High-temperature Ceramic Coatings
Silazane-derived ceramic coatings for thermal and oxidation protection in high-heat industrial environments. Supported by product grades EK-D03, EK-D08 and EK-D14 — see each product’s TDS for exact temperature ratings.
The grades
Grades in this family. Specifications are confirmed in the product TDS.
EK-D02
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High-temperature anti-corrosion wear-resistant nano coating
Nano ceramic coating combining heat resistance with anti-corrosion and wear protection; high-temperature curing member of the EK-D02/D03 series (600 °C class).
EK-D03
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High-temperature anti-corrosion ceramic coating
Heat-resistant anti-corrosion ceramic coating with high-temperature curing; 600 °C class per client classification.
EK-D08
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High-temperature anti-corrosion ceramic coating (1300 °C)
Anti-corrosion ceramic coating rated for service up to 1300 °C.
EK-D09
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Dense inorganic ceramic composite coating
High-temperature anti-corrosion ceramic coating matching EK-D08's performance; the grades differ mainly in colour.
EK-D10
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Room-temperature curing heat-resistant ceramic coating
Room-temperature curing counterpart of the EK-D09/D10 heat-resistant anti-corrosion ceramic system (600–1000 °C class).
EK-D13
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High-temperature thermal-conductive coating
Thermally conductive, heat-dissipating coating with high-temperature curing; thermal conductivity up to 248 W/(m·K) per client data.
EK-D14
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Titanium-based graphene alloy coating for heat exchangers
Titanium-based graphene alloy coating engineered for heat-exchanger surfaces; one-component bake-curing, service to 300 °C.
Compare grades
How the grades in this family differ. Exact values are confirmed in each product TDS.
EK-D03
One-component coating
600 °C (800 °C peak)
Bake 180–250 °C
Wear + weathering with heat (TiO2, light)
EK-D08
One-component coating
800 °C
Bake 260 °C
Sustained high-heat service, ≥8H
EK-D14
One-component coating
300 °C
Bake 150–200 °C
Heat-exchanger surfaces (Ti–graphene)
EK-D02
One-component coating
600 °C (1000 °C peak)
Bake 180–250 °C
Black finish; maximum transient headroom
EK-D09
One-component coating
800 °C
Bake 260 °C
EK-D08 profile in alternative colours
EK-D10
One-component coating
800 °C
RT or 260 °C
High-heat service without oven curing
EK-D13
Two-component coating
500 °C
Bake 80 °C
Thermally conductive (graphene/Al fillers)
* From each grade’s TDS. Final selection is confirmed during technical review.
Key properties
Typical properties of this family — exact values depend on product grade and are confirmed in the TDS.
High-temperature resistance
Sustained heat exposure, depending on product grade.
Oxidation protection
Dense inorganic barrier against oxidation and scaling.
Thermal cycling stability
Adhesion under repeated heating and cooling.
Corrosion resistance
Protection against moisture and chemical attack.
Ceramic layer formation
Converts to a hard ceramic layer on curing.
Substrate adhesion
Bonding to steel, stainless and other metals.
Applications
Industrial challenges where this material family is typically evaluated.
High-temperature Protection
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Thermal and oxidation protection for demanding environments.
Automotive Coatings
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Industrial automotive applications and component protection.
Electronics & Energy
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Protective and insulating layers for components and systems.
Industrial Metal Protection
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Corrosion, chemical and thermal protection for metal parts.
Documents
Request the documents you need, or start a guided evaluation — everything is provided per product grade.
FAQ
Common questions about this material family.
What is the difference between EK-D03, EK-D08 and EK-D14?
The grades differ in temperature range and application profile — exact values are in each product TDS. Send your operating conditions and we will recommend a grade.
Can I test the material before committing to volume?
Yes — sample support is available for qualified B2B projects after a short technical review.
Which substrates are compatible?
Steel, stainless and other metals are typical. Compatibility for a specific substrate is confirmed per grade in the TDS.
How is this different from conventional high-temperature paint?
Silazane-derived coatings convert to a dense ceramic layer, designed for service beyond the range of conventional organic paints. Comparative data is available on request.
What is the minimum order quantity?
MOQ depends on the product and packaging format — to be confirmed with our team for your grade.
Send request
From first enquiry to qualified bulk supply — send your requirements below.
01
Send requirement
Application, substrate and performance target.
02
Get recommendation
Suitable material family and product grade.
03
Receive TDS/SDS, catalog & sample
Documentation and sample for evaluation.
04
Test material
Validate on your substrate and process.
05
Confirm & bulk supply
Specification agreement and ongoing supply.
About high-temperature ceramic coatings
These coatings form a dense ceramic layer on metal components exposed to sustained heat, oxidation and thermal cycling — exhaust systems, furnaces, burners, heat shields and industrial process equipment. They are evaluated by engineers and coating manufacturers who need protection beyond the range of conventional organic paints.