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AJR 2004; 183:1133-1141
© American Roentgen Ray Society


Nuclear Medicine

Nonneoplastic Diseases in the Chest Showing Increased Activity on FDG PET

Peter V. Kavanagh1, Aaron W. Stevenson1, Michael Y. Chen1 and Paige B. Clark1

1 All authors: Department of Radiology, Wake Forest University School of Medicine, Medical Center Blvd., Winston-Salem, NC 27157-1088.

Received November 6, 2003; accepted after revision March 9, 2004.

 
Address correspondence to P. V. Kavanagh.


Introduction
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Introduction
Infections
Inflammatory Conditions
Vascular Diseases
Pneumoconioses
Immunologic Conditions
Trauma
Iatrogenic Conditions
Physiologic and Congenital...
Conclusions
References
 
PET with glucose analogue 18F-FDG shows increased glucose metabolism in metabolically active processes and has been well documented to be a sensitive and specific technique for evaluating and staging patients with thoracic malignancies [1, 2]. Inflammatory or infectious processes can also have increased FDG activity leading to a diagnostic dilemma, and increased FDG activity has been shown in more than 40 different benign conditions [1, 3]. This review is a compilation of cases describing a spectrum of nonneoplastic intrathoracic diseases associated with increased FDG activity on PET confirmed at biopsy or surgery or on the basis of findings on follow-up imaging. Visual, qualitative analysis of 18F-FDG activity was performed for all lesions. In equivocal cases, quantitative analysis using standardized uptake values based on a lean body mass algorithm was performed. A standardized uptake value threshold of 2.5 was used to delineate malignant-range activity on PET [4].


Infections
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Mycobacterium avium-intracellulare
Mycobacterium avium-intracellulare is a common cause of nontuberculous mycobacteria infection in immunocompromised, late middle-aged, and elderly patients and in those with chronic lung disease. CT appearances in the late middle-aged and elderly typically produce a combination of bronchiectasis and lung nodules. The nodules may grow over time, raising concern for malignancy. Thus, imaging studies can be nonspecific, and percutaneous needle biopsy may be indicated. On occasion, the diagnosis may be obtained only after surgical intervention. M. avium-intracellulare has previously been shown to have diffuse, intense FDG activity on PET [5]. Focal intense areas of FDG activity may also be shown (Figs. 1A, 1B, and 1C).



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Fig. 1A. Mycobacterium avium-intracellulare infection in 53-year-old man with cough and 20-pack-year smoking history. CT scan shows spiculated noncalcified right upper lobe lung nodule and emphysema.

 


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Fig. 1B. Mycobacterium avium-intracellulare infection in 53-year-old man with cough and 20-pack-year smoking history. Axial (B) and coronal (C) PET images show increased FDG activity (arrows) at right upper lobe lesion. Less intense focus of activity in left upper lobe (arrowhead, C) corresponded with smaller lung nodule present on higher CT slice (not shown). M. avium-intracellulare infection was isolated from CT-guided percutaneous biopsy of right upper lobe nodule. Both lesions resolved on follow-up imaging (not shown) after antimicrobial therapy.

 


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Fig. 1C. Mycobacterium avium-intracellulare infection in 53-year-old man with cough and 20-pack-year smoking history. Axial (B) and coronal (C) PET images show increased FDG activity (arrows) at right upper lobe lesion. Less intense focus of activity in left upper lobe (arrowhead, C) corresponded with smaller lung nodule present on higher CT slice (not shown). M. avium-intracellulare infection was isolated from CT-guided percutaneous biopsy of right upper lobe nodule. Both lesions resolved on follow-up imaging (not shown) after antimicrobial therapy.

 

Mycotic Pseudoaneurysm
Unusual complications of infections, such as mycotic pseudoaneurysm, may also result in diagnostic difficulty. Mycotic pseudoaneurysms are uncommon but their imaging features can be confused with malignant tumors. On CT, a soft-tissue mass surrounding the aneurysm is a recognized sign of mycotic aneurysm (Figs. 2A, 2B, and 2C). However, perivascular neoplastic lesions can produce similar appearances.



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Fig. 2A. Mycotic pseudoaneurysm in 80-year-old woman with chest pain. CT scan without contrast material could not distinguish mediastinal mass invading aortic wall from contained rupture due to penetrating atherosclerotic ulcer.

