The output generation in large language models (LLMs) creates factually incorrect and fabricated or inconsistently logical data. The solution of hallucination represents a key roadblock mainly among datasets containing medical content including text together with audio and video elements and images. This proposed framework based on CNN used to handle hallucination through sequence logic conflict resolution together with perceptual ambiguity resolution and belief mismatch handling. The system successfully applies its generalization capabilities to process multiple types of inputs such as mobile sensor readings and brain scans and translation across multiple languages. Medical performance enhances when CNNs work together with alignment-based techniques and cognitive behavioral approaches. The data learning process operated at a pace of 8.25 s using 50 training rounds to reach a training success rate of 75%. The detection accuracy along with hallucination mitigation make progress in high-quality datasets according to precision and F1-score metrics despite enduring difficulties in low-resource contexts. The performance assessment consists of accuracy/loss trend analysis together with confusion matrix evaluations and ROC-AUC curve measurements. Extensive dataset optimization and expansion work as key factors to boost CNN-based systems when they operate in real-world scenarios.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

A CNN-Based Framework for Addressing Hallucination Phenomena: Mitigating Limitations Across Multimodal and Clinical Contexts

  • Revanth Madamala,
  • Raviteja Reddy Ganta,
  • Dileep Pulugu,
  • P. Revathy,
  • N. Sandhya

摘要

The output generation in large language models (LLMs) creates factually incorrect and fabricated or inconsistently logical data. The solution of hallucination represents a key roadblock mainly among datasets containing medical content including text together with audio and video elements and images. This proposed framework based on CNN used to handle hallucination through sequence logic conflict resolution together with perceptual ambiguity resolution and belief mismatch handling. The system successfully applies its generalization capabilities to process multiple types of inputs such as mobile sensor readings and brain scans and translation across multiple languages. Medical performance enhances when CNNs work together with alignment-based techniques and cognitive behavioral approaches. The data learning process operated at a pace of 8.25 s using 50 training rounds to reach a training success rate of 75%. The detection accuracy along with hallucination mitigation make progress in high-quality datasets according to precision and F1-score metrics despite enduring difficulties in low-resource contexts. The performance assessment consists of accuracy/loss trend analysis together with confusion matrix evaluations and ROC-AUC curve measurements. Extensive dataset optimization and expansion work as key factors to boost CNN-based systems when they operate in real-world scenarios.