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Advanced AI Tools to Improve Cancer Diagnosis, Treatment & Monitoring from Multi-Modality Imaging

OncoAI - LymphNode OncoAI - BrainTumor OncoAI - LungNodule

OncoAI - LymphNode

Effortlessly detect, segment, and track lymph nodes across the body with our AI-driven algorithms.

This product is supported by NIH's National Cancer Institute.
An example of study retrieval from a PACS server via DICOM Node in the OncoAI Suite.

Study Support

  • CT, T1 MRI, and T2 MRI modalities are supported.
  • Studies can be uploaded locally or retrieved from PACS via DICOM node connectivity.
A figure representing both the semi-automatic and automatic segmentation functionality within OncoAI - LymphNode.

Automatic/Semi-Automatic Localization

  • Automatic localization uses built-in algorithms to identify lymph nodes without any hassle.
  • Semi-automatic localization utilizes user-identified nodes that are created with one-click inputs.
A study that has been segmented and is visible within OncoAI - LymphNode's viewer.

Lymph Node Segmentation & Measurements

  • Lymph node segmentation occurs across the entire study following localization.
  • Automatic quantitative & RECIST measurements are collected upon completion of segmentation.
A sample report generated from a segmented study in QuantBrain - LymphNode.

Report Generation

  • Reports generated show measurement and annotation results.
  • Export reports as a PDF file or push to a specified DICOM node.
An example of the comparison viewer used in OncoAI - LymphNode.

Study Comparison

  • Apply longitudinal analysis across series to track lymph nodes over time across all supported modalities.

OncoAI - BrainTumor

Leverage our award-winning segmentation algorithms for automatic detection, segmentation, and longitudinal tracking of brain tumors.

An figure illustrating the parsing feature in OncoAI - BrainTumor.

Parsing, Alignment & Registration

  • Raw MRI data is uploaded or retrieved.
  • The data is automatically parsed & aligned using a robust registration algorithm to reduce motion artifacts.
  • Automatic support for missing modalities.
An example of the contrast support available in OncoAI - BrainTumor.

Multi-Contrast Support

  • Multi-contrast MRI support includes T1, T1 contrast-enhanced, T2, and fluid-attenuated inversion recovery (FLAIR).
  • Flexible and congruent input configurations.
The "Analyze" button in OncoAI - BrainTumor, used to segment studies automatically.

Automatic Localization

  • Automatic localization uses built-in algorithms to locate tumor segmentations in minutes.
An example study that has been automatically segmented and viewed in OncoAI - BrainTumor's built-in viewer.

Brain Tumor Segmentation

  • Brain tumor segmentation occurs following automatic localization.
  • Precisely detects & quantifies multiple tumor types, such as glioma, brain metastasis, & vestibular schwannoma.
  • Quantitative measurements are collected after segmentation.
A sample generated report from an annotated study in OncoAI - BrainTumor.

Report Generation

  • Reports generated show measurement and annotation results.
  • Export reports as a PDF file or push to a specified DICOM node.
An example of OncoAI - BrainTumor's Comparison Viewer features between series.

Study Comparison

  • Apply longitudinal analysis across series to track changes over time per tumor ROI.

OncoAI - LungNodule

Effortlessly detect, segment, and track lung nodules within CT studies.

An example of study retrieval from a PACS server via DICOM Node in the OncoAI Suite.

Study Support

  • CT modality studies are supported.
  • Studies are uploaded locally or retrieved from PACS via DICOM node connectivity.
A figure illustrating the different options for segmentation that are available in OncoAI - LungNodule: semi-automatic and automatic segmentation.

Automatic/Semi-Automatic Localization

  • Automatic localization uses built-in algorithms to identify lymph nodes without any hassle.
  • Semi-automatic localization utilizes user-identified nodules that are created with one-click inputs.
An figure showing a study that has been automatically segmented for lung nodules, being shown in OncoAI - LungNodule's built-in viewer.

Lung Nodule Segmentation & Measurements

  • Lung nodule segmentations occur following localization.
  • Automatic quantitative measurements are collected after segmentation.
A sample generated report from an annotated study in OncoAI - LungNodule.

Report Generation

  • Reports generated display measurement and annotation results.
  • Export reports as a PDF file or push to a specified DICOM node.
An example of two segmented series in OncoAI - LungNodule's Comparison Viewer.

Study Comparison

  • Apply longitudinal analysis across series to track nodules over time.

Publications

Brain Tumor Segmentation for Multi-Modal MRI with Missing Information

Xue Feng, Kanchan Ghimire, Daniel D. Kim, Rajat S. Chandra, Helen Zhang, Jian Peng, Binghong Han, Gaofeng Huang, Quan Chen, Sohil Patel, Chetan Bettagowda, Haris I. Sair, Craig Jones, Zhicheng Jiao, Li Yang, Harrison Bai

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Deep learning vs. atlas-based models for fast auto-segmentation of the masticatory muscles on head and neck CT images

Wen Chen, Yimin Li, Brandon A. Dyer, Xue Feng, Shyam Rao, Stanley H. Benedict, Quan Chen, Yi Rong

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Brain Tumor Segmentation Using an Ensemble of 3D U-Nets and Overall Survival Prediction Using Radiomic Features

Xue Feng, Nicholas J. Tustison, Sohil H. Patel, Craig H. Meyer

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Automated 3D Fetal Brain Segmentation Using an Optimized Deep Learning Approach

L. Zhao, J. D. Asis-Cruz, X. Feng, Y. Wu, K. Kapse, A. Largent, J. Quistorff, C. Lopez, D. Wu, K. Qing, C. Meyer, C. Limperopoulos

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Lung Nodule Malignancy Prediction in Sequential CT Scans: Summary of ISBI 2018 Challenge

Yoganand Balagurunathan, Andrew Beers, Michael Mcnitt-Gray, Lubomir Hadjiiski, Sandy Napel, Dmitry Goldgof, Gustavo Perez, Pablo Arbelaez, Alireza Mehrtash, Tina Kapur, Ehwa Yang, Jung Won Moon, Gabriel Bernardino Perez, Ricard Delgado-Gonzalo, M Mehdi Farhangi, Amir A Amini, Renkun Ni, Xue Feng, Aditya Bagari, Kiran Vaidhya, Benjamin Veasey, Wiem Safta, Hichem Frigui, Joseph Enguehard, Ali Gholipour, Laura Silvana Castillo, Laura Alexandra Daza, Paul Pinsky, Jayashree Kalpathy-Cramer, Keyvan Farahani

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Prediction of lung malignancy progression and survival with machine learning based on pre-treatment FDG-PET/CT

Brian Huang, John Sollee, Yong-Heng Luo, Ashwin Reddy, Zhusi Zhong, Jing Wu, Joseph Mammarappallil, Terrance Healey, Gang Cheng, Christopher Azzoli, Dana Korogodsky, Paul Zhang, Xue Feng, Jie Li, Li Yang, Zhicheng Jiao, Harrison Xiao Bai

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