 


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Fig. 2B. Mycotic pseudoaneurysm in 80-year-old woman with chest pain. On axial (B) and coronal (C) PET images, lesion shows increased FDG activity (arrows) with central photopenia adjacent to aorta, suspicious for necrotic tumor. At surgery, purulent mass was found adjacent to aneurysmal defect in aortic arch. Pathologic analysis revealed evidence of pseudoaneurysm, although culture showed Escherichia coli. Aorta was successfully repaired intraoperatively.

 


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Fig. 2C. Mycotic pseudoaneurysm in 80-year-old woman with chest pain. On axial (B) and coronal (C) PET images, lesion shows increased FDG activity (arrows) with central photopenia adjacent to aorta, suspicious for necrotic tumor. At surgery, purulent mass was found adjacent to aneurysmal defect in aortic arch. Pathologic analysis revealed evidence of pseudoaneurysm, although culture showed Escherichia coli. Aorta was successfully repaired intraoperatively.

 


Inflammatory Conditions
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Cryptogenic Organizing Pneumonia
Cryptogenic organizing pneumonia, formerly known as bronchiolitis obliterans with organizing pneumonia, can have a distinctive radiographic pattern, and multiple bilateral opacities are a common finding on chest radiography (Figs. 3A, 3B, 3C, 3D, and 3E). CT shows a characteristic peribronchovascular or peripheral predominance of air-space opacities and may show small nodules and areas of ground-glass attenuation. Foci of decreased attenuation within consolidations are not commonly seen in patients with cryptogenic organizing pneumonia and raise the possibility of abscess formation or malignancy with necrosis.



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Fig. 3A. Cryptogenic organizing pneumonia in 58-year-old woman with cough and intermittent low-grade fever for 3 months. Chest radiograph shows bilateral ill-defined opacities (arrows).

 


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Fig. 3B. Cryptogenic organizing pneumonia in 58-year-old woman with cough and intermittent low-grade fever for 3 months. CT scans show peripherally distributed air-space opacities (arrow, B) and nodule (arrowhead, C).

 


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Fig. 3C. Cryptogenic organizing pneumonia in 58-year-old woman with cough and intermittent low-grade fever for 3 months. CT scans show peripherally distributed air-space opacities (arrow, B) and nodule (arrowhead, C).

 


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Fig. 3D. Cryptogenic organizing pneumonia in 58-year-old woman with cough and intermittent low-grade fever for 3 months. PET was performed in attempt to identify lesion with potentially highest yield for biopsy. Axial PET images show increased FDG activity (arrows) in air-space opacity. Cryptogenic organizing pneumonia was confirmed by percutaneous biopsy. Patient recovered after several relapses, which occurred when steroids were discontinued.

 


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Fig. 3E. Cryptogenic organizing pneumonia in 58-year-old woman with cough and intermittent low-grade fever for 3 months. PET was performed in attempt to identify lesion with potentially highest yield for biopsy. Axial PET images show increased FDG activity (arrows) in air-space opacity. Cryptogenic organizing pneumonia was confirmed by percutaneous biopsy. Patient recovered after several relapses, which occurred when steroids were discontinued.

 

Sarcoidosis
Sarcoidosis is a multisystem disease of unknown cause that is characterized by the presence of noncaseating granulomas. Chest radiographs may show normal findings or evidence of bihilar or mediastinal lymphadenopathy. The most frequent lung manifestations are fine nodular, acinar, or reticulonodular opacities and rarely appear as a pure miliary pattern. On CT, mediastinal and bihilar lymphadenopathy are commonly seen, with multiple small nodules in a perilymphatic distribution (Figs. 4A and 4B). In addition, areas of ground-glass attenuation may be seen with irregular thickening of bronchovascular bundles and interlobular septa.



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Fig. 4A. Sarcoidosis in 32-year-old man complaining of lack of energy and exercise intolerance. Contrast-enhanced CT scan shows mediastinal (arrowheads) and bihilar lymphadenopathy (arrows).

 


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Fig. 4B. Sarcoidosis in 32-year-old man complaining of lack of energy and exercise intolerance. Coronal PET image shows abnormal FDG activity in same distribution (arrows). Bronchoscopy with transbronchial biopsy was performed. Pathology showed noncaseating granulomas consistent with sarcoidosis. Normal cardiac activity is noted (arrowhead).

