sábado, janeiro 29, 2011

FDA americano avalia riscos de contraste para RM da Bayer

Os especialistas americanos foram alertados para ficarem atentos aos efeitos potenciais como sérios danos à pele causados pelo contraste para ressonância da Bayer AG. A Food and Drug Administration em documento divulgado esta semana, indicam este contraste para uma lista de outras medicações semelhantes, potenciais causadoras de fibrose sistêmica nefrogênica (NSF), uma doença potencialmente fatal de pele.
O produto da Bayer, o gadobutrol, é uma versão fortificada de uma classe de agentes à base de gadolineo, ou GBCAs, utilizado em exames de ressonância magnética como meio de contraste.
“Devido ao risco de Fibrose Sistêmica Nefrogênica associado à doses elevadas dos GBCAs, uma potencial overdose do gadobutrol inplica em riscos desta patologia para os pacientes” indica o relatório prévio a respeito da questão divulgado pelo FDA.
A empresa têm solicitado ao FDA para aprovação da comercialização de gadobutrol utilizado em Ressonancias do Sistema Nervoso Central. Cinco outras drogas foram aprovadas para uso com efeito intermediário ao gadobutrol.
Em setembro do ano passado, o FDA havia divulgado um alerta específico sobre os GBCAs a cerca do risco de nefrose sistêmica em pacientes portadores de patologias renais. Contrastes como o Magnevist da Bayer, Covidiens Optimark e Omniscan,produzido pela GE Healthcare, foram identificados comop de alto risco em relação à outros GBCAs aprovados.
A própria Bayer relatou 10 casos de Nefrose Sistêmica desde que o Gadobutrol foi aprovado na Europa em 1998, comentou o staff do FDA. Dois pacientes receberam somente gadobutrol enquanto os outros fizeram uso de outros contrastes GBCAs.Cerca de 5 milhões de pacientes foram expostos ao gadobutrol sob o nome de Gadovist.
Os dados preliminares sugeriam que os riscos do gadobutrol para NSF eram similares ou menores do que os outros agentes, comenta o staff da FDA. Os revisores da agência também disseram sobre a efetividade da droga.
A Bayer se compromete em boletim divulgado junto à FDA para alertar no próprio medicamento sobre a intensidade do contraste e os riscos potenciais, para prevenção de eventuais overdoses.
Veja um sumário desta discussão em 
http://bit.ly/gDbiy5.
Baseado em matéria divulgada por Lisa Richwine no AuntMinnie.com

http://www.auntminnie.com/index.aspx?sec=sup&sub=mri&pag=dis&ItemID=93911

domingo, janeiro 16, 2011

Intraosseus and extraosseus juxtaarticular calcification: Osteopoikilosis with synovial osteochondromatosis - an association

 
Case Report
Parangama Chatterjee1, Jyoti Sureka1, Elizabeth Joseph1, Sniya Sudhakar1, Samuel Chittaranjan2
Radiology Case. 2009 Mar; 3(3):1-5 :: DOI: 10.3941/jrcr.v3i3.138

1. Department of Radiodiagnosis and Imaging, Christian Medical College, Vellore, Tamil Nadu, India
2. Department of Orthopaedics, Christian Medical College, Vellore, Tamil Nadu, India

Osteopoikilosis presents as round or ovoid sclerotic lesions with an appearance like enostosis on pathology. Synovial osteochondromatosis occurs due to cartilaginous metaplasia with synovial villous proliferation with calcified nodules in proximity to joints. A case of osteopoikilosis associated with synovial osteochondromatosis is described. Intraosseus and juxta osseus sclerotic bone lesions were identified on radiographs and computed tomography in a patient with knee pain. The association of osteopoikilosis with synovial osteochondromatosis is rare and to our knowledge has received little attention in the literature.

