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This course provides process engineers with a comprehensive understanding of how artificial intelligence technologies can be applied to process optimization and advanced control within industrial facilities. The course begins with a detailed examination of traditional process control architectures, including regulatory control loops, advanced process control systems, and real-time optimization frameworks. Participants then explore how machine learning models and data-driven analytics can be applied to improve process performance, identify nonlinear process relationships, and support predictive operational strategies.
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Upon completion of this course, participants will be able to:
- Explain the structure and function of layered industrial process control architectures, including regulatory control systems, Advanced Process Control (APC), and real-time optimization frameworks.
- Evaluate the limitations of traditional process control and first-principles modeling approaches when applied to complex, nonlinear industrial processes.
- Describe how artificial intelligence and machine learning techniques can analyze large industrial datasets to predict process behavior and support operational optimization.
- Identify how AI-based soft sensors and virtual analyzers can estimate critical process variables such as product composition and reaction conversion using real-time process measurements.
- Analyze how AI-driven predictive models support real-time process optimization by forecasting operational outcomes and recommending improved operating conditions.
- Assess how AI technologies integrate with distributed control systems (DCS), plant historians, and advanced process control platforms within industrial automation architectures.
- Recognize cybersecurity, safety, and regulatory considerations associated with implementing AI-based analytics in industrial process environments, including the importance of maintaining independence between optimization systems and safety instrumented systems.
- Apply engineering reasoning to evaluate AI-assisted optimization scenarios in refinery distillation systems, catalytic reactors, and plant-wide energy management applications.
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