 

Round Atelectasis
Round atelectasis is a common entity that can be difficult to differentiate from neoplasm on cross-sectional imaging. The characteristic comet-tail sign, adjacent pleural thickening, and volume loss may not always be present. In one series [6], all round atelectasis lesions were negative on FDG PET. Thus, FDG PET can play an important role in differentiating round atelectasis from malignancy, particularly when few or atypical signs of radiofrequency ablation are seen on imaging studies.


Vascular Diseases
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Atherosclerosis
Atherosclerosis is a progressive disorder that may be associated with an inflammatory component. This may explain why PET activity is often increased in atherosclerotic foci [7]. In patients with aortic atherosclerosis, FDG activity can be seen in a linear distribution or with focal nodules corresponding to atherosclerotic plaque in the descending thoracic aorta (Figs. 5A and 5B).



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Fig. 5A. Atherosclerosis in 80-year-old woman with thoracic aortic aneurysm. CT scan shows thoracic aorta aneurysm with atherosclerosis along aneurysmal wall (arrows).

 


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Fig. 5B. Atherosclerosis in 80-year-old woman with thoracic aortic aneurysm. Coronal PET image shows increased activity along ascending aorta (arrows) corresponding to findings on CT.

 

Pulmonary Embolic Disease
Most pulmonary emboli encountered in clinical practice are thromboemboli consisting of fibrin-platelet aggregates. However, other sources of emboli may occur, such as fat, amniotic fluid, tumor, air, or exogenous material such as a radionuclide (Figs. 6A, 6B, and 6C).



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Fig. 6A. FDG embolism in 67-year-old man with coronary artery disease. Preoperative chest radiograph revealed left lower lobe lung nodule (arrow).

 


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Fig. 6B. FDG embolism in 67-year-old man with coronary artery disease. Axial (B) and coronal (C) PET images show no FDG activity in nodule. Focus of intense activity (standardized uptake value = 49) was present in right lung (arrows) without corresponding CT abnormality. It was postulated this discrepancy represented artifact because it had no anatomic correlation with recent CT. In addition, standardized uptake value was high, suggesting area of concentrated FDG. Follow-up PET image obtained 1 week later (not shown) revealed resolution of FDG activity. Part of administered FDG likely clumped with platelet aggregate during administration, forming embolus that traveled to lung. This finding could also be due to intercurrent infection if CT was remote.

 


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Fig. 6C. FDG embolism in 67-year-old man with coronary artery disease. Axial (B) and coronal (C) PET images show no FDG activity in nodule. Focus of intense activity (standardized uptake value = 49) was present in right lung (arrows) without corresponding CT abnormality. It was postulated this discrepancy represented artifact because it had no anatomic correlation with recent CT. In addition, standardized uptake value was high, suggesting area of concentrated FDG. Follow-up PET image obtained 1 week later (not shown) revealed resolution of FDG activity. Part of administered FDG likely clumped with platelet aggregate during administration, forming embolus that traveled to lung. This finding could also be due to intercurrent infection if CT was remote.

 


Pneumoconioses
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Silicosis is an occupational lung disease in which nodules of collagen form in response to inhaled silica. Coalescence of multiple small nodules results in massive fibrosis. The radiographic pattern consists of multiple small nodules that are usually well circumscribed and of uniform density, often with hilar lymph node enlargement. Characteristic CT findings consist of focal soft-tissue masses with irregular margins. These lesions may grow slowly over time, raising concern for tumors. PET can be markedly positive in cases of progressive massive fibrosis, likely because of inflammatory cell activity occurring at the time of the study (Figs. 7A, 7B, and 7C).



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Fig. 7A. Progressive massive fibrosis secondary to silicosis in 57-year-old man with history of colorectal carcinoma and 20-pack-year smoking history. CT scan shows spiculated bilateral upper lobe masses.

 


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Fig. 7B. Progressive massive fibrosis secondary to silicosis in 57-year-old man with history of colorectal carcinoma and 20-pack-year smoking history. Axial (B) and coronal (C) PET images show abnormal FDG activity (arrows) in masses. Biopsy confirmed progressive massive fibrosis.

 


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Fig. 7C. Progressive massive fibrosis secondary to silicosis in 57-year-old man with history of colorectal carcinoma and 20-pack-year smoking history. Axial (B) and coronal (C) PET images show abnormal FDG activity (arrows) in masses. Biopsy confirmed progressive massive fibrosis.

