General, Room-Temperature Method for the Synthesis of Isolated as well as Arrays of Single-Crystalline ABO4-Type Nanoroda (BNL 15-22)
Pure single-crystalline metal oxide and metal fluoride nano structures. Nano structures include nanorods and nano-arrays. Background: Metal oxides and metal fluorides are important in the aspect of their structure‑related properties, including superconductivity, ferroelectricity, magnetisms and conductivity. Prior art methods of synthesizing fluoride nano-structures are by hydrothermal and or solvothermal methodological approaches, which have substantial shortcomings. These methods do not allow for the synthesis of pure single‑crystalline nano-structures with predictable size and morphology. Technology Overview: Fabrication approach is critical because assembly of nanoscale components is a key for building functional devices, which will be implemented in electronics and molecular sensing. These nano-structures include nanorods and nano-arrays, and single-crystalline nanorods have the formula ABO4. The nanorods have an aspect ratio of from about 2 up to about 1000. The diameter of the nanorods ranges from about 1 to about 10,000 nm. Advantages: Single crystalline nano-rod having the mixture wherein the nano-rod is at least about 95% free of defectors and or dislocations, free of surfactant molecular groups and the nano-rod is isolated. The invention allows for the fabrication of nano-arrays in a predictable and reproducible manner. Applications: Nanotechnology Intellectual Property Summary: Patented Stage of Development: Licensing Potential: Development partner,Commercial partner,Licensing Licensing Status: Available for License. Stony Brook University seeks to develop and commercialize, by an exclusive or non-exclusive license agreement and/or sponsored research, with a company active in the area. 7794 Additional Information: fluoride,crystalline,array,superconductivity,conductivity,sensing,surfactant,nanotechnology,nano,metal oxides,nanostructured material,nanostructures,nano-structured material,superconducting,conductive,conductive material,nanofabrication,electrical sensor,methods,nanorod,morphology,electronics https://stonybrook.technologypublisher.com/files/sites/mjoivqvsqxalft86zdhi_5pdeunaosdy.jpg Please note, header image is purely illustrative. Source: Wolphgang9872, Wikimedia Commons, CC BY-SA 4.0.