All-Electric Surface Actuator | Schlumberger

All-Electric Surface Actuator

Remote control and predictive condition-based maintenance of surface valves

Emissions Reduction

Avoids up to 66 metric tons of CO2e per platform per year

Energy Consumption Reduction

Saves 133.9 MW.h per platform per year

Electrification

Eliminates use of diesel or gasoline generators, enabling access to clean power

Electrification: The Future Is Lower-Cost, Lower-Carbon Energy
Watch this World Oil webcast on demand and hear Electrification Program Manager for Production Systems Stephane Hiron explain how electrification optimizes offshore asset performance, increases sustainability, and enables digitalization.
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Part of Schlumberger Transition Technologies portfolio
Available for gate valve sizes from 2 1/16 in to 6 3/8 in
Input voltage requirements: 3-phase 480 VAC

Industry's first TRL-5 qualified electric actuator

Our all-electric surface actuator is designed for offshore platforms—especially ones with no permanent crews—and remote or difficult-to-access onshore oil fields. It is suitable for retrofitting most standard wellheads and trees and supports a fully electric system and future automation. Benefit from Cameron OEM product reliability with a proven 30-year life and 5 years of maintenance-free performance.

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The all-electric surface actuator enables remote valve operation and health monitoring, saving costs by reducing visits to offshore platforms and remote locations.
Remote Platform Electrification: It's On
Monitor and operate your production equipment from anywhere with electrification

Decrease your opex, capex, and environmental footprint

The all-electric actuator lowers your opex by up to 30% via reliable, long-term remote control of surface valves as well as condition-based monitoring and money-saving predictive maintenance. By eliminating unnecessary site visits and personnel on location, these actuators enable you to rethink platform design, potentially removing costly structures such as helidecks, living quarters, and control rooms. Reducing maintenance visits also decreases CO2 emissions. Asset field crews can run leaner because technicians are better informed about the maintenance required.

Hydraulic actuators require periodic control fluid replacement and disposal and are sensitive to control fluid contamination. They must be monitored for leaking control lines, consume more energy, and require bulky generators and pump motors, which occupy additional space and create higher CO2 emissions. The all-electric actuator can use alternative energy sources (including solar or wind) or electric umbilical or battery power.


Decarbonize Your Operations
All-electric surface actuators are part of our Transition Technologies portfolio. Learn about our approach to driving high performance sustainably and other technologies that can help you access renewable power, digitize your infrastructure, and reduce environmental impact.
Read More
All-Electric Surface Actuator

Automated operation

Integrated sensors track actuator position and current in real time, and smart actuator controls enable dynamic monitoring and control of parameters such as the drive motor condition, winding temperature, housing fluid pressure, motor torque, stem leakage, and other associated alarm and health conditions.

Actuator designs are fail-close, using a clutch to disengage the valve from the electrical system and enable a mechanical spring to rapidly close the valve.

The smart control system features interfaces with your SCADA systems or distributed control systems (DCS) using industry-standard communication protocols. It also has a wireless human machine interface (HMI) for local operation and monitoring during intervention.


Achieve Lower-Cost, Lower-Carbon Energy with Electrification of Offshore Operations
Production Systems President Donnie Ross explains how electrification is helping offshore operators sustainably drive greater performance.
Learn About this Compelling Option

† Emissions reductions come from two sources. Decrease in travel-related emissions is based on reducing annual maintenance visits by a 3-person crew from 26 to 2, with an average round-trip distance of 200 mi. Energy and additional emissions reductions assume eliminating operation of a 282-kW hydraulic power unit (HPU) for 26 days annually. Electric actuator emissions and energy consumption are based on 60 valves operated for a total of 6 hours annually and take into account the constant-draw energy requirements to keep the actuators in the open position. All power is assumed to come from the US electrical grid. Potential emissions avoided will change depending on the source of power.

 

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