INTRODUCTION
Osteopoikilosis is a hereditary condition. The hallmark of this condition is numerous discrete or confluent round or ovoid calcific or ossific densities often with minimally spiculated margins, in bones, often in proximity to joints (
1). These are often incidentally discovered and pathologically represent bone islands. They are occasionally associated with cutaneous lesions as well as other osteosclerotic disorders (2).
Synovial osteochondromatosis is a rare benign monoarticular arthropathy. The inciting stimulus which results in the rapid development of this synovial metaplastic process is unknown (
3). An embryonic rest has been hypothesised to be the causative factor for the disease (4, 5). Trauma has also been identified as a precipitating factor (4, 6). A neoplastic basis for the cartilaginous metaplasia within the synovial villi is considered by some authors (3, 4, and 5). Although malignant transformation has been reported occasionally (4, 7, and 8) it is controversial as to whether or not chondrosarcomas actually originate in this entity. Synovial chondromatosis most commonly involves the knee, elbow, and hip in young adults (6, 9). The association of osteopoikilosis with synovial osteochondromatosis is rare and to our knowledge has received little attention in the literature.
CASE REPORT
A 25 year old man presented to the orthopaedics department in our institution with right knee pain and difficulty in walking, progressively increasing for 5 years. He also gave a history of fall, which happened 1 month before the onset of pain. There was no history of tingling or numbness or significant family history. Outside MRI showed tears of both menisci on the right, longitudinal tear of the lateral meniscus and radial tear of the medial meniscus, along with a tear of the lateral collateral ligament of the right knee. The MR also showed nodular lesions in relation to the knee which were hypointense on all sequences, few of which were intra osseous and few were extra osseous. (Figures 1a-c) The patient did not have any other complaints. Examination of the right lower limb revealed wasting of the quadriceps. Rest of the clinical examination was normal. His laboratory values including erythrocyte sedimentation rate, rheumatoid factor, C-reactive protein, uric acid, serum calcium and parathyroid hormone levels were normal.
He was referred to the radiology department for a radiograph of the knee joint, which showed mild juxta-articular osteopenia and multiple small discrete, round, oval, dense calcific lesions in a symmetric distribution (
Fig. 2

). These lesions were distributed more in the epiphysis and metaphysis of the femur distally (Fig. 3  ). An AP radiograph of the pelvis did not show any abnormality. All findings were suggestive of osteopoikilosis. There were also few intra articular soft tissue density lesions with peripheral calcifications. A CT scan done thereafter confirmed the findings. (Fig. 4  a and 4c).After the diagnosis, the patient was re-evaluated, and any overlooked pathology was searched. There was no pain or swelling of the joints, no muscle contractures, no soft tissue or skin changes.
He underwent an arthroscopic proceed open biopsy of the lateral condyle of the right femur to exclude osteoblastic metastases. Arthroscopy revealed typical features of proliferative frond like synovial disease with associated loose bodies as seen in synovial chondromatosis. A synovial debridement with removal of the loose bodies was done. These were however not sent for histopathological analysis by the operating surgeon in order to reduce patient expenses and because the arthroscopic appearances were typical. Microscopic histopathology revealed few thickened trabeculae merging with normal surrounding bone with no evidence of metastases, which can be seen with osteopoikilosis. We do not have archived pathological images as the femoral condyle biopsy was done to exclude osteoblastic metastases. Images were not archived as it was a negative study for the diagnostic question i.e. metastases.

