The fusion of anatomic and physiologic imaging in the management of patients with cancer
References (97)
- et al.
Correlative image registration
- et al.
A survey of medical image registration
Med Image Anal
(1998) - et al.
CT-SPECT fusion for analysis of radiolabeled antibodies: Applications in gastrointestinal and lung carcinoma
Int J Rad Appl Instrum [B]
(1991) - et al.
Enlargement of regional lymph nodes in renal cell carcinoma is often not due to metastases
J Urol
(1990) - et al.
Surgical management of non-small cell lung cancer with mediastinal node metastases (N2 disease)
J Thor Cardiovasc Surg
(1994) - et al.
Is it possible to differentiate malignant mediastinal nodes from benign nodes by size?
Chest
(1996) - et al.
Diagnostic efficacy of PET-FDG imaging in solitary pulmonary nodules: Potential role in evaluation and management
Chest
(1993) - et al.
CT and PET lung image registration and fusion in radiotherapy treatment planning using the chamfer-matching method
Int J Radiat Oncol Biol Phys
(1999) - et al.
PET imaging in oncology
- et al.
Phase II trial of I-131 B1 (anti-CD20) antibody therapy with autologous stem cell transplantation for relapsed B-cell lymphomas
Lancet
(1995)
Clinical applications of fusion imaging in oncology
Nucl Med Biol
The role of Ga-67 scintigraphy in evaluating the results of therapy of lymphoma patients
Imaging cancer in the new millennium: Form follows function
Radiology
Synergistic imaging
Eur J Nucl Med
Three-dimensional image alignment, registration and fusion
Q J Nucl Med
Registration of nuclear medicine images
J Nucl Med
Adding structure to function
J Nucl Med
Composite SPECT-CT images: Technique and potential applications in chest and abdominal imaging
AJR Am J Roentgenol
Accuracy of PET, SPECT and MR images of a brain phantom
J Nucl Med
An interactive technique for three-dimensional image registration: Validation for PET, SPECT, MRI and CT brain studies
J Nucl Med
Registration and display of multimodal images: Applications in the extracranial head and neck region
Otolaryngol
“Anatometabolic” tumor imaging: Fusion of FDG-PET with CT or MRI to localize foci of increased activity
J Nucl Med
A rapid and accurate method to realign PET scans utilizing image edge information
J Nucl Med
A method for coregistration of PET and MR images
J Nucl Med
Spatial normalization of 3-D brain images using deformable models
J Comp Assist Tomogr
Automated alignment and sizing of myocardial stress and rest scans to three-dimensional normal templates using an image registration algorithm
J Nucl Med
Description of a prototype emission-transmission computed tomography imaging system
J Nucl Med
Gamma cameramounted anatomical x-ray tomography: Technology, system characteristics and first images
Eur J Nucl Med
CT and SPECT image registration and fusion for spatial localization of metastatic processes using radiolabeled monoclonals
J Nucl Med
Thoracic and abdominal SPECT-CT image fusion without external markers in endocrine carcinomas
J Nucl Med
Coregistration of FDG PET and MRI of the head and neck using normal distribution of FDG
J Nucl Med
Body CT and oncologic imaging
Radiology
Staging of mediastinal non-small cell lung cancer with FDG PET, CT and fusion images: Preliminary prospective evaluation
Radiology
PET: The merging of biology and imaging into molecular imaging
J Nucl Med
Imaging of oncologic patients: Benefit of combined CT and FDG PET in the diagnosis of malignancy
AJR Am J Roentgenol
Colorectal carcinoma evaluation with CT: Preoperative staging and detection of postoperative recurrence
Radiology
Bronchogenic carcinoma: Analysis of staging in the mediastinum with CT by correlative lymph node mapping and sampling
Radiology
Preoperative staging of non-small cell carcinoma of the lung: Imaging methods
AJR Am J Roentgenol
Recurrent rectal cancer and scar: Differentiation with PET and MR imaging
Radiology
Validity of enlarged mediastinal nodes as markers of involvement by non-small cell lung cancer
Am Rev Respir Dis
