181 articles tagged with #explainable-ai. AI-curated summaries with sentiment analysis and key takeaways from 50+ sources.
Researchers used GPT-4 to automatically generate explanations for how individual neurons behave in large language models and to evaluate the quality of those explanations. They have released a comprehensive dataset containing explanations and quality scores for every neuron in GPT-2, advancing AI interpretability research.
Researchers propose using spectral entropy to measure noise introduced by explainability AI (XAI) techniques applied to deep learning models, demonstrating the approach on ECG arrhythmia classification. The work addresses a critical gap in healthcare AI where distinguishing between genuine model signals and XAI-generated artifacts is essential for clinical trust and safety.
Researchers present Expresso-AI, a framework for interpreting deep learning models trained on facial videos to diagnose depression severity. The approach combines explainability with improved predictive performance by analyzing facial regions and temporal expression patterns, addressing a critical gap in automated mental health diagnosis where current methods lack interpretability.
Researchers present a hybrid answer set programming method for computing constrained movement trajectories of autonomous objects in real-world environments. The approach combines logical reasoning with geometric constraints to generate interpretable trajectory modes, demonstrated on autonomous driving datasets with verifiable explainability advantages over purely learned approaches.
Researchers present xAARA, an AI system that enhances stroke rehabilitation assessment by analyzing multi-view video to provide ARAT scores with calibrated uncertainty and clinical explanations. The system achieved 94.2% task accuracy while reducing predictive uncertainty by 96.1% compared to single clinicians, with four independent clinicians validating its potential for clinical deployment.
Researchers propose an Explainable Control Framework (XCF) that uses fuzzy logic and large language models to make complex automated controllers transparent and understandable to humans. The system generates natural language explanations of controller decisions across multiple levels of abstraction, demonstrated through robotic control applications like inverted pendulums and obstacle avoidance.
Researchers developed a hybrid machine learning framework combining a class-aware adversarial Variational Autoencoder with XGBoost to improve melanoma classification while providing interpretable uncertainty explanations. The model achieves 0.868 AUC and uses latent space visualization to help clinicians understand borderline cases through Content-Based Image Retrieval, addressing the clinical trust gap inherent in black-box medical AI systems.
Researchers propose an explanation-guided framework for medical named entity recognition (NER) in Chinese atopic dermatitis clinical texts, using stability and boundary-aware constraints to improve model reliability and interpretability. The method combines perturbation-based analysis with adaptive fusion of local and global explanations, achieving performance gains across multiple NER models while enhancing explanation robustness for clinical decision support.
Researchers propose Dys-XAI, an influence-based explainability framework that makes deep learning predictions for dysarthria severity assessment interpretable by linking decisions to similar training examples. The method uses gradient-based influence approximations to identify supportive and competing samples, with validation experiments confirming that removing influential samples systematically alters predictions, addressing a critical gap between model performance and clinical adoptability.
Researchers propose a new method called Modified RISE-eval to evaluate attention map visualizations in AI speaker recognition systems. The study systematically reviews existing Class Activation Map (CAM)-based evaluation techniques and demonstrates how GradCAM and LayerCAM perform differently under various conditions, advancing the field of explainable AI (XAI) by making neural network decision-making more transparent and interpretable.
Researchers have developed explainable AI techniques to improve trust and understanding of automatic speech recognition (ASR) systems by identifying minimal subsets of audio frames that cause specific transcriptions. The study adapts established XAI methods from image classification and evaluates them against multiple ASR systems including Google API and DeepSpeech using 100 audio samples.
Researchers developed an Explainable AI framework using Federated Learning to identify career-related depression and anxiety among university students while preserving privacy. The model achieved 92.08% accuracy by analyzing behavioral data and facial expressions, successfully identifying key depression indicators consistent with psychological theory.
Researchers developed an explainable graph neural network framework that uses group lasso regularization to predict compound-protein affinity and identify critical molecular substructures in drug discovery. The approach leverages activity-cliff molecule pairs to improve predictions for tyrosine-protein kinases and other targets, demonstrating enhanced interpretability and accuracy in molecular property prediction.
