Description

API 16C Kill Manifold for Oil and Gas Drilling Well Control

SGPE supplies API 16C Kill Manifolds for oil and gas drilling rigs, surface BOP well-control systems, workover operations, well intervention and drilling-rig replacement projects.

The manifold provides a controlled high-pressure route between the mud-pump or dedicated kill-pump system and the BOP kill line. During well-control operations, drilling crews use this flow path to pump drilling mud or approved kill fluid toward the well while isolating branches that are not required.

Project configurations include High Pressure Kill Manifolds, Oilfield Kill Manifolds, Drilling Rig Kill Manifolds, BOP Kill Manifolds, Manual Kill Manifolds, Hydraulic Kill Manifolds, Skid Mounted Kill Manifolds, Sour Service Kill Manifolds and Replacement Kill Manifolds.

Typical project pressure classes range from 2,000 psi to 15,000 psi, with common nominal bore requirements including 2-1/16″, 2-9/16″, 3-1/16″ and 4-1/16″.

Pressure rating is only one part of the selection. The BOP stack, kill-line interface, required pumping rate, drilling-fluid properties, valve-control philosophy, operating environment and available rig space all influence the final configuration.

This project-based approach supports land and offshore drilling, exploration and development wells, deep-well and HPHT drilling, sour oil and gas wells, workover rigs, BOP upgrades, rig refurbishment and obsolete kill manifold replacement.

Product Short Description

The SGPE API 16C Kill Manifold provides high-pressure fluid routing and isolation for surface drilling well-control systems.

Typical project configurations cover working pressures from 2,000 to 15,000 psi and nominal bore sizes from 2-1/16″ to 4-1/16″. Depending on the approved design, the system may use manual or hydraulic high-pressure gate valves, flanged or hub connections, pressure gauges, pressure transmitters, check valves, high-pressure piping and a project-specific structural skid.

The manifold connects the drilling-rig pumping system with the BOP kill line and operates as part of the complete surface well-control package.

Requirements for 5K, 10K and 15K kill manifolds can be reviewed for land rigs, offshore drilling units, high-pressure wells, HPHT projects, sour-service drilling, workover operations and existing-rig replacement.

For new equipment, the BOP drawing, well-control P&ID and technical specification normally provide the engineering starting point. Replacement and retrofit projects can also use GA drawings, photographs, equipment nameplates and verified field dimensions.

API 16C Kill Manifold Product Overview

A drilling kill manifold provides the high-pressure injection route between the rig pumping system and the BOP kill line.

During a well-control event, the crew may need to pump higher-density drilling mud or another approved kill fluid into the well. The manifold establishes the required route while allowing unused branches to remain isolated.

A typical oilfield kill manifold combines high-pressure gate valves, crosses, tees, spacer spools, high-pressure piping, pressure instruments, end connections and a supporting skid.

Projects that require additional control or monitoring may also include hydraulic gate-valve actuators, check valves, pressure transmitters, test connections and valve-position feedback.

Because the manifold forms part of the complete BOP system, pressure rating alone cannot define the correct equipment.

Nominal bore, required kill-fluid rate, valve arrangement, connection type, drilling-fluid properties and installation envelope must also match the BOP stack, kill line, pumping system and approved well-control design.

API 16C Kill Manifold Technical Parameters

API 16C Kill Manifold Pressure, Bore and System Configuration

The following parameters provide a practical reference for preliminary selection of an API 16C Kill Manifold. Final values should match the approved BOP arrangement, kill-line interface, P&ID and project operating conditions.

API 16C Kill Manifold Control, Testing and Project Options

Control, monitoring, inspection and documentation requirements vary by drilling rig, operating environment and client specification. These options should therefore be confirmed during technical clarification and RFQ review.

5K, 10K and 15K High Pressure Kill Manifold Selection

International drilling RFQs often use psi, MPa and bar in the same project. The required pressure class should follow the approved BOP and well-control pressure envelope rather than simply selecting the highest available rating.