Osteopoikilosis, also called osteopathia condensans disseminata, or "spotted bone disease" is an incidentally detected disorder characterized by an abnormality in enchondral bone maturation. There is no gender predilection, men and women are equally affected (1, 9). It is usually inherited as an autosomal dominant condition. Osteopoikilosis results in multiple small densities of oval or rounded shape that are symmetrically distributed within the metaphyses and epiphyses of the long bones, in periarticular osseous regions. On histology these foci are formed by dense trabeculae of spongious bone, occasionally forming a nidus without communication with bone marrow. These appear in childhood and persist thereafter (2, 5, 10). Sites of predilection include phalanges (100%), carpal bones (97.4%), metacarpals (92.5%), foot phalanges (87.2%), metatarsals (84.4%), tarsal bones (84.6%), pelvis (74.4%), femur (74.4%), radius (66.7%), ulna (66.7%), sacrum (58.9%), humerus (28.2%), tibia (20.5%), and fibula (2.8%) in one study of 4 families. The ribs, skull and vertebrae are spared (2).
Some patients have associated connective tissue nevi called dermatofibrosis lenticularis disseminate, this is called Buschke-Ollendorff syndrome (
11). Osteopoikilosis is also associated with keloid formation, dwarfism, spinal stenosis, dystocia, melorrheostosis, tuberous sclerosis and scleroderma (6, 7, and 13). Mixed sclerosing bone dystrophy comprises osteopathia striata and melorheostosis along with osteopoikilosis (2).
Differential diagnoses include osteoblastic metastasis, tuberous sclerosis and mastocytosis (
1, 9). Blood investigations like alkaline and acid phosphatase and bone scan are typically normal (1, 2, 14).
The diagnosis of primary synovial osteochondromatosis is based on the rapid onset of monoarticular pathology in a young adult and on the gross histopathological appearance (
3). The typical features are ectopic chondroid matrix formation under the synovium, synovial hyperplasia, multiple small loose bodies and the absence of articular cartilage destruction. However secondary synovial metaplasia occurs in the more common traumatic and degenerative joint disorders (3, 5, and 6). Radiographs may or may not reveal calcific densities.
Synovial chondromatosis progresses through various stages of activity (
4, 13). In the acute stage, the entire joint synovium is hypertrophied and hyperemic with numerous foci of cartilage formation. Small cartilaginous fragments are extruded into the joint and dystrophic calcification may occur. (3,6) During the intermediate stage, the acute synovial reaction gradually subsides (7,10,13, 15)The free cartilaginous loose bodies undergo degenerative, proliferative (enlargement on multiplication), or resorptive changes, depending on stresses peculiar to the joint involved and location within the joint (4,7). Endochondral bone formation may occur but requires a blood supply and is confined to loose bodies with a pedicle or to free loose bodies that have regained a synovial attachment (4,9).
In the late stages of the disease, the generalized synovial reaction reverts to normal. Secondary osteoarthritis results from the presence of loose bodies within the joint in chronic cases (
6, 8, 9). This may cause localized secondary synovial chondromatosis, as well as osteochondritic loose bodies formed by detached osteophytes. Therefore, in older cases of long duration only a presumptive diagnosis of primary synovial chondromatosis can be made based on the history and the number and character of the loose bodies.
Synovial chondrosarcoma has to be considered in the differential diagnosis of synovial chondromatosis since both lesions may exhibit synovial calcification and atypical multinucleated cartilage cells (
9, 13, and 16). The diagnosis of chondrosarcoma is established on the basis of a large, lobulated synovial lesion with extra-articular invasion and histological sections which exhibit numerous multinucleated cartilage cells having bizarre hyperchromatic nuclei. Secondary synovial chondromas, attached or free, which occur in association with traumatic internal derangement and osteoarthritis, are distinguished by the existence of primary joint disease and localized synovial reaction. Traumatic joint surface separations and detached chondro-osteophytes represent true osteochondritic loose bodies and are readily differentiated. Loose bodies resulting from traumatic disruption of epiphyses, joint fibrocartilage or articular cartilage exhibit the gross and histological features of the normal joint structures involved. Chondro-osteophytes, usually no more than two or three in number, are often large and are found in a diseased or arthritic joint.
Microscopically they exhibit a periphery of fibrocartilage with underlying cancellous dead bone and a zone of calcification. The classic loose body (osteochondritis dissecans) is most often single and involves an otherwise normal joint. It is distinguished microscopically by a periphery of articular cartilage, fibrotic reparative reaction, and underlying necrotic bone.
A close differential of this condition would be melorrheostosis with soft tissue involvement. This condition demonstrates an inner undulating margin encroaching into the medullary cavity with a linear track pattern. Typically there is a wavy cortical hyperostosis in the bone which simulates molten wax flowing down the side of a candle (
17, 18). This may have an intra articular extension with or without joint effusion. Heterotopic bone formation and soft tissue calcification can rarely occur. Pathological examination shows variable degree of marrow fibrosis with irregular mixed areas of lamellar and woven bone. This was not seen in our patient.
Osteopoikilosis is differentiated from melorrheostosis by symmetrical involvement, a normal scintigraphy, absence of soft tissue involvement, and no related symptomatology. Other differential diagnoses to consider would include myositis ossificans and calcified hematoma. Other sclerosing bone dysplasias encompass Jaffe-Lichenstein disease which is a polyostotic fibrous dysplasia, which shows more frequent osteolytic areas and related histopathological changes.
The only other case report describing this association depicted multiple loose bodies in the hip joint and small spherical areas of increased density in keeping with generalized osteopoikilosis. (
15). The authors speculated that chondromatosis is the synovial manifestation of osteopoikilosis (synosteopoikilosis). To our knowledge the combination of the two entities has received little attention in literature, although several case reports have described osteopoikilosis and its associations, synovial osteochondromatosis is also an association to bear in mind when evaluating intra articular and juxta articular calcifcations. As reported by Havitcioglu, (15) when osteopoikilosis is detected or suspected, lesions of fibroproliferative origin, should also be sought.

