ICeNd develops UNanoD®, a lab‑on‑nanochip platform that unifies nanoanalytical and quantum technologies for real‑time manipulation of single molecules, atomic defects, and quantum sensing. Their flagship quantum nanomaterials and nanofluidics enable sub‑25 nm fluid channels, single‑atom precision material modification, and universal solutions across optics, electron‑optics, X‑ray, and nanoelectronics. The technology is offered as robust nanoDs for industry, research, education, and standardisation.
Funding
Funding not disclosed
Founders
Product
Problem
Current nanoscale analysis and manipulation tools are limited to bulky, specialized equipment that cannot operate in real time or integrate multiple quantum and fluidic functions on a single platform, restricting access for many industrial, research, and educational users.
Solution
ICeNd’s UNanoD® platform combines sub‑25 nm nanofluidic channels with quantum nanomaterials on a lab‑on‑nanochip to enable real‑time handling of single molecules, atomic‑scale defect modification, and quantum sensing. The integrated nanofluidic‑quantum architecture provides a universal interface for optics, electron‑optics, X‑ray, and nanoelectronics applications. By delivering single‑atom precision material modification and fluidic control within a compact chip, the technology allows users to perform complex nano‑analytical tasks without the need for large‑scale instrumentation. ICeNd also incorporates physics‑driven AI to automate measurement interpretation and process control, further lowering the expertise barrier.
Target Audience
Primary customers are semiconductor manufacturers, advanced materials research labs, and university nanotechnology programs that require precise, real‑time nanoscale manipulation and measurement capabilities.
Features
- Sub‑25 nm nanofluidic channels that transport and manipulate individual molecules in real time
- Quantum nanomaterials integrated on‑chip for high‑sensitivity quantum sensing and atomic‑defect engineering
- Single‑atom precision material modification capability applicable across optics, electron‑optics, X‑ray, and nanoelectronics
- Lab‑on‑nanochip form factor that consolidates multiple nano‑analytical functions into a single, compact device
- Physics‑driven AI algorithms for automated data analysis, defect detection, and process optimization
- Scalable “nanoD” modules designed for deployment in industry, research laboratories, and educational settings