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Case Report | Ophthalmology
1 (
1
); 44-47
doi:
10.25259/TEE_11_2025

Metallic axe-induced ocular trauma leading to irreversible vision loss and globe evisceration: A case report

Department of Ophthalmology, The Retina Centre, Guwahati, Assam, India.
Department of Critical Care, Guwahati, Assam, India.
Department of Plastic and Reconstructive Surgery, Guwahati, Assam, India.
Department of Maxillofacial and Reconstructive Surgery, Cosmo Medical, Guwahati, Assam, India.

*Corresponding author: Pranamee Das, Department of Ophthalmology, The Retina Centre, Guwahati, Assam, India. pranameetrc2025@gmail.com

Licence
This is an open-access article distributed under the terms of the Creative Commons Attribution-Non Commercial-Share Alike 4.0 License, which allows others to remix, transform, and build upon the work non-commercially, as long as the author is credited and the new creations are licensed under the identical terms.

How to cite this article: Das P, Ahmed SU, Das JK, Sharma M, Hazarika H, Brahma D, et al. Metallic axe-induced ocular trauma leading to irreversible vision loss and globe evisceration: A case report. East Eye. 2025;1:44–47. doi: 10.25259/TEE_11_2025

Abstract

ABSTRACT

A 28-year-old female from Chatpara, Bongaigaon, Assam, presented to our outpatient department following a physical assault with a metallic axe by her husband. She sustained complex craniofacial injuries, including an open globe injury (OGI) in the left eye, multiple facial lacerations, and comminuted fractures of the facial bones. Following initial stabilization at a local hospital, she was referred to our center for definitive management. Multidisciplinary surgical interventions were carried out, including maxillofacial reconstruction, ocular evisceration, and prosthetic implantation. This report highlights the clinical presentation, radiological findings, and surgical management of a severe assault-related craniofacial trauma case.

Keywords

Craniofacial fractures
Domestic assault
Evisceration
Ocular trauma
Open globe injury
Prosthetic eye

INTRODUCTION

An axe, though considered a primitive hand tool, serves as a biomechanical wedge capable of causing both sharp and blunt force trauma. Assaults involving such tools are uncommon but often result in devastating injuries. In the Indian legal context, such assaults fall under serious criminal charges, including IPC Sections 307, 326, 302, and 498.

Ocular trauma due to axe-related assaults is rare, especially in female victims. Most reported cases involve males and are often associated with alcohol-related violence. Open globe injuries (OGIs), particularly those involving rupture and prolapse of intraocular contents, are ophthalmic emergencies that demand urgent intervention and carry a poor visual prognosis. This case is a stark example of intimate partner violence leading to complex craniofacial trauma and irreversible vision loss.

CASE REPORT

A 28-year-old female from Chatpara, Bongaigaon, Assam, India, presented to our outpatient department after sustaining a violent assault with a metallic axe by her husband at home. The patient had initially been managed at a local healthcare facility, where she received resuscitation and primary surgical wound closure. She was subsequently referred to our center for further evaluation and definitive care.

Clinical presentation

On general examination, the patient was conscious with a Glasgow Coma Scale score of E4V4M5. There was no history of loss of consciousness, vomiting, or seizures at the time of injury. Multiple stitched wounds were noted on the scalp, face, nose, jaw, and hands. There were no systemic.

Initial ocular assessment revealed visual acuity of finger counting at 6 m in the right eye (RE) and no perception of light (PL–) in the left eye (LE). Bilateral periorbital oedema with ecchymosis (LE > RE) was present. Spontaneous eye opening and full range of motion were observed in the RE. The LE exhibited no spontaneous eye opening, and on manual elevation of the eyelid, an OGI was noted, characterized by a 12 mm corneal tear with prolapse of the iris, lens, and vitreous. Extraocular movements were preserved in the LE. A linear cut injury was also noted on the left upper eyelid margin.

Slit-lamp examination of the RE revealed

  • Conjunctival congestion

  • Clear cornea

  • Pupil: round, regular, 2 mm, reactive to light and accommodation reflexes

The LE ball appeared disorganized, with loss of globe integrity.

Imaging findings

CT brain

Comminuted displaced fractures in the left frontal bone, right frontal bone, and left parietal region [Figure 1].

Computed tomography of the brain showing cranial fractures (red arrow).
Figure 1:
Computed tomography of the brain showing cranial fractures (red arrow).

CT face with 3D reconstruction

Comminuted displaced fractures of the bilateral zygomatic bones.

Fracture of the mandible involving the symphysis menti and paramedian bodies of both hemimandibles.

Chip fractures of the hard palate (right side) and anterior nasal spine.

Irregular configuration and soft tissue swelling of the LE ball.

