Applications / Catalyst Support

Catalyst Support Activated Carbon

Loading Pd/Pt/Rh/Ni? Surface area and loading capacity are the core.

Catalyst Support Activated Carbon

Selection Logic

ScenarioRequirementRecommendedKey Spec
Precious-metal catalyst (Pd/Pt/Rh/Ni)High loading, good metal dispersionHigh-surface coconut / nutshell carbonIodine 1000–1500, SSA ≥1000
Vinyl acetate synthesis catalystSpecific pore structure, high strengthCatalyst support carbonIodine 1000–1500, hardness ≥95
Hydrogenation & chemical catalysisReactor-durableHigh-hardness granular carbonMesh by reactor

Scenario Guide

Precious-Metal Catalyst → High-Surface Carbon

Loading palladium, platinum, rhodium or nickel — the larger the surface area, the more active sites and the higher the loading. Iodine 1000–1500 is the mainstream range.

Catalyst Support → High-Hardness Granular Carbon

For vinyl acetate synthesis and other chemical processes, the carbon works long-term inside the reactor, so particle hardness must be high (≥95%).

Key Parameters

Iodine Number

Reflects surface area; 1000–1500 is the premium carrier range.

Surface Area

≥1000 m²/g; determines active-metal loading.

Loadable Metal

Pd / Pt / Rh / Ni; customized to the catalytic process.

Particle Size

4×8 / 6×12 mesh by reactor structure.

Quick Selection Chart

Your SituationRecommendedProduct
Precious-metal catalyst carrierCatalyst support carbon (iodine 1000–1500)Catalyst Support Activated Carbon
Vinyl acetate synthesis catalystCatalyst support carbon (high-hardness granular)Catalyst Support Activated Carbon
Hydrogenation & chemical catalysisCatalyst support carbon (mesh by reactor)Catalyst Support Activated Carbon

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FAQ

What specifications matter for catalyst support carbon?

High surface area (iodine 1000–1500 mg/g, SSA ≥1000 m²/g) for metal dispersion, and high particle hardness (≥95%) to survive long reactor service.

Which metals can be loaded on this carbon?

Palladium, platinum, rhodium and nickel — the loadable metal is customised to your catalytic process.

Can the same carbon support different catalytic processes?

The carrier is graded by process — vinyl acetate synthesis, hydrogenation and precious-metal catalysis each specify pore structure and mesh by reactor.

Why is high surface area important for catalysts?

More surface area means more active sites and higher, more stable metal loading, which directly improves catalytic efficiency and metal dispersion.

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