occurs, the ESD system vents the actuator circuit and the return spring moves the valve toward its safe position.

The shutdown command can come from a high-pressure pilot, low-pressure pilot, manual ESD station, solenoid valve, fire-related shutdown device, PLC, RTU or another approved control function.

This arrangement gives a Hydraulic SSV, Wellhead Shutdown Valve or Fail-Close Surface Safety Valve a clear role in emergency well isolation.

Response time also depends on the hydraulic circuit. Control-line diameter, tubing length, actuator volume, hydraulic-fluid viscosity, venting capacity and temperature can all affect opening and closing speed.

If the project specifies a maximum Surface Safety Valve closing time, include that requirement in the RFQ so the actuator and hydraulic circuit can be reviewed together.

Hydraulic SSV Actuator and Control Options

Actuator selection has a direct effect on SSV performance.

Two SSVs with the same nominal size and working pressure can therefore require different actuators.

A project control package may include a wellhead control panel, hydraulic reservoir, accumulator, pressure regulator, ESD dump valve, HP/LP pilots, solenoid valve, manual shutdown station, local position indicator, limit switches and PLC or RTU interface.

For offshore platforms and remote wellsites, the RFQ should also identify required electrical signals and hazardous-area requirements for switches, solenoids or position transmitters.

Full-Bore Surface Safety Valve for Production and Well Testing

Many API 6A SSV applications use a full-bore or full-opening gate arrangement.

When fully open, the gate port aligns with the valve bore and provides a relatively straight flow path. This reduces unnecessary restriction during oil production, gas production, high-rate surface well testing and flowback.

The SSV should remain an isolation valve rather than a continuous throttling valve.

Holding a gate partly open concentrates velocity and pressure drop around the trim. Sand, scale and other solids can then accelerate erosion.

Use a dedicated production choke, API 6A choke valve or well-test choke manifold for continuous pressure reduction and flow regulation.

Sour Service, H2S and Erosive Well Conditions

No single material configuration suits every Surface Safety Valve application.

A Sour Service API 6A Surface Safety Valve requires more information than a generic request for a “NACE valve.”

H2S, CO2, operating temperature, produced-water chemistry, chloride content and project material requirements can influence the trim, stem, sealing system and wetted-material selection.

Where the approved configuration requires greater corrosion or erosion resistance, options can include hardfaced gates and seats, corrosion-resistant stems, CRA trim and selected Alloy 625 overlay.

Flowback and well cleanup create a different challenge. Sand, scale and repeated pressure changes can increase trim wear. For a Flowback Surface Safety Valve, erosion resistance, hardfacing, seal selection and actuator operating margin should be reviewed against the actual service.

API 6A Surface Safety Valve Applications

Surface Safety Valve for Oil and High-Pressure Gas Wells

An Oilfield Surface Safety Valve isolates a producing well from downstream surface equipment after an emergency command.

For oil production, selection normally considers operating pressure, shut-in pressure, produced fluids, sand, H2S, API connection and available hydraulic pressure.

Gas wells can impose higher actuator loads when the SSV operates across a large differential pressure. A 10K or 15K Hydraulic Surface Safety Valve therefore requires particular attention to maximum differential pressure, minimum control pressure, gas composition and required closing time.

Related high-intent searches include High Pressure Surface Safety Valve, 10K SSV, 15K SSV, Gas Well Surface Safety Valve and High Pressure Hydraulic SSV.

Christmas Tree and Production Wing Safety Valve

A Christmas Tree Surface Safety Valve provides fail-safe isolation in the production flow path.

Depending on project terminology, the same requirement may appear as a Production Wing Safety Valve, Wellhead Shutdown Valve, Wellhead ESD Valve or Christmas Tree ESD Valve.

The valve needs to match the tree bore, pressure class, RTJ connection, actuator orientation and available installation space.

For brownfield or retrofit work, face-to-face dimensions and actuator clearance can be as important as nominal valve size.

Well Test Surface Safety Valve

A Well Test Surface Safety Valve provides emergency isolation between the producing well and downstream surface test equipment.

