References

Archer BR Radiation management and credentialing of fluoroscopy users. Pediatric Radiology. 2006; 36:182-4

Baker M An introduction to radiation protection in veterinary radiography. The Veterinary Nurse. 2014; 5:496-501

Bott OJ, Dresing K, Wagner M, Raab BW, Teistler M Informatics in radiology. Use of a C-arm fluoroscopy simulator to support training in intraoperative radiography. Radiographics. 2011; 31:E65-76

Brateman L Radiation safety considerations for diagnostic radiology personnel. Radiographics. 1999; 19:1037-55

Conn KS, Hallett JP A simple laser guide to reduce the screening time during the insertion of dynamic hip screws. Injury. 1998; 29:539-41

Dendy PP Radiation risks in interventional radiology. British Journal of Radiology. 2008; 81:1-7

Duran A, Hian SK, Miller DL, Le Heron J, Padovani R, Vano E A summary of recommendations for occupational radiation protection in interventional cardiology. Catheterization and Cardiovascular Interventions. 2013; 81:562-7

Radiation protection in medical imaging. Radiography. 2006; 12:153-60

Hricak H, Brenner DJ, Adelstein SJ Managing use in medical imaging: a multifaceted challenge. Radiology. 2011; 258:889-905

Jeans SP, Faulkner K, Love HG, Bardsley RA An investigation of the radiationdose to staff during cardiac radiological studies. British Journal of Radiology. 1985; 58:419-28

Kim KP, Miller DL Minimising radiation exposure to physicians performing fluoroscopically guided cardiac catheterisation procedures: a review. Radiation Protection Dosimetry. 2009; 133:227-33

Miller DL, Balter S, Schueler B, Wagner LK, Strauss KJ, Vano E Clinical Radiation Manage-ment for Fluoroscopically Guided Interventional Procedures. Radiology. 2010; 257:321-32

Pooley RA, McKinney JM, Miller DA Digital fluoroscopy. Radiographics. 2001; 21:521-34

Pratt TA, Shaw AJ Factors affecting the radiation-dose to the lens of the eye during cardi-ac-catheterization procedures. British Journal of Radiology. 1993; 66:346-50

Robinson AHN, Moiz M, Hallett JP Use of a laser guide to reduce screening time for the dynamic hip screw. Injury. 1996; 27:713-4

Sherer MAS, Visconti PJ, Ritenour ER, 6th Edition. Missouri: Mosby; 2011

Sheyn DD, Racadio JM, Ying J, Patel MN, Racadio JM, Johnson ND Efficacy of a radiation safety education iniative in reducing radiation exposure in the pediatric IR suite. Pediatric Radiology. 2008; 38:669-74

Shope TB Radiation-induced skin injuries from fluoroscopy. Radiographics. 1996; 16:1195-9

Shuler FD, Daigre JL, Pham D, Kish VL Laser Targeting With C-Arm Fluoroscopy: Effect on Image Acquisition and Radiation Exposure. Journal of Orthopedic Trauma. 2015; 27:97-102

Vano E, Arranz L, Sastre JM Dosimetric and radiation protection considerations based on some patient skin injuries in interventional cardiology. Br J Radiol. 1998; 71:510-6

Vano E, Gonzalez L, Fernandez JM, Alfonso F, Macaya C Occupational radiation doses in interventional cardiology: a 15 year followup. Br J Radiol. 2006; 79:383-8

Wong L, Rehm J Images in clinical medicine: radiation injury from a fluoroscopic procedure. N Engl J Med. 2004; 350

Using fluoroscopy safely

02 October 2015
12 mins read
Volume 6 · Issue 8

Abstract

Fluoroscopy is an x-ray based imaging modality capable of producing still images or real-time moving images. There is the potential for comparatively high radiation doses to the patient and staff if it is not operated in the correct manner. This article examines the practical techniques available to use c-arm fluoroscopy safely and provides some methods for improving image quality. There is a definite need for structured training in both operation of fluoroscopy units and the associated radiation safety issues, before staff are permitted to use the equipment.

Fluoroscopy is an advanced imaging modality which uses real-time x-rays to produce moving images or still images of patients during procedures. It is primarily used for orthopaedics, gastrointestinal (GI) tract imaging and interventional surgery. Orthopaedic surgeons may employ fluoroscopy for fracture reduction and internal fixation procedures. It can also be used for intra-operative x-ray, and so may avoid the need for immediate post-operative radiographs obtained in a non-sterile environment. Studies of the gastrointestinal tract can be carried out by mixing food or drink with barium contrast agents. Real-time images then depict the motion of the mouth, pharynx, oesophagus and stomach as these items are ingested. Minimally invasive techniques employed in interventional radiology include stent placement and vessel embolisation. In these cases iodine-based contrast is injected into blood vessels which are then opacified for a short period of time, allowing the clinician to visualise the relevant anatomy.

Fluoroscopy is becoming more common in the veterinary context, and its operation may often come under the remit of a veterinary nurse, radiographer or veterinary surgeon. This article will examine the proper use of fluoroscopy, with an emphasis on radiation protection and image quality.

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