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MATERIAL SCIENCE
Performance
begins within.
Armour is not conventional packing with a protective layer. Its working structure is formed from silicon carbide ceramic—inside and out.
FOUR MATERIAL PILLARS
01
02
Stable under pressure.
Quiet under attack.
01
02
Chemically stable
Thermally responsive
High thermal conductivity helps limit local temperature gradients across the working structure.
Silicon carbide’s covalent ceramic structure provides broad resistance in aggressive liquid and gas environments.
03
Dimensionally steady
Low thermal expansion supports fit and alignment through temperature changes.
04
Mechanically hard
High surface hardness improves resistance to abrasion and erosive process conditions.
CORROSION MECHANISM
Protection that does not depend on passivation.
Metal alloys often rely on a passive surface film. Chlorides, bromides, hot organic acids and other aggressive species can destabilise that protection and initiate localised attack.
Silicon carbide follows a different material logic. Its ceramic body is chemically inert across many severe environments, so the structure does not depend on a thin metallic passive film to remain intact.
Final compatibility depends on concentration, contaminants, temperature, pressure and process phase. Armour reviews each duty before specification.
FROM MATERIAL TO TOWER
Engineered as a system.
Geometry, module size, support, installation and process conditions are considered together—not as separate parts.
01
02
03
Duty review
SiC ceramic body
Interconnected Porous Structure
Layered corrugations, connected flow paths and large gas–liquid contact interface—designed for demanding separation duties.
High hardness, low thermal expansion and robust chemical stability—without relying on a thin surface coating.
Interconnected pores enhance liquid spreading and gas–liquid contact while maintaining open flow channels.
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