 


Immunologic Conditions
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Eosinophilic granuloma is a variant of Langerhans cell histiocytosis that may involve the lung and has significantly higher prevalence among patients who smoke cigarettes. This disease predominantly affects the upper and mid lung zones, often with characteristic sparing of the costophrenic angles [8]. Early on, the radiographic appearance consists of a nodular or reticulonodular pattern. A proportion of cases progress with the development of fibrosis, sometimes leading to end-stage lung disease. Common abnormalities seen on CT are the presence of irregularly shaped cysts and nodules (Figs. 8A and 8B). It is useful to know that nodules caused by eosinophilic granuloma can show increased FDG activity on PET, similar to neoplastic nodules. Therefore, when the imaging features of eosinophilic granuloma are atypical, percutaneous biopsy is indicated because of the lack of specificity of PET in this situation.



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Fig. 8A. Eosinophilic granuloma in 64-year-old woman with colon cancer. CT scan shows dominant left upper lobe nodule (arrowhead) with numerous smaller pulmonary nodules (straight arrows) and cysts (curved arrow) scattered throughout both lungs.

 


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Fig. 8B. Eosinophilic granuloma in 64-year-old woman with colon cancer. Coronal PET image shows increased FDG activity (arrow) in region of large nodule seen on CT. Smaller nodules are likely below PET resolution.

 


Trauma
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Bone fractures, particularly when acute or during the active healing phase, can show increased FDG activity on PET (Figs. 9A, 9B, and 9C). When conventional radiographic evaluation fails to identify the fracture, CT (viewed on appropriate bone window settings) is useful to confirm the diagnosis. A fracture with a significant soft-tissue or destructive component on CT is suspicious for a pathologic fracture, and such lesions often need to be biopsied for histologic assessment. Soft-tissue injuries may also be FDG-avid, although typically the standardized uptake value interpretations will not be in the malignant range. This may be a reflection of the inflammation that can be associated with soft-tissue injuries.



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Fig. 9A. 52-year-old man with history of malignant melanoma. Chest radiograph shows focal opacity in lateral right hemithorax (arrow), suggestive of metastatic disease. Asterisk indicates large hiatal hernia.

 


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Fig. 9B. 52-year-old man with history of malignant melanoma. Coronal PET image shows focal area of increased FDG activity (arrow) corresponding to radiographic abnormality. Normal cardiac activity (arrowhead) is noted.

 


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Fig. 9C. 52-year-old man with history of malignant melanoma. Chest CT scan reveals rib fracture in lateral right chest wall (arrow). No soft-tissue or destructive component is associated with this fracture, and no other abnormality is detected in this region.

 


Iatrogenic Conditions
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FDG avidity related to various forms of therapy can be seen in the thorax and elsewhere in the body. Increased FDG activity on PET is well recognized for up to 6 months after surgery. Radiation therapy can also cause increased FDG activity (Figs. 10A and 10B).



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Fig. 10A. 48-year-old man with Hodgkin's disease, who had completed radiation therapy 9 months previously. Chest CT scan reveals bilateral juxtamediastinal fibrotic changes (arrows) typical of chronic radiation pneumonitis. No significant lymphadenopathy is present.

 


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Fig. 10B. 48-year-old man with Hodgkin's disease, who had completed radiation therapy 9 months previously. Axial PET image shows diffuse FDG activity (standardized uptake value = 1.9) in fibrotic areas (arrows).

 


Physiologic and Congenital Processes
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Supraclavicular Brown Fat
Bilateral supraclavicular FDG activity is a common finding in patients undergoing PET. In the past, this activity was often attributed to malignancy, muscle uptake, inflammation, or infection, but recent studies show that 28% of supraclavicular activity is caused by brown fat uptake [9]. Small amounts of brown fat surround the blood vessels of the mediastinum, neck, and retrocrural area. CT confirmation of areas of fat and no involvement of lymph nodes or muscle is necessary [9] (Figs. 11A and 11B).



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Fig. 11A. Supraclavicular brown fat uptake in 9-year-old boy with lymphoma. Coronal reformatted CT scan shows areas of supraclavicular fat with no lymphadenopathy.

 


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Fig. 11B. Supraclavicular brown fat uptake in 9-year-old boy with lymphoma. Coronal PET image shows increased FDG activity in supraclavicular regions. Note physiologic FDG activity (arrow) in heart.

