The Transorbital Surgical Simulation Model is a precision-crafted, life-size 3D anatomical model offering detailed visualisation of the bony orbit, foramina, fissures, and optic canal. Its unique removable orbit design allows for hands-on study, surgical planning and surgical simulation.

Gain a multi-angled perspective of the greater and lesser sphenoid wings, anterior clinoid process, and key structures for accessing the middle cranial fossa, including the cavernous sinus, Meckel’s cave, and temporal lobe. Visualise cranial nerves III, IV, V₁–V₃, and VI, along with their intracranial and orbital relationships, to enhance understanding of the lateral transorbital approach to middle cranial fossa pathology. The model accommodates interchangeable components to explore anatomy relevant to Sternberg Canal defects via a lateral transorbital approach.

Crafted with exceptional realism using advanced materials and engineering for lifelike anatomy and tactile feedback, the Transorbital Model has been developed in close consultation with Darlene Lubbe, a global leader in transorbital endoscopic and skull base surgery.

The Transorbital Surgical Simulation Model is not only an invaluable tool for learning and surgical practice, but also a visually striking model, making it a perfect addition to any practitioner’s desk. The full kit includes an additional holster of three surgical simulation orbits, and a convenient carry bag – although all parts are available individually as well.

TR33-FK

Transorbital Surgical Simulation Model Full Kit

Includes all transorbital products: cranium and flesh with rotatable mount, 3 clear orbits with and without Sternberg Canal defects, 4 flesh and bone surgical simulation orbits, A4 plate with rim, and carry bag.

R60 000 / $3 550 /
£2 660 / €3 050

TR33-CF-SSB

Cranium with flesh and solid orbit for surgical simulation

The base structure with replaceable solid orbit for surgical simulation

R25 700 / $1 520 /
£1 140 / €1 310

TR33-SBSS-3

Surgical Simulation Orbital Segments

Features well-pneumatised sphenoid sinuses with integrated soft-tissue structures and bone for surgical simulation. Available in packs of three.

R21 000 / $1 200 / £900 / €1040

TR33-SBSS

4. Solid orbit – Surgical Sim

Features well-pneumatised sphenoid sinuses with integrated soft-tissue structures for surgical simulation

R7 000 / $400 / £300 / €350

TR33-SC

1. Transparent orbit – Normal

Transparent orbit featuring normal sphenoid anatomy

R2 400 / $135 / £110 / €120

TR33-SC/SC

2. Transparent orbit – Sternberg Canal defect

Features well-pneumatised sphenoid sinuses with Sternberg Canal defect

R2 400 / $135 / £110 / €120

TR33-SCF/SC

3. Transparent full orbit – Sternberg Canal defect

Features well-pneumatised sphenoid sinuses with Sternberg Canal defect and integrated soft-tissue structures

R7 000 / $400 / £300 / €350

TR33-CF

Cranium with flesh

The base structure into which the modular orbits fit. Also available without the flesh.

R17 360 / $994 / £746 / €860

TR33-CF-SCF

Cranium with flesh and clear full orbit

Includes cranium with flesh and clear FULL orbit with normal sphenoid bone

R24 360 / $1 394 /
£1 046 / €1 200

TR33-BAG

Padded carry bag

Custom-designed to fit the full Transorbital Surgical Simulation Model kit, with padded sides for protection and two strap options for convenient carrying.

R750 / $43 / £33 / €37

How to place an order

Orders for the Transorbital Surgical Simulation Model and related items should be directed to us via email or Whatsapp, along with your delivery address and postal code so that we can calculate delivery costs and send you a quotation.

Making payment

We prefer payment via direct bank transfer (our banking details will be provided with your quote or invoice). If a bank transfer is not possible, we will email you a secure payment link so you may pay via PayFast or PayPal.

Interchangeable orbital components

Four orbital components are available, which can be purchased individually, or as a set. The orbital components are as follows:

1. A transparent orbital module, based on normal sphenoid bone anatomy, providing an anatomically accurate reference for patient education and medical training.

2. A transparent orbital module, based on DICOM images from a patient with well-pneumatised sphenoid sinuses, providing an anatomically accurate reference for patient education and medical training, specifically to illustrate transorbital access to the sphenoid sinus in patients with Sternberg canal defects.

3. A solid orbital module based on normal sphenoid bone anatomy with integrated soft-tissue structures, including the rectus muscles and cranial nerves III, IV, V₁–V₃ and VI, designed for hands-on surgical simulation, including transorbital endoscopic procedures through the superior and lateral transorbital portals.

4. A solid orbital module, based on DICOM images from a patient with well-pneumatised sphenoid sinuses with integrated soft-tissue structures, including the rectus muscles and cranial nerves III, IV, V₁–V₃ and VI, designed for hands-on surgical simulation, including transorbital surgery to repair Sternberg canal defects.

Cranium and soft-tissue covering (flesh)

The cranium comes standard with a rotatable mount and compact base plate for added stability, as well as a clear orbit segment with normal sphenoid bone.

Optional soft-tissue covering: A removable facial skin overlay, including coverage for the orbital region, is available for enhanced procedural realism during surgical training.

Customisable base options with rotatable mount

A rotatable mount enables precise positioning of the head, ensuring optimal angles for surgical approach and anatomical study. This in turn fits onto a base plate for added stability. We offer two base plate sizes, depending on your needs:

1. A compact base plate (roughly A6 in size) for instructional and demonstration purposes. This plate is made of stainless steel.
2. A stabilising base plate (A4 in size) for enhanced support during high-precision surgical simulations. The A4 base plate features a rubber rim to contain liquids during surgical simulation, and is made of acrylic to prevent interference with navigation systems.