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Ophthalmology›Condition·Updated Jul 11, 2026·v1

Primary Open-Angle Glaucoma

Primary open-angle glaucoma is a chronic, progressive optic neuropathy and the leading cause of irreversible blindness worldwide, characterized by open anterior chamber angles, characteristic optic disc damage, and visual field loss, typically associated with elevated intraocular pressure (IOP), managed through IOP-lowering therapy with prostaglandin analogs, SLT, or surgery to prevent progression.

High Evidence480 references·2,684 words·11 min read·v1
ophthalmologyglaucomaprimary open-angle glaucomaoptic neuropathyintraocular pressureprostaglandin analogsselective laser trabeculoplastytrabeculectomyMIGS

Quick Reference

RxDrug of choiceProstaglandin F2α analog (e.g., latanoprost 0.005% once daily), most effective monotherapy class, mean IOP reduction -4.75 mmHg.
AltAlternativesBeta-blockers (timolol 0.5% BID), carbonic anhydrase inhibitors (dorzolamide 2% TID), alpha-2 agonists (brimonidine 0.2% BID), rho-kinase inhibitors (netarsudil 0.02% once daily), EP2 receptor agonists (omidenepag isopropyl 0.002% once daily).
⊘AvoidNon-selective beta-blockers in asthma/COPD/bradycardia; brimonidine in young children; two prostaglandin analogs simultaneously; non-dihydropyridine CCBs (diltiazem, verapamil) in heart failure.
DxTest of choiceOptical coherence tomography (OCT) of peripapillary RNFL and macular GCIPL for structural damage; standard automated perimetry (24-2 SITA) for functional visual field loss.
ScKey scoreHodapp-Parrish-Anderson (HPA) classification or modified Glaucoma Staging System (mGSS) for visual field severity staging. OHTS risk calculator for 5-year risk of POAG in ocular hypertensive patients.
→When to referAdvanced disease (severe visual field loss, IOP >30 mmHg despite maximal therapy, rapid progression), surgical candidacy, uncertain diagnosis, recurrent disc hemorrhages, or patient intolerance to medical therapy.
POAG is a silent, progressive optic neuropathy that requires lifelong IOP-lowering therapy to prevent blindness. Initiate with a prostaglandin analog or SLT; escalate to combination therapy, MIGS, or trabeculectomy based on disease severity and progression rate. Individualized target IOP (20-30% reduction from baseline) and vigilant monitoring are essential.
Primary open-angle glaucoma (POAG) is a chronic, progressive optic neuropathy characterized by structural optic nerve damage and visual field loss, typically with open angles and often elevated intraocular pressure (IOP). It is the leading cause of irreversible blindness worldwide, affecting 57.5 million in 2015. Diagnosis requires structural and functional evidence; IOP is a risk factor, not a criterion. Management focuses on sustained IOP reduction to slow progression.

Overview and Recommendations

Background

  • •Primary open-angle glaucoma (POAG) is a chronic, progressive optic neuropathy defined by characteristic structural damage to the optic nerve head and corresponding visual field loss, typically with an open anterior chamber angle. It is the leading cause of irreversible blindness globally, affecting an estimated 57.5 million people in 2015, projected to rise to 65.5 million by 2020. Prevalence is highest in African-descent populations (OR 2.80 versus European ancestry) and increases with age (OR 1.32 per 5-year increase).
  • •The central pathophysiologic driver is increased resistance to aqueous humor outflow through the trabecular meshwork (TM), leading to elevated intraocular pressure (IOP). This resistance is driven by transforming growth factor beta-2 (TGF-β2)-mediated extracellular matrix remodeling, oxidative stress, and genetic susceptibility (e.g., MYOC mutations in ~5% of cases). Elevated IOP, along with vascular dysregulation and low cerebrospinal fluid pressure, mechanically and biochemically damages retinal ganglion cells (RGCs) at the lamina cribrosa, culminating in RGC apoptosis.
  • •POAG is subclassified into high-tension (IOP >21 mmHg at diagnosis) and normal-tension (NTG; IOP ≤21 mmHg) forms. NTG accounts for 30-50% of POAG in East Asian populations and is associated with vascular risk factors. Juvenile-onset open-angle glaucoma (JOAG) presents before age 40 years, often with IOPs of 30-50 mmHg and a strong family history; MYOC mutations account for 10-20% of cases.
  • •Key modifiable risk factors include higher systolic blood pressure (HR 1.16 per 10 mmHg increase), low body mass index (HR 1.30), and evening light exposure >1000 lux (HR 1.47). Protective factors include SGLT2 inhibitor use (HR 0.64), GLP-1 receptor agonist use (HR 0.58), nicotinamide supplementation (HR 0.34; NNT = 18), and omega-3 fatty acid supplementation (HR 0.45).
  • •The heritability of POAG is estimated at 0.30-0.50. A polygenic risk score (PRS) in the highest decile is associated with 7.4% prevalence versus 1.3% in the lowest decile (OR 1.74 per 1-SD increase). However, PRS performance varies by ancestry and is not yet ready for routine clinical use.

