Offshore oil and gas platforms are often challenged by asset reliability issues. Equipment failures have significant impacts on costs due to production downtime as well as the cost of transporting spares and technical personnel to remote and often dangerous locations. One of our clients, operating an onshore platform in remote parts of Central Asia, decided to adopt AI to help enhance their operational efficiency. Their journey demonstrates how AI and machine learning can transform not just operations but decision-making and cost optimization.

 

Getting Started 

The platform’s team understood that the data they were collecting from sensors and equipment had the potential to change the way they functioned as a team. The team was highly reactive, and troubleshooting issues lacked accuracy. During the project kick off the operations team decided to initially focus the implementation towards predicting the performance and failures of systems and troubleshooting incidents. 

 

Data Gathering and AI Model Launch

The first critical step in the AI journey is data. The team began the task of gathering data, collecting data from over 6,000 transmitters which were AI training for offshore oil and gas engineering and operations team ingested into VROC’s data historian, DataHUB+ initially. This data would form the foundation for training AI models that would bring the operation to a new level of efficiency. VROC worked with the team of engineers and operators, training them on model creation in OPUS and the fundamentals of AI. 

The first major milestone was reached shortly following data ingestion, when the team officially launched the technology on the platform. At this point, 27 models were developed, marking a significant step toward integrating AI into day-to-day operations. The models were focused on critical equipment that needed careful monitoring, including compressors, wells, tanks, gas turbines, and process trains. The models were initially focused on predicting equipment failures and providing root cause analysis for more effective troubleshooting.

 

Continuous Growth and Operational Impact

Fast forward six months, and the number of AI models grew to almost 50, with the team fully operationalizing machine learning into their daily activities. This implementation was proving to be instrumental in improving decision-making, operational efficiency, and cost management.

 

The customer has summarized AI’s impact in three key areas:

1. Enhancing Decision-Making

   - The predictive capabilities of AI have allowed the team to forecast trends based on historical data. This means they can now be proactive rather than reactive, predicting and addressing issues before they escalate.

   - Additionally, machine learning has enabled higher accuracy in analysing vast amounts of data, reducing human error and possible faulty conclusions.

2. Improving Operational Efficiency

   - One of the major benefits has been the ability to predict when equipment is likely to fail. This foresight has helped prevent unexpected downtimes, keeping operations running smoothly.

   - Automation of repetitive, time-consuming tasks has freed up engineers to focus on complex problem-solving and optimization tasks.

3. Optimizing Costs

   - AI-driven process optimization has led to significant cost savings by ensuring resources like materials, energy, and time are used more efficiently.

   - The ability to avoid unnecessary plant shutdowns or flare gas events has also helped mitigate potential financial penalties.

 

Real-Life Examples: AI in Action

To illustrate the power of AI in their operations, the client has shared three specific examples where AI saved time, resources, and money: Time to failure AI model example from offshore oil and gas platform.

1. Flash Gas Compressor Troubleshooting  

The plant’s flash gas compressor tripped, causing a significant increase in gas flaring. The team used OPUS to build an AI-driven probability model, pinpointing the root cause in a single session, bringing the compressor back online faster than ever. This saved 14 million cubic feet of gas from being flared, equating to a cost savings of $26,000.

2. High Vibration at Propane Compressor 

An engineer detected an anomaly in the propane compressor’s vibration levels using AI-based models. The team identified the issue—related to the male rotor position high vibration—and took corrective action before the situation escalated. By preventing a prolonged vibration event, they avoided significant equipment damage and potential losses of up to $23,400 per day.

3. Predicting Air Filter Changeouts  

The AI models predicted a shorter lifespan for an air filter on one of the platform’s gas turbines. By acting on this prediction, the team prevented a total plant blackout, which could have led to losses ranging from $23,400 to $46,800 per day. The ability to plan maintenance based on AI predictions ensured minimal disruption to the operation.

 

The Way Forward: Expanding AI's Role

Looking to the future, the offshore team is focused on using AI in other areas of the oil and gas platform. While the initial focus has been on predictive maintenance and troubleshooting, the potential for process optimization, such as debottlenecking, remains untapped.

 

Their journey demonstrates that operationalizing AI isn’t just about implementing technology—it’s about transforming how teams work, make decisions, and optimize resources. Insight obtained from AI and machine learning have helped the team move from reactive to proactive and led to significant cost savings in a space of a few months. In addition, the team has now capacity to focus on more complex tasks, as the time-consuming repetitive tasks of trend and root cause analysis have been automated.

 

See our case studies for more examples of AI's impact in industrial processes.

 

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