Carbón activo purificador del aire
Buy Air Purifying Activated Carbon
Retos del sector
Riesgos relacionados con la calidad del material
- Substandard carbon products exhibiting low adsorption capacity and poor mechanical strength, leading to premature system failure.
- Inconsistent raw material sources compromising pore structure uniformity.
Deficiencias operativas
- Underfilled systems reducing gas contact time and increasing pollutant breakthrough risk.
- Delayed replacement converting saturated carbon into secondary pollution sources.
- Inadequate pretreatment (humidity/dust control) causing pore blockage.
Limitaciones técnicas
- Significant adsorption efficiency decay under high-temperature/high-humidity conditions.
- Weak adsorption affinity for specific compounds (e.g., ketones, esters).
- Explosion hazards during thermal regeneration processes.
- Limited regeneration options for spent carbon (especially in compact systems).
Complejidades del cumplimiento
- Regulatory phase-out of non-regenerable adsorption systems.
- Increasingly stringent disposal requirements for exhausted carbon.
- Emerging contaminant standards challenging conventional carbon adsorption efficacy.
tipos de carbón activado relacionados
- Valor de yodo: 600-1200
- Tamaño de malla: 1×4/4×8/8×16/8×30/12×40/20×40/20×50/30×60/40×70 (Más tamaños a petición)
- Densidad aparente: 400-700
- Valor de yodo: 500-1300
- Tamaño de malla:0,9-1mm/1,5-2mm/3-4mm/6mm/8mm(Más tamaños a petición)
- Densidad aparente: 450-600
- Valor de yodo: 500-1300
- Luz de malla: 150/200/300/350 (Más luces a petición)
- Densidad aparente: 450 - 550
- Valor de yodo: 400-800
- Tamaño de malla: 100×100×100 mm/100×100×50 mm (densidad celular personalizada bajo pedido)
- Densidad aparente: 350-450
- Diámetro interior：1,5-8 mm
- Valor de yodo: 700-1200 mg/g
- Superficie 700-1200 m²/g
- Densidad aparente: 320-550 kg/m³
- Valor de yodo: 700-1200 mg/g
- Superficie 700-1200 m²/g
- Densidad aparente: 320-550 kg/m³
- Valor de yodo: 700-1200 mg/g
- Superficie 700-1200 m²/g
- Densidad aparente: 300-650 kg/m³
- Valor de yodo: 700-1200 mg/g
- Superficie 700-1200 m²/g
- Densidad aparente: 320-550 kg/m³
- Método de activación: Activación por vapor/gas a altas temperaturas
- Estructura de los poros: Microporosa-dominada, distribución uniforme de los poros.
- Perfil medioambiental: Sin productos químicos, bajo contenido en cenizas
- Aplicaciones principales: Adsorción en fase gaseosa, purificación de agua potable
- Método de activación: Activación química (por ejemplo, H₃PO₄/ZnCl₂) a temperaturas moderadas.
- Estructura de los poros: Mesoporoso-rico, mayor área superficial
- Eficiencia del proceso: Menor tiempo de activación, mayor rendimiento 30-50%
- Tratamiento posterior: Lavado con ácido para eliminar residuos
- Funcionalización: Cargado con agentes activos (por ejemplo, I₂/Ag/KOH).
- Adsorción selectiva: Captura mejorada de contaminantes específicos (por ejemplo, Hg⁰/H₂S/gases ácidos).
- Personalización: Químicamente optimizado para los contaminantes objetivo
- Aplicaciones principales: Tratamiento de gases industriales, protección QBRN
Why You Need Our Activated Carbon
Precision Engineered Porosity:
(1) Optimized micro-meso-macro pore structure maximizes pollutant capture efficiency.
(2) Tunable surface chemistry for targeted adsorption of specific contaminants.
Guaranteed Safety & Stability:
(1) Zero outgassing ensures trapped pollutants are permanently locked in.
(2) Fire-resistant formulation meets stringent safety standards.
Sustainable Performance Design:
(1) Hybrid-ready compatibility with catalytic/UV systems extends functional lifespan.
(2) Renewable bio-based sourcing with minimized environmental footprint
Third-Party Verified Reliability:
(1) Rigorously tested against international air quality standards.
(2) Batch-to-batch consistency ensures predictable results.
Proceso y tecnología
1. Residential Indoor Air Purification
Resumen de la solución
Home air purifiers with granular activated carbon filters effectively adsorb gaseous pollutants, including smells from cooking odors, pet dander smells, and VOCs released from furniture and cleaning products. Carbon filters are generally combined with particulate filters to help purifiers remove a wider range of contaminants.
Principales ventajas
- Broad-spectrum adsorption neutralizes diverse organic compounds without chemical reactions.
- Physical odor elimination: permanently traps odor molecules instead of masking them.
- Material stability: operates safely at room temperature with zero byproducts.
2. Industrial VOC Abatement
Resumen de la solución
Honeycomb-structured activated carbon beds process high-volume exhaust streams in factories/painting facilities, capturing solvents, formaldehyde, and chemical vapors through adsorption.
Principales ventajas
- High contaminant loading capacity handles concentrated gaseous pollutants effectively.
- Regenerable design allows reactivation through thermal treatment when saturated.
- Low airflow resistance maintains ventilation efficiency without taxing equipment.
3. Tobacco Smoke Elimination
Resumen de la solución
Specialized chemically-impregnated carbon filters target complex smoke compounds and residual odors in smoking areas/hospitality venues, using enhanced surface chemistry for adsorption.
Principales ventajas
- Selective chemisorption captures challenging nitrogen-based compounds via chemical bonding.
- Compact modular design enables easy cartridge replacement in ceiling/wall units.
- Acid gas neutralization reduces respiratory irritants like hydrogen sulfide.
4. Laboratory Fume Control
Resumen de la solución
Fiber-based activated carbon filters in fume hoods and scrubbers capture acidic/alkaline vapors (e.g., solvents, ammonia) using impregnated chemical agents for targeted adsorption.
Principales ventajas
- Corrosion resistance withstands aggressive chemical environments.
- Rapid adsorption kinetics microporous fibers enable faster pollutant capture.
- Fire-retardant properties enhance safety when processing flammable vapors.
5. Hybrid Photocatalytic Systems
Resumen de la solución
Activated carbon combined with UV-photocatalysts (e.g., TiO₂) first concentrates pollutants then decomposes them into harmless substances through oxidation synergy.
Principales ventajas
- Self-regenerating action photocatalytic oxidation extends carbon lifespan.
- Enhanced decomposition breaks down persistent pollutants like carbon monoxide.
- Multi-stage protection provides both adsorption and destructive purification.
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