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Anode synthesis using spray pyrolysis

Engineering & Physical Sciences
Energy, Earth, & Environmental
Battery & Fuel Cells
Materials/Chemicals
Chemicals
College
College of Arts & Sciences
Researchers
Co, Anne
Lorie Lopez, Jose
Licensing Manager
Randhawa, Davinder
614-247-7709
randhawa.40@osu.edu
External Links

T2024-044

The Need

In the realm of materials science and energy storage, there's a growing demand for innovative anode synthesis methods that yield materials with improved mechanical and electrochemical properties. Traditional synthesis techniques often fall short in achieving the desired performance metrics, highlighting the need for advancements in this field. Efficient, scalable, and reliable methods for producing high-quality anode materials are essential to meet the evolving requirements of various industries.

The Technology

Anode synthesis utilizing spray analysis of an aqueous solution represents a cutting-edge approach to material fabrication. This innovative technique involves the generation of nano to micron-sized droplets from a precursor solution through two-fluid atomization or ultrasonic atomization. The droplets undergo size shrinkage due to solvent evaporation, leading to the conversion of the precursor into solid particles. The resulting particles exhibit improved mechanical and electrochemical properties, paving the way for enhanced performance in energy storage applications.

Commercial Applications

  • Lithium-ion batteries for electric vehicles and portable electronics
  • Energy storage systems for grid-scale applications
  • Supercapacitors and hybrid energy storage devices
  • Aerospace and defense technologies
  • Medical devices and implantable electronics

Benefits/Advantages

  • Enhanced performance: Improved mechanical and electrochemical properties lead to higher efficiency and durability in energy storage devices.
  • Scalability: The spray analysis technique allows for efficient and scalable production of anode materials to meet commercial demands.
  • Versatility: Suitable for various applications across industries, from consumer electronics to aerospace.
  • Cost-effectiveness: Optimized synthesis process reduces manufacturing costs while maintaining high quality.
  • Innovation potential: Continual advancements in spray analysis technology offer opportunities for further optimization and customization of anode materials for specific applications.