Medical Physics, ISSN 0094-2405, 06/2016, Volume 43, Issue 6, pp. 3694 - 3694
Image segmentation is one of the core problems for applying radiomics-based analysis to images. However, achieving repeatable and accurate segmentations for...
Medical image quality | Image analysis | Medical magnetic resonance imaging | Computed tomography | Medical image segmentation
Medical image quality | Image analysis | Medical magnetic resonance imaging | Computed tomography | Medical image segmentation
Journal Article
Proceedings of the National Academy of Sciences of the United States of America, ISSN 0027-8424, 11/2015, Volume 112, Issue 46, pp. E6265 - E6273
Noninvasive, radiological image-based detection and stratification of Gleason patterns can impact clinical outcomes, treatment selection, and the determination...
Gleason score classification | Learning from unbalanced data | PCa gleason 6 vs. ≥7 | Multiparametric mri | PCa gleason (3+4) vs. (4+3) cancers | CONTRAST-ENHANCED MRI | ACTIVE SURVEILLANCE | MULTIDISCIPLINARY SCIENCES | 3 T | BIOPSY | TISSUE | SELECTION BIAS | APPARENT DIFFUSION-COEFFICIENT | COMPUTER-AIDED DIAGNOSIS | DIFFERENTIATION | COMBINATION | Radiography | Magnetic Resonance Imaging | Predictive Value of Tests | Humans | Prostatic Neoplasms - diagnostic imaging | Male | Image Processing, Computer-Assisted - methods | Machine Learning | Development and progression | Care and treatment | Research | Magnetic resonance imaging | Prostate cancer | Patient outcomes | multiparametric MRI | PCa Gleason 6 vs. ≥7 | Biological Sciences | Physical Sciences | PNAS Plus | PCa Gleason (3+4) vs. (4+3) cancers | learning from unbalanced data
Gleason score classification | Learning from unbalanced data | PCa gleason 6 vs. ≥7 | Multiparametric mri | PCa gleason (3+4) vs. (4+3) cancers | CONTRAST-ENHANCED MRI | ACTIVE SURVEILLANCE | MULTIDISCIPLINARY SCIENCES | 3 T | BIOPSY | TISSUE | SELECTION BIAS | APPARENT DIFFUSION-COEFFICIENT | COMPUTER-AIDED DIAGNOSIS | DIFFERENTIATION | COMBINATION | Radiography | Magnetic Resonance Imaging | Predictive Value of Tests | Humans | Prostatic Neoplasms - diagnostic imaging | Male | Image Processing, Computer-Assisted - methods | Machine Learning | Development and progression | Care and treatment | Research | Magnetic resonance imaging | Prostate cancer | Patient outcomes | multiparametric MRI | PCa Gleason 6 vs. ≥7 | Biological Sciences | Physical Sciences | PNAS Plus | PCa Gleason (3+4) vs. (4+3) cancers | learning from unbalanced data
Journal Article
European Radiology, ISSN 0938-7994, 10/2015, Volume 25, Issue 10, pp. 2840 - 2850
To investigate Haralick texture analysis of prostate MRI for cancer detection and differentiating Gleason scores (GS).One hundred and forty-seven patients...