A 5,000 PSI kill manifold can suit conventional drilling and workover equipment where the BOP package uses the same pressure class.

A 10,000 PSI kill manifold supports higher-pressure drilling environments, including deep wells, exploration drilling, high-pressure formations and upgraded BOP packages.

A 15,000 PSI kill manifold can serve demanding high-pressure and selected HPHT wells where the approved pressure-control system requires this rating.

A higher manifold rating does not increase the allowable working pressure of a lower-rated BOP, valve, connection or other component elsewhere in the pressure path.

Nominal Bore and Kill-Fluid Flow Selection

Nominal bore influences fluid velocity, pressure loss, equipment dimensions and BOP interface compatibility.

A smaller bore can reduce manifold dimensions and weight, but higher fluid velocity can increase pressure loss and erosion.

A larger bore reduces restriction under comparable flow conditions, although it also increases component size and skid weight.

Abrasive drilling mud adds another consideration because high velocity can accelerate erosion around tees, restrictions and changes in flow direction.

The final bore selection therefore needs to balance working pressure, required kill-fluid rate, mud density, BOP kill-line size, available rig space and equipment weight.

Pressure, Flow and BOP Interface Data

A High Pressure Kill Manifold for a drilling rig must satisfy both hydraulic and mechanical requirements.

Accurate interface data at the RFQ stage reduces redesign, piping changes and field modification later in the project.

Main Components of a BOP Kill Manifold

A typical BOP kill manifold combines pressure-containing components, isolation valves, monitoring instruments and a structural skid.

The component arrangement can be adapted to limited installation space, unusual connection elevations or non-standard BOP interfaces.

Manual vs Hydraulic Kill Manifold

A Manual Kill Manifold uses handwheel-operated high-pressure gate valves and provides direct local control. This arrangement can suit land rigs and workover equipment where the approved operating procedure allows safe local access.

A Hydraulic Kill Manifold uses hydraulic actuators on selected valves and enables remote operation. Offshore drilling units and higher-specification BOP packages often use this arrangement when critical well-control functions need to be operated away from the skid.

Hydraulic actuation does not need to be applied to every valve. A combined configuration can keep selected functions manual while providing remote operation where it adds operational value.

A Hydraulic Kill Manifold RFQ should also identify hydraulic supply pressure, control distance, interface arrangement and any required valve-position feedback.

How Does a Drilling Kill Manifold Work?

During a well-control operation, the mud pumps or dedicated kill pumps deliver the required fluid into the manifold.

The crew opens the approved flow route and isolates unused branches. Drilling mud or kill fluid then passes through the manifold, enters the BOP kill line and moves toward the wellbore.

Local gauges provide pressure indication. When pressure transmitters form part of the approved scope, selected signals can also reach a remote monitoring or control location.

Hydraulic gate valves allow selected functions to be operated away from the manifold.

The BOP choke line performs a different role by carrying well returns toward the choke manifold. In practical terms, the kill manifold manages the injection side of well-control circulation, while the choke manifold manages the controlled return side.

Kill Manifold vs Choke Manifold

Although both systems form part of the BOP well-control package, they perform different functions.

For a new drilling rig or BOP upgrade, the BOP stack, kill manifold, choke manifold, kill line and choke line should be reviewed as one integrated well-control system.

Sour Service, H2S and Corrosive Well Conditions

A Sour Service Kill Manifold requires more information than a general “sour service” statement in an RFQ.

H2S concentration or partial pressure, CO2 content, operating pressure, temperature and fluid chemistry can all influence material selection and corrosion-control requirements.

Where required by the approved project specification, material controls associated with applicable NACE MR0175 / ISO 15156 requirements can form part of the technical review.

Some projects may also specify corrosion-resistant components or CRA weld overlay on selected wetted surfaces.

Additional CRA does not automatically improve every application. Reviewing the actual well and fluid data first provides a stronger basis for balancing corrosion resistance, manufacturability and project cost.

BOP Connections and Custom Skid Mounted Kill Manifold

Mechanical interfaces often determine whether a new manifold installs cleanly or requires field modification.

