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AJR 2002; 178:191-199
© American Roentgen Ray Society


Pictorial Essay

Imaging of Desmoid Fibromatosis in Pediatric Patients

Catherine A. Kingston1,2, Catherine M. Owens1, Annmarie Jeanes1 and Marian Malone3

1 Department of Radiology, Great Ormond Street Hospital, Great Ormond St., London, WC1N 3JH, United Kingdom.
2 Present address: Unit 5/1 D, 78 Park Terr., Christchurch 8001, New Zealand.
3 Department of Histopathology, Great Ormond Street Hospital, London, WC1N 3JH, United Kingdom.

Received May 29, 2001; accepted after revision July 23, 2001.

 
Address correspondence to C. M. Owens.


Introduction
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Introduction
Histology
Imaging
Complications
Treatment
Changes in Lesion Appearance...
References
 
Infantile desmoid fibromatosis is the pediatric equivalent of adult musculoaponeurotic desmoid fibromatosis. Tumors are typically extraabdominal. Patients, who are predominantly male, present before the age of 8 years, usually in the first 2 years of life. Tumors are usually solitary, arising as a firm mass in skeletal muscle or adjacent fascia, aponeurosis, or periosteum. Lesions most frequently occur in the head and neck and usually involve the tongue, mandible, maxilla, or mastoids. The limb girdles, trunk, and proximal extremities are also common sites, but intraabdominal desmoids are relatively uncommon in childhood [1].

In this pictorial essay, we review the imaging appearances of this entity, especially with regard to CT and MR imaging, to illustrate local complications and to document changes in tumor appearance in response to therapy.


Histology
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Introduction
Histology
Imaging
Complications
Treatment
Changes in Lesion Appearance...
References
 
Macroscopic Appearance
Tumors are generally unicentric, firm, nonencapsulated, poorly defined masses of grey—white tissue measuring 1-10 cm in maximum diameter [1] (Fig. 1A).



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Fig. 1A. Pathologic appearance of infantile desmoid fibromatosis in 5-year-old boy. Photograph of cut surface of excised specimen shows well-circumscribed tumor mass in thigh muscle. Note uniform dense white tumor tissue (asterisk), typical of desmoid fibromatosis.

 

Microscopic Appearance
Tumors are benign infiltrating proliferations of fibroblasts and myofibroblasts that lack nuclear or cytoplasmic features of malignancy and have no metastatic potential. Lesions are poorly circumscribed and tend to infiltrate adjacent muscle and to encase or compress neurovascular structures [1].

The morphologic spectrum mirrors stages in the differentiation of fibroblasts. Tumors may be composed of immature mesenchymal cells or more mature fibroblasts arranged in bundles of fascicles with varying amounts of collagen (Fig. 1B). Very cellular lesions may be difficult to distinguish from infantile fibrosarcoma [1].



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Fig. 1B. Pathologic appearance of infantile desmoid fibromatosis in 5-year-old boy. Photomicrograph of histopathology specimen shows interlacing bands of fibrous tissue in aggressive, invasive tumor that is largely cellular with high mitotic rate. (H and E, x40)

 


Imaging
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Introduction
Histology
Imaging
Complications
Treatment
Changes in Lesion Appearance...
References
 
Imaging is important to define the number, location, margins, and enhancement patterns of tumors and to assess infiltration or encasement of adjacent structures. Imaging helps in determining the possibility of surgical resection and in deciding whether adjuvant therapy is necessary. Desmoids may appear as nodular, rounded, or oval masses with well-defined margins (Fig. 2A) or as more infiltrative, permeative lesions with indistinct borders (Fig. 2B) extending to encase adjacent neurovascular structures and bone [1, 2].



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Fig. 2A. Differing appearances of infantile desmoid fibromatosis in 11-year-old boy with multiple lesions. Axial T1-weighted spin-echo MR image (TR/TE, 680/17) of right anterior chest wall shows nodular oval soft-tissue mass with defined margins (arrows).

 


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Fig. 2B. Differing appearances of infantile desmoid fibromatosis in 11-year-old boy with multiple lesions. Axial T1-weighted spin-echo MR image (680/17) of left paraspinal muscles shows a more infiltrative, permeative lesion with indistinct margins (arrows).

 

Many imaging techniques can be used to assess infantile desmoid fibromatosis. MR imaging is the technique of choice for extremity lesions.

Radiography
Radiographs usually show a poorly defined mass or soft-tissue swelling, giving a rough estimate of tumor size and location. Lesions may cause local erosion, periosteal reaction, deformation, or bowing of bone [1] (Fig. 3A).



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Fig. 3A. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Pantomograph shows lytic lesion (arrows) in right side of mandible.

