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Electrical Engineering and Systems Science, Systems and Control

Streamlining Building Energy Studies with AI-Powered Literature Reviews

Streamlining Building Energy Studies with AI-Powered Literature Reviews

Buildings account for a significant portion of energy consumption globally, and reducing their carbon footprint is crucial for sustainable development. Machine learning (ML) has the potential to revolutionize building energy efficiency and decarbonization studies by automating various tasks, improving accuracy, and enhancing comprehensiveness. This article explores the applications of ML in this field, highlighting its capabilities and limitations while providing recommendations for ethical and responsible use.

Applications of Machine Learning

  1. Literature Review Summarization: ML can automatically condense lengthy papers into digestible summaries, categorize them based on relevance, impact, and novelty, and cross-reference new findings with existing knowledge to enhance the rigor and comprehensiveness of literature reviews. By automating this process, researchers can access a broader range of literature, minimizing errors and biases in manual reviews.
  2. Technical Report and Paper Analysis: ML can analyze large volumes of textual data, identify patterns, extract valuable insights, and even generate human-like text. In the context of building energy efficiency and decarbonization studies, this ability can be leveraged to automate documentation in building management, such as construction reporting, and improve the accuracy of time and expense calculations.

Challenges and Recommendations

While ML offers numerous benefits, it also poses challenges like biased outputs, the essential role of human oversight, and potential misuse. To address these issues ethically and responsibly, we recommend:

  1. Human Oversight: Ensure that ML models are regularly audited and tested by humans to detect potential errors or biases and maintain their accuracy.
  2. Transparency: Provide clear explanations of how ML models work, their limitations, and the assumptions they make to increase trust and accountability.
  3. Ethical Use: Encourage responsible use of ML in building energy efficiency and decarbonization studies by adhering to ethical guidelines and standards, such as those provided by professional organizations like the IEEE Global Initiative on Ethics of Autonomous and Intelligent Systems.

Conclusion

By leveraging ML, building energy efficiency and decarbonization studies can be transformed, enabling researchers to access a broader range of literature, automate tedious tasks, and improve the accuracy and comprehensiveness of their reviews. However, it is crucial to address the challenges associated with ML to ensure ethical and responsible use. By following best practices and adhering to ethical guidelines, we can harness the full potential of ML to enhance our understanding of building energy efficiency and decarbonization studies.