The mean age was 10.47 years, with a median of 11 years. The range was 2 to 17 years.

Regarding gender, male patients accounted for 80% (n = 24), with a sex ratio of 4.

In terms of education level, patients with primary education predominated (50%), followed by those with secondary education (26.67%); illiterate patients and those with Franco-Arabic education represented 16.66% and 6.6%, respectively (See Figure 1).

Figure 1.Distribution of patients by age group (n = 30).

The most common reason for consultation was decreased visual acuity (69.99%), followed by leukocoria (23.33%).

Regarding the anatomical type of cataract, total cataracts were the most frequent (57%), followed by lamellar cataracts (20%) (See Table 1).

Table 1. Distribution of patients according to anatomical type of cataract (n = 30).

In terms of etiology, congenital cataract accounted for 54% (n = 16), followed by traumatic cataract at 43% (See Figure 2).

Figure 2. Distribution of patients according to etiological type (n = 30).

Regarding the surgical technique, the majority of patients (83%; n = 25) underwent phaco-alternative (Phaco-A) surgery with intraocular lens implantation (See Figure 3).

Regarding postoperative pharmacological treatment, all patients received a combination of local medications: mydriatic eye drops (tropicamide, atropine), NSAID eye drops, and a fixed-dose combination of antibiotic and corticosteroid (in both eye drop and ointment forms). Systemic pharmacological treatment included corticosteroids, antibiotics, and analgesics.

Regarding the duration of postoperative follow-up, patients seen at the 12-week follow-up mark accounted for 56.64% (See Table 2).

Figure 3. Distribution of patients by surgical technique (n = 30).

Table 2. Distribution of patients by postoperative follow-up period (n = 30).

Preoperative distance visual acuity

Patients with a preoperative distance visual acuity between VBLM and CLD accounted for 40%, followed by those with a preoperative distance visual acuity of PL(+) (20%).

In 4 patients (due to age or communication difficulties), preoperative visual acuity could not be measured (See Table 3).

Table 3. Distribution of patients according to postoperative uncorrected distance visual acuity (n = 30).

More than half of the patients had an uncorrected postoperative visual acuity between 1/20 and 3/10. Corrected distance visual acuity (Skiascopy/AR) (See Table 4).

Table 4. Distribution of patients according to corrected distance visual acuity (n = 30).

Patients who had not yet undergone retinoscopy for optical correction accounted for 73.34%.

In our study, the mean age was 10.47 years, with a median of 11 years. The age range was 2 to 17 years, with the highest frequency of patients falling between 10 and 15 years of age. The lower age limit of 2 years might be explained by the fact that some parents pay close attention to their child’s visual behavior from a very early stage.

Conversely, the upper age of 17 years might suggest that some parents are less concerned about their child’s eye health, potentially explaining delayed diagnosis and/or treatment. However, these extremes could also be attributed to delays in seeking an ophthalmological consultation; ultimately, parents may or may not prioritize their child’s eye health.

Furthermore, financial constraints or sociocultural factors could explain why parents might prefer alternative solutions to address their child’s eye health issues in general, and pediatric cataracts specifically. Additionally, diagnostic delay is common in such cases—whether due to the child’s young age and limited verbal communication skills, the fact that a unilateral drop in visual acuity is often well-tolerated, or reluctance to admit to an accident that went unnoticed by those around the child [5].

In our series, there is a male predominance of pediatric cataracts. Boys account for 80% of all the children, representing a sex ratio of 4:1. This slight male majority—also observed in developing countries—could be explained by the fact that the preponderance of boys is likely the result of the greater value placed on male children in traditional societies [6].

Several studies have identified this trend [1][7], in contrast to the samples studied by Louison [8], which showed a female majority.

Currently, there is no established link between gender and the incidence of cataracts. A female predominance is sometimes attributed to parental sensitivity regarding the health issues of female children, as the latter are perceived as more fragile than their male counterparts [9].

Among the patients who underwent surgery, those with a primary education level predominated (50%), followed by those with a secondary education level (26.67%). The majority of patients in our study had received some form of schooling. This could be due to the fact that these patients came from urban areas where free schooling policies were implemented.

Unilateral decreased visual acuity was the most common reason for consultation (70%, n = 21), followed by leukocoria (23%). These results are similar to those of Takou et al. [10] in Cameroon (2018), who found decreased visual acuity (46.3%, n = 37) and leukocoria (37.5%, n = 30) to be the primary reasons for consultation among children with congenital cataracts.

This may be explained by the fact that traumatic cataracts account for a significant proportion of pediatric cataracts; furthermore, congenital cataracts can be unilateral.

