IotaMotion develops the iotaSOFT® Insertion System, a robotic-assisted platform that standardizes cochlear implant electrode array insertion to minimize surgical variability. This technology addresses the challenges of high insertion forces and variability, reducing maximum insertion force by 51% and force variation by 78%, thereby enhancing patient safety and surgical outcomes.
Funding
$25.9M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.


RCFounders
Product
Problem
Cochlear implant surgery faces challenges related to the variability and force applied during electrode array insertion, potentially leading to trauma and inconsistent patient outcomes. Manual insertion techniques can result in excessive force and pressure spikes, increasing the risk of damage to delicate cochlear structures. This variability can affect the consistency and predictability of hearing restoration.
Solution
IotaMotion's iotaSOFT® Insertion System is a robotic-assisted platform designed to standardize cochlear implant electrode array insertion, minimizing surgical variability and enhancing patient safety. The system provides controlled insertion of the electrode array, reducing both the maximum insertion force and force variation compared to manual techniques. By controlling the speed of insertion, the iotaSOFT® system aims to reduce pressure spikes and trauma during the procedure. The platform is designed to be an open system, integrating into existing surgical workflows and expanding access to advanced technology for both surgeons and patients.
Target Audience
The primary target audience includes surgeons specializing in cochlear implantation, hospitals seeking to standardize surgical outcomes, and patients with moderate-to-severe hearing loss who are candidates for cochlear implants.
Features
- Robotic-assisted platform for precise and controlled electrode array insertion
- Reduction in maximum insertion force by 51% compared to manual techniques
- Reduction in insertion force variation by 78%
- Controlled insertion speed to minimize trauma
- Open platform design for integration into existing surgical setups