 

Sonography
Sonographic appearances are nonspecific. The solid lesions frequently appear homogeneous and hypoechoic, although some tumors may be heterogenous and of variable echogenicity [3]. Biopsy of superficial lesions can be performed under sonographic guidance.

CT
Unenhanced CT and contrast-enhanced CT provide reliable information regarding anatomic relationships and tumor extent, although the margins of some lesions may be poorly defined [4]. The CT appearance of infantile desmoid fibromatosis is variable and nonspecific [3]. With respect to skeletal muscle, most tumors are of attenuation similar to that of muscle (Fig. 4A) or slightly increased (Fig. 5A), although some may be hypodense. Lesions usually become more conspicuous after the injection of iodinated contrast material, but the degree of enhancement varies [4]. Most lesions show heterogeneous uptake of contrast material, whereas others show diffuse homogeneous enhancement (Fig. 4B), and some show relatively little change [4] (Fig. 6). Contrast enhancement is useful in assessing the relationship of the tumor to major vessels (Fig. 3B). If vessel integrity is questioned, invasive imaging techniques such as angiography may be required (Figs. 3C and 3D). CT using bone window settings allows more accurate assessment of bone involvement and destruction than does conventional radiography of MR imaging (Fig. 5B). Biopsy of deep lesions can be performed under CT guidance. No consistent relationship has been found between the CT appearance of desmoid tumors and their histology [4].



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Fig. 4A. 1-year-old girl with infantile desmoid fibromatosis of left cheek. Axial unenhanced CT image shows that left cheek mass (arrow) is same attenuation as muscle.

 


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Fig. 5A. Left nasomaxillary infantile desmoid fibromatosis in 8-year-old boy who initially presented when 11 months old. Axial unenhanced CT scan shows that left maxillary lesion (asterisk) is of slightly increased attenuation in comparison with adjacent muscles.

 


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Fig. 4B. 1-year-old girl with infantile desmoid fibromatosis of left cheek. Axial contrast-enhanced CT scan shows homogeneous tumor enhancement (arrow).

 


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Fig. 6. 9-year-old boy with recurrent desmoid tumor in left chest wall. Axial contrast-enhanced CT scan shows minimal enhancement of large mass (asterisk). Mass is heterogeneous: some areas are of similar attenuation to muscle and other areas are hypodense. Patient has undergone previous partial left pneumonectomy for intrathoracic disease. Note rib erosion and spiculated periosteal reaction (arrows).

 


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Fig. 3B. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Axial contrast-enhanced CT scan shows narrowing and deviation of trachea (open arrow). Right neurovascular bundle (solid arrows) is displaced posterolaterally.

 


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Fig. 3C. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Bilateral carotid angiograms show that right external carotid artery has been compressed and occluded by tumor (arrow, C) and normal left external carotid artery (arrow, D).

 


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Fig. 3D. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Bilateral carotid angiograms show that right external carotid artery has been compressed and occluded by tumor (arrow, C) and normal left external carotid artery (arrow, D).

 


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Fig. 5B. Left nasomaxillary infantile desmoid fibromatosis in 8-year-old boy who initially presented when 11 months old. Axial unenhanced CT scan shows that bone window settings allow more accurate assessment of bony destruction by tumor (arrows).

 

MR Imaging
The superior soft-tissue contrast of MR imaging, its multiplanar capabilities, and its lack of beam-hardening artifacts allow accurate tumor delineation and a greater appreciation of infiltration of adjacent structures than does CT. Lesions may be well defined and nodular, or infiltrative and ill defined [2]. The variable MR imaging signal characteristics of infantile desmoid fibromatosis reflect differences in composition, especially cellularity, fibrous tissue content, and the presence of myxomatous degeneration [5, 6]. Most desmoid tumors are heterogeneous soft-tissue lesions of intermediate signal intensity (between those of muscle and fat) [2]. Lesions may be hypointense, isointense, or, occasionally, marginally hyperintense with respect to muscle signal on T1-weighted images (Figs. 4C, 5C, and 7A) and of mixed predominantly high signal (greater than that of muscle but usually less than that of fat) on T2-weighted images [6] (Fig. 7B). Zones of low signal intensity are often seen on both T1- and T2-weighted images (Figs. 3E and 3F). These areas reflect hypocellularity and abundant collagen [5]. Tumors with high cellularity and abundant collagen show increased signal intensity on T2-weighted images [5]. The difference in T2-weighted signal intensity appears to be determined by the degree of cellularity rather than the amount of collagen present in the lesion [5]. After the IV injection of gadolinium, tumors may show homogeneous (Fig. 4D), inhomogeneous (Figs. 7C and 7D), or no significant enhancement [2]. No relationship has been shown between the pattern of enhancement and tumor recurrence [2].



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Fig. 4C. 1-year-old girl with infantile desmoid fibromatosis of left cheek. Coronal T1-weighted spin-echo MR image (TR/TE, 670/15) shows that tumor (arrows) is isointense with tongue muscle.