FDG-PET scan in potentially operable non-small cell lung cancer: Do anatometabolic PET-CT fusion images improve the localization of regional lymph node metastases
Eur J Nucl Med
Metastases from non-small cell lung cancer: Mediastinal staging in the 1990s—meta-analytic comparison of PET and CT
Radiology
Metabolic staging of lung cancer
N Engl J Med
F-18 fluorodeoxyglucose positron emission tomography in the noninvasive staging of non-small cell lung cancer
Eur J Cardiothorac Surg
Image analysis in patients with cancer studied with a combined PET and CT scanner
Clin Nucl Med
Normal variants, artifacts and interpretive pitfalls in PET imaging with 18-fluorodeoxyglucose and carbon-11 methionine
Eur J Nucl Med
Cited by (78)
Hybrid Imaging (PET-Computed Tomography/PET-MR Imaging) of Bone Metastases
2019, PET ClinicsCitation Excerpt :A metabolic technique like 18F-FDG PET is inferior to conventional imaging in terms of spatial resolution and localization of abnormalities,38 but coregistration of PET with CT images allows the combination of detailed anatomic localization with metabolic data and thus improves diagnostic performance over each modality used as a stand-alone.39 In the past, time-consuming coregistration of separate imaging procedures was performed manually or by using complicated fusion models, hampered by changes in patient position and organ location between the 2 procedures.40 The development of an integrated hybrid PET/CT scanner for the simultaneous acquisition of morphologic (CT) and metabolic (PET) data made image fusion applicable in the clinical routine and enabled PET/CT to position itself as a standard imaging instrument for oncologic evaluation.41
Medical image fusion: A survey of the state of the art
2014, Information FusionCitation Excerpt :However, the exact radiation levels are not well understood topics, and CT has several other limitations such as limited tissue characterization because of the nature of X-ray probe, restriction of CT scan to transverse slices and practical limitation on number of X-rays that can be produced in the short scan times. Fusion combinations in which CT is one of the main modalities include MRI–CT–PET–SPECT–DSA–MEG [47,134,161], MRI–CT [15–17,147,171,176,177,258,61,149,184,150,259,170,153,172,169,154–156,186,64,192,157,193,127,158,175,195,141,162,128,91,164,165,196,239,132,173], SPECT–CT [216,221,99,241,233,246,235,213,214,253,215,243,251], MRI–CT–PET [51,188,197–199], CT–FOCAL [179], ultrasound–CT [260,231,234,238], FDG–CT [223,224], nuclear medicine–CT [201], endoscopy–MRI [183], MRI–CT–SPECT [26,202], MRI/CT–PET–SPECT [187], CT/SPET–SRS [242], FDG–PET–CT [261,226,247,249], PET–CT [244,262,211,217,236,29,220,218,68,250,252,248,219,76,255,263,257], TRUS–CT [264], ultrasound–CT [265,240,254], PET–CT–ultrasound [256]. Positron emission tomography, widely known as PET imaging or a PET scan, is a useful type of nuclear medicine imaging.
A review on segmentation of positron emission tomography images
2014, Computers in Biology and MedicineCitation Excerpt :For example, it has been shown that fusion of abdominal images from different modalities can improve diagnosis and monitoring of disease progression [171]. Indeed, hybrid imaging techniques have proven useful for the evaluation of patients with cancer including diagnosis, staging, treatment planning, and monitoring the response to therapy including disease progression [172]. Although it was widely accepted that the process of combining relevant information from two or more images into a single image carries more information than the single image alone, segmentation of the lesions was being conducted in single images until the co-segmentation algorithms came into play.
Multiscaled combination of MR and SPECT images in neuroimaging: A simplex method based variable-weight fusion
2012, Computer Methods and Programs in BiomedicineHybrid imaging in planar scintigraphy: New implementations and historical precedents
2012, Seminars in Nuclear Medicine