Versatile Particle Design: Spherical/cylindrical/irregular shapes and 1-10mm size range adapt to fixed/fluidized/moving-bed reactors, enabling seamless process integration without custom equipment.

Optimized Pore Structure: 2-50nm average pore diameter and 0.3-1.5cm³/g pore volume balance active site exposure and mass transfer, critical for fast, efficient reactions.

Mechanical Robustness: Crushing strength ≥50N/cm (cylindrical) resists attrition, compression, and abrasion in industrial reactors, minimizing catalyst loss and maintenance downtime.

Broad Catalytic Compatibility: Supports diverse active components for VOCs oxidation, NOx reduction, hydrogenation, and chemical synthesis—adapting to varied industrial needs.

Scalable Performance: Consistent activity across particle sizes and batches enables scaling from pilot to industrial scale (10-100,000 Nm³/h gas flow) without performance degradation.

Cost-Effective Production: Mature manufacturing processes (extrusion, tableting) reduce costs by 30-50% vs. monolithic catalysts, ideal for high-volume applications.

Easy Replacement & Handling: Granular form allows gravity/pneumatic loading/unloading; spent catalyst is easily recovered for regeneration or disposal.

vs. Monolithic/Honeycomb Catalysts: 30-50% lower production cost, easier replacement (no reactor disassembly), and compatibility with existing granular reactor infrastructure—reducing retrofitting expenses.

vs. Powder Catalysts: Higher mechanical strength (no dust generation), lower pressure drop (avoids filter clogging), and simplified handling in industrial-scale operations.

Process Flexibility: Adapts to fixed-bed (high conversion), fluidized-bed (uniform temperature), and moving-bed (continuous regeneration) systems—covering diverse industrial requirements.

Customization Capability: Tailorable particle size, shape, active component loading, and pore structure for specific reactions (e.g., low-temperature VOCs oxidation, high-temperature reforming).

Cost-Efficient Lifecycle: 1-5 years service life and regenerability (thermal/chemical treatment) lower replacement frequency and total ownership cost vs. single-use catalysts.

Q: How to select particle size and shape for my reactor?

Q: What factors affect catalyst service life?

Q: Can pellet catalysts be regenerated?

Q: How does it compare to honeycomb catalysts in VOCs treatment?

Q: Storage and handling precautions?

Q: Are pellet catalysts suitable for high-pressure reactions?

Q: How to dispose of spent pellet catalysts?