A connection may carry the correct pressure class but still fail to fit the existing rig because its size, type, orientation or centerline elevation does not match.

For both new and replacement equipment, pump-side and BOP-side interface information should be confirmed early.

A Custom Skid Mounted Kill Manifold can then be arranged around the real installation envelope.

Land-rig projects may need to account for transport dimensions, forklift access, lifting points and rig-move requirements. Offshore projects generally place greater emphasis on compact deck footprint, lifting arrangements, corrosion protection, protected instrumentation and maintenance access.

The skid layout should match the actual piping interfaces rather than forcing the drilling rig to adapt to one fixed catalogue footprint.

API 16C Kill Manifold Applications

The final configuration should reflect the drilling rig, BOP system, operating environment and approved well-control program.

Onshore and Offshore Drilling

Land drilling rigs need high-pressure equipment that remains practical to transport between locations. Skid dimensions, lifting points and connection elevations therefore matter alongside pressure and flow requirements.

Offshore drilling places more emphasis on deck space, marine corrosion, lifting arrangements, protected instruments and technical documentation.

In either environment, a Drilling Rig Kill Manifold should align with the pumping system and BOP kill line while leaving practical access to valves, gauges and test connections.

Deep-Well and HPHT Drilling

Deep and HPHT wells can place greater demands on surface well-control equipment.

Higher pressure, elevated temperature and heavier drilling fluids can influence pressure class, material selection, bore size and pumping conditions.

A request for a “15K Kill Manifold” alone is not enough to define an HPHT package. The complete pressure-temperature envelope, required flow, BOP arrangement and available H2S data provide a much stronger basis for equipment selection.

Workover and Well Intervention

Workover and selected well-intervention projects can also require a high-pressure kill-fluid path when the surface package includes a BOP and kill line.

These installations often have less available space than a full drilling rig, making skid footprint, connection orientation and valve access important purchasing factors.

BOP Kill Manifold System Integration

A BOP kill manifold must match the complete pressure-control system rather than one isolated pressure number.

The engineering review should consider the annular BOP, ram BOPs, kill line, choke line, choke manifold, pumping equipment and surface-control philosophy.

A higher manifold rating cannot increase the working pressure of a lower-rated component elsewhere in the system.

Likewise, two components can share the same nominal pressure rating and still use incompatible bore sizes or connection types.

For new rigs and BOP upgrades, the BOP stack drawing and complete well-control P&ID provide the strongest basis for confirming the required interfaces.

Replacement Kill Manifold and Retrofit Engineering

Existing drilling rigs may use kill manifolds with aging high-pressure piping, obsolete gate valves, unavailable spare parts or interfaces that no longer match the current BOP stack.

SGPE supports Replacement Kill Manifold, Obsolete Kill Manifold Replacement, Kill Manifold Retrofit and BOP Upgrade projects.

Where original P&IDs and GA drawings remain available, they provide a strong starting point for confirming pressure class, bore, flow paths and mechanical interfaces.

When documentation is incomplete, clear equipment photographs, valve nameplates and verified field dimensions can help reconstruct the existing arrangement.

A BOP upgrade may introduce a higher pressure class, a different kill-line connection or increased pump capacity. Simply duplicating the old manifold in this situation can preserve restrictions that no longer suit the upgraded rig.

Replacement engineering can therefore review bore size, connection positions, hydraulic valve operation, remote pressure monitoring and skid layout before defining the new configuration.

SGPE Engineering and Project Support

SGPE supports new-build, replacement and Custom API 16C Kill Manifold RFQs for drilling contractors, rig builders, EPC companies, operators and oilfield equipment distributors.

For a new drilling project, technical review can begin with the BOP stack, well-control P&ID, pressure class, required kill-fluid rate and installation layout.

For an existing rig, drawings, photographs, equipment nameplates and verified measurements help establish the original interfaces.

This information provides the basis for pressure and bore selection, manual or hydraulic valve configuration, custom skid design, sour-service assessment, inspection requirements and documentation planning before production begins.