Surface well testing can involve high pressure, changing flow rates, oil, gas, produced water, H2S and temporary surface piping. The RFQ should therefore define bore, maximum pressure, service fluid, API connection, available hydraulic pressure and required closing time.

Related purchasing terms include Well Testing SSV, High Pressure Well Test Safety Valve, Surface Test Safety Valve and ESD Valve for Well Testing.

Flowback and Well Cleanup SSV

Flowback and cleanup can combine high flow rates, pressure cycling, gas, liquid and abrasive solids.

A Flowback Surface Safety Valve provides emergency isolation while downstream choke equipment controls pressure and flow.

Sand production should be identified during the RFQ stage because hardfacing, erosion-resistant trim, seals and actuator margin may require additional review.

Offshore and Remote Wellhead SSV

An Offshore Surface Safety Valve may require additional attention to corrosion protection, actuator dimensions, package weight, remote operation and position feedback.

Remote or unmanned wellsites can use solenoid control, limit switches, position transmitters and PLC or RTU interfaces.

The project should define how the Remote Wellhead Safety Valve must respond after hydraulic pressure loss, electrical failure, communication loss and local or remote ESD commands.

API 6A Surface Safety Valve vs Actuated Gate Valve

An API 6A actuated gate valve and an SSV can use similar valve-body technology, but their primary duties differ.

A hydraulic actuator alone does not make a standard gate valve an SSV.

A genuine Wellhead Surface Safety Valve must match the required failure action, actuator load, hydraulic control pressure, ESD interface and shutdown logic.

Surface Safety Valve vs Subsurface Safety Valve

A Surface Safety Valve (SSV) operates above ground on the wellhead, Christmas tree or related surface equipment.

A Subsurface Safety Valve (SSSV) operates downhole inside the production tubing.

Both support well safety, but their installation location, design and control systems differ.

Buyers sourcing API 6A surface equipment should therefore specify Surface Safety Valve, Wellhead SSV or Hydraulic SSV rather than subsurface safety equipment.

Inspection, Testing and Project Documentation

Inspection and documentation requirements should be agreed early, especially for operator, EPC and third-party-inspected projects.

Depending on the purchase order, the documentation package can include a technical data sheet, GA drawing, sectional drawing, material certificates, NDE reports, pressure and closure test records, actuator test records, dimensional inspection reports, coating documentation, ITP, MDR/MRB and recommended spare-parts list.

Defining the inspection and documentation scope during quotation helps prevent late changes that affect cost or delivery.

Installation, Operation and Maintenance

Before installation, confirm the SSV bore, pressure class, mating connection, ring gasket, bolting, actuator orientation and available clearance.

The Christmas tree or wellhead should provide enough room for the actuator, control tubing and future maintenance. Large spring-return actuators can add considerable weight, so some horizontal installations may require additional mechanical support.

During commissioning, verify full valve travel, hydraulic control pressure, local indication, limit-switch signals, remote feedback and fail-safe response.

During normal production, keep the SSV fully open unless the approved operating procedure requires otherwise. Dedicated choke equipment should handle continuous pressure reduction and flow control.

Changes in hydraulic pressure, opening behavior or closing response can indicate leakage, contaminated control fluid, packing friction, trim wear, spring problems or restrictions in the hydraulic circuit.

Typical spare requirements include actuator seal kits, stem packing, gates, seats, springs, hydraulic fittings, limit switches and selected control components.

For an existing unit, the nameplate, serial number, part number and drawings help identify the correct spare configuration.

Replacement API 6A Surface Safety Valve

A Replacement Surface Safety Valve must fit the existing wellhead mechanically and work correctly with the installed hydraulic and ESD system.

Matching bore and pressure class alone is not enough.

Replacement of Obsolete or Legacy Wellhead SSVs

Older oil and gas wells may use safety valves that the original manufacturer no longer supports.

SGPE can review existing nameplates, GA drawings, field photographs and measurements for an obsolete Surface Safety Valve replacement.

The objective is not simply to supply another 3-1/16″ 10K SSV. The replacement also needs to match the installed API connection, face-to-face dimension, actuator envelope, available hydraulic pressure and shutdown philosophy.

