Titanium Crucibles in Energy Applications: Fuel Cells, Hydrogen Storage, and Batteries

This presentation explores titanium crucibles and their critical role in energy applications, including fuel cells, hydrogen storage, and battery materials. It highlights titanium’s corrosion resistance, high strength, and thermal stability, ensuring safe, efficient, and high-purity processing of advanced energy materials.

Transcript

1. Titanium Crucibles in Energy Applications: Fuel Cells, Hydrogen Storage, and Batteries Submitted By: M-Kube Enterprise Pty Ltd
2. Introduction • Growing demand for advanced energy systems requires durable, corrosion- resistant crucibles. • Titanium crucibles are ideal due to their strength, purity, and resistance to aggressive environments. • Applications: • Fuel cell research • Hydrogen storage materials • Battery electrode and electrolyte studies
3. Properties of Titanium Crucibles • High melting point: ~1668 °C • Excellent resistance to corrosion, halides, and molten salts • Biocompatible and chemically inert • Available in high purity titanium crucibles for sensitive experiments Makes crucible titanium a key material for modern energy labs
4. Types of Titanium Crucibles • Titanium Metal Crucible – general high-temperature applications • High Purity Titanium Crucible – critical for contamination-free energy material synthesis • Titanium Crucible for Metallurgy – used in alloy and hydrogen storage material development • Titanium Crucible for Laboratory Use – small-scale fuel cell and battery research Researchers often buy titanium crucibles from specialized titanium crucible suppliers
5. Role in Fuel Cells • Used for catalyst preparation and sintering of fuel cell electrodes • Crucible stability prevents contamination in proton exchange membrane (PEM) fuel cell research • Supports synthesis of ceramic electrolytes (YSZ, doped ceria) in solid oxide fuel cells (SOFCs) Titanium crucible ensures purity and durability in high-temperature fuel cell testing
6. Role in Hydrogen Storage Research • Hydrogen storage materials: metal hydrides, complex hydrides, carbon- based nanomaterials • Titanium metal crucibles used in: • Hydrogen sorption studies • Material cycling experiments • Thermal stability testing • High purity titanium crucibles minimize interference during hydride formation
7. Role in Battery Applications • Critical in lithium-ion, sodium-ion, and solid-state batteries • Applications: • Electrolyte melting & solid-state synthesis • High-temperature stability of cathode/anode materials • Testing advanced solid electrolytes (sulfides, oxides) Titanium crucible for laboratory use supports R&D in next-gen batteries
8. Titanium Crucible for Metallurgy in Energy Materials • Used in alloy development for hydrogen storage (Ti-based alloys, Mg-Ti composites) • Supports powder metallurgy in electrode material production • Ensures controlled microstructure and purity in high-energy alloys
9. Market & Supply Considerations • Availability: Wide range of titanium crucible suppliers globally • Options: custom sizes, lids, and coatings • Cost factors: • Purity level • Size & shape (cylindrical, conical, boat crucibles) • Supplier reputation Industries and labs often evaluate titanium crucible price vs. performance before purchase
10. Advantages of Using Titanium Crucibles • High chemical stability in aggressive environments • No contamination during material synthesis • Long life cycle compared to ceramic crucibles • Compatible with fuel cell, hydrogen, and battery R&D
11. Challenges & Limitations • High cost compared to alumina or graphite crucibles • Limited availability of large-size titanium crucibles • Requires specialized machining & fabrication techniques
12. Conclusion • Titanium crucibles are indispensable in energy material research. • Applications span fuel cells, hydrogen storage, and batteries. • Choosing the right titanium crucible supplier ensures quality, durability, and cost-effectiveness. A strategic material for the clean energy revolution.