 


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Fig. 5C. Left nasomaxillary infantile desmoid fibromatosis in 8-year-old boy who initially presented when 11 months old. Coronal T1-weighted spin-echo MR image (TR/TE, 670/15) shows that tumor (asterisk) is isointense to muscle and occupies most of left nasomaxillary region. This lesion regressed with chemotherapy.

 


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Fig. 7A. Infantile desmoid fibromatosis of right parotid gland in 4-year-old girl who presented when 2 years old. Coronal T1-weighted spin-echo MR image (TR/TE, 608/14) shows right parotid lesion is of mixed signal intensity. Most of tumor is isointense with muscle, although some parts are hyperintense (short arrow) and other regions are hypointense (long arrow).

 


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Fig. 7B. Infantile desmoid fibromatosis of right parotid gland in 4-year-old girl who presented when 2 years old. Coronal T2-weighted spin-echo MR image (4000/95) shows lesion is also of heterogeneous signal intensity; although most of tumor is of increased signal intensity (short arrow), some low-signal-intensity areas (long arrow) are seen.

 


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Fig. 3E. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Axial T1-weighted spin-echo MR image (TR/TE, 670/15) of tumor recurrence shows lesion with mixed signal intensity; most of tumor is isointense with muscle. Note focal areas of low signal intensity (arrows).

 


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Fig. 3F. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Axial T2-weighted spin-echo MR image (7500/90) of tumor recurrence shows lesion with mixed signal intensity. Zones of low signal intensity (thin arrows) on both T1-and T2-weighted images reflect areas of hypocellularity and abundant collagen. Areas with high cellularity and abundant collagen (thick arrows) show increased signal intensity on T2-weighted images.

 


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Fig. 4D. 1-year-old girl with infantile desmoid fibromatosis of left cheek. Gadolinium-enhanced coronal T1-weighted spin-echo MR image (700/20) shows homogeneous tumor enhancement (arrows). Cellular component and vascularity of lesion determine degree of contrast enhancement.

 


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Fig. 7C. Infantile desmoid fibromatosis of right parotid gland in 4-year-old girl who presented when 2 years old. Gadolinium-enhanced coronal T1-weighted spin-echo MR image (700/20) shows inhomogeneous enhancement of tumor (arrows).

 


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Fig. 7D. Infantile desmoid fibromatosis of right parotid gland in 4-year-old girl who presented when 2 years old. Axial T1-weighted spin-echo MR image (700/20) shows inhomogeneously enhancing tumor enlarging right parotid gland (asterisk).

 


Complications
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Introduction
Histology
Imaging
Complications
Treatment
Changes in Lesion Appearance...
References
 
Despite benign histopathology, lesions often show insidious growth and aggressive characteristics. Tumors infiltrate adjacent tissues and encase or compress neurovascular structures (Figs. 3G and 8A). Nerve involvement may cause sensory or motor disturbance and pain in the extremity. Severe neurovascular compromise may necessitate amputation of the affected limb [1, 7]. Invasion of a joint capsule or adjacent ligaments can cause contractures [1]. Compromise of the airway is common in neck tumors (Figs. 3H and 8B). Death can result from local effects.



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Fig. 3G. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Axial T1-weighted spin-echo MR image (700/20) shows continued enhancement of posterior portion of tumor (asterisk) after gadolinium injection. Right neck mass recurred after surgical excision of tumor and mandibular ramus. Anterior portion of tumor has regressed and shows low signal intensity, consistent with increased fibrous tissue content (long arrow). Note hemiatrophy and fibrosis of tongue (short arrows) due to hypoglossal nerve involvement.

 


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Fig. 8A. 6-year-old boy with large desmoid tumor in neck. Patient died from complications arising from this tumor. Axial T2-weighted spin-echo MR image (TR/TE, 4700/112) shows lesion of heterogenous signal intensity with both low- and high-signal-intensity areas. Note vascular encasement (arrowhead) and tracheal compression (arrow) that required tracheostomy.

 


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Fig. 3H. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Coronal T2-weighted inversion recovery MR image shows mixed signal intensity of tumor and deviation of trachea (arrows).

 


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Fig. 8B. 6-year-old boy with large desmoid tumor in neck. Patient died from complications arising from this tumor. Gadolinium-enhanced coronal T1-weighted spin-echo MR image (670/15) shows relatively homogeneous enhancement of tumor. Left common carotid artery deviates around mass (curved arrows). Tracheostomy tube (straight arrow) is also seen.