When evaluating intraosseous and extraosseous calcifcations, synovial osteochondromatosis with osteopoikilosis is an association to bear in mind. When osteopoikilosis is detected or suspected, lesions of fibroproliferative origin should also be sought.

Display figure 1 in original size
Figure 1: Magnetic Resonance Imaging (Open in original size)
25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. Axial proton density MR done elsewhere, images of the right knee, showing juxtaarticular rounded hypointense ossific foci, in the lateral femoral condyle, and posterior intrarticular soft tissues.

Display figure 2 in original size
Figure 2: Magnetic Resonance Imaging

25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. A: Coronal proton density MR done elsewhere, images of the right knee, showing juxtaarticular rounded hypointense ossific foci, in the lateral femoral condyle, and posterior intrarticular soft tissues. B: Sagittal proton density MR done elsewhere, images of the right knee, showing juxtaarticular rounded hypointense ossific foci, in the lateral femoral condyle, and posterior intrarticular soft tissues.


Display figure 3 in original size
Figure 3: Conventional Radiography

25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. A: AP radiograph of the right knee showing intra osseus and extraosseus juxta articular ossific densities, in the lateral femoral condyle, and posterior intrarticular soft tissues. B: Lateral radiograph of the right knee, lateral view, showing intra osseous and extraosseous juxta articular ossific densities, in the lateral femoral condyle, and posterior intrarticular soft tissues.

Display figure 4 in original size
Figure 4: Conventional Radiography

25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. AP radiograph of the pelvis showing no significant abnormality.

Display figure 5 in original size
Figure 5: Computed Tomography

25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. Axial CT images without contrast of the right knee in bone window showing A: intra osseous juxtaarticular ossific densities, in the lateral femoral condyle, B: intraosseous and extraosseous juxtaarticular ossific densities, in the lateral femoral condyle, and posterior intrarticular soft tissues and C: extraosseous juxtaarticular ossific densities in the posterior intrarticular soft tissues.

Display figure 6 in original size
Figure 6: Computed Tomography
25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. Axial CT images without contrast of the right knee in bone window showing intra osseous juxtaarticular ossific densities, in the lateral femoral condyle.

Display figure 7 in original size
Figure 7: Computed Tomography )
Original size:
25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. Axial CT images without contrast of the right knee in bone window showing intraosseous and extraosseous juxtaarticular ossific densities, in the lateral femoral condyle, and posterior intrarticular soft tissues.

Display figure 8 in original size
Figure 8: Computed Tomography

Original size:
25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. Axial CT images without contrast of the right knee in bone window showing extraosseous juxtaarticular ossific densities in the posterior intrarticular soft tissues.

Display figure 9 in original size
Figure 9: Conventional Radiography

Original size:
25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. Lateral radiograph of the right knee, lateral view, showing intra osseous and extraosseous juxta articular ossific densities, in the lateral femoral condyle, and posterior intrarticular soft tissues.

Display figure 10 in original size
Figure 10: Conventional Radiography

Original size:
25 year old man with osteopoikilosis and synovial osteochondromatosis of the knee. AP radiograph of the right knee showing intra osseus and extraosseus juxta articular ossific densities, in the lateral femoral condyle, and posterior intrarticular soft tissues.


1. Resnick D, Niwayama G. Enostosis, hyperostosis and periostitis. Diagnosis of Bone and Joint Disorders W.B Saunders Company Philadelphia 1988, 4084-4088.  