The objective is to match the kill manifold configuration to the real drilling project rather than force the project to fit a fixed catalogue design.

Manufacturing, Inspection and FAT

High-pressure well-control equipment requires controlled manufacturing, inspection and traceability.

Depending on the approved quality plan, the project scope may include material verification, dimensional inspection, machining and welding controls, applicable NDE and pressure testing.

The applicable test pressure, sequence, hold time and acceptance criteria should follow the approved project test procedure.

The final project package can include the agreed inspection, pressure-test and Kill Manifold FAT records.

Kill Manifold MDR and Technical Documentation

Oilfield operators, drilling contractors and EPC companies often require technical records together with the equipment.

Depending on the agreed contract scope, the Kill Manifold MDR can include the General Arrangement Drawing, P&ID, technical data sheet, material records, inspection reports, pressure-test records, applicable NDE reports, dimensional records, coating documentation and instrument certificates.

Where witnessed FAT forms part of the project, the final data book can include the corresponding FAT documentation.

Recommended spare-parts information and operation or maintenance documents can also support future field service.

If an operator or EPC company uses a project-specific document index, providing it during technical clarification helps establish the required MDR scope before manufacturing begins.

Installation, Operation and Maintenance

Before installation, the rig team should verify the pump-side connection, BOP kill-line connection, working pressure, nominal bore, flow direction and connection orientation.

High-pressure piping should align naturally with the manifold. Forcing connections into position can introduce unnecessary mechanical load.

The skid should leave practical access around handwheels, hydraulic actuators, pressure instruments and test points.

During operation, trained drilling and well-control personnel should follow the approved rig procedure and confirm the intended valve sequence before pressurizing the system.

Hydraulic configurations also require checks of hydraulic supply pressure, actuator response and the required valve positions.

Routine maintenance should cover gate-valve operation, visible leakage, corrosion, high-pressure connections, piping, gauges, transmitters, hydraulic actuators and skid condition.

Abrasive drilling mud can accelerate erosion around restrictions and changes in flow direction. After severe well-control service or an unusual pressure event, additional inspection may be appropriate before the equipment returns to normal operation.

Kill Manifold Spare Parts and Aftermarket Support

SGPE supports spare-parts planning for new High Pressure Kill Manifold packages and selected existing equipment.

The recommended spare scope depends on gate-valve type, actuator configuration, working pressure, operating environment and maintenance strategy.

For existing equipment, part numbers, valve nameplates, drawings, photographs and verified dimensions provide useful references for replacement-component review.

When several critical components on an older manifold become obsolete, a partial retrofit or complete replacement may offer better long-term maintainability than repeatedly sourcing individual parts.

What Affects API 16C Kill Manifold Price?

There is no single API 16C Kill Manifold price that accurately represents every drilling project.

Working pressure has a major influence because 5K, 10K and 15K manifolds use different pressure-containing components. Nominal bore and gate-valve quantity also affect equipment size, weight and supply scope.

A hydraulic manifold requires actuators and control interfaces that a manual configuration does not need. Remote pressure transmitters and valve-position feedback add further instrumentation.

Sour-service conditions can change material controls and inspection requirements. CRA, special connections, offshore coating, custom skid design, NDE, FAT, MDR documentation and spare parts can also affect the quotation.

Replacement projects may require additional engineering when existing interfaces have to be reconstructed from field measurements, equipment nameplates or older drawings.

A 5K Manual Kill Manifold for a land rig can therefore have a very different cost structure from a 15K Hydraulic Sour Service Kill Manifold for an offshore HPHT project.

For an accurate API 16C Kill Manifold price or quote, provide the BOP arrangement, P&ID, working pressure, nominal bore, required kill-fluid rate and project specification.

API 16C Kill Manifold Manufacturer and Supplier

SGPE supplies project-specific API 16C Kill Manifold solutions for oil and gas drilling and BOP well-control applications.

