PubMed Health⌕ Search

PubMed · 8832684

A continuous microneurosurgical irrigation and suction system: technical note.

Abstract

OBJECTIVE: We describe a continuous microneurosurgical irrigation and suction technique. This technique automatically clears the operative field, frees the surgeon to perform microdissection with both hands, and actually aids in dissection of the arachnoid layer. TECHNIQUE: The suction catheter (MicroVac; P.M.T., Inc., Hopkins, MN) described by Spetzler and Iverson and an additional continuous microirrigation technique are discussed. The catheter design has a sump effect and is secured in a dependent position in the operative field to continuously remove blood, irrigate the area, and reduce cerebrospinal fluid accumulation. The irrigation system consists of standard intravenous tubing with an angiocatheter used to direct a precise stream into the operative field. RESULTS AND CONCLUSION: The irrigation and suction system, when properly adjusted, continuously clears the operative site of minute amounts of blood that may obscure the surgeon's view and assists in dissection of the arachnoid layer. It has been used since 1991 with excellent success and satisfaction.

Explore related subjects

Keep this discovery

Explore connections, maps & timelines

BibTeXRIS

J P Johnson, D P Becker. 1996. A continuous microneurosurgical irrigation and suction system: technical note.. https://doi.org/10.1097/00006123-199608000-00041

Cite the original work for its findings. Save a collection to share your selection of sources.

KEEP EXPLORING

Related citations

MR imaging of Liliequist's membrane.

Liliequist's membrane is an arachnoid structure well-known to neurosurgeons. However, the importance of this membrane had been lost until the development of endoscopic third ventriculostomy (ETV). ETV is superior in its minimal invasiveness, but in some subgroups of hydrocephalus, the effectiveness of ETV may be reduced. Liliequist's membrane may block the cerebrospinal fluid (CSF) flow from the defect of the third ventricle floor, which may cause failure of ETV. Liliequist's membrane can be visualized on magnetic resonance (MR) imaging in normal healthy individuals, however, its visibility is different among individuals. CSF artifacts exist to varying degrees, but do not impede visualization of Liliequist's membrane in most subjects. Since Liliequist's membrane is a cisternal structure, the three-dimensional (3D) constructive interference in steady state (CISS) sequence is useful. The outcome of ETV could be predicted with MR imaging findings of Liliequist's membrane in a patient with obstructive hydrocephalus. High-field (> or =3 Tesla) MR imaging of Liliequist's membrane also offers superior resolution and is expected to provide additional information about Liliequist's membrane.

Arachnoid↗