Products

ikartu Human

A high-precision digital platform that brings medical education, anatomy learning, and surgical planning processes into a web and application-based interactive 3D environment.

ikartu Human is an innovative human anatomy simulation platform developed specifically for medical faculties, research hospitals, medical training centers, and healthcare professionals. Surpassing the limitations of traditional two-dimensional images or physical models, it integrates the detailed 3D topology and physiological responses of the human body into a virtual environment in the most realistic way possible.

Offering the opportunity to interactively examine muscular, skeletal, nervous, and vascular systems across different layers, this product provides a workspace that reduces risks in medical education to zero. Medical students can repeat their anatomy practice limitlessly, while physicians can safely plan complex surgical interventions in a virtual environment prior to the actual operation.

Accessible from any device with its high-precision visual engine and cloud-based infrastructure, iKartu Human pushes the boundaries in the medical technologies market and positions itself as an indispensable part of modern medical education and digital surgery.

Ease of Use

A web-based and accessible experience

Interactive Experience

Actively involves users in the content

Flexible Structure

Adaptable to different sector needs

Enterprise Fit

Customizable for brands and workflows

Frequently Asked Questions

Which platforms does iKartu Human work on?

iKartu Human is optimized to run with high performance on Windows and macOS computers, iOS/Android tablets, as well as an installation-free web-based version.

Can medical training modules be customized?

Yes, custom pathology scenarios, specific organ details, or surgical intervention steps can be added to the system in accordance with the curricula of universities or hospitals.

Does iKartu Human include medical device simulations?

In addition to human anatomy, the physical interactions of medical tools such as endoscopy devices, scalpels, and ultrasound probes with virtual tissues are realistically simulated within the system.