2. Lagier R, Mbakop A, Bigler A. Osteopoikilosis: a radiological and pathological study. Skeletal Radiol 1984.11(3):161-8 

3. Bloom, Ross, Pattinson, JN. Osteochondromatosis of the Hip Joint. J Bone and Joint Surg., Feb  

4. Fisher AGT. A Study of Loose Bodies Composed of Cartilage or of Cartilage and Bone Occurring in Joints. With Special Reference to Their Pathology and Etiology British J  

5. Young LW, Gersman I, Simon PR. Radiological case of the month. Osteopoikilosis: familial documentation Am J Dis Child 1980, 134(4):415-6.  

 6. Mussey RD, Henderson M S. Osteochondromatosis. J Bone and Joint Surg, July 1949   


7. Murphy FP, Dahlin DC, Sullivan CR. Articular Synovial Chondromatosis. J Bone and Joint Surg   


8. Nixon JE, Frank GR, Chambers G. Synovial Osteochondromatosis. With Report of Four Cases, One Showing Malignant Change U.S   
9. Bennett 0A. Reactive and Neoplastic Changes in Synovial Tissues.

10. Benli IT, Akalyn S. Epidemiological and radiological aspects of osteopoikilosis. J Bone Joint Surg, 1992 74(4):504-6.

11. Roberts NM, Langtry JA, Branfoot AC. Case report:Osteopoikilosis and the Buschke-Ollendorff syndrome. Br J Radiol 1993, 66(785):468-70.

12. Weisz GM. Lumbar spinal canal stenosis in osteopoikilosis. Clin Orthop 1982, 166:89-92.

13. Ackerman LV, Rosai J. Surgical Pathology. Ed

14. Mungavan JA, Tung GA. Tc-99m MDP uptake in osteopoikilosis. Clin Nucl Med 1994 19(1): 6-8

15. Havitcioglu H, Gunal I, Gocen S. Synovial chondromatosis associated with osteopoikilosis: a case report. Acta Orthop Scand, 1998; 69:649- 650.

16. CL Holm. Primary synovial chondromatosis of the ankle. A case report, J Bone Joint Surg Am 1976; 58:878-880.

17. Khot R, Sikarwar JS, Gupta RP, Sharma GL. Osteopoikilosis: A Case Report. Ind J Radiol Imag 2005 15:4:453-454.

18. Patel AM, Vaghela DU, Kumar S, Shah UA, Shah AK, Shah HR. A rare case of melorrheostosis with articular involvement: MR appearance. Ind J Radiol Imag 2006 16:4:453-454619-621.CT - Computed Tomography
MR - Magnetic Resonance Imaging
AP - anteroposterior

Chatterjee P, Sureka J, Joseph E, Sudhakar S, Chittaranjan S. Intraosseus and extraosseus juxtaarticular calcification: Osteopoikilosis with synovial osteochondromatosis - an association. Radiology Case. 2009 Mar;3(3):1-5.

Source: National Library of Medicine’s Citing Medicine

Improved Isotropic 3D FSE Methods for Imaging the Knee

 

Conventional MR imaging of the knee utilizes two-dimensional fast spin-echo (FSE) acquisitions that
require imaging at anisotropic resolutions and gaps between excitation slices. These highly anisotropic
methods introduce the risk of partial volume artifacts and prevent reformatting of image data in
different planes. Three-dimensional volumetric acquisitions at isotropic resolutions overcome these
problems, and may increase detection accuracy of pathology in joints imperceptible using 2D
methods. A newly developed 3D FSE sequence with extended echo train (3D-FSE-Cube) is currently
under investigation for use in diagnostic joint evaluation at 3 T. However, optimal pulse sequence
parameters for producing the highest quality images have yet to be determined. To ascertain these
values for a particular joint, 10 healthy subjects will receive knee MRIs at 3 T. The imaging parameters
repetition time (TR), receiver bandwidth, echo train length and parallel imaging factor will be
systematically altered for each subject while maintaining a constant scan time of 5 minutes and
isotropic spatial resolution of 0.6 mm. Qualitative measures for blurring and detail and quantitative
measures for signal-to-noise ratio (SNR) and contrast-to-noise ratio (CNR) for different tissues will be
calculated. Parameter combinations maximizing SNR, CNR, and detail while minimizing blurring will
be considered optimal. The optimized 3D acquisition can then be further evaluated with respect to
traditional 2D FSE sequences, pre-optimized 3D-FSE-Cube sequences or arthroscopy for detection
sensitivity of joint pathology.