Adenocarcinoma | Prostatic neoplasm | Computer-assisted | Diagnostic Radiology | Image processing | Internal Medicine | Neuroradiology | Medicine & Public Health | Magnetic resonance imaging | Interventional Radiology | Gleason grading | Imaging / Radiology | Ultrasound | DIAGNOSIS | GUIDELINES | CLASSIFICATION | FEATURES | IMAGES | AGGRESSIVENESS | GRADE | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | Prostatic Neoplasms - pathology | Diagnosis, Differential | Prostatic Neoplasms - surgery | Humans | Middle Aged | Male | Image Processing, Computer-Assisted - methods | Tumor Burden | Neoplasm Grading | Diffusion Magnetic Resonance Imaging | Adult | Prostatectomy | Aged | Retrospective Studies | Prostate cancer | Magnetic Resonance Imaging | Gleason Grading | Prostatic Neoplasm | Image Processing | Computer-Assisted
Adenocarcinoma | Prostatic neoplasm | Computer-assisted | Diagnostic Radiology | Image processing | Internal Medicine | Neuroradiology | Medicine & Public Health | Magnetic resonance imaging | Interventional Radiology | Gleason grading | Imaging / Radiology | Ultrasound | DIAGNOSIS | GUIDELINES | CLASSIFICATION | FEATURES | IMAGES | AGGRESSIVENESS | GRADE | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | Prostatic Neoplasms - pathology | Diagnosis, Differential | Prostatic Neoplasms - surgery | Humans | Middle Aged | Male | Image Processing, Computer-Assisted - methods | Tumor Burden | Neoplasm Grading | Diffusion Magnetic Resonance Imaging | Adult | Prostatectomy | Aged | Retrospective Studies | Prostate cancer | Magnetic Resonance Imaging | Gleason Grading | Prostatic Neoplasm | Image Processing | Computer-Assisted
Journal Article
Scientific Reports, ISSN 2045-2322, 2013, Volume 3, Issue 1, p. 1364
Volumetric change in glioblastoma multiforme (GBM) over time is a critical factor in treatment decisions. Typically, the tumor volume is computed on a...
MODELS | GLIOMA | MULTIDISCIPLINARY SCIENCES | GROWTH | ALGORITHMS | LEVEL | INTERACTIVE SEGMENTATION | TUMOR VOLUME | Magnetic Resonance Imaging | Glioblastoma - diagnosis | Image Processing, Computer-Assisted | Glioblastoma - pathology | Humans | Tumor Burden | Imaging, Three-Dimensional | Image processing | Magnetic resonance imaging | Segmentation | Glioblastoma multiforme | Glioblastoma | Computer Science - Computer Vision and Pattern Recognition
MODELS | GLIOMA | MULTIDISCIPLINARY SCIENCES | GROWTH | ALGORITHMS | LEVEL | INTERACTIVE SEGMENTATION | TUMOR VOLUME | Magnetic Resonance Imaging | Glioblastoma - diagnosis | Image Processing, Computer-Assisted | Glioblastoma - pathology | Humans | Tumor Burden | Imaging, Three-Dimensional | Image processing | Magnetic resonance imaging | Segmentation | Glioblastoma multiforme | Glioblastoma | Computer Science - Computer Vision and Pattern Recognition
Journal Article
Journal of Magnetic Resonance Imaging, ISSN 1053-1807, 11/2015, Volume 42, Issue 5, pp. 1398 - 1406
Purpose To investigate the association between a validated, gene‐expression‐based, aggressiveness assay, Oncotype Dx RS, and morphological and texture‐based...
invasive ductal carcinoma | breast cancer subtypes | genotype | DIAGNOSIS | TAMOXIFEN | TEXTURE ANALYSIS | RISK | TUMORS | LESIONS | MOLECULAR PORTRAITS | DX(TM) RECURRENCE-SCORE | NEOADJUVANT CHEMOTHERAPY | GENE-EXPRESSION | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | Carcinoma, Ductal, Breast - genetics | Gene Expression - genetics | Image Enhancement | Humans | Middle Aged | Magnetic Resonance Imaging - methods | Breast Neoplasms - genetics | Contrast Media | Image Processing, Computer-Assisted | Breast Neoplasms - pathology | Adult | Carcinoma, Ductal, Breast - pathology | Female | Aged | Retrospective Studies | Genomics - methods | Breast - pathology | Cohort Studies | Gadolinium DTPA | Genetic research | Genetic aspects | Breast cancer | Cancer | Nuclear magnetic resonance--NMR | Regression analysis | Morphology
invasive ductal carcinoma | breast cancer subtypes | genotype | DIAGNOSIS | TAMOXIFEN | TEXTURE ANALYSIS | RISK | TUMORS | LESIONS | MOLECULAR PORTRAITS | DX(TM) RECURRENCE-SCORE | NEOADJUVANT CHEMOTHERAPY | GENE-EXPRESSION | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | Carcinoma, Ductal, Breast - genetics | Gene Expression - genetics | Image Enhancement | Humans | Middle Aged | Magnetic Resonance Imaging - methods | Breast Neoplasms - genetics | Contrast Media | Image Processing, Computer-Assisted | Breast Neoplasms - pathology | Adult | Carcinoma, Ductal, Breast - pathology | Female | Aged | Retrospective Studies | Genomics - methods | Breast - pathology | Cohort Studies | Gadolinium DTPA | Genetic research | Genetic aspects | Breast cancer | Cancer | Nuclear magnetic resonance--NMR | Regression analysis | Morphology
Journal Article
Journal of Magnetic Resonance Imaging, ISSN 1053-1807, 07/2016, Volume 44, Issue 1, pp. 122 - 129
Purpose To use features extracted from magnetic resonance (MR) images and a machine‐learning method to assist in differentiating breast cancer molecular...