 


Treatment
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Introduction
Histology
Imaging
Complications
Treatment
Changes in Lesion Appearance...
References
 
Desmoid tumors are of an unknown etiology and have a poorly understood natural history. Separate lesions in the same patient may behave differently, one growing rapidly while another regresses. Tumors usually show slow, locally invasive growth, although some lesions remain static. Surgical excision is the treatment of choice for extremity tumors [7]. A large rim of normal-appearing tissue must also be removed because tumors infiltrate beyond margins palpable at surgery and defined on imaging. Local recurrence rates are high, even after apparent complete surgical excision [7] (Fig. 9). Pediatric desmoid lesions are more infiltrative than adult tumors, tending to recur at an earlier stage and with more frequency; multiple recurrences after treatment are common [2]. Approximately 60% of pediatric desmoid tumors recur [3].



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Fig. 9. Right maxillary desmoid fibromatosis in 4-year-old boy who presented when 2 years old. Axial unenhanced CT scan (bone window settings) shows recurrent tumor (arrow) after previous surgical removal of part of right maxilla.

 

Primary and adjuvant radiotherapy may improve local control when resection is impossible [7]. Cytotoxic chemotherapy is used for inoperable progressive lesions in children in whom surgery or radiotherapy would cause morbidity [8]. Skapek et al. [8] describe safe and effective chemotherapy regimes with little acute toxicity or late effects. Chemotherapy prevented tumor progression and in some cases caused complete regression without recurrence.


Changes in Lesion Appearance in Response to Therapy
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Introduction
Histology
Imaging
Complications
Treatment
Changes in Lesion Appearance...
References
 
Response to therapy can be evaluated using serial imaging to assess variation in tumor size. A decrease in tumor mass is considered partial response (Figs. 7D and 7E), and resolution of the mass is complete response. In stable disease, the lesion maintains the same size and MR imaging characteristics [8]. Skapek et al. [8] found that tumors of patients treated with chemotherapy before surgery became hypocellular, with an increased collagen content. Histologic changes were accompanied by an MR imaging signal change, with more regions of low signal intensity on both T1- and T2- weighted sequences (Figs. 3G and 3I) reflecting increased collagen content and fibrosis and decreased cellularity. A corresponding decrease in areas of high signal intensity on T2-weighted sequences may also be apparent.



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Fig. 7E. Infantile desmoid fibromatosis of right parotid gland in 4-year-old girl who presented when 2 years old. Axial T1-weighted spin-echo MR image (700/20) 1 year later shows good response of tumor (asterisk) to therapy.

 


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Fig. 3I. Desmoid tumor of right submandibular region in 18-year-old man who initially presented when 8 months old. Coronal T1-weighted spin-echo MR image (600/15) shows changes in signal with response to therapy (compare with E), especially an increase in low-signal-intensity fibrotic areas and shrinkage of anterior portion of tumor. Right neck mass had recurred after surgical excision of tumor and mandibular ramus. Radiotherapy and various chemotherapy regimes resulted in slow tumor regression. Tongue hemiatrophy (arrows) can also be seen.

 


References
Top
Introduction
Histology
Imaging
Complications
Treatment
Changes in Lesion Appearance...
References
 

  1. Enzinger FM, Weiss SW. Fibrous proliferations of infancy and childhood. In: Enzinger FM, Weiss SW, eds. Soft-tissue tumors, 3rd ed. St. Louis: Mosby, 1995:231 -268
  2. Romero JA, Kim EE, Kim CG, Chung WK, Isiklar I. Different biologic features of desmoid tumors in adults and juvenile patients: MR demonstration. J Comput Assist Tomogr 1995;19:782 -787[Medline]
  3. Eich GF, Hoeffel JC, Tschappeler H, Gassner I, Willi UV. Fibrous tumors in children: imaging features of a heterogeneous group of disorders. Pediatr Radiol 1998;28:500 -509[Medline]
  4. Francis IR, Dorovini-Zis K, Glazer GM, Lloyd RV, Amendola MA, Martel W. The fibromatoses: CT—pathologic correlation. AJR 1986;147:1063 -1066[Abstract/Free Full Text]
  5. Sundaram M, McGuire MH, Schajowicz F. Soft-tissue masses: histologic basis for decreased signal (short T2) on T2-weighted MR images. AJR 1987;148:1247 -1250[Abstract/Free Full Text]
  6. Quinn SF, Erickson SJ, Dee PM, et al. MR imaging in fibromatosis: results in 26 patients with pathologic correlation. AJR 1991;156:539 -542[Abstract/Free Full Text]
  7. Lewis JJ, Boland PJ, Leung DHY, Woodruff JM, Brennan MF. The enigma of desmoid tumors. Ann Surg 1999;229:866 -873[Medline]
  8. Skapek SX, Hawk BJ, Hoffer FA, et al. Combination chemotherapy using vinblastine and methotrexate for the treatment of progressive desmoid tumor in children. J Clin Oncol 1998; 16:3021 -3027[Abstract/Free Full Text]

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