Explainable Machine Learning in Manufacturing Decision-Making for Enhanced Transparency and Compliance

Authors

  • Aishwarya Selvam Independent Researcher, USA Author

Keywords:

explainable AI, machine learning, manufacturing, decision-making, transparency, compliance, regulatory standards, predictive maintenance

Abstract

Recently developed AI and ML have changed industry. Improved manufacturing via automation. People worry AI and ML models are hard to grasp when making choices. Production-ready AI models need prediction and evaluation. These sectors require transparency, accountability, and norms. This research examines how Explainable AI (XAI) might improve industrial decisions. It thinks XAI might improve transparency, industry compliance, and AI judgement. Manufacturing organisations may make decisions and follow validation, certification, and audit standards. 

Smart factories, Industry 4.0, and IoT monitoring complicate production. Decision-support systems need simple data and performance. The XAI assists machine learning model designers. To achieve organisational objectives, stakeholders may evaluate, improve, and verify estimates. Openness supports ISO 9001, FDA, and AI-driven solution compliance and decision-making. AI systems must provide verifiable and understandable outputs when rules change. Explained choices matter.

When to innovate, maintain quality, forecast maintenance, improve the supply chain, and deploy resources determines manufacturing success and competitiveness. Advanced AI systems can process massive volumes of data quicker and better than humans, improving decision-making. Policymakers must be honest about AI use. LIME, SHapley Additive Explanations (SHAP), and counterfactuals explain complicated model black boxes. These technologies simplify AI predictions and educate decision-makers, reducing high-stakes AI adoption risks. 

The rules are hard to explain. Pharmaceutical, aerospace, and automotive industries must oversee, hold responsible, and justify manufacturing. Auditors can increase AI judgement compliance. Traceability reduces errors, system failures, operational inefficiencies, and legal issues while assuring compliance. Therefore, explainable AI makes industrial decision-making apparent and follow complex rules. 

Operators, developers, regulators, and customers trust explainable AI conclusions. Confidence is needed for AI production. Without explanations, stakeholders may doubt AI-driven solutions for critical choices. XAI explanations of AI predictions and behaviours may build trust. Humans can improve operations using AI. 

Explainable AI may boost industrial efficiency, compliance, and transparency. Producers build models using machine learning prediction variables. Process optimisation reduces errors and faulty decisions. Model outputs may help buyers decide since manufacturers may modify plans depending on model patterns. Supply chain management, predictive maintenance, quality control, and manufacturing line optimisation may enhance. 

Explainable AI has great potential but difficult production choices. Model accuracy vs. usability is tricky. Machine learning deep neural networks may be confusing. Accuracy and explainability must match for high-performance models and unambiguous industrial choices. Field interpretability must account for production constraints. Each manufacturer needs a unique AI system explanation method. 

Many industrial cases demonstrate machine learning's efficacy. These case studies show XAI's predictive maintenance, quality control, and production planning advantages. Companies' XAI integration issues and solutions are explored. We discuss manufacturing and explainable AI. Blockchain, digital twins, and AR may improve XAI transparency, accountability, and compliance.

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Published

02-03-2020

How to Cite

[1]
Aishwarya Selvam, “Explainable Machine Learning in Manufacturing Decision-Making for Enhanced Transparency and Compliance ”, European Journal of Quantum Computing and Intelligent Agents, vol. 4, pp. 258–298, Mar. 2020, Accessed: Jun. 11, 2026. [Online]. Available: https://ejqcia.org/index.php/publication/article/view/36