Plan Ahead
Get early warning
Planning ahead for dynamic asphaltene-related flow assurance issues involves a proactive, multi-faceted approach. The Quantum RF Asphaltene Analyzer has a key role to play amongst many of the strategies to consider:
Continuous Monitoring: Combine real-time QRF data with traditional sensors to track pressure, temperature, and flow rate. Real-time monitoring helps detect early signs of asphaltene precipitation. This continuous data can be combined with episodic intervention using tools (e.g., fiber optic monitoring, depth-runs, pigging, etc) to monitor deposit formation along the wellbore or pipeline.
Predictive Modeling and Simulation: Advanced simulation tools are available in the industry that factor in changing operating conditions and predict when and where asphaltene deposits may form. Unfortunately those models typically require many calibration parameters. The QRF data can be used to optimize that calibration and ensure accuracy of prediction. Smart data integration can also combine historical data with real-time sensor readings and machine learning to improve the accuracy of predictive models, allowing for dynamic adjustments.
Preventative Maintenance Strategies: Scheduled maintenance schedules can be based on predictive insights rather than fixed intervals. Techniques like pigging can remove deposits before they become problematic. An operator in West Texas used the Quantum RF to optimize that pigging schedule which reduced daily interventions to one or two times per week. The QRF data also allows operators to use inhibitors or dispersants strategically to mitigate deposition with regular adjustments chemical dosing based on the monitoring data.
Operational Flexibility and Adaptive Control: The QRF allows operators to adjust operational parameters such as flow-rate and pressure to maintain conditions less conducive to asphaltene precipitation. Protocols can also be developed that allow for rapid intervention if monitoring systems indicate a sudden change in deposition rates (e.g. to increase production from a zone known to produce more water in order to flush out the early deposition).
Risk Assessment and Contingency Planning From a risk analysis persspective, the QRF data allows operator to regularly evaluate the risk of deposit formation and its potential impact on operations. This can include both the probability of occurrence and the severity of potential consequences, which in turn will lead to establishing clear and actionable contingency plans, standby repair teams and rapid response procedures, to address unexpected issues quickly.
Integrated Flow Assurance Management Centralized Data Management: Use an integrated system that combines real-time monitoring, predictive modeling, and maintenance scheduling to provide a holistic view of pipeline health. Collaboration and Review: Engage with industry experts and technology providers to regularly review and update your strategies based on the latest insights and technological advances.
By combining these approaches, the operator can create a robust plan that not only addresses current asphaltene challenges but also adapts to the dynamic nature of their behavior, ultimately reducing the risk of costly repairs and operational downtime. An example of this approach was seen in the Gulf of Mexico, [1].
References
- Kapoor, Y., Lovell, J., Muth, K., Hensel, E., Highsmith, B., Kulbrandstad, O. , "Continuous Realtime Asphaltene Monitoring and Surveillance in Gulf of Mexico Deepwater Production", Offshore Technology Conference, Houston 2025, OTC-35901-MS, https://doi.org/10.4043/35901-MS
About MicroSilicon
MicroSilicon is the world's innovation leader for real-time fluid characterization using electromagnetic and
quantum chemical technology at the wellhead and for which they won, or have been nominated for, multiple industry awards, including Rice
Alliance Startup, SPE ATCE Best-in-Show, World Oil (twice), iChemE, ADIPEC (twice) and most recently S&P Global Energy.
They are now developing a range of flow assurance products and services as well as miniaturization of downhole sensing
microchips.