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Enterprise AI Analysis: Domain consistent industrial decarbonisation of global coal power plants

COMMUNICATIONS SUSTAINABILITY ANALYSIS

Domain consistent industrial decarbonisation of global coal power plants

This paper introduces a human-in-the-loop constraint-based optimisation framework for decarbonising thermal power plants. It integrates domain expertise with data-driven methods, showcasing effectiveness at improving thermal efficiency and reducing turbine heat rate in a 660 MW coal-fired plant. When extended to 56 similar plants worldwide, the model projects a cumulative lifetime mitigation of 60.2 million tons of carbon emissions. These results highlight the potential of ML and optimisation with human expertise for large-scale industrial decarbonisation.

Executive Impact at a Glance

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0.6% Mean Efficiency Gain
93 kJ/kWh Turbine Heat Rate Reduction
60.2 Mt Projected CO2 Mitigation

Deep Analysis & Enterprise Applications

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Our approach combines machine learning (ML) for predictive modeling with a human-in-the-loop (HITL) constraint-based optimization framework. This ensures that the generated solutions are not only mathematically optimal but also domain-consistent and implementable within existing industrial control systems. The HITL constraints, defined by human experts, prevent solutions from violating operational safety limits and structural dependencies between process variables.

Enterprise Process Flow

Start
Train ML models
Embed ML models in optimisation problem and solve the optimisation problem
Is the evaluation criteria satisfied?
End

Empirical tests on a 660 MW supercritical coal-fired power plant demonstrated significant improvements. The mean efficiency gain was 0.64%, directly translating to less fuel consumption per unit of power. Concurrently, the mean turbine heat rate was reduced by 93 kJ/kWh, indicating improved energy conversion efficiency.

0.64% Mean Efficiency Gain

A critical aspect of our framework is ensuring domain consistency. Traditional ML-driven optimization often yields mathematically feasible but practically unworkable solutions. By embedding HITL constraints, we ensure that the estimated optimal operating variables maintain their structural relationships and stay within human-defined tolerance thresholds, thus preserving plant safety and operational integrity.

Approach Benefits
Traditional ML Optimization
  • Mathematically optimal solutions
  • Potential for unsafe or impractical set points
  • Lack of domain consistency
HITL-MLOPT Framework
  • Mathematically optimal solutions
  • Ensures domain-consistent and safe set points
  • Integrates human expertise for practical implementation
  • Maintains structural relationships between variables

Extending the model's application to 56 similar coal plants worldwide, our analysis projects a cumulative lifetime mitigation of 60.2 million tons of carbon emissions. This highlights the transformative potential of our framework for large-scale industrial decarbonization, offering a sustainable path for reducing the carbon footprint of existing fossil fuel infrastructure.

Cumulative CO2 Mitigation

Our model projects a significant reduction in CO2 emissions when applied globally. This is achieved by increasing thermal efficiency across operational coal power plants, reducing fuel consumption, and consequently, carbon output over their remaining operational lifetimes.

Value: 60.2 Million Tons CO2

Label: Projected Lifetime Mitigation

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Your AI Implementation Roadmap

A typical timeline for integrating advanced AI-driven optimization into your industrial operations, ensuring smooth adoption and measurable results.

Phase 01: Discovery & Assessment

Initial consultation, data infrastructure assessment, and definition of key performance indicators (KPIs) for AI integration.

Phase 02: Model Development & Customization

Training and fine-tuning ML models using your operational data, incorporating HITL constraints and domain expertise.

Phase 03: Pilot Implementation & Verification

Deploying the AI framework in a pilot environment, rigorously testing and verifying solutions against real-time operational data.

Phase 04: Full-Scale Deployment & Monitoring

Seamless integration into your existing control systems, continuous monitoring, and iterative refinement for sustained performance gains.

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