Evaluation

  • •Suspect POAG in any patient with asymptomatic visual field loss, difficulty with night vision, bumping into objects, or a family history of glaucoma. Remember that 50-90% of cases are undiagnosed because early disease is asymptomatic.
  • •Ask about age, race, family history of glaucoma, history of ocular trauma or surgery, systemic conditions (hypertension, diabetes, sleep apnea), and medication use (especially corticosteroids). Inquire about symptoms of angle closure (acute eye pain, headache, halos) to exclude acute angle-closure glaucoma.
  • •Examine visual acuity, pupillary reactions, and perform a thorough slit-lamp examination including anterior chamber depth, lens status, and signs of pseudoexfoliation or pigment dispersion. Measure intraocular pressure (IOP) with Goldmann applanation tonometry; note that a single reading is insufficient, consider diurnal variation and medication effects.
  • •Perform gonioscopy to confirm an open anterior chamber angle and exclude angle closure, pseudoexfoliation, or pigment dispersion. Direct gonioscopy (Goldmann or Zeiss lens) is essential for differentiating open-angle from angle-closure glaucoma.
  • •Examine the optic disc with a 78D or 90D lens for vertical cup-to-disc ratio (VCDR) >0.5, focal rim notching (especially inferotemporal and superotemporal), optic disc hemorrhages (splinter-shaped), and retinal nerve fiber layer (RNFL) defects. Asymmetry between eyes (VCDR difference ≥0.2) is suspicious.
  • •Measure central corneal thickness (CCT) with pachymetry; thinner CCT is a risk factor for POAG development and progression. In the Ocular Hypertension Treatment Study (OHTS), CCT was a significant predictor of conversion to POAG.
  • •Order optical coherence tomography (OCT) of the peripapillary RNFL and macular ganglion cell-inner plexiform layer (GCIPL) to quantify structural damage. Average and inferior RNFL parameters achieve diagnostic accuracy of 0.77. OCT angiography (OCTA) can assess peripapillary vessel density, which adds independent prognostic information (each 1% decrease in VD increases risk of VF progression by 5%).
  • •Perform standard automated perimetry (24-2 Swedish Interactive Thresholding Algorithm) to document functional visual field loss. The 10-2 test is more sensitive for central defects. Diagnostic criteria require a reproducible visual field defect compatible with glaucomatous optic neuropathy in the presence of an open angle.
  • •Diagnostic criteria for POAG include evidence of glaucomatous optic neuropathy (structural damage) and/or reproducible visual field loss (functional damage) with an open angle. IOP is a risk factor, not a criterion. The OHTS risk calculator integrates age, IOP, CCT, pattern standard deviation (PSD), and VCDR to estimate 5-year risk of POAG in ocular hypertensive patients.
  • •Consider genetic testing for MYOC, OPTN, and WDR36 mutations in early-onset or familial cases (e.g., JOAG), but routine genetic testing is not recommended for typical POAG due to low diagnostic yield (~8.9%).
  • •Differential diagnosis includes other causes of optic neuropathy and visual field loss: compressive lesions, ischemic optic neuropathy (NAION), autoimmune retinopathy, vitreomacular traction, and secondary glaucomas (pseudoexfoliative, pigmentary, uveitic). In normal-tension glaucoma, consider non-glaucomatous optic atrophy (e.g., compressive lesion, ischemic optic neuropathy).
  • •Red flags for urgent evaluation include rapid progression (visual field MD worsening ≥36%/year), recurrent disc hemorrhages, unilateral or highly asymmetric cupping, IOP >30 mmHg in a young patient, family history of blindness from glaucoma, and inferior hemifield defect encroaching within 5° of fixation.