This type of requirement is particularly relevant to operators, maintenance contractors, wellhead service companies and distributors supporting mature production assets.

API 6A Surface Safety Valve Price and Quote Factors

An API 6A Surface Safety Valve price depends on the complete technical configuration, so a single catalogue price rarely gives buyers a useful comparison.

For an accurate Surface Safety Valve quote, Hydraulic SSV price or API 6A SSV quotation, provide the actual wellhead, service and actuator requirements rather than only nominal bore and pressure class.

Why Choose SGPE as an API 6A Surface Safety Valve Supplier?

SGPE treats the Surface Safety Valve as part of the complete wellhead safety system rather than as a standard gate valve with an actuator added later.

For 2K, 3K, 5K, 10K and 15K Surface Safety Valve projects, technical review considers bore, API interface, differential pressure, hydraulic supply pressure, materials, actuator force and installation space together.

High-pressure gas wells, H2S service, produced water, corrosive fluids and solids-bearing flowback can require additional attention to trim, seals, hardfacing and actuator operating margin.

Because an SSV often forms part of an API 6A wellhead or Christmas tree package, SGPE can also review RTJ interfaces, production-wing arrangements, actuator clearance and replacement dimensions.

For replacement API 6A Surface Safety Valve enquiries, existing nameplates, drawings, installation dimensions and hydraulic data can be checked before proposal and quotation.

Operator and EPC projects can also define FAT, ITP, third-party inspection and documentation requirements during the commercial stage.

This makes SGPE relevant to buyers searching for an API 6A Surface Safety Valve manufacturer, Surface Safety Valve supplier, Hydraulic SSV supplier, Wellhead Safety Valve supplier, 10K SSV quotation, 15K SSV supplier, sour-service SSV, well test SSV or custom replacement Surface Safety Valve.

API 6A Surface Safety Valve RFQ Information

Providing complete RFQ information helps SGPE prepare a more accurate technical and commercial proposal.

Need an API 6A Surface Safety Valve quote? Send the nominal bore, working pressure, API connection, produced fluid and available hydraulic control pressure.

For a 10K or 15K Hydraulic SSV, also provide the maximum differential pressure and required closing time so the actuator can be reviewed correctly.

For a replacement Surface Safety Valve, send the existing nameplate, field photographs, drawings and installation dimensions for compatibility review.

Frequently Asked Questions About API 6A Surface Safety Valves

1. What is an API 6A Surface Safety Valve used for?

An API 6A Surface Safety Valve (SSV) provides remote emergency shutdown and fail-safe isolation of oil or gas flow at the surface. It is commonly installed on production wellheads, Christmas trees and production wings where rapid isolation may be required after an abnormal pressure condition, control-system trip or emergency shutdown command.

Typical applications include oil and gas production wells, high-pressure gas wells, surface well testing, flowback, well cleanup, temporary production systems, offshore platforms and remote well pads. Depending on project terminology, the same equipment may also be specified as a Hydraulic Surface Safety Valve, Wellhead Safety Valve, Wellhead ESD Valve, Christmas Tree Safety Valve, Surface Shutdown Valve or Fail-Close SSV.

2. How does a hydraulic-open, spring-close Surface Safety Valve work?

A Hydraulic Surface Safety Valve normally uses hydraulic pressure to move the valve into the open position while a return spring stores the mechanical energy required for closure. During normal production, the wellhead control system maintains sufficient hydraulic pressure to keep the valve fully open.

When the ESD system vents the actuator circuit, hydraulic opening force falls and the spring moves the gate toward the fail-safe closed position. This arrangement allows a fail-close Surface Safety Valve to respond to hydraulic pressure loss, HP/LP pilot trips, manual ESD commands, solenoid signals or other approved shutdown functions.

Actual opening and closing response also depends on actuator volume, differential pressure, hydraulic-fluid condition, control-line size, venting capacity and operating temperature.

3. What sizes and pressure ratings are available for API 6A Surface Safety Valves?

Typical SGPE project reviews cover API 6A Surface Safety Valves from approximately 1-13/16″ to 7-1/16″ bore and pressure classes from 2K to 15K.

