The proposed EVOKE surpasses recent state-of-the-art methods across multiple datasets, and introduces a multi-view contrastive learning method that captures semantic correspondences both among multi-view radiographs within a study and between these radiographs and their associated report, thereby improving visual representation learning.
Abstract
Abstract Motivation Radiology reports play a pivotal role in guiding treatment planning and enabling effective doctor-patient communication. However, their manual composition imposes a substantial workload on radiologists. Although automatic radiology report generation has emerged as a promising alternative, existing approaches predominantly rely on single-view chest X-rays and fail to adequately leverage patient-specific context, thereby limiting diagnostic accuracy. Results To address this challenge, we propose EVOKE, a novel chest X-ray report generation framework that incorporates multi-view contrastive learning and patient-specific knowledge. Specifically, we introduce a multi-view contrastive learning method that captures semantic correspondences both among multi-view radiographs within a study and between these radiographs and their associated report, thereby improving visual representation learning. We further present a knowledge-guided report generation module that integrates available patient-specific knowledge (i.e. indication, which includes symptom descriptions) to facilitate the generation of accurate and coherent radiology reports. To support research in multi-view report generation, we construct Multi-view CXR and Two-view CXR datasets using publicly available sources. Our proposed EVOKE surpasses recent state-of-the-art methods across multiple datasets, achieving a 2.9% F1 RadGraph improvement on MIMIC-CXR, a 5.0% BLEU-1 improvement on MIMIC-ABN, a 1.5% BLEU-4 improvement on Multi-view CXR, and an 8.2% F1,mic-14 CheXbert improvement on Two-view CXR. Availability Code is publicly available at https://github.com/mk-runner/EVOKE, with an archived release available on Zenodo (doi:10.5281/zenodo.21000219).
Chest X-ray report generation systems are valuable for assisting disease diagnosis and improving healthcare efficiency. However, existing methods still face two key challenges. First, multiple diseases often co-occur, leading to a combinatorial explosion of label combinations and sparse supervision for learning a gener...
Hong-Ze Zhu, Hong Liu, Ya-Wen Huang et al.· IEEE Transactions on Medical...· 0 citations
Radiology reports are vital for accurate diagnosis and treatment planning, yet their manual generation is time-consuming and dependent on radiologist expertise, leading to delays and inconsistent clinical decisions. Medical image–text retrieval offers a scalable solution by enabling the retrieval of relevant prior...
Automatic radiology report generation has become an active research area due to its potential to reduce radiologist workload and standardize reporting quality. However, state-of- the-art systems still suffer from hallucinated findings, limited clinical reasoning, and a lack of calibrated uncertainty estimates, all of w...
Lokesh P, Kamaleshwaran K, Naveenraj M et al.· 2026 International Conferenc...· 0 citations
Despite the remarkable progress of LLM-based and knowledge graph-augmented Radiology Report Generation (RRG) methods, existing techniques still suffer from inherent defects. Conventional LLM-only models lack structured medical prior knowledge, resulting in frequent medical hallucinations and low diagnostic interpretabi...
Fu-Tian Wang, Yu-Han Qiao, Xiao Wang et al.· 0 citations
In a controlled study that fixes the backbone, data split, target reports, and adaptation while varying only the injected grounding, perception-derived facts outperform retrieved prior reports, retrieval becomes redundant once facts are present, and end-to-end predicted facts remain effective without any ground-truth a...
Jian-Yu Sun, Zhen-Xuan Zhang, Guang Yang et al.· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.