Korean J Ophthalmol.  2009 Jun;23(2):65-73. 10.3341/kjo.2009.23.2.65.

Dry Eye After Cataract Surgery and Associated Intraoperative Risk Factors

• Cho YK
• Kim MS

• KMID: 754720
• DOI: http://doi.org/10.3341/kjo.2009.23.2.65

Abstract

PURPOSE: To investigate changes in dry eye symptoms and diagnostic test values after cataract surgery and to address factors that might influence those symptoms and test results.
METHODS
Twenty-eight eyes from 14 patients with preoperative dry eye (dry eye group) and 70 eyes from 35 patients without preoperative dry eye (non-dry eye group) were studied prospectively. In each group, we measured values such as tear break-up time (tBUT), Schirmer I test (ST-I), tear meniscus height (TMH), and subjective dry eye symptoms (Sx), and evaluated the postoperative changes in these values. We also evaluated the influence of corneal incision location and shape on these values. The correlations between these values and microscopic light exposure time and phacoemulsification energy were investigated.
RESULTS
In the dry eye group, there were significant aggravations in Sx at 2 months postoperatively and in TMH at 3 days, 10 days, 1 month, and 2 months postoperatively, compared with preoperative values. All dry eye test values were significantly worse after cataract surgery in the non-dry eye group. With regard to incision location, there was no difference in tBUT, Sx, ST-I, or TMH in either the dry eye group or the non-dry eye group at any postoperative time point. Regarding incision shape, there was no difference in tBUT, Sx, ST-I or TMH at any postoperative time point in the dry eye group. In the superior incision sub-group of the non-dry eye group, tBUT and Sx were worse in the grooved incision group at day 1. In the temporal incision sub-group of the non-dry eye group, Sx were worse in the grooved incision group at 1 day, 3 days, and 10 days postoperatively. In both groups, significant correlations were noted between microscopic light exposure time and dry eye test values, but no correlation was noted between phacoemulsification energy and dry eye test values.
CONCLUSIONS
Cataract surgery may lead to dry eye. A grooved incision can aggravate the symptoms during the early postoperative period in patients without dry eye preoperatively. Long microscopic light exposure times can have an adverse effect on dry eye test values.

Keyword

Cataract surgery; Dry eye

MeSH Terms

Aged
Aged, 80 and over
Cataract Extraction/*adverse effects
Dry Eye Syndromes/diagnosis/epidemiology/*etiology
Follow-Up Studies
Humans
Incidence
Intraoperative Period
Korea/epidemiology
Middle Aged
Postoperative Complications
Prospective Studies
Risk Factors

Figure

• 

  Fig. 1 Postoperative changes in tear break-up time (tBUT, second), dryness symptoms (Sx), Schirmer test I (ST-I, mm) and tear meniscus height (TMH, mm) over time in both the dry eye (A) and non-dry eye group (B). In the dry eye group, there were significant aggravations in Sx at 2 months postoperative and in TMH at 3 days, 10 days, 1 month, and 2 months postoperative (p<0.05). In the non-dry eye group, almost all dry eye test values were significantly worse after cataract surgery (p<0.05).

• 

  Fig. 2 Postoperative changes in tear break-up time (tBUT, second), dryness symptoms (Sx), Schirmer test I (ST-I, mm) and tear meniscus height (TMH, mm) over time according to incision location with a single plane (A) or grooved incision (B) in the dry eye group. There was no difference in tBUT, Sx, ST-I, or TMH according to incision location in the single plane incision sub-group at any postoperative time point (p>0.05). There was no difference in tBUT, Sx, ST-I, or TMH according to incision location in the grooved incision sub-group at any postoperative time point (p>0.05).

• 

  Fig. 3 Postoperative changes in tear break-up time (tBUT, second), dryness symptoms (Sx), Schirmer test I (ST-I, mm) and tear meniscus height (TMH, mm) over time according to incision location with a single plane (A) or grooved incision (B) in the non-dry eye group. There was no difference in tBUT, Sx, ST-I, or TMH according to incision location in the single plane incision sub-group at any postoperative time point (p>0.05). There was no difference in tBUT, Sx, ST-I, or TMH according to incision location in the grooved incision sub-group at any postoperative time point (p>0.05).

• 

  Fig. 4 Postoperative changes in tear break-up time (tBUT, second), dryness symptoms (Sx), Schirmer test I (ST-I, mm) and tear meniscus height (TMH, mm) over time according to incision shape with a superior (A) or temporal incision (B) in the dry eye group. There was no difference in tBUT, Sx, ST-I or TMH according to incision shape in the superior incision sub-group at any postoperative time point (p>0.05). There was no difference in tBUT, Sx, ST-I or TMH according to incision shape in the temporal incision sub-group at any postoperative time point (p>0.05).

• 

  Fig. 5 Postoperative changes in tear break-up time (tBUT, second), dryness symptoms (Sx), Schirmer test I (ST-I, mm) and tear meniscus height (TMH, mm) over time according to incision shape with a superior (A) or temporal incision (B) in the non-dry eye group. tBUT were shorter and Sx were worse with grooved incision than single plane incision at postoperative day 1 in the superior incision sub-group (p=0.04). Sx were worse in the grooved incision subgroup at 1 day (p=0.00), 3 days (p=0.01), and 10 days (p=0.01) postoperative in the temporal incision sub-group.

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