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  • About Us
  • Products
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    • Product R&D Consultancy
    • Lab Set-Up Consultancy
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    • IDEs for Biosensors
    • Antibacterial Coatings
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    • Dental Implants
    • Orthopedic Implants
    • Anode for EV Batteries
  • Contact Us

TiO₂ Nanotube Electrodes for Electric Vehicle Batteries

The transition to electric vehicles (EVs) represents a transformative shift in global transportation and sustainability. At the heart of this revolution lies energy storage and conversion systems—most notably, batteries and supercapacitors.


As the demand for higher performance, faster charging, and longer lifespan continues to grow, so does the need for innovative electrode materials.


One of the most promising materials to emerge in recent years is Titanium Dioxide (TiO₂) Nanotubes. These nanostructures offer a unique combination of high surface area, structural stability, and electrochemical tunability, making them ideal for next-generation EV anodes.


At Schnaiffer, we manufacture high-quality, vertically aligned TiO₂ nanotube arrays on titanium substrates through electrochemical anodization, optimized specifically for research and industrial evaluation in EV applications.

Next-gen binder-free, copper-free TiO₂ nanotube anode technology for efficient EV batteries.

TiO₂ Nanotubes as Anode

High-purity vertically aligned TiO₂ nanotube electrode surface under SEM.

Why TiO₂ Nanotubes for EV Electrodes?

  • High Cyclability: TiO₂ shows minimal volume      change during lithiation, improving long-term performance.
  • Fast Charging: Nanotubular morphology shortens lithium diffusion paths.
  • Safe Operating Potential: With an insertion      potential of ~1.7V vs. Li/Li⁺, TiO₂ minimizes the risk of lithium dendrite  formation.
  • Environmentally Friendly : TiO₂ is abundant, non-toxic, and low cost.
  • Thermal Stability: Performs well under high-temperature conditions.

Rechargeable EV battery showcasing TiO₂ nanotube-based anode performance.

Applications

  • Anodes for Lithium-ion Batteries
  • Anodes for Sodium-ion Batteries
  • Hybrid Capacitors (Battery + Capacitor systems)
  • Fast-charging EV battery modules 

Controlled cleanroom facility for TiO₂ nanotube electrode fabrication and testing.

Our Fabrication Process

Schnaiffer manufactures TiO₂ nanotubes through an optimized electrochemical anodization process:


Our process ensures:

  • Uniform tube morphology
  • Strong adhesion between the nanotubes and anode
  • Crystalline phase control for EV performance tuning


We can deliver in bulk formats or custom electrode sizes. 

Typical Challenges Solved

Low Anode Stability in Commercial Batteries

Standard graphite anodes experience degradation over time. TiO₂ nanotubes offer stable cycling behavior with minimal capacity fade.

Poor Rate Performance in EV Cells

The unique nanotubular structure allows rapid lithium-ion insertion and extraction, improving rate capability. 

Electrode Swelling and Mechanical Damage

TiO₂ nanotubes exhibit near-zero volume expansion during charge-discharge cycles, minimizing structural damage. 

Difficult Material Integration

With pre-grown arrays on Ti foil, our electrodes are plug-and-play for lab-scale and pilot-scale testing  

Use Cases

TiO₂ anodes have been successfully tested in

  • High-voltage LIBs (Lithium-Ion Batteries)
  • Solid-state battery configurations
  • Sodium-ion battery stacks for grid storage
  • Hybrid supercapacitor modules


They have shown performance metrics such as:

  • Capacity retention >90% after 500 cycles
  • 5–10 minute fast charging without thermal runaway
  • Compatibility with carbon, graphene, and conductive      polymer coatings


We provide performance data sheets, sample electrochemical curves, and references from published research using nanotubes.

Hands installing a TiO₂ nanotube-enhanced battery module for electric vehicles.

Compatibility and Integration

TiO₂ anodes are compatible with:

  • Standard coin-cell and pouch-cell configurations
  • Binder-free assemblies
  • Hybrid electrode designs with other nanomaterials


They can be used with:

  • Commercial electrolytes (LiPF₆, NaClO₄, etc.)
  • Organic/inorganic solid electrolytes
  • Electrochemical test systems (Gamry, CH Instruments, etc.)


We also provide consulting for integration into full battery prototypes.

Advanced testing setup for evaluating TiO₂ nanotube anode compatibility in EV batteries.

Partner with us to power your EV

Trusted performance and reliability of Schnaiffer’s TiO₂ nanotube anodes for EVs.

Why Choose Schnaiffer?

Why Choose Schnaiffer?

Why Choose Schnaiffer?

  • Research Expertise: Built by scientists, for  scientists
  • Trusted Quality: 100% QC done before dispatch
  • Global Reach: Already supplied to labs in India, Europe, and SE Asia
  • Customization: Truly tailor-made for researchers

Expert team optimizing TiO₂ nanotube electrode systems for scalable EV integration.

Technical Support

Why Choose Schnaiffer?

Why Choose Schnaiffer?

  • SEM/EDS image 
  • Thickness profile
  • Crystalline phase identification (XRD)
  • Sheet resistance (if coated)
  • Usage guide + SOP  


Data-driven performance validation of TiO₂-based EV battery technologies.

How to Order

Why Choose Schnaiffer?

How to Order

Send your requirements to:


support@schaniffer.com


  • Dimensions and thickness of electrodes
  • Expected number of cycles/application field


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