Common enquiries include 2-1/16 Surface Safety Valves, 2-9/16 Hydraulic SSVs, 3-1/16 10K SSVs, 4-1/16 Hydraulic Surface Safety Valves and large-bore 7-1/16 Wellhead Safety Valves. Applications range from conventional production trees to high-pressure gas wells, surface well testing and high-capacity wellhead systems.

Size and pressure class alone do not define the final configuration. The API 6B or API 6BX connection, ring groove, differential pressure, hydraulic control pressure, material requirements and actuator clearance should also be confirmed.

4. Can SGPE supply 10K and 15K high-pressure Hydraulic SSVs?

SGPE can review 10K and 15K Hydraulic Surface Safety Valve requirements for high-pressure oil and gas wellheads, Christmas trees, gas production systems, surface well testing and flowback applications.

High-pressure SSV selection requires more than matching the nominal bore and pressure rating. Maximum differential pressure can have a major effect on the actuator load, while minimum available hydraulic pressure determines whether sufficient opening force is available.

For a 10K or 15K SSV quotation, provide the bore, API connection, maximum wellhead pressure, maximum differential pressure, hydraulic control pressure, produced fluid and required closing time. These details allow the valve and spring-return actuator to be reviewed as a complete shutdown package.

5. Can SGPE supply H2S and sour-service Surface Safety Valves?

SGPE can review H2S Surface Safety Valve and Sour Service SSV requirements for wells containing sour gas, corrosive produced fluids or aggressive produced water.

Material selection should be based on the actual service rather than a generic request for a “NACE valve.” H2S concentration, CO2, operating temperature, produced-water chemistry, chloride content and pressure can influence the valve trim, stem, sealing materials and other wetted components.

Depending on the approved configuration, a Sour Service API 6A Surface Safety Valve may use hardfaced gates and seats, corrosion-resistant stem materials, CRA trim or selected Alloy 625 overlay. These options are particularly relevant to sour gas wells, offshore production and long-term corrosive service.

6. What is the difference between a Surface Safety Valve and a hydraulic actuated gate valve?

A hydraulic actuated gate valve provides powered remote opening and closing, but it does not automatically become a Surface Safety Valve simply because a hydraulic actuator is installed.

An API 6A Surface Safety Valve performs a defined well-safety and emergency shutdown function. It commonly uses hydraulic-open, spring-close operation and integrates with a wellhead ESD system so that loss of control pressure or an approved shutdown signal moves the valve toward its safe position.

General actuated gate valves can use fail-close, fail-open or stay-put actuator arrangements depending on their duty. By contrast, a Wellhead SSV or Wellhead ESD Valve must be selected around the required failure action, differential pressure, hydraulic supply, shutdown logic and response time.

7. Can a Surface Safety Valve connect to a wellhead control panel?

Yes. A Hydraulic SSV can operate as part of a wellhead control system using hydraulic pressure and suitable shutdown interfaces.

Depending on the project, the control arrangement may include HP/LP pressure pilots, an accumulator, pressure regulator, ESD dump valve, manual shutdown station, solenoid valve, limit switches, position transmitter, PLC or RTU interface. These functions are common on production wellheads, offshore installations, remote well pads and unmanned facilities.

The RFQ should identify the minimum, normal and maximum hydraulic control pressure, required failure mode, closing-time requirement and any hazardous-area requirements for electrical devices. This helps ensure the Surface Safety Valve and wellhead control panel operate correctly as one system.

8. How is a Hydraulic SSV actuator selected?

A Hydraulic Surface Safety Valve actuator is selected according to the actual operating forces rather than nominal valve size alone.

Important inputs include maximum differential pressure across the gate, stem load, gate and seat friction, packing resistance, spring force, required stroke and the available hydraulic opening pressure. Required closing time and control-line arrangement can also influence the final actuator configuration.

