Three-dimensional Multipurpose Scanning Microscopy Probes

Novel technology revolutionizes scanning probe microscopy

Summary

Atomic force microscopy (AFM) revolutionized science by enabling nanoscale analysis of materials and biological systems, with the market projected to exceed $1 billion by 2030. Traditional AFM probes suffer from significant limitations in resolution and versatility. Current probes are costly to manufacture and are often designed for single-use purposes, making them not adaptable for complex geometries. This restricts their application in rapidly evolving research areas like biomedical diagnostics, cellular imaging, and nano-engineering.

NYUAD scientists have developed customizable, three-dimensional, high-resolution probe tips that can be tailored to a variety of scanning microscopy techniques. The probes are made from SU8 epoxy-based resin, further enhanced with nanomaterials like carbon nanotubes to improve durability and sensitivity. This solution offers distinct advantages over existing probes.

Applications and Uses

The market for advanced microscopy technologies is growing rapidly, driven by increasing demand for high-resolution imaging. The invention has significant potential in the fields of biotechnology and medical research.

Industrial sectors that benefit from this innovation include:

  • Biomedical Research and Diagnostics by high-precision manipulation and imaging of cells, tissues, and biomolecules.
  • Nanotechnology and Materials Science to investigate nanoscale materials and structures for new material discoveries, energy storage, and electronics.
  • Semiconductor industry to ensure quality control and foster innovation demands highly precise imaging techniques due to the miniaturization of electronic components.

Principal Investigator

Dr. Mohammad Qasaimeh
Associate Professor of Mechanical Engineering and Bioengineering New York University Abu Dhabi

Intellectual Property Patent Number: US20220146549
Current Assignee: New York University in Abu Dhabi Corp.

Engagement Opportunities

We are offering opportunities for joint ventures, collaborative pilot studies and licensing with industry partners to further develop and commercialize this technology.

High resolution imaging performance of FIB-etched and CNT-integrated 3DTIPs. Dr. Mohammad Qasaimeh, NYUAD.

Value Proposition

Effectiveness 
The patented voltage-driven ion-selective layer minimizes fouling, offering significant energy advantage over reverse osmosis.

Scalability
The membrane is adaptable for highthroughput applications, overcoming limitations of microfluidic approaches.

Versatility
Its unique architecture enables the membrane to be used in diverse sectors, including water treatment, industrial processing, and sample preparation.

Durability
Unlike conventional thermal desalination technologies, the membrane is designed to resist corrosion and scaling, making it ideal for long-term industrial applications.

Precision
The technology allows for ion, particle and molecule filtration, enhancing efficiency for specialized separation applications.