Charles Li, BS
Radiology
Lucas Center for MR Spectroscopy and Imaging Stanford University

Charles is enrolled at the University of California, San Diego
School of Medicine

 

 


RSNA
Research Medical Student Grant

http://www.rsna.org/Foundation/upload/2009-Grants-and-Awards-Booklet_Final-2.pdf

domingo, janeiro 09, 2011

PROTOCOLO PARA MAL DE CHAGAS EM RM

REPRODUÇÃO DOS ARQUIVOS  DE PROTOCOLO PARA MAL DE CHAGAS DE Eduimagen Educación Continua
www. eduimagen.com.ve.
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NO BRASIL RECOMENDO ESTE SITE: http://www.virtual.epm.br/material/tis/curr-med/temas/med3/t1b_2000/Chagas/frame.htm.

sábado, janeiro 01, 2011

ARTISTA OBSERVA BIG MAC COM RM

Portal de Notícias da Globo
26/03/09 - 18h55 - Atualizado em 26/03/09 - 18h55
Artista observa interior do Big Mac com ressonância magnética
Satre Stuelke, 44, é estudante de medicina em Nova York.
Ele quer que as pessoas pensem 'sobre como as coisas são construídas'.
Amanda SchafferDo 'New York Times'
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Um Big Mac que claramente foi montado às pressas (Foto: Satre Stuelke)
Médicos e pesquisadores sempre se baseiam em scanners de tomografia computadorizada para criar imagens de partes do corpo como cérebros, peitos e joelhos. Mas um artista transformado em estudante de medicina em Manhattan está usando uma máquina como essa para espreitar a carne a as entranhas de ícones culturais como o Big Mac, a Barbie e o iPhone, criando imagens estranhas e ocasionalmente assustadoras.
Satre Stuelke, 44 anos, disse que seu objetivo era penetrar os interiores metálicos, plásticos ou orgânicos de objetos e comidas populares, pedindo às pessoas para "pensar sobre como as coisas são construídas".
Diferente de um médico, ele não está buscando patologias. Porém, sob algum aspecto, seu trabalho permite que os espectadores diagnostiquem objetos culturais, encontrando detalhes alarmantes ou surpreendentes dentro deles. Isso é inevitável, disse ele, graças à associação entre os scanners de tomografia computadorizada e a medicina.
Ainda assim, ele também busca criar imagens que sejam simplesmente fascinantes, acrescentou.
Ex-professor de arte da Escola de Artes Visuais de Nova York, Stuelke é hoje um estudante do terceiro ano de medicina no Weill Cornell Medical College. Desde 2007, ele já examinou dúzias de objetos num scanner de TC de propriedade do Centro de Imagens Biomédicas da Weill Cornell. O centro doa a utilização do scanner.
Quando um objeto é escaneado, a máquina produz de 200 a 500 pedaços de imagens. Stuelke carrega esses dados num programa de computador que lhe permite atribuir diferentes cores a áreas de densidades distintas. Os resultados de Stuelke incluem uma Barbie com cabelo laranja flamejante e ossos da perna brancos e articulados; um esqueleto de iPhone com um estonteante conjunto de conexões que lembram uma cidade fantástica; e um velho coelho de pelúcia cujos mecanismos internos são assustadoramente reminiscentes de uma bomba.
Stuelke se inspirou na obra de Robert Heineken, um fotógrafo conhecido em parte por imagens inusitadas de comidas. O primeiro exame de Stuelke, em 2007, foi de um prato de comida congelada. Mais recentemente, ele criou um Big Mac que traz sementes de gergelim de um amarelo brilhante sobre o pão e manchas amarelas de cola, que marcam onde a caixa é fechada, além de uma caixa de nuggets de frango. 
clip_image001[1]clip_image003
Uma caixa de McNuggets na ressonância magnética (Foto: Satre Stuelke)
O trabalho está em exposição em www.radiologyart.com.
Os críticos podem questionar se essas imagens oferecem mais que suntuosos e tecnológicos doces para os olhos, e Stuelke não é necessariamente contra essa interpretação. "Algumas delas são simplesmente lindas", disse ele. "Quer dizer, quem saberia que um punhado de nuggets poderia ser lindo?"