MRI texture | molecular subtypes | breast cancer | machine‐learning | Molecular subtypes | Breast cancer | Machine-learning | machine-learning | DIAGNOSIS | IMAGES | RESONANCE-IMAGING FEATURES | PATHOLOGICAL FINDINGS | PHENOTYPES | TUMORS | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | LESIONS | COMPUTER-AIDED DETECTION | Breast Neoplasms - classification | Diagnosis, Differential | Reproducibility of Results | Humans | Image Interpretation, Computer-Assisted - methods | Middle Aged | Magnetic Resonance Imaging - methods | Triple Negative Breast Neoplasms - diagnostic imaging | Breast Neoplasms - metabolism | Algorithms | Sensitivity and Specificity | Biomarkers, Tumor - metabolism | Adult | Female | Aged | Image Enhancement - methods | Breast Neoplasms - diagnostic imaging | Observer Variation | Rankings | Healthcare industry software | Magnetic resonance imaging | Health insurance industry | Machine learning | Accuracy
MRI texture | molecular subtypes | breast cancer | machine‐learning | Molecular subtypes | Breast cancer | Machine-learning | machine-learning | DIAGNOSIS | IMAGES | RESONANCE-IMAGING FEATURES | PATHOLOGICAL FINDINGS | PHENOTYPES | TUMORS | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | LESIONS | COMPUTER-AIDED DETECTION | Breast Neoplasms - classification | Diagnosis, Differential | Reproducibility of Results | Humans | Image Interpretation, Computer-Assisted - methods | Middle Aged | Magnetic Resonance Imaging - methods | Triple Negative Breast Neoplasms - diagnostic imaging | Breast Neoplasms - metabolism | Algorithms | Sensitivity and Specificity | Biomarkers, Tumor - metabolism | Adult | Female | Aged | Image Enhancement - methods | Breast Neoplasms - diagnostic imaging | Observer Variation | Rankings | Healthcare industry software | Magnetic resonance imaging | Health insurance industry | Machine learning | Accuracy
Journal Article
IEEE Transactions on Medical Imaging, ISSN 0278-0062, 01/2019, Volume 38, Issue 1, pp. 134 - 144
Volumetric lung tumor segmentation and accurate longitudinal tracking of tumor volume changes from computed tomography images are essential for monitoring...
