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Enterprise AI Analysis: Investigation on thermochemical energy network for efficient waste heat recovery

Enterprise AI Analysis

Investigation on thermochemical energy network for efficient waste heat recovery

This study explores the potential of a thermochemical fluid (TCF)-based energy network for waste heat recovery and sustainable thermal management. Through experimental testing and an AI-based simulator, it evaluates network performance under various heating profiles (Gaussian, steady, RTO) and operating conditions. The findings offer crucial insights into optimizing TCF energy networks for enhanced energy and moisture recovery, emphasizing the significance of fluid flow rates and regeneration temperatures for industrial applications.

Executive Impact Summary

Leveraging AI-driven insights from thermochemical energy networks presents a significant opportunity for industries seeking to enhance energy efficiency and reduce carbon emissions. Optimizing waste heat recovery translates directly into substantial operational savings and supports critical decarbonization goals.

0 Energy Recovery Effectiveness
0 Peak Humidity Ratio Difference
0 Optimal Water Removal (W/H Ratio)

Deep Analysis & Enterprise Applications

Select a topic to dive deeper, then explore the specific findings from the research, rebuilt as interactive, enterprise-focused modules.

Network Performance
AI Modeling

Optimizing Waste Heat Recovery through TCF Networks

The study reveals that higher air flow rates significantly enhance total energy recovery, with effectiveness reaching around 30%. Increasing the heating temperature notably improves moisture recovery, reducing network sensitivity to liquid-to-gas (L/G) ratio variations. At 80°C, humidity ratio differences reach up to 4.3 g/kgda, and performance differences between L/G ratios become less pronounced.

Across all heating profiles (steady, Gaussian, RTO), the water removal to heat supplied (W/H ratio) decreases as the L/G ratio increases, indicating a decline in performance at higher desiccant flow rates. The Gaussian heating profile offers the highest W/H ratio at lower L/G ratios (peaking at 3.3 kg/kW at L/G of 0.2) compared to steady and RTO profiles, highlighting its effectiveness for transient heat sources.

AI-Based Simulator for Predictive Thermal Management

An Artificial Intelligence-based Multi-Layer Perceptron (AI-MLP) simulator was developed to accurately map the TCF energy network's dynamic performance. This simulator predicts key parameters like air humidity ratio difference (δωa) and moisture effectiveness (ɛm) based on input parameters such as time, L/G ratio, humidity ratio (HR), and temperature ratio (TR).

The simulator demonstrates strong predictive accuracy, particularly at lower L/G ratios and under Gaussian and steady heating profiles, with RMSE as low as 0.09 and relative errors around 2-4%. The use of a Bayesian regularisation algorithm was crucial in training the AI-MLP model, effectively mitigating overfitting and enhancing its generalization capability for real-world scenarios. This tool provides invaluable insights for operational strategies and system optimization.

Enterprise Process Flow

Background & Motivation
Experimental Setup & Profiles
Define Performance Metrics
Conduct Experiments
Develop AI Simulator
Analyze Results
Conclusions & Future Work

Advanced ROI Calculator

Estimate the potential savings and reclaimed operational hours by implementing AI-powered thermochemical waste heat recovery in your enterprise.

Estimated Annual Savings $0
Operational Hours Reclaimed Annually 0

Your AI Implementation Roadmap

A phased approach to integrate AI for optimal thermochemical energy network performance, from initial assessment to full-scale deployment.

Phase 1: Discovery & Pilot

Assess current waste heat streams, identify suitable TCF network integration points, and conduct a small-scale pilot project using AI-driven simulation for initial validation.

Phase 2: Optimization & Training

Refine TCF network parameters using AI models, train operators, and integrate real-time data for continuous performance monitoring and adaptive control strategies.

Phase 3: Scale & Sustain

Expand the AI-optimized TCF network across relevant industrial processes, establish long-term maintenance protocols, and ensure continuous performance improvement and energy savings.

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