Subsea Boosting Systems

Increase well flow and recoverable reserves

Our portfolio

Decarbonize Your Operations
Subsea boosting systems are part of our Transition Technologies portfolio of solutions that enable full field development with lower environmental impact. They increase energy efficiency and minimize CO2 emissions, helping you reach your sustainability goals.
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Increase Recovery and Accelerate Production
Lower wellhead pressure to improve oil recovery; boost early revenue with 20%–200% higher flow rates.
Improve Flow Assurance
Mitigate slugging with more benign flow regimes and facilitate hydrate and wax management because of heat transfer from the pump and motor.
Lower Capex and Opex
Simplify subsea infrastructure, reduce energy consumption, and improve system uptime (via quicker startup and fewer interventions).
Enhance Production Management
Maintain production from weaker wells without any adjustments to the stronger ones.
Facilitate Heavy Oil Production
Produce oil with viscosities up to 30,000 cP.
Produce from Otherwise Unavailable Fields
Compensate for the pressure drop over long tieback distances with higher pressures at the pump outlet.
How Can You Evaluate Boosting System Integrity and Ensure Uptime?
The decarbonization and accelerated production enabled by boosting systems are crucial to subsea asset optimization. But how can you use AI to monitor and optimize performance and proactively ensure pump health? Subsea Live data-driven performance service keeps you informed in real time about system integrity and provides performance-enhancing insights such as detecting anomalies and optimizing power.
Go live to collaboratively optimize production performance

Subsea boosting system portfolio

Our subsea boosting system technologies comprise

  • multiphase, single-phase, and hybrid subsea pumps
  • single- and dual-pump subsea stations
  • subsea power systems
  • topside equipment.
Subsea boosting equipment: Subsea control module, pump module, pump station, intermediate frame, suction anchor or mudmat, umbilical termination assembly, and umbilical.
2,900 psi
Max. differential pressure
Max. operational GVF
30,000 cP
Max. viscosity
74.6 mi
Current max. step-out
10,000 ft
Max. water depth
>35 years
Mean time to failure (MTTF)
Schlumberger On-Demand Webinar—Enabling Low-Carbon Production with Electrification and Subsea Processing Technology
Is offshore performance overdue for a transformational shift? Learn how electrification and subsea processing deliver sustainability and efficiency at lower cost.
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Multiphase Subsea Pump
Rotodynamic pumping and helicoaxial design

A comprehensive offering for diverse flow regimes

With >4 million running hours accumulated, OneSubsea boosting pumps are inherently robust and wear-resistant, suitable for use with fluids containing sand particles—a common occurrence in most subsea production systems.

All pumps are configured with an electric motor mounted on top and the pump section at the bottom, both within a vertical cartridge that is fully encapsulated in a pressure housing. The optimized compact design enables subsea installation and retrieval by light vessels.

Depending on how a field develops, any pump type can be fitted into the standardized subsea interface, giving you the option to replace one pump with a different type to meet the requirements of your field throughout its life.

An integrated approach

Total system solutions ensure that all risks are identified and mitigated in the early stages of field development planning. These solutions include all the equipment needed to operate the pumps during startup, shutdown, and normal flowing conditions; they are combined with operational support to provide complete system availability.

Why Not Boosting? Uncover the True Value of Your Subsea Asset
A comprehensive list of tangible benefits that may support the field development decision process
Energy Consumption Reduction

Reduce energy consumption by 62% (0.27 TW.h) compared with gas lift (for typical 4- to 8-well tieback, average-sized single-pump station, differential pressures up to 2,900 psi, and 95% uptime over 10 y)

Emissions Reduction

Lower CO2e emissions by 62% (131,000 metric tons) compared with gas lift (because of lower energy consumption; for typical 4- to 8-well tieback, average-sized single-pump station, differential pressures up to 2,900 psi, and 95% uptime over 10 y)

Size Reduction

Minimize footprint with the most compact and space-efficient artificial lift solution