Deep learning | lung cancer | Image segmentation | Image resolution | detection | Lung | Streaming media | Feature extraction | segmentation | longitudinal | Tumors | Cancer | NODULES | COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS | ENGINEERING, BIOMEDICAL | IMAGING SCIENCE & PHOTOGRAPHIC TECHNOLOGY | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | ENGINEERING, ELECTRICAL & ELECTRONIC | Formulations | Automation | Sensitivity analysis | Medical imaging | Segmentation | Image processing | PD-1 protein | Lung nodules | Image detection | Nodules | Consortia | Datasets | Computed tomography | Computation | Immunotherapy | Data sets | Computer aided tomography | Longitudinal | Detection | Lung cancer
Deep learning | lung cancer | Image segmentation | Image resolution | detection | Lung | Streaming media | Feature extraction | segmentation | longitudinal | Tumors | Cancer | NODULES | COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS | ENGINEERING, BIOMEDICAL | IMAGING SCIENCE & PHOTOGRAPHIC TECHNOLOGY | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | ENGINEERING, ELECTRICAL & ELECTRONIC | Formulations | Automation | Sensitivity analysis | Medical imaging | Segmentation | Image processing | PD-1 protein | Lung nodules | Image detection | Nodules | Consortia | Datasets | Computed tomography | Computation | Immunotherapy | Data sets | Computer aided tomography | Longitudinal | Detection | Lung cancer
Journal Article
Scientific Reports, ISSN 2045-2322, 12/2018, Volume 8, Issue 1, pp. 4838 - 11
We present a segmentation approach that combines GrowCut (GC) with cancer-specific multi-parametric Gaussian Mixture Model (GCGMM) to produce accurate and...
NEOADJUVANT CHEMOTHERAPY | IMAGES | MULTIDISCIPLINARY SCIENCES | TEXTURE ANALYSIS | CLASSIFICATION | LESIONS | PREDICTION | Image processing | Magnetic resonance imaging | Segmentation | Invasiveness | Feasibility studies | Breast cancer | ErbB-2 protein
NEOADJUVANT CHEMOTHERAPY | IMAGES | MULTIDISCIPLINARY SCIENCES | TEXTURE ANALYSIS | CLASSIFICATION | LESIONS | PREDICTION | Image processing | Magnetic resonance imaging | Segmentation | Invasiveness | Feasibility studies | Breast cancer | ErbB-2 protein
Journal Article
Medical Physics, ISSN 0094-2405, 12/2019, Volume 46, Issue 12, pp. 5612 - 5622
Purpose Manual delineation of head and neck (H&N) organ‐at‐risk (OAR) structures for radiation therapy planning is time consuming and highly variable....
head and neck | atlas segmentation | computed tomography images
head and neck | atlas segmentation | computed tomography images
Journal Article
European Radiology, ISSN 0938-7994, 07/2017, Volume 27, Issue 7, pp. 2903 - 2915
To investigate whether qualitative magnetic resonance (MR) features can distinguish leiomyosarcoma (LMS) from atypical leiomyoma (ALM) and assess the...
Magnetic Resonance Imaging | Atypical Uterine Leiomyoma | Uterine Leiomyoma | Texture Analysis | Uterine Leiomyosarcoma | MANAGEMENT | SPATIAL-FREQUENCY | RESOLUTION | CLASSIFICATION | CLINICAL PRESENTATION | BENIGN | ANGIOMYOLIPOMA | SARCOMAS | SMOOTH-MUSCLE TUMORS | RENAL-CELL-CARCINOMA | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | Diagnosis, Differential | Reproducibility of Results | Uterine Neoplasms - pathology | Humans | Middle Aged | Magnetic Resonance Imaging - methods | Feasibility Studies | Leiomyoma - pathology | Young Adult | Adolescent | Aged, 80 and over | Adult | Female | Aged | Retrospective Studies | Leiomyosarcoma - diagnosis | Leiomyoma | Diagnosis | Magnetic resonance imaging | Leiomyosarcoma | Automation | Segmentation | Image processing | Feasibility studies | Clustering | Statistics | Patients | Hemorrhage | Texture | Readers | Image segmentation | Sensitivity | Accuracy | Uterus | Mathematical analysis | Surgery | Classification | Qualitative analysis | Resonance | Diagnostic systems | Differentiation | Borders | Surface layers | Life Sciences | Retrospective studies | Reproducibility of results | Uterine Neoplasms/pathology | Cancer
