Multiwalled Carbon Nanotube Electrode and a Method of Synthesis Thereof
Categories for this Invention
Categories: Micro & Nano Technologies | Energy, Energy Storage & Renewable Energy
Industry:Â Electronics and sensors, Energy, Healthcare, Aerospace, Automotive
Applications: Lithium-ion battery, Biosensors, Fuel cells, Nanoelectronics, Strain Sensors
Market: The global multi-walled carbon nanotubes market size is expected to grow from $5.25 Billion in 2021 to $10.74 Billion by 2028, rising at 10.8% CAGR from 2021-2028.
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Problem Statement
- Existing Multiwalled carbon nanotubes synthesis methods yield insufficient MWCNTs, hindering scalability and cost-efficiency.
- The use of expensive catalysts drives up production costs, limiting market competition.
- Current technologies struggle to achieve high capacities and durable batteries, hindering their adoption in various applications.
- Traditional sensor fabrication method is complex and time-taking, limiting widespread adoption of sensitive & reliable sensor technology.
- The absence of standardized protocols and quality control measures in MWCNT production leads to varying product quality, challenging industry adoption & regulatory compliance.
- Hence, the instant invention is needed to address these issues by disclosing a scalable & cost-effective method to synthesize high yield Multiwalled Carbon Nanotube Electrode.
Technology
A method for Multiwalled Carbon Nanotubes (MWCNTS) Electrode synthesis is disclosed here.
Method
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Key Features / Value Proposition
User perspective:-
- High-performance, long-lasting batteries with enhanced energy storage capabilities.
- Reliable and efficient biosensors for accurate and sensitive detection. Versatile strain sensors for precise and real-time monitoring.
Industrial perspective:-
- Cost-effective production method for large-scale manufacturing.
- Increased production yield and purity, reducing overall production costs.
- Enhanced competitiveness and market potential in various industries.
Technology perspective:-
- Cutting-edge synthesis technique utilizing advanced catalyst and substrate materials.
- Optimization of reaction parameters for superior MWCNTs quality and properties.
Questions about this Technology?
Contact For Licensing
sm-marketing@imail.iitm.ac.in
ipoffice2@iitm.ac.in
Research Lab
Prof. Ramaprabhu S
Department of Physics
Intellectual Property
IITM IDF No: 1773
IP No: 494415 (Granted)
Technology Readiness Level
TRL-4
Validated in Laboratory