For this reason, two 3-1/16″ 10K Surface Safety Valves may require different spring-return actuators even if their valve bodies share the same nominal size and pressure class. High-pressure gas wells, 15K service, offshore installations and fast-closing well test SSVs normally require particularly careful actuator and hydraulic-circuit review.

9. Can an API 6A SSV include manual override and remote position feedback?

Yes. Depending on project requirements, an API 6A Surface Safety Valve can include a local position indicator, manual override, open and closed limit switches, position transmitters and solenoid valve interfaces.

These accessories allow operators or the control system to confirm whether the SSV has reached the required open or closed position. They are especially useful on offshore platforms, remote production wells, unmanned well pads, surface well testing packages and other systems where direct visual access may be limited.

For remote monitoring, the required feedback signal and hazardous-area classification should be specified during quotation. The position feedback arrangement should also be coordinated with the existing PLC, RTU or wellhead ESD system.

10. Can SGPE replace an obsolete Surface Safety Valve on an existing Christmas tree?

Yes. SGPE can review replacement API 6A Surface Safety Valves for existing, obsolete and legacy wellhead equipment.

A replacement SSV should match more than the nominal bore and pressure rating. Important details include the API 6B or API 6BX connection, ring groove, face-to-face dimension, actuator envelope, valve orientation, hydraulic port, available control pressure, required failure mode and closing time.

For an obsolete Christmas Tree Safety Valve or legacy Wellhead SSV replacement, provide the existing nameplate, photographs, GA or sectional drawings and field dimensions where available. SGPE can use this information to review mechanical fit, hydraulic compatibility and the existing ESD interface before preparing a replacement proposal.

11. What testing and documentation can SGPE support for an API 6A SSV?

Testing and documentation can be defined according to the approved purchase scope and project requirements.

Typical inspection activities may include material certificate review, dimensional inspection, agreed NDE, hydrostatic body testing, closure or seat testing, actuator functional testing, hydraulic operating tests and fail-safe shutdown verification. FAT and third-party inspection can also be included for operator or EPC projects when required.

The documentation package for an API 6A Hydraulic Surface Safety Valve can include technical data sheets, GA drawings, material documentation, NDE reports, pressure-test records, actuator test records, ITP documentation and recommended spare-parts information. Agreeing these requirements during quotation helps avoid documentation or inspection changes later in the project.

12. What information should I send for an API 6A Surface Safety Valve quotation?

For a new API 6A Surface Safety Valve quotation, provide the nominal bore, working pressure, maximum differential pressure, API connection, produced fluid, operating temperature, H2S or CO2 conditions and available hydraulic control pressure. The required failure mode, opening or closing time, manual override, position feedback and ESD interface should also be identified where applicable.

For a replacement Surface Safety Valve, include the existing nameplate, photographs, drawings, face-to-face dimension, actuator information and available field measurements so mechanical and hydraulic compatibility can be checked.

Operator and EPC buyers should also state any PSL, performance, FAT, ITP, third-party inspection, documentation and spare-parts requirements. Based on the submitted project information, SGPE can review the appropriate SSV configuration and prepare the corresponding technical and commercial quotation.

Request an API 6A Surface Safety Valve Quote from SGPE

Available configurations can cover 5K, 10K and 15K Hydraulic SSVs, API 6B or API 6BX RTJ connections, full-bore gate designs, spring-return hydraulic actuators, sour-service materials, hardfaced trim, CRA options, manual override and position feedback, subject to the approved project specification.

For a new project, please provide the bore, working pressure, API connection, produced fluid, hydraulic control pressure, maximum differential pressure and required closing time.

For a replacement SSV, send the existing nameplate, photographs, drawings, face-to-face dimensions and actuator information so SGPE can check mechanical and hydraulic compatibility.

Operator and EPC requirements such as FAT, ITP, third-party inspection and documentation can also be included in the quotation scope.

SGPE supplies API 6A Surface Safety Valves (SSVs) for oil and gas wellheads, Christmas trees, production wings, high-pressure gas wells, surface well testing, offshore production and replacement projects. Based on the submitted technical and project information, SGPE will review the required SSV configuration and provide a corresponding technical and commercial quotation.

E-Mail:
info@sgpe.com