Fractures of the superior orbital ridge and cranial vault, with associated dental damage [Figures 2 and 3].

Computed tomography of the face highlighting ocular injury and orbital fractures (red arrow).
Figure 2:
Computed tomography of the face highlighting ocular injury and orbital fractures (red arrow).
3D reconstruction of facial fractures (red arrows).
Figure 3:
3D reconstruction of facial fractures (red arrows).

Figure 4 shows the preoperative condition of the patient, while Figure 5 illustrates the immediate postoperative appearance.

Preoperative facial appearance.
Figure 4:
Preoperative facial appearance.
Immediate postoperative appearance.
Figure 5:
Immediate postoperative appearance.

Laboratory investigations

ParameterValue Hemoglobin 7.8 g/dl, total leukocyte count 16,200 cells/µl, serum creatinine 0.71 mg/dl, serum sodium 140 mmol/l, serum potassium 3.9 mmol/l.

Surgical management

A multidisciplinary surgical approach under general anesthesia was undertaken involving the maxillofacial and plastic surgery teams to address the extensive facial injuries and restore anatomical symmetry. A 1.5 mm locking titanium miniplate (10-hole) was contoured and positioned along the frontozygomatic suture and secured using 6 mm locking screws to achieve stable fixation. Additionally, at the zygomaticomaxillary buttress, a 4-hole L-shaped titanium plate was adapted and fixed using 6 mm screws to restore facial contour and buttress support. The plastic surgery team performed primary wound reconstruction following thorough wound toileting and debridement. Absorbable sutures were used for layered closure of facial lacerations, ensuring optimal aesthetic and functional outcomes. For scalp lacerations, nonabsorbable sutures were employed.

Given the OGI in the LE with prolapse of intraocular contents and confirmed absence of light perception, a left ocular evisceration was performed. This was followed by the implantation of a polymethylmethacrylate (PMMA) prosthetic implant and placement of a silicone conformer. A custom-fit PMMA prosthesis was planned for a later date. The upper LE lid margin laceration was repaired using 8-0 Vicryl sutures.

The postoperative period was uneventful.

DISCUSSION

According to Zhou Y et al.,1 open globe injuries are full-thickness defects of the eyewall and are often differentiated by the mechanisms of injury from which they are caused: sharp or blunt trauma. They are ocular emergencies and can lead to substantial visual morbidity. Without timely intervention, damage is irreversible and leads to permanent vision loss. On inspection, any extruded intraocular tissue is diagnostic of an open globe injury. The dark coloured uvea frequently prolapses, typically from zone II, and is highly visible against the sclera, while beads of vitreous are transparent and may be difficult to identify.1 Zachariades N et al.2 reported blindness after facial fractures to occur with an incidence that ranges between 0.67% and 3% depending on the reporting institution. Vision loss was more frequently encountered in Le Fort III level fractures (2.2%), followed distantly by Le Fort II level fractures (0.64%) and zygomatic fractures (0.45%).2 Marta A et al. also found that home was the most common location of trauma (46.3%).3 Vaca EE et al.4 found blindness associated with penetrating injury, zygomaticomaxillary complex fracture, admission Glasgow Coma Scale score less than or equal to 8, and globe injury spanning all three eye zones. They also recommend that orbital fracture repair not be delayed in the hopes of eventual visual recovery in cases of high-velocity projectile trauma.4 Schmidt GW et al.5 stated that the presence of a relative afferent pupillary defect and poor initial visual acuity were the most predictive of complete loss of vision; the presence of lid laceration and posterior wound location also predicted poor visual outcomes.5 Moharana B et al.6 also stated prognostic factors to be globe rupture, posterior segment injury, and presence of orbital fracture, with the velocity of impact as an additional predictor of visual outcome. Ocular trauma is a major cause of uniocular blindness in India, with incidence rates ranging from 4.5% to 7.5%. It has significant financial implications and severely affects the physical and psychological well-being of the patient.6 Chotprasert N et al. also found that patients with ocular loss tend to have physical and psychosocial difficulties.7

CONCLUSION

Severe facial and ocular trauma secondary to assault demands immediate and comprehensive management. This case demonstrates the importance of early recognition, surgical intervention, and long-term reconstructive planning in optimizing outcomes for patients with such complex injuries.

Ethical approval:

Institutional Review Board approval is not required.

Declaration of patient consent:

The authors certify that they have obtained all appropriate patient consent.

Financial support and sponsorship:

Nil.

Conflicts of interest:

There are no conflicts of interest.

Use of artificial intelligence (AI)-assisted technology for manuscript preparation:

The authors confirm that there was no use of artificial intelligence (AI)-assisted technology for assisting in the writing or editing of the manuscript and no images were manipulated using AI.

REFERENCES

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