• Ceramic Solid State Ionic Technologies
  • Separation/Purification Technologies
    • Sodium
      • Radioactive Waste Stream Recycling
      • Industrial Na Waste Stream Recycling
      • On-Site Sodium Methylate (SMO) Production for Transesterification
      • On-Site Hypochlorite Disinfection Systems
    • Oxygen
    • Lithium
    • Hydrogen
  • Advanced Energy Storage
    • Solid Electrolyte Batteries
    • Fuel Cells (SOFC, PCFC)
  • CO2 Beneficiation
    • Solid Electrolysis Cells (SOEC)
  • Highly Efficient Hydrogen Production
    • Electrolytic Hydrogen Production
  • Syngas Production
    • Solid Oxide Electrolysis Cell (SOEC)
    • Syngas (ITM)
  • Next-Generation Precision Sensors
    • Sodium
• Other Ceramatec Technologies
  • Fuel Processing
    • Cold Plasma Reforming
    • Hydrogen Recovery from Desulfurization
  • Synthetic Fuel
    • SOEC
    • Modular Fischer Tropsch
    • Plasma Reforming
  • Fly Ash Treatment for Reuse (Benefication)
    • Applications & Uses
  • Compact Microchannel Heat Exchangers and Reactors
  • Micro and Nano-Porous Ceramics
    • Structural (silica-free) Insulation
    • Refractory Consumables in Non-Ferrous Metal Melting
    • Machinable Ceramics
    • Alumina Waste Recycling
    • Diesel Particulate Filters
    • Microfabrication
    • Ceramic Fiber Optic Connectors
  • Hazardous Gas Treatment
    • Plasma Oxiders
    • Hydrogen Recovery from Desulfurization
  • Coatings
    • Oxide Coatings for Refractories & Ceramics
    • Anti-Fungal Coatings
    • Fire-Resistant Coatings for Wood, Carbon, Dry Wall and Plastics
    • Environmental Barrier Coatings
      • Metals
      • Ceramics
    • High Temperature Low Electrical Resistivity Coatings
  • Biomedical & Orthopedic Implants
  • Nanopowder Synthesis
  • Custom Electrode Development
  • Advance Materials Processing & Development
  • Heavy Oil & Shale Oil Upgrading
  • Next Generation Catalyst Supports & Substrates

High Temperature EBC
for Silicon-based Ceramics

Coating systems are designed to protect materials of construction from harsh environmental conditions:

• Oxidation and Hydrothermal corrosion
• Metal dusting, H2S, Syngas, and reducing environments

We have a flexible approach to applying coatings. Our coatings are geared to reduce the environmental degradation:

(1) Oxidation:

• Recession and embrittlement of metals and ceramics.

(2) Reduction:

• Embrittlement of ceramics with low activation energy for vacancy formation.
• Embrittlement and/or dusting of many metals.

(3) Corrosion:

• Dissolution of metals.

(4) Chemical degradation:

• Reactions to form new phases, typically with gases or liquids.

Often choosing a different material or changing the environment is not possible. Hence, coatings perform a critical function:

• Utilise properties of desired substrates and use a coating that is stable in the required environments.
• A flexible, coating system to apply coatings of dissimilar materials nto substrates designed for use at high temperatures.
• Non-vacuum, low-cost processing.
• Preserves, or enhances, mechanical properties of substrates.

Coatings are suitable for:

• Oxide and non-oxide ceramic substrates
• Metallic substrates
• Oxide and non-oxide ceramic outer coatings