Compliance-Aware and Explainable GA-Optimized Neural Network for Cost Estimation in Safety-Critical Medical Software

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Key Insights
The core analysis identifies pivotal facts including the introduction of GA-BP-XAI, a neural network optimized via genetic algorithms for medical software cost estimation; its enhanced accuracy and interpretability over traditional and other machine learning models; and the application of SHAP and LIME techniques to fulfill regulatory transparency mandates.
Geographically and temporally, the dataset is comprised of 1,200 anonymized projects, although specific locations are not detailed, reflecting recent advances in medical software engineering.
Primary stakeholders include software engineers, project managers, and regulatory authorities directly involved in software development and compliance, while secondary groups encompass healthcare providers and patients indirectly impacted by software reliability and cost management.
Immediate impacts observed are improved estimation accuracy and explainability, which facilitate trust and regulatory acceptance, reducing project risks.
Historically, this aligns with the progression from opaque machine learning models to explainable AI frameworks seen in other high-stakes domains such as finance and aerospace.
Future projections suggest optimistic pathways where explainable AI fosters innovation and regulatory harmonization, contrasted by risks involving potential model misuse or incomplete transparency demanding vigilant governance.
From a regulatory perspective, recommendations include prioritizing the adoption of explainable models to ensure compliance (high significance, moderate complexity), enhancing stakeholder training on interpretability tools (moderate significance, low complexity), and establishing standardized audit protocols for AI-driven cost estimation (high significance, high complexity).
These measures aim to maximize benefits while mitigating risks associated with deploying advanced AI in safety-critical medical software projects.