Projects can include 5K, 10K or 15K pressure classes, manual or hydraulic gate valves, custom BOP interfaces, skid-mounted arrangements, pressure instrumentation, sour-service requirements, FAT, MDR documentation and spare-parts support.

The supply approach serves drilling contractors, rig manufacturers, EPC companies, operators and oilfield equipment distributors looking for an API 16C Kill Manifold Manufacturer and Supplier that can work from actual project information.

For replacement equipment, existing P&IDs and GA drawings provide the preferred engineering reference. When these documents are unavailable, photographs, equipment nameplates and verified field measurements can help confirm the required interfaces.

This approach is especially useful for custom kill manifold RFQs, offshore drilling packages, HPHT wells, BOP upgrade projects and obsolete kill manifold replacement where a standard catalogue arrangement may not fit the actual rig.

API 16C Kill Manifold Selection and RFQ Guide

A reliable technical proposal starts with accurate project data.

Providing this information during the initial RFQ stage reduces repeated clarification and helps SGPE prepare a more accurate kill manifold technical proposal, configuration and quotation.

Frequently Asked Questions About API 16C Kill Manifolds

1. What is an API 16C Kill Manifold?

An API 16C Kill Manifold is a high-pressure manifold used in surface BOP well-control systems to provide a controlled fluid path between the mud-pump or dedicated kill-pump system and the BOP kill line. During approved well-control operations, drilling mud or another approved kill fluid can be routed through the selected manifold path toward the well while unused branches remain isolated.

A typical High Pressure Kill Manifold includes high-pressure gate valves, crosses, tees, spacer spools, piping, pressure instruments and a structural skid. Depending on the project, the configuration may also include hydraulic valve actuators, check valves, pressure transmitters, valve-position feedback and custom BOP connections.

Kill manifolds are commonly specified for land rigs, offshore drilling units, workover equipment, deep wells, HPHT drilling and BOP upgrade projects.

2. What is a kill manifold used for during drilling well control?

A kill manifold for drilling rigs provides the high-pressure injection route required to move drilling mud or approved kill fluid from the pumping system toward the BOP kill line during well-control operations.

The manifold allows the drilling crew to establish the required flow route and isolate branches that are not needed for the operation. It works together with the BOP stack, kill line, choke line, choke manifold and pumping equipment as part of the complete surface well-control system.

Typical applications include onshore and offshore drilling, exploration wells, development drilling, deep and high-pressure wells, HPHT drilling, workover operations and selected well-intervention projects. For reliable system integration, the manifold pressure rating, nominal bore, connections and valve arrangement should match the approved BOP and well-control design.

3. What is the difference between a kill manifold and a choke manifold?

A kill manifold and a choke manifold both form part of the surface BOP well-control system, but they perform different functions.

The kill manifold mainly routes pumped drilling mud or kill fluid toward the well through the BOP kill line. Its primary functions are high-pressure fluid injection, routing and isolation. The choke manifold receives well returns through the BOP choke line and uses drilling chokes to control return flow and manage backpressure during well-control operations.

Because the two manifolds operate on different sides of the circulation path, one does not replace the other. For a new drilling rig, offshore BOP package or BOP upgrade project, the kill manifold, choke manifold, kill line, choke line and BOP stack should be reviewed together to confirm pressure ratings, bore sizes, connections and flow paths.

4. What pressure ratings are available for a High Pressure Kill Manifold?

Typical High Pressure Kill Manifold project requirements can range from 2,000 psi to 15,000 psi, including commonly requested 5K, 10K and 15K pressure classes, subject to final project confirmation.

A 5K Kill Manifold may suit conventional drilling and workover systems that use the same approved pressure class. A 10K Kill Manifold is commonly considered for deeper wells and higher-pressure drilling environments, while a 15K Kill Manifold can be specified for demanding high-pressure and selected HPHT drilling projects.

The pressure rating should not be selected in isolation. Nominal bore, operating temperature, required kill-fluid rate, BOP pressure rating, connection type and sour-service conditions also affect the final configuration. Installing a higher-rated manifold does not increase the allowable working pressure of lower-rated equipment elsewhere in the BOP system.

