Field operations framework
AssigneeSchlumberger Technology Corporation
InventorsJulia Marlene Carrera Zanafria, Yeniffer Lopez Ruiz, Ambica Agarwal, Daniel Davalos, Kristi Vilay, Darío de Jesus González, Jean Daniel Haddad, Akshay Hemant Dhavale, Craig Whatley
Life of this patent
Estimating the term…
Abstract
A method can include receiving data from field equipment at a number of well sites via a number of local edge devices; processing the data to determine optimal field operation parameters for field operations at the number of well sites; and controlling the field operations using the determined optimal field operation parameters.
Claims15
A method, comprising:
- receiving, at a plurality of local edge devices located at respective well sites, real-time operational data from field equipment including artificial lift equipment and a landing pad,
- at least one of the plurality of local edge devices comprising a mobile gateway included in a drone configured to take off and land to operatively couple the mobile gateway to the artificial lift equipment and the landing pad, each of the respective well sites comprising a wellhead comprising the landing pad and one or more sensors comprising at least one of:
- a temperature sensor and a pressure sensor;
- processing, by one or more trained machine-learning models embedded in at least one of the local edge devices, the real-time operational data to determine optimal field operation parameters comprising gas-lift control parameters for the artificial lift equipment;
- automatically controlling, in a closed-loop manner, the artificial lift equipment at the well sites using the determined optimal field operation parameters, the closed-loop controlling being performed locally by the local edge devices at the well sites to reduce communication latency, the closed-loop controlling comprising, via the mobile gateway:
- generating fluid flow values using information from the one or more sensors;
- and
- issuing one or more control instructions to the artificial lift equipment based on the fluid flow values;
- dynamically generating, based on the automatic controlling, carbon footprint estimates for operation of the well sites, wherein the dynamically generating the carbon footprint estimates comprises receiving travel-related data from a vehicle management system;
- planning, based on the travel-related data, one or more vehicle trips to one or more of the well sites;
- controlling a vehicle utilized for at least one of the one or more vehicle trips in real-time;
- and
- transmitting sensor data acquired by one or more sensors of the vehicle, wherein the dynamically generating the carbon footprint estimates is based on at least a portion of the sensor data.
A system, comprising:
- one or more processors;
- a memory operatively coupled to at least one of the one or more processors;
- and
- processor-executable instructions stored in the memory and executable to instruct the system to:
- receive, at a plurality of local edge devices located at respective well sites, real-time operational data from field equipment including artificial lift equipment and a landing pad, at least one of the plurality of local edge devices comprising a mobile gateway included in a drone configured to take off and land to operatively couple the mobile gateway to the artificial lift equipment and the landing pad, each of the respective well sites comprising a wellhead comprising the landing pad and one or more sensors comprising at least one of:
- a temperature sensor and a pressure sensor;
- process, by one or more trained machine-learning models embedded in at least one of the local edge devices, the real-time operational data to determine optimal field operation parameters comprising gas-lift control parameters for the artificial lift equipment;
- automatically control, in a closed-loop manner, the artificial lift equipment at the well sites using the determined optimal field operation parameters, the closed-loop controlling being performed locally by the local edge devices at the well sites to reduce communication latency, the closed-loop controlling comprising, via the mobile gateway:
- generating fluid flow values using information from the one or more sensors;
- and
- issuing one or more control instructions to the artificial lift equipment based on the fluid flow values;
- dynamically generate, based on the automatic controlling, carbon footprint estimates for operation of the well sites, wherein the dynamically generating the carbon footprint estimates comprises receiving travel-related data from a vehicle management system;
- plan, based on the travel-related data, one or more vehicle trips to one or more of the well sites;
- control a vehicle utilized for at least one of the one or more vehicle trips in real-time;
- and
- transmit sensor data acquired by one or more sensors of the vehicle, wherein the dynamically generating the carbon footprint estimates is based on at least a portion of the sensor data.
One or more non-transitory computer-readable storage media comprising processor-executable instructions executable by one or more processors to instruct the one or more processors to:
- receive, at a plurality of local edge devices each comprising at least one of the one or more processors located at respective well sites, real-time operational data from field equipment comprising:
- artificial lift equipment and a landing pad, at least one of the plurality of local edge devices comprising a mobile gateway included in a drone configured to take off and land to operatively couple the mobile gateway to the artificial lift equipment and the landing pad, each of the respective well sites comprising a wellhead comprising the landing pad and one or more sensors comprising at least one of:
- a temperature sensor and a pressure sensor;
- and a variable speed drive (VSD) comprising a machine learning processing component operatively coupled to one or more of:
- sensor or data acquisition components;
- process, by one or more trained machine-learning models embedded in at least one of the local edge devices, the real-time operational data to determine optimal field operation parameters comprising gas-lift control parameters for the artificial lift equipment;
- automatically control, in a closed-loop manner, the artificial lift equipment at the well sites-using the determined optimal field operation parameters, the closed-loop controlling being performed locally by the local edge devices at the well sites to reduce communication latency, the closed-loop controlling comprising, via the mobile gateway:
- generating fluid flow values using information from the one or more sensors;
- issuing one or more control instructions to the artificial lift equipment based on the fluid flow values;
- and
- VSD controlling to control one or more electric motors of a pump or pumps of the field equipment based on information from the one or more of:
- the sensor or the data acquisition components;
- dynamically generate, based on the automatic controlling, carbon footprint estimates for operation of the well sites, wherein the dynamically generating the carbon footprint estimates comprises receiving travel-related data from a vehicle management system;
- and
- plan, based on the travel-related data, one or more vehicle trips to one or more of the well sites.
Dependencies are inferred from the claim text.