Magnetic Resonance Imaging | Atypical Uterine Leiomyoma | Uterine Leiomyoma | Texture Analysis | Uterine Leiomyosarcoma | MANAGEMENT | SPATIAL-FREQUENCY | RESOLUTION | CLASSIFICATION | CLINICAL PRESENTATION | BENIGN | ANGIOMYOLIPOMA | SARCOMAS | SMOOTH-MUSCLE TUMORS | RENAL-CELL-CARCINOMA | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | Diagnosis, Differential | Reproducibility of Results | Uterine Neoplasms - pathology | Humans | Middle Aged | Magnetic Resonance Imaging - methods | Feasibility Studies | Leiomyoma - pathology | Young Adult | Adolescent | Aged, 80 and over | Adult | Female | Aged | Retrospective Studies | Leiomyosarcoma - diagnosis | Leiomyoma | Diagnosis | Magnetic resonance imaging | Leiomyosarcoma | Automation | Segmentation | Image processing | Feasibility studies | Clustering | Statistics | Patients | Hemorrhage | Texture | Readers | Image segmentation | Sensitivity | Accuracy | Uterus | Mathematical analysis | Surgery | Classification | Qualitative analysis | Resonance | Diagnostic systems | Differentiation | Borders | Surface layers | Life Sciences | Retrospective studies | Reproducibility of results | Uterine Neoplasms/pathology | Cancer
Journal Article
European Radiology, ISSN 0938-7994, 9/2017, Volume 27, Issue 9, pp. 3991 - 4001
To evaluate the associations between clinical outcomes and radiomics-derived inter-site spatial heterogeneity metrics across multiple metastatic lesions on CT...
Medicine & Public Health | Diagnostic Radiology | Internal Medicine | Interventional Radiology | Imaging / Radiology | Ultrasound | Radiogenomics | Texture | Survival | Neuroradiology | Ovarian cancer | Radiomics | THERAPY | SUBTYPES | RESISTANCE | CARCINOMA | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | RELEVANT GENE SIGNATURES | FEATURES | Oncogene Proteins - genetics | Humans | Middle Aged | Ovarian Neoplasms - pathology | Tomography, X-Ray Computed - methods | Treatment Outcome | Ovarian Neoplasms - mortality | Cyclin E - genetics | Nucleic Acid Amplification Techniques | Ovarian Neoplasms - genetics | Adult | Female | Aged | Gene Amplification - genetics | Retrospective Studies | Medicine, Experimental | Medical research | CT imaging | Metastasis | Patient outcomes | Similarity | Ovarian carcinoma | Spatial discrimination | Entropy | Patients | Clinical outcomes | Metastases | Shade | Heterogeneity | Analogies | Computed tomography | Computation | Correlation analysis | Quality | Surgery | E1 gene | Clusters | Spatial heterogeneity | Pretreatment | Lesions | Tumors | Life Sciences | Treatment outcome | Middle aged | Ovarian neoplasms | Oncogene proteins | Cancer | radiomics | radiogenomics | ovarian cancer | texture | survival
Medicine & Public Health | Diagnostic Radiology | Internal Medicine | Interventional Radiology | Imaging / Radiology | Ultrasound | Radiogenomics | Texture | Survival | Neuroradiology | Ovarian cancer | Radiomics | THERAPY | SUBTYPES | RESISTANCE | CARCINOMA | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | RELEVANT GENE SIGNATURES | FEATURES | Oncogene Proteins - genetics | Humans | Middle Aged | Ovarian Neoplasms - pathology | Tomography, X-Ray Computed - methods | Treatment Outcome | Ovarian Neoplasms - mortality | Cyclin E - genetics | Nucleic Acid Amplification Techniques | Ovarian Neoplasms - genetics | Adult | Female | Aged | Gene Amplification - genetics | Retrospective Studies | Medicine, Experimental | Medical research | CT imaging | Metastasis | Patient outcomes | Similarity | Ovarian carcinoma | Spatial discrimination | Entropy | Patients | Clinical outcomes | Metastases | Shade | Heterogeneity | Analogies | Computed tomography | Computation | Correlation analysis | Quality | Surgery | E1 gene | Clusters | Spatial heterogeneity | Pretreatment | Lesions | Tumors | Life Sciences | Treatment outcome | Middle aged | Ovarian neoplasms | Oncogene proteins | Cancer | radiomics | radiogenomics | ovarian cancer | texture | survival
Journal Article
Medical Physics, ISSN 0094-2405, 08/2019, Volume 46, Issue 8, pp. 3582 - 3591
Purpose The use of radiomic features as biomarkers of treatment response and outcome or as correlates to genomic variations requires that the computed features...