5. What nominal bore should I choose for an API 16C Kill Manifold?

Common project bore sizes for an API 16C Kill Manifold include 2-1/16″, 2-9/16″, 3-1/16″ and 4-1/16″, but the correct size depends on the actual well-control system rather than one standard recommendation.

Bore selection should consider the required kill-fluid pumping rate, drilling-fluid density, acceptable pressure loss, fluid velocity and the existing BOP kill-line interface. A smaller bore can help reduce overall manifold dimensions and weight, but higher flow velocity may increase hydraulic restriction and erosion. A larger bore can reduce restriction under comparable flow conditions, although the valves, piping and skid generally become larger and heavier.

For deep wells, HPHT drilling or high-flow applications, SGPE recommends reviewing pressure, flow, mud properties and BOP interface data together before confirming the final kill manifold bore size.

6. Can SGPE supply Manual and Hydraulic Kill Manifolds?

Yes. SGPE supports Manual Kill Manifolds, Hydraulic Kill Manifolds and combined manual-hydraulic configurations according to the drilling rig layout and operating philosophy.

A manual kill manifold uses handwheel-operated high-pressure gate valves and can suit land drilling rigs, workover equipment and other projects where approved procedures allow safe local valve operation.

A Hydraulic Kill Manifold uses hydraulic actuators on selected valves to support remote operation. This configuration can be particularly useful for offshore drilling units, higher-specification BOP systems and projects where critical well-control functions need to be operated away from the manifold skid.

For a hydraulic kill manifold RFQ, the available hydraulic supply pressure, control distance, valve arrangement, connection interfaces and any required valve-position feedback should be provided so the control configuration can be matched to the actual rig system.

7. Can SGPE supply a Sour Service or H2S Kill Manifold?

Yes. SGPE can review Sour Service Kill Manifold and H2S Kill Manifold requirements using the actual well and fluid data provided for the project.

A sour-service configuration cannot be defined accurately from the words “sour service” alone. H2S concentration or partial pressure, CO2 content, operating pressure, temperature, fluid chemistry and other corrosive conditions can influence material selection, hardness controls and corrosion strategy.

Where required by the approved project specification, applicable NACE MR0175 / ISO 15156 material requirements can form part of the technical review. Selected projects may also require corrosion-resistant components or CRA on specified wetted areas.

This type of review is especially important for sour oil and gas wells, offshore drilling, high-pressure wells and HPHT projects. Final material and CRA requirements should follow the actual service conditions rather than using unnecessary corrosion-resistant materials throughout the entire manifold.

8. Can API 16C Kill Manifold connections and skid dimensions be customized?

Yes. SGPE supports Custom Skid Mounted Kill Manifold configurations designed around the actual BOP arrangement, piping interfaces and available installation space.

The project can define pump-side and BOP-side connection sizes, pressure classes, flange or hub interfaces, connection orientation, centerline elevations, manual or hydraulic valve operation, instrumentation and skid dimensions.

Customization is particularly useful for offshore drilling units, compact workover packages, rig refurbishment and replacement projects where a standard catalogue footprint may not match the existing equipment.

For land rigs, skid design may also consider transport dimensions, lifting points, forklift access and rig-move requirements. Offshore kill manifold projects can require additional attention to deck space, marine corrosion protection, lifting arrangements, protected instrumentation and maintenance access. Providing GA drawings or verified field dimensions early in the RFQ process helps reduce installation modifications.

9. Can SGPE replace or retrofit an obsolete Kill Manifold?

Yes. SGPE supports Replacement Kill Manifold, Kill Manifold Retrofit, Obsolete Kill Manifold Replacement and BOP Upgrade projects for existing drilling and workover equipment.

Where the original P&ID or GA drawing remains available, it can be used to confirm pressure class, bore size, valve arrangement, flow paths and mechanical interfaces. When documentation is incomplete, equipment photographs, valve nameplates and verified field measurements can provide useful references for reconstructing the existing layout.