However, other authors—such as Nomo Af (75%) [3] and Toshiyuki (34.7%) [11]—identified leukocoria as the most frequent reason for the initial consultation, albeit with different proportions. This could be explained by the fact that leukocoria, being the most visible sign of the condition, draws parental attention. Parents and those around the child—who are the first to notice a white pupil may not initially realize the critical significance of this symptom.

Anatomical type of cataract (Topography)—Diagnosis

Total cataracts were the most frequent (57%), followed by lamellar cataracts (20%). Our results align with those of Sylla Aly et al. [12] in Conakry, whose study on the epidemiological, clinical, and therapeutic aspects of congenital cataracts found a 100% prevalence of total cataracts.

In our study, the diagnosis of congenital cataract was the most common (54%), followed by traumatic cataract (43%).

The majority of patients underwent “phaco-alternative” surgery with lens implantation (83%); 10% underwent phaco-alternative surgery without intraocular lens implantation; and 7% underwent extracapsular cataract extraction via keratotomy with implantation.

The patients who did not receive an intraocular lens included trauma cases with posterior capsule rupture and a two-year-old infant with congenital cataract. The cases involving extracapsular extraction via keratotomy with implantation were instances of post-traumatic cataract.

Manual small-incision cataract surgery is a promising alternative to phacoemulsification the gold standard for cataract treatment which remains largely inaccessible in low-income countries due to its high cost. Phaco-alternative surgery, or SICS (Small Incision Cataract Surgery), yields results comparable to phacoemulsification; furthermore, it is tending to supersede extracapsular extraction and become the standard technique in low-income countries, though it is a relatively recent practice in our country [13].

All patients (100%) received postoperative pharmacological treatment via both local and systemic routes; this regimen consisted of local and systemic corticosteroids, antibiotics, and a mydriatic agent. Inflammatory reaction is the primary concern for all pediatric ophthalmologists, necessitating the earliest possible initiation of anti-inflammatory treatment; however, this treatment is primarily preventive in nature.

It is important to note that managing postoperative inflammatory reactions relies on specific measures, including sound surgical practice with an emphasis on: a clean, bloodless corneal incision (minimizing contact between blood-borne inflammatory factors and the anterior chamber); minimizing iris trauma through adequate intraoperative dilation; aspiration of all lens matter and capsule polishing; routine anterior vitrectomy; and in-the-bag implantation to avoid uveal contact, a source of chronic inflammation. Cycloplegia and topical corticosteroids help control inflammation. Systemic corticosteroid therapy for five to ten days postoperatively appears to reduce inflammation.

Some authors use heparin-coated implants, which have proven effective in reducing the incidence of inflammatory reactions in children.

Indeed, managing this condition continues to challenge pediatric ophthalmologists, despite advances in diagnostic and therapeutic approaches, as predicting the axial growth of an operated eye and the accompanying refractive changes remains a significant hurdle [14].

The largest group of patients (56.64%) was seen at the 12-week postoperative follow-up mark. This timeframe represents the follow-up point at the time of the survey rather than the total duration of postoperative monitoring. This timing is justified by the need for close postoperative ocular monitoring to detect potential immediate, secondary, or late complications, as well as to evaluate and assess the functional prognosis.

Regarding functional outcomes, visual acuity could not be assessed in 10% of patients due to their young age. More than half (56.67%) of the patients had an uncorrected postoperative visual acuity between 1/20 and 3/10, while 16.66% had acuity between 3/10 and 6/10.

One patient had only light perception; this could be explained either by uncertainty regarding the preoperative visual acuity (whether it was adequate or not) or by the nature of the intraoperative lesions observed.

Patients with corrected distance visual acuity (determined via retinoscopy) accounted for 26.66% of the total, falling into the following acuity ranges: [1/20 - 3/10[, [3/10 - 6/10[, and ≥6/10. Conversely, 73.34% had not yet undergone retinoscopy for optical correction.

These results appear consistent with those of Lassana Coulibaly in Mali [15], who found an uncorrected postoperative visual acuity of ≥3/10 in 29.74% of operated eyes, as well as with the findings of Speeg-Schatz et al., albeit with differing percentages. Regarding corrected visual acuity, 21.62% of eyes showed normal vision (acuity ≥ 3/10), 16.22% were uncooperative, and 62.16% were lost to follow-up [15]. Overall, these functional results appear relatively satisfactory.

Additional optical correction following implantation, as well as correction for aphakia via contact lenses or spectacles, is provided a few days after the procedure, as soon as an objective refraction can be obtained [16].

Residual ametropia appears to be the primary cause of suboptimal functional outcomes; consequently, the introduction of echobiometry could help improve these results.