In cement manufacturing units, compressed air plays a pivotal role, powering various pneumatic machines and applications essential for efficient operations. Here’s a closer look at the key applications of compressed air in this industry:
Ash Handling System: Compressed air is utilized to transport and manage ash, ensuring efficient disposal and maintaining cleanliness in the production area.
Tool Powering: Pneumatic tools powered by compressed air are used for various tasks, enhancing productivity and reducing manual labor.
Pneumatic Control and Actuators: These systems control processes and machinery, providing precise movements and operations within the plant.
Cleaning: Compressed air is effective for cleaning machinery and equipment, removing dust and debris that can affect performance.
Stamping: Air-powered stamping machines ensure accurate and efficient production of cement components.
Conveying: Compressed air systems facilitate the movement of materials throughout the plant, improving workflow and efficiency.
To ensure optimal performance, it’s crucial to remove contaminants from the compressed air. Common issues include:
Implementing effective air filtration and drying solutions can help remove water, dust, oil, and solid contaminants from compressed air. This not only enhances the efficiency of pneumatic systems but also prolongs the lifespan of equipment and ensures consistent product quality.
Piping Material Features Comparison |
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Piping Features | Stainless Steel(Type 304L) | Mild Steel | Blue anodized Aluminum Alloy |
Weight (Dia 6inch, Length 6m) | 127.2 | 169.6 | 29.142 |
Corrosion Resistant | Yes | No | Yes(100%) |
Pressure drop (Dia 2 inch Length= 20m,Airflow=3 cubic metres/Minute, Pressure=10 bar) | 0.25 | 0.4 Bar | 0.1 |
Energy Efficiency | High | Low-moderate | High( Potential Cost savings of 34%) |
Mechanical Strength | Very Strong | Very Strong | Strong |
High-Temperature Rating | Yes | Yes | Yes |
Installation Ease | Less Difficult | Difficult | Easy(High Flexibility and Modularity) |
Installation Time | Approx 6 feet length per hour | Approx 6 feet length per hour | Approx 45 feet Length per hour |
Work Hours/Manpower Required for a 2″ pipe and a 3000 feet piping | Approx 600 man-hours/8 men for 2 weeks | Approx 600 man-hours/8 men for 2 weeks | Approx 100 man-hours /8 men for less than 2 days |
Annual Cost(Installation, Commissioning, and operation) | Approx 3000 dollars | Approx 7820 dollars | Approx 1300 dollars |
Installation Cost Material%/Labor% | 30% / 70% | 25% / 75% | 80% / 20% |
Surface roughness | 0.03 | 0.05 | 0.001 |
Special Tools Required (welder, threader, groove cutter) | Yes | Yes | No |
Air Quality | High(Should the application require it, these pipe systems can help meet the requirements of ISO 8573-1: 2010 air quality standards. | Low( Not according to !SO 8573-2010 air quality standards) | High(Should the application require it, these pipe systems can help meet the requirements of ISO 8573-1: 2010 air quality standards. |
Cost per meter | Almost 2 less than Aluminum | 3 Times less than Aluminum | 163.64 Dollars(Parker Transair) |
Life Span( Will vary according to environmental factors, Pipe design, and Pipe grade. | 30 years | 40 years | 20 years |
Initial Cost of installations | Material : 30% Labor:70% | Material : 25% Labor:75% | Material : 80% Labor:20% |
Maintenance | Difficult(Accumulation of rust under pipes and fittings which travels to machinery, may require preventive maintenance every week) | Difficult (Accumulation of rust under pipes and fittings which travels to machinery may require preventive maintenance every 3-4 days) | Easy (No accumulation of rust, may require preventive maintenance every 4 Weeks) |