Orbital tumours--the importance of standardized echography. 1992

G Hasenfratz
University Eye Hospital, Würzburg, Germany.

In a survey the diagnostic usefulness of standardized echography in orbital disease is demonstrated. Considering differential diagnoses it is stressed that ultrasonically determined location and size of the orbital lesion will not do alone. The main object is to achieve a specific diagnosis by way of tissue differentiation. The method is based on standardized A-scan supplemented by contact B-scan and Doppler sonography. Middle and posterior orbit is examined by transocular techniques. A paraocular approach is used for more anterior lesions. From personal experience from more than 300 orbital tumours examples are forwarded illustrating quantitative echography (internal structure, reflectivity, sound attenuation), topographic echography (borders, shape, location), and kinetic echography (consistency, mobility, vascularity). The combination of all nine criteria gives important guidelines concerning the specific lesions met in the orbit and paraorbital regions. The correlation between acoustic and histopathological features is stressed.

UI MeSH Term Description Entries
D009918 Orbital Neoplasms Neoplasms of the bony orbit and contents except the eyeball. Neoplasm, Orbital,Neoplasms, Orbital,Orbital Neoplasm
D006392 Hemangioma, Cavernous A vascular anomaly that is a collection of tortuous BLOOD VESSELS and connective tissue. This tumor-like mass with the large vascular space is filled with blood and usually appears as a strawberry-like lesion in the subcutaneous areas of the face, extremities, or other regions of the body including the central nervous system. Angioma, Cavernous,Cavernous Angioma,Cavernous Hemangioma,Strawberry Hemangiomas,Cavernous Hemangiomas,Hemangioma, Strawberry,Hemangiomas, Cavernous,Hemangiomas, Strawberry,Strawberry Hemangioma
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D014463 Ultrasonography The visualization of deep structures of the body by recording the reflections or echoes of ultrasonic pulses directed into the tissues. Use of ultrasound for imaging or diagnostic purposes employs frequencies ranging from 1.6 to 10 megahertz. Echography,Echotomography,Echotomography, Computer,Sonography, Medical,Tomography, Ultrasonic,Ultrasonic Diagnosis,Ultrasonic Imaging,Ultrasonographic Imaging,Computer Echotomography,Diagnosis, Ultrasonic,Diagnostic Ultrasound,Ultrasonic Tomography,Ultrasound Imaging,Diagnoses, Ultrasonic,Diagnostic Ultrasounds,Imaging, Ultrasonic,Imaging, Ultrasonographic,Imaging, Ultrasound,Imagings, Ultrasonographic,Imagings, Ultrasound,Medical Sonography,Ultrasonic Diagnoses,Ultrasonographic Imagings,Ultrasound, Diagnostic,Ultrasounds, Diagnostic

Related Publications

G Hasenfratz
September 1983, Ophthalmology,
G Hasenfratz
January 1984, Survey of ophthalmology,
G Hasenfratz
January 1987, AJNR. American journal of neuroradiology,
G Hasenfratz
January 1979, International ophthalmology clinics,
G Hasenfratz
October 1976, L'union medicale du Canada,
G Hasenfratz
November 1998, Ophthalmic plastic and reconstructive surgery,
G Hasenfratz
December 1980, Documenta ophthalmologica. Advances in ophthalmology,
G Hasenfratz
January 1992, Acta ophthalmologica. Supplement,
Copied contents to your clipboard!