Cellulose Nanofiber Flame-Retardant Antistatic Filter Cartridge 1. Conductive carbon-based additives or metallic conductive fibers are incorporated into the cellulose nanofiber media. A conductive copper grounding braid is fitted to the finished cartridge to help dissipate accumulated static charge when it is correctly connected to ground. 2. This media is suitable for applications in which fine dust can generate and retain static charge, such as plastic-particle processing. Its conductive structure helps reduce electrostatic accumulation and supports more reliable pulse-jet cleaning. 3. For combustible metal dusts, including aluminum, magnesium and titanium alloy dust, antistatic media and verified grounding can form part of the overall dust-hazard control system. They do not replace application-specific explosion protection, equipment bonding, ventilation or other safety measures required by applicable regulations. 4. The standard media weight is approximately 135 g/m². A Ø352 × 660 mm cartridge provides a filtration area of approximately 21–23.5 m². Filtration performance depends on the selected media specification and should be confirmed for each application.
PET PTFE Flame-Retardant Antistatic Filter Cartridge 1. The cartridge uses polyester PET spunbond filter media with PTFE membrane lamination. Flame-retardant and antistatic options can be supplied according to the application requirements. 2. Antistatic media is suitable for dusts that may accumulate electrostatic charge, including certain plastic-processing dusts. A conductive grounding braid can help dissipate static charge when correctly connected to ground. 3. For combustible metal dusts, including aluminum, magnesium and titanium alloy dust, antistatic media and verified grounding form only part of the overall hazard-control system. They do not replace application-specific explosion protection or other measures required by applicable regulations. 4. Polyester filter media offers good mechanical strength and can be selected for suitable industrial dust applications. Chemical compatibility must be confirmed according to the actual gas composition, temperature and chemical concentration.
Wet Dust Collection for Automotive Aluminum Wheel Polishing 1. Automotive aluminum alloy wheels may require grinding polishing or buffing to obtain the specified surface finish. 2. These processes can generate fine combustible metal dust. The dust properties and applicable safety requirements must be evaluated before equipment selection. 3. A properly engineered wet dust collection system can reduce airborne metal dust and keep the collected material in a water phase. 4. The collection method and required fire explosion and hydrogen control measures must be determined according to the actual process and local regulations.
Wet Dust Collector for Shot Blasting Dust 1. Shot blasting processes can generate large amounts of airborne dust and fine particles that need to be effectively captured and separated from the exhaust air. 2. When shot blasting aluminum, magnesium, titanium, or other materials that may generate combustible metal dust, special attention must be given to potential fire and explosion hazards. 3. High-speed blasting media impacting the workpiece may generate heat, sparks, and fine combustible particles. The characteristics of the workpiece material and generated dust should therefore be evaluated before selecting the dust collection system. 4. For combustible metal dust applications, the dust collection system and associated safety measures should be selected according to the properties of the dust, the process conditions, and applicable local safety requirements.
Explosion-Proof Wet Dust Collector 1. Product type: Explosion-proof wet dust collector configured for industrial applications involving combustible, explosive or reactive dust hazards. 2. Typical applications include aluminum, magnesium, titanium and other combustible metal dust, as well as suitable non-metallic dust applications requiring wet collection and additional explosion protection measures. 3. The self-induced wet collection structure uses airflow-driven water agitation to bring airborne dust into intensive contact with water, without requiring filter cartridges, spray nozzles or a circulation water pump for the primary collection process. 4. Explosion-proof electrical components, monitoring devices, hydrogen ventilation or release arrangements and other safety-related configurations can be selected according to the dust properties and project requirements. 5. The final equipment configuration should be determined according to the material characteristics, process conditions, dust hazard assessment and applicable explosion protection requirements.
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