Development of an electrochemical advanced manufacturing technique for the production of low-cost carbon nanotubes from carbon dioxide
Carbon nanotubes have long been touted as the supermaterial that would change the world, with applications ranging from energy, electronics, automotive, aerospace, and medical. However, they have thus far achieved limited commercial success due to their high price, which is a result of the energy intensive limited-scale manufacturing methods currently deployed, which often have environmentally harmful by-products.
SkyNano has developed an electrochemical manufacturing technology to produce carbon nanotubes in a scalable ambient pressure system, and uses only inputs of CO2 and electricity, resulting in low operating expenses and no toxic by-products. This technology will enable new products and applications due to the low-cost and scalable nature of the technology.
We are looking for:
Critical need for this technology:
Many technological innovations such as better batteries, stronger and lighter-weight materials for building, auto, and aero applications, and next-generation electronics rely on advanced materials such as carbon nanotubes which are currently too expensive for most applications.
Supplemental needs for this technology:
The cost and practicality of carbon dioxide conversion relies on the ability to produce high value secondary products from carbon dioxide, which is enabled by conversion to technologically valuable materials such as carbon nanotubes.
Other carbon nanotube manufacturers.
SkyNano advantage: low capital expenses, low operating expenses, no toxic by-products, simple feedstock and inputs: electricity and CO2
Other advanced materials such as graphene
SkyNano advantage: Carbon naontubes have been researched for the past 2 decades, and despite their high cost bottlenecking commercial success, the materials have already been developed into many applications by both commercial and academic sectors. SkyNano’s technology will allow these applications to reach the market through economic feasibility enabled by our low-cost manufacturing technology.
Development of an electrochemical manufacturing technique for the production of carbon-based nanomaterials using carbon dioxide and electricity to enable low-cost and sustainable manufacturing of advanced carbon materials for a variety of applications.
R&D Status of Product:
Proof of concept demonstration for growth of multi-walled carbon nanotubes at Vanderbilt University and basic understanding of how catalysts influence resulting carbon nanotube structures. The next step is to apply this understanding to make controlled small diameter catalysts for single-walled carbon nanotube growth.
Anna Douglas, CEO – PhD candidate in Interdisciplinary Material Science at Vanderbilt University, BS in Chemistry and Mathematics from Lee University
Cary Pint, CTO – PhD in Applied Physics from Rice University
Dr. Dave Geohegan,CNMS Functional Hybrid Nanostructure Group Lead, Oak Ridge National Laboratory
Dr. Gyula Eres, Thin Films and Nanostructures Group Member, Oak Ridge National Laboratory
James Staargaard, Former President/CEO/Board Member, Plasan Carbon Composites
Dr. Marie Thursby, Adjunct Professor of Management, Vanderbilt University
Dr. Michael Meador, Program Element Manager, Lightweighting Materials and Manufacturing, Game Changing Development Program, NASA Glen Research Center
Lynn Youngs, Executive Director, Anderson Center for Entrepreneurship and Innovation, University of Tennessee
Dr. Gary Rawlings, Entrepreneur in Residence
“Sustainable Capture and Conversion of Carbon Dioxide into Valuable Multiwalled Carbon Nanotubes Using Metal Scrap Materials.” A Douglas, N Muralidharan, R Carter, CL Pint, ACS Sustainable Chemistry & Engineering 5 (8), 7104-7110
“Iron catalyzed growth of crystalline multi-walled carbon nanotubes from ambient carbon dioxide mediated by molten carbonates.” A Douglas, R Carter, N Muralidharan, L Oakes, CL Pint, Carbon 116, 572-578
“Electrochemical Growth of Carbon Nanotubes and Graphene from Ambient Carbon Dioxide: Synergy with Conventional Gas-Phase Growth Mechanisms.” A Douglas, CL Pint, ECS Journal of Solid State Science and Technology 6 (6), M3084-M3089
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