Management

  • •Establish an individualized target IOP, typically a 20-30% reduction from untreated baseline, with lower targets (e.g., <15 mmHg) for advanced disease. The goal is to prevent progressive optic neuropathy and visual field loss.
  • •Initiate first-line medical therapy with a prostaglandin F2α analog (PGFA): latanoprost 0.005%, travoprost 0.004%, or bimatoprost 0.01%, one drop in the affected eye(s) once daily in the evening. PGFAs are the most effective monotherapy class, with a mean IOP reduction of -4.75 mmHg (high certainty).
  • •Alternative first-line options include the EP2 receptor agonist omidenepag isopropyl 0.002% once daily (noninferior to latanoprost) or selective laser trabeculoplasty (SLT). The LiGHT trial supports SLT as first-line due to similar efficacy, lower cost, and reduced medication burden.
  • •If target IOP is not achieved with monotherapy, add a second agent. The most effective dual combination is PGFA plus a carbonic anhydrase inhibitor (CAI) (e.g., brinzolamide 1% or dorzolamide 2% TID). Avoid using two prostaglandin analogs simultaneously, no additive effect, increased side effects. Avoid beta-blockers (timolol) in patients with asthma, COPD, or bradycardia.
  • •Consider fixed combinations to improve adherence, such as latanoprost/timolol, dorzolamide/timolol, or brinzolamide/brimonidine. Non-PGFA triple combinations (alpha-agonist + beta-blocker + CAI) achieve -7.22 mmHg IOP reduction.
  • •Offer selective laser trabeculoplasty (SLT) as a first-line or add-on therapy. SLT achieves a mean IOP reduction of 20-30% and can be repeated. If IOP reduction <20% at 3 months, consider repeat SLT or proceed to incisional surgery.
  • •When medical and laser therapy fail to achieve target IOP or disease progresses, proceed to incisional surgery. Trabeculectomy remains the gold standard, achieving a mean IOP of 10-12 mmHg in successful cases. However, it carries a higher risk of hypotony (51.1% at 2 years), bleb leaks, and infection.
  • •Minimally invasive glaucoma surgery (MIGS) is appropriate for mild-to-moderate POAG, especially when combined with cataract surgery. Options include trabecular microstents (iStent inject, Hydrus microstent), ab interno trabeculotomy (Kahook Dual Blade), and subconjunctival implants (Xen, MicroShunt). The Hydrus microstent combined with cataract surgery reduced the need for incisional glaucoma surgery (2.4% vs 6.2% at 5 years; NNT = 26).
  • •Glaucoma drainage devices (tube shunts) are used after failed trabeculectomy or in eyes with conjunctival scarring. The Ahmed valve and Baerveldt implant are common options.
  • •Monitor patients lifelong with regular IOP checks, OCT imaging, and visual field testing. The OHTS 20-year follow-up showed that even with treatment, the cumulative incidence of POAG was 41.9% in the medication group. Visual field progression occurs at a mean rate of -0.40 dB/year after diagnosis, with 21% of eyes progressing at ≥-1.0 dB/year.
  • •Escalate therapy if there is confirmed progression on perimetry or OCT, IOP consistently above target, or intolerance to medications. Consider switching from medical to laser or surgical therapy. The Fast-PACE study demonstrated that clustered testing over 6 months can identify fast progressors with 93% sensitivity.
  • •What NOT to do: Do not administer laser peripheral iridotomy in a patient with confirmed open angles, it is ineffective and may cause complications. Do not rely solely on a single medication in an acute setting; combination therapy is necessary. Do not use two prostaglandin analogs simultaneously. Avoid beta-blockers in patients with asthma or bradycardia. Avoid brimonidine in young children (risk of CNS depression).
  • •Refer to a glaucoma specialist when disease is advanced (severe visual field loss, IOP >30 mmHg despite maximal therapy, rapid progression), when surgical intervention is indicated, or when the diagnosis is uncertain (e.g., atypical optic disc appearance, normal-tension glaucoma with possible non-glaucomatous etiology).
  • •Discharge criteria for acute IOP elevation: IOP reduced to a safe level (<25 mmHg in severe disease), corneal edema resolved, no optic disc edema, and patient tolerating medications. Transition to long-term management with established IOP targets and follow-up interval.

Board Review — High Yield

  • •Silent thief of sight, POAG is asymptomatic until moderate-to-severe damage; 50-90% of cases are undiagnosed.
  • •Gold standard diagnostic combination, Optic disc cupping (VCDR >0.5) + RNFL thinning on OCT + reproducible visual field defect on perimetry.
  • •Prostaglandin analogs are first-line, Latanoprost 0.005% once daily reduces IOP by ~30% and has the longest treatment persistence.
  • •LiGHT trial, Selective laser trabeculoplasty (SLT) is noninferior to topical medication as first-line therapy and more cost-effective.
  • •Normal-tension glaucoma (NTG), IOP ≤21 mmHg; more common in Asian populations; consider vascular risk factors and OPTN/TBK1 mutations.
  • •Optic disc hemorrhage, Strong predictor of progression (OR 4.51); prompt intensified IOP-lowering and closer follow-up.
  • •Trabeculectomy vs MIGS, Trabeculectomy achieves lower mean IOP (10-12 mmHg) but with higher hypotony risk (51%); MIGS is safer for mild-moderate disease.
  • •Central corneal thickness (CCT), Thinner CCT is a risk factor for POAG development and progression; corrects IOP measurement.
  • •OCT angiography, Each 1% decrease in peripapillary vessel density increases risk of VF progression by 5%.
  • •Disc hemorrhage + peak RNFL thinning >4.5 µm/year, Two strongest actionable predictors of rapid progression; escalate therapy.

Deep Dive — Evidence Details

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