A replacement manifold does not always need to duplicate the old design. If the BOP stack, pressure rating, kill-line connection, pump capacity or operating philosophy has changed, the new configuration can be reviewed around the current system.

Replacement engineering may therefore include new connection positions, revised bore sizes, hydraulic valve operation, pressure transmitters, custom skid dimensions and improved spare-parts availability.

10. What affects API 16C Kill Manifold price?

The final API 16C Kill Manifold price depends on the technical configuration and project scope rather than one standard catalogue price.

Major cost factors include working pressure, nominal bore, gate-valve quantity, manual or hydraulic operation, connection types and overall manifold layout. A 5K manual kill manifold for a land rig has a different equipment scope from a 15K hydraulic manifold designed for an offshore HPHT project.

Sour-service material controls, CRA requirements, pressure transmitters, valve-position feedback, custom skid design, offshore coating, NDE, FAT, MDR documentation and spare-parts packages can also affect the quotation.

Replacement projects may require additional engineering when existing dimensions and interfaces need to be reconstructed from old drawings, photographs or field measurements. For an accurate Kill Manifold price or quote, provide the BOP arrangement, P&ID, working pressure, nominal bore, required flow and project specification.

11. What testing, FAT and documentation can SGPE support for a Kill Manifold?

The inspection, testing and documentation scope for an API 16C Kill Manifold should follow the approved quality plan, project specification and contractual requirements.

Typical inspection can include material verification, dimensional inspection, visual inspection, hydrostatic pressure testing, valve-function checks, leakage inspection and supplied instrument checks. Where specified, the project scope may also include PMI, hardness testing, applicable surface or volumetric NDE, coating inspection and witnessed Kill Manifold FAT.

The applicable test pressure, hold time, test sequence and acceptance criteria should follow the approved project test procedure rather than one universal value.

Depending on the contract, the Kill Manifold MDR or final data book can include GA drawings, P&IDs, technical data sheets, material records, inspection reports, pressure-test records, applicable NDE reports, coating documentation, instrument certificates and FAT records.

12. What information should I send for an API 16C Kill Manifold quotation?

For an accurate API 16C Kill Manifold quotation, provide the working pressure, nominal bore, required kill-fluid pumping rate, drilling-fluid density, BOP configuration, pump-side connection, BOP kill-line connection, operating temperature and preferred manual or hydraulic valve arrangement.

For a Sour Service or H2S Kill Manifold, available H2S, CO2 and fluid-composition data should also be included so material and corrosion requirements can be reviewed.

Offshore, HPHT and custom skid projects benefit from installation dimensions, connection elevations, lifting requirements, BOP drawings, P&IDs and project technical specifications.

For a Replacement Kill Manifold or retrofit project, existing GA drawings, P&IDs, equipment photographs, valve nameplates and verified field dimensions can help confirm the current interfaces. Complete RFQ information allows SGPE to prepare a more accurate technical proposal, configuration, Kill Manifold price and quote with fewer clarification rounds.

Request an API 16C Kill Manifold Quote from SGPE

Project configurations can cover 5K, 10K and 15K High Pressure Kill Manifolds, manual or hydraulic gate-valve arrangements, custom BOP interfaces, skid-mounted layouts, pressure instrumentation, FAT, MDR and spare-parts requirements.

For a new manifold, send the required working pressure, nominal bore, kill-fluid rate, BOP arrangement, connection details, operating environment and installation dimensions.

For a replacement or retrofit project, send the available P&ID, GA drawing, equipment photographs, valve nameplates and verified field measurements.

SGPE can review the project information and prepare a project-specific API 16C Kill Manifold technical proposal, price and quotation.

SGPE supplies API 16C Kill Manifolds for new drilling rigs, land and offshore drilling projects, deep and HPHT wells, sour-service operations, workover systems, BOP upgrades and replacement programs. Send your API 16C Kill Manifold RFQ, BOP drawing, well-control P&ID, technical specification or existing manifold information to SGPE for technical review and quotation.

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