robustness | radiomics | segmentation | glioblastoma | MRI | INFORMATION | TEXTURE FEATURES | MULTIMODAL MRI | MODEL | PREDICTION | IMAGES | CHEMORADIATION | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | PET
robustness | radiomics | segmentation | glioblastoma | MRI | INFORMATION | TEXTURE FEATURES | MULTIMODAL MRI | MODEL | PREDICTION | IMAGES | CHEMORADIATION | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | PET
Journal Article
Medical Physics, ISSN 0094-2405, 11/2019
Journal Article
Medical Physics, ISSN 0094-2405, 05/2014, Volume 41, Issue 5, pp. 050902 - n/a
Due to rapid advances in radiation therapy (RT), especially image guidance and treatment adaptation, a fast and accurate segmentation of medical images is a...
biological organs | image processing | Medical imaging | Segmentation | Medical image segmentation | Anatomy | Medical image contrast | Digital computing or data processing equipment or methods, specially adapted for specific applications | Radiation therapy equipment | Databases | Computed tomography | Magnetic resonance imaging | image segmentation | Image data processing or generation, in general | radiation therapy | Dosimetry | medical image processing | Cancer | segmentation | ATLAS-BASED SEGMENTATION | AUTO-SEGMENTATION | CLINICAL TARGET VOLUME | INTENSITY-MODULATED RADIOTHERAPY | ACTIVE SHAPE MODELS | CELL LUNG-CANCER | HEAD-AND-NECK | NECK CT IMAGES | LYMPH-NODE REGIONS | COMPUTED-TOMOGRAPHY IMAGES | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | Magnetic Resonance Imaging - instrumentation | Radiotherapy, Computer-Assisted - instrumentation | Artificial Intelligence | Humans | Radiotherapy, Computer-Assisted - methods | Image Processing, Computer-Assisted - instrumentation | Magnetic Resonance Imaging - methods | Tomography, X-Ray Computed - methods | Software | Image Processing, Computer-Assisted - methods | Pattern Recognition, Automated - methods | Tomography, X-Ray Computed - instrumentation | REVIEWS | HEALTH HAZARDS | IMAGES | RADIOLOGY AND NUCLEAR MEDICINE | PATHOLOGY | RADIOTHERAPY | PLANNING | Vision 20
biological organs | image processing | Medical imaging | Segmentation | Medical image segmentation | Anatomy | Medical image contrast | Digital computing or data processing equipment or methods, specially adapted for specific applications | Radiation therapy equipment | Databases | Computed tomography | Magnetic resonance imaging | image segmentation | Image data processing or generation, in general | radiation therapy | Dosimetry | medical image processing | Cancer | segmentation | ATLAS-BASED SEGMENTATION | AUTO-SEGMENTATION | CLINICAL TARGET VOLUME | INTENSITY-MODULATED RADIOTHERAPY | ACTIVE SHAPE MODELS | CELL LUNG-CANCER | HEAD-AND-NECK | NECK CT IMAGES | LYMPH-NODE REGIONS | COMPUTED-TOMOGRAPHY IMAGES | RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING | Magnetic Resonance Imaging - instrumentation | Radiotherapy, Computer-Assisted - instrumentation | Artificial Intelligence | Humans | Radiotherapy, Computer-Assisted - methods | Image Processing, Computer-Assisted - instrumentation | Magnetic Resonance Imaging - methods | Tomography, X-Ray Computed - methods | Software | Image Processing, Computer-Assisted - methods | Pattern Recognition, Automated - methods | Tomography, X-Ray Computed - instrumentation | REVIEWS | HEALTH HAZARDS | IMAGES | RADIOLOGY AND NUCLEAR MEDICINE | PATHOLOGY | RADIOTHERAPY | PLANNING | Vision 20
Journal Article