PubMed Health⌕ Search
Home/Archive/PubMed

PubMed · 8073570

[A nonsurgical method for removing hyphema after glaucoma operations].

B N Alekseev
View original source ↗Export metadata ↓

Abstract

The author suggests an atraumatic clinically tried method for removal of hyphemas after antiglaucoma surgery, consisting in massage of the eyeball which helps force out the blood from the anterior chamber under the conjunctiva if the operation was performed with a fistulizing effect. The method is safe, eyeball massage is not only a therapeutic, but a diagnostic and prognostic measure as well, helping define further treatment strategy.

Explore related subjects

Anterior ChamberGlaucomaHumansHyphemaMassagePostoperative CarePostoperative ComplicationsEnglish AbstractJournal Article

Keep this discovery

Explore connections, maps & timelines

BibTeXRIS

B N Alekseev. [A nonsurgical method for removing hyphema after glaucoma operations].. https://pubmed.ncbi.nlm.nih.gov/8073570/

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

KEEP EXPLORING

Related citations

PubMed2007

Model of pulsatile-flow of aqueous humor through the iris-lens canal.

PURPOSE: To present a model of pulsatile-flow of aqueous humor from posterior (PC) to anterior chamber (AC) and to analyze the sensitivity of this novel model in detecting typical high risk conditions predisposing to pupillary block. METHODS: The model assumes noncontinuous flow of aqueous through the iris-lens canal. Aqueous that fills the canal will be ejected toward the AC-side of the canal at certain time intervals, and between 2 events of aqueous ejection there is no actual flow through this canal. Pupillary pumping rate (PPR) was calculated from the aqueous flow rate and the calculated volume of iris-lens canal. RESULTS: PPR values were generated by incorporating pupillary diameter (1 to 8 mm), aqueous flow rate (1 to 2.5 microL/min), and iris-lens canal width (0.5 to 2 mm) and height (3-9 microm) in numerical experimentation with the present model. PPR showed inverse dependence on iris-lens canal height and pupillary diameter and was directly proportional to aqueous flow rate, in agreement with the steady-flow model. However, contrary to the steady-flow model, PPR showed inverse dependence on iris-lens canal width and predicted the anticipated PC-AC pressure gradient changes at simulated light-dark transition in eyes of patients with clinically narrow angles and ultrasound biomicroscopy evidenced pupillary block. CONCLUSIONS: Upon the incorporation of real ultrasound biomicroscopy measurements in numerical experimentations with both models, the present pulsatile-flow model, contrary to the steady-flow model, showed good predictability of PC-AC pressure gradient changes in a typical condition predisposing to pupillary block.

Anterior Chamber↗