Innovative 3D battery electrode printing technologies

Printing is a popular technique used for various reasons when it comes to batteries. One of the main advantages is the ability to create special electrode structures. Additionally, screen printing is a cost-effective method for mass production of batteries, making it an efficient choice for manufacturers. Another benefit is the flexibility it provides in terms of battery shapes and sizes.

Our approach integrates screen, aerosol, and inkjet printing technologies to improve ion transport and regulate thermal conditions in printed lithium-ion batteries. This will enable batteries to achieve faster charging times and improved safety standards.

Technical characteristics

• Layered 3D architecture: Utilization of additive manufacturing techniques to create intricate three-dimensional electrode structures.
• Customizable design: Tailored electrode designs to accommodate specific battery configurations and performance requirements.
• High precision printing: Advanced printing technologies ensure precise deposition of electrode materials.
• Porosity control: Fine-tuning of porosity within electrode layers to optimize electrolyte penetration and ion diffusion.
• Multi-material integration: Integration of multiple electrode materials within complex 3D architectures, enabling synergistic effects and improved overall battery performance.
• Structural integrity: Robust fabrication techniques and material selection to ensure structural integrity and long-term stability under various operating conditions.
• Scalability and cost-effectiveness: Scalable manufacturing processes are designed for the cost-effective production of 3D battery.

Services offered

• Tailored design solutions for battery electrode printing screens to maximize efficiency and performance
• Fine-tuning printing parameters to achieve optimal results in battery fabrication processes
• Rigorous quality assurance procedures ensure the reliability and consistency of printed battery components:
  • Precise control over printing thickness to meet the exact specifications required for optimal battery performance
  • Accurate measurement of surface roughness on printed surfaces and substrates to maintain quality standards
  • Comprehensive analysis of printed interfaces to assess microstructural characteristics for enhanced performance