PsyBridge is a hybrid AI framework that integrates validated mental health screening tools (PHQ-9, GAD-7) with cognitive and personality assessments to provide interpretable, multi-dimensional mental health risk classification. The framework achieved 84% accuracy on a 500-patient semi-synthetic dataset, outperforming isolated screening instruments and demonstrating potential for digital healthcare and telehealth applications.
Researchers propose a machine-coached policy-revision layer for adaptive agent-based models (ABMs) used in regulatory simulation, enabling real-time feedback and contestability of policy decisions through explainable symbolic rules rather than black-box optimization. The approach demonstrates practical application in emissions-regulation scenarios, balancing policy objectives while maintaining regulatory guardrails.
Researchers propose Graph-of-Differences (GoD), a novel approach to medical image re-identification that grounds patient matching in explicit anatomical structures rather than arbitrary spatial features. The method demonstrates significant accuracy improvements on fundus and chest X-ray images while providing clinically auditable explanations tied to named anatomical regions.
Researchers developed an explainable AI framework combining GAN-based oversampling, Dragonfly Algorithm optimization, and XGBoost to predict mental health outcomes in drug-affected populations, achieving 94.17% accuracy. The model addresses class imbalance and interpretability challenges in clinical settings, identifying behavioral factors like sleep quality and emotional regulation as key predictive indicators.
Researchers introduce Diffusion Integrated Gradients (DiffIG), a novel explainable AI method that uses diffusion models to generate optimized attribution paths instead of relying on fixed hand-crafted paths. The approach enables inference-time controllable feature attribution with improved explanation quality and perceptual alignment compared to existing path-based methods.
Researchers introduce GLARE, an LLM-based interactive system that translates natural language questions into SQL queries to make global explanations from AI vision models more accessible and usable. The system bridges the gap between complex, static explanation artifacts and human-centered interpretability by enabling users to ask targeted questions about model behavior without needing technical expertise.
Researchers introduce Evolving Programmatic Bottlenecks (EPB), a novel framework for interpreting Neural Combinatorial Optimization models by distilling them into human-readable program portfolios. The method uses large language models to autonomously evolve interpretable programs while maintaining performance comparable to the original black-box models, addressing a critical gap in AI explainability for complex sequential decision-making systems.
Researchers introduce TelcoAgent, a foundation model-based framework that forecasts multiple Key Performance Measurements (KPMs) across 5G networks with high accuracy and explainability. The system leverages 3GPP knowledge graphs and time-series foundation models to enable zero-shot forecasting across diverse network cells without site-specific retraining, validated on real-world city-scale 5G data.
Researchers developed an interpretable deep learning framework using EfficientNet-B0 and attention mechanisms to classify sperm morphology for male infertility diagnosis. The model achieves 90-94% accuracy on public datasets while providing visual explanations through Grad-CAM++ visualizations, addressing the clinical adoption barrier of traditional black-box AI models.
Researchers propose Concept Flow Models (CFMs), a hierarchical approach to interpretable AI that addresses information leakage problems in existing Concept Bottleneck Models. By organizing semantic concepts into decision trees rather than flat structures, CFMs maintain predictive accuracy while improving model transparency and reducing spurious correlations.
Researchers developed DeepHHF, a deep learning model trained on 24-hour ECG recordings that predicts heart failure risk within five years with 0.80 AUC accuracy, outperforming traditional 30-second ECG analysis and clinical scoring systems. The model identified high-risk patients with a two-fold increased chance of hospitalization or death, demonstrating that continuous cardiac monitoring combined with explainable AI offers a non-invasive, cost-effective approach to preventive healthcare.
SemantiClean is a modular framework that extracts semantic signals from e-commerce session data to predict purchase intent and customer behavior while prioritizing auditability and reproducibility over raw predictive accuracy. The system uses a predefined library of 24 behavioral elements organized across four layers and implements safeguards against signal inflation, representing a shift toward transparent, governance-focused AI systems over conventional black-box optimizers.