 

Hamartoma
Pulmonary hamartomas may be single or multiple and consist mainly of masses of cartilage with clefts lined by bronchial epithelium. They sometimes contain foci of fat. Typically, hamartomas are spherical or slightly lobulated, well-defined nodules with normal surrounding lung with spotty or linear calcifications. CT may show a nodule with calcific or fat density. However, failure to detect calcium or fat does not preclude the diagnosis. PET may show increased activity (Figs. 12A, 12B, and 12C), leading to concern for malignancy in certain patients. In these patients, invasive procedures such as percutaneous biopsy may be required to establish the diagnosis.



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Fig. 12A. Hamartoma in 66-year-old woman with history of colon cancer metastatic to liver. CT scan shows irregularly marginated nodule in right lower lobe (arrow). No calcification or fat was shown in this nodule on CT.

 


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Fig. 12B. Hamartoma in 66-year-old woman with history of colon cancer metastatic to liver. Axial (B) and coronal (C) PET images show increased activity in nodule (arrows). Subsequent percutaneous needle biopsy revealed pulmonary hamartoma.

 


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Fig. 12C. Hamartoma in 66-year-old woman with history of colon cancer metastatic to liver. Axial (B) and coronal (C) PET images show increased activity in nodule (arrows). Subsequent percutaneous needle biopsy revealed pulmonary hamartoma.

 


Conclusions
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Introduction
Infections
Inflammatory Conditions
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Pneumoconioses
Immunologic Conditions
Trauma
Iatrogenic Conditions
Physiologic and Congenital...
Conclusions
References
 
The uptake of FDG with PET in nonneoplastic thoracic diseases may limit the evaluation of patients with pulmonary malignancy. Knowledge of the conditions with positive FDG uptake will provide accurate diagnosis and avoid unnecessary treatments. Close correlation between CT and PET allows the most accurate radiologic differential diagnosis.


References
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Introduction
Infections
Inflammatory Conditions
Vascular Diseases
Pneumoconioses
Immunologic Conditions
Trauma
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Physiologic and Congenital...
Conclusions
References
 

  1. Yang SN, Liang JA, Lin FJ, Kwan AS, Kao CH, Shen YY. Differentiating benign and malignant pulmonary lesions with FDG-PET. Anticancer Res2001; 21:4153 -4157[Medline]
  2. Costa DC, Visvikis D, Crosdale I, et al. Positron emission and computed X-ray tomography: a coming together. Nucl Med Commun 2003;24:351 -358[Medline]
  3. Bakheet SM, Saleem M, Powe J, Al-Amro A, Larsson SG, Mahassin Z. F-18 fluorodeoxyglucose chest uptake in lung inflammation and infection. Clin Nucl Med2000; 25:273 -278[Medline]
  4. Hubner K, Buonocore E, Gould H, et al. Differentiating benign from malignant lung lesions using "quantitative" parameters of FDG PET images. Clin Nucl Med1996; 21:941 -949[Medline]
  5. Zhuang H, Pourdehnad M, Yamamoto AJ, Rossman MD, Alavi A. Intense F-18 fluorodeoxyglucose uptake caused by Mycobacterium avium-intracellulare infection. Clin Nucl Med2001; 26:458[Medline]
  6. McAdams HP, Erasums JJ, Patz EF, Goodman PC, Coleman RE. Evaluation of patients with round atelectasis using 2-[18F]-fluoro-2-deoxy-D-glucose PET. J Comput Assist Tomogr 1998;22 : 601-604[Medline]
  7. Yun M, Jang S, Cucchiara A, Newberg AB, Alavi A. 18F FDG uptake in the large arteries: a correlation study with the atherogenic risk factors. Semin Nucl Med2002; 32:70 -76[Medline]
  8. Naumann R, Beuthien-Baumann B, Fischer R, et al. Simultaneous occurrence of Hodgkin's lymphoma and eosinophilic granuloma: a potential pitfall in positron emission tomography imaging. Clin Lymphoma 2002;3:121 -124[Medline]
  9. Cohade C, Pannu HK, Wahl RL. Uptake in supraclavicular area fat ("USA-Fat"): description of 18 F-FDG PET/CT. J Nucl Med 2003;44:170 -176[Abstract/Free Full Text]

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HOME HELP FEEDBACK SUBSCRIPTIONS ARCHIVE SEARCH TABLE OF CONTENTS