Table 1 Using optical coherence tomography parameters to monitor visual field progression in glaucoma.

From: Which OCT parameters can best predict visual field progression in glaucoma?

Parameter

Study

Visual field type progression definition

Glaucoma stage, sample size, and results

pRNFLTa

Sehi et al. 2013 [4]

∙ First follow-up visit which reached a significant negative visual field index slope over time (p < 0.05)

∙ 310 glaucoma suspect or pre-perimetric eyes & 177 perimetric eyes

∙ MD: −3.82 ± 4.28; −0.23 ± 1.04 dB, respectively

∙ Average and superior RNFL losses were correlated with visual field index loss in multivariate Cox models.

Yu et al. 2016 [3]

∙ 24-2 VFb

∙ 240 eyes of 139 patients with POAGc

∙ MD4: −9.5 ± 9.1 dB

∙ Early Manifest Glaucoma Trial or pointwise linear regression criteria

∙ Progressive RNFL thinning predicted incidence of VF progression using both event and trend-based analysis after controlling for baseline covariates.

mGCCTd

Anraku et al. 2014 [11]

∙ Fast progressors (MD < −0.4 dB/year) versus slow progressors (MD  −0.4 dB/year)

∙ 56 POAG patients with non-advanced glaucoma

∙ MD: −3.26 ± 3.0 dB

∙ Baseline inferior mGCCT is associated with disease progression.

Zhang et al. 2016 [10]

∙ Significant progression (p < 0.05) on Humphrey Progression Analysis or significant negative slope for VF index

∙ 277 eyes of 188 participants from Advanced Imaging for Glaucoma Study

∙ MD: −4.76 ± 5.13 (non-progressors) and −4.99 ± 4.21 dB (progressors)

∙ GCC focal loss volume was the most significant structural predicting factor for VF loss in a multivariable Cox model.

mGCIPLTe

Shin et al. 2019 [13]

∙ Three consecutive abnormal VFs

∙ 541 eyes of 357 glaucoma suspect patients

∙ MD: −0.79 ± 1.34 dB

∙ Eyes with progressive GCIPL thinning had a significantly higher risk of developing VF defects.

Lee et al. 2017 [12]

∙ Mean deterioration of 3 dB compared with 2 baseline values, (observed twice)

∙ 65 POAG patients, non-progressors (38) and progressors (27)

∙ “Likely progression” according to event analysis

∙ Mild (MD  −6 dB) or moderate to advanced (MD < −6 dB)

∙ Global and sectoral GCIPL thinning were significantly faster for POAG patients who were classified as progressors

Shin et al. 2017 [14]

∙ Early manifest glaucoma trial criteria or linear regression analysis of the VF index

∙ 196 eyes of 123 POAG patients,

∙ Patients divided into mild (MD  −6dB) or moderate to advanced groups (MD < −6dB) based on VF defects

∙ Rate of change of average GCIPL thinning was significantly higher in progressors compared to non-progressors. Rate of change in RNFL thinning did not differ significantly between progressors and non-progressors in moderate to advanced group.

Shin et al. 2020 [15]

∙ Guided progression analysis

∙ 104 POAG patients with high myopia and 104 patients who were matched with VF severity-POAG without high myopia

∙ MD: −6.36 ± 6.22 dB (high myopia) and −5.35 ± 5.11 dB (controls)

∙ Highly myopic eyes with progressive GCIPL thinning were at higher risk for developing VF progression after adjusting for intraocular pressure

BMOf parameters

Pollet-Villard et al. 2014 [16]

∙ 24-2 VF

∙ 142 eyes of 142 subjects with glaucoma, glaucoma suspect, or controls

∙ No progression analysis

∙ MD: −8.28 ± 8.64 dB (glaucoma), −1.56 ± 2.22 dB (suspect), −1.60 ± 3.02 dB (controls)

∙ Structure-function relationships between BRO-MRWg and VF sensitivity were higher than with pRNFL thickness.

Imamoglu et al. 2017 [17]

∙ 10-2 VF

∙ 33 eyes of 29 patients with advanced glaucoma

∙ No progression analysis

∙ MD: −14.4 (−23.8 to −11)

∙ Sectoral BMO-MRW measurements were highly correlated with VF sensitivities on the 10-2 test

Choi et al. 2021 [18]

∙ Visual field index using the Humphrey Field Analyzer

∙ 121 eyes (73 with POAG and 48 normal eyes)

∙ No progression analysis

∙ BMO-minimum rim area decreased more rapidly and preceded changes in RNFLT and visual field index during glaucoma progression

  1. aperipapillary retinal nerve fiber layer thickness.
  2. bvisual field.
  3. cprimary open angle glaucoma.
  4. dmacular ganglion cell complex thickness.
  5. emacular ganglion cell inner plexiform layer thickness.
  6. fBruch membrane opening.
  7. gBruch membrane opening-minimum rim width.