CT-Based Radiomics Deep Learning Predicts Lymph Node Metastasis in Tumors

Nonfunctional pancreatic neuroendocrine tumors, although uncommon, are primarily managed through surgical intervention. The decision-making process for surgery and other treatments is heavily influenced by the presence or absence of lymph node metastasis. There is currently a lack of consensus in clinical guidelines, especially regarding the necessity of surgery for tumors less than 2 cm in size. The preoperative diagnosis of lymph node metastasis through existing methods is not sufficiently reliable. To address this, researchers have now introduced an imaging model that combines radiomics (the extraction of data from radiological images) and deep learning to predict preoperative lymph node metastasis in these tumors. This innovative model marks a significant step forward in the non-invasive assessment of lymph node metastasis, facilitating more precise diagnosis and aiding in the determination of the most effective treatment strategies.

The team at the University of Tsukuba (Tsukuba, Japan) developed this predictive model by integrating radiomics features obtained from CT and MRI scans with advanced artificial intelligence deep-learning techniques. Impressively, this model exhibited an 89% accuracy rate in predicting lymph node metastasis, which further increases to 91% when validated with data from an external hospital. Remarkably, its performance remains stable regardless of whether the tumor size is above or below 2 cm. This model thus serves as a vital tool for predicting lymph node metastasis, equipping surgeons with essential information to select the most suitable surgical interventions and treatment plans. The development holds the potential to significantly improve patient outcomes in this challenging medical field.

Related Links:
University of Tsukuba

Visit expo >

Floor‑Mounted Digital X‑Ray System

MasteRad MX30+

Mammography System (Analog)

MAM VENUS

Multi-Use Ultrasound Table

Clinton

Digital Radiographic System

OMNERA 300M