Product Description
Reference Technical parameters and specifications
| NO. | MODEL | Compressed medium | Flow rate Nm³/h |
Inlet pressure MPa |
Outlet pressure MPa |
Rotating speed r/min |
Motor power KW |
Cooling mode | Overall dimension mm |
Weight Kg |
| 1 | DW-14/(0-0.2)-25 | Raw gas | 800 | 0-0.02 | 2.5 | 740 | 160 | Water cooled | 4800*3200*1915 | ~10000 |
| 2 | VW-8/18 | Vinylidene fluoride gas | 418 | Atmospheric pressure | 1.8 | 980 | 75 | Water cooled | 3700*2000*1700 | ~4500 |
| 3 | VWD-3.2/(0-0.2)-40 | Biogas | 230 | 0-0.2 | 4.0 | 740 | 45 | Water cooled | 6000*2500*2650 | ~8000 |
| 4 | VW-9/6 | Ethyl chloride gas | 470 | Atmospheric pressure | 0.6 | 980 | 55 | Water cooled | 2800*1720*1700 | ~3500 |
| 5 | DWF-12.4/(9-12)-14 | Carbon dioxide | 6400 | 0.9-1.2 | 1.4 | 740 | 185 | Air cooled | 6000*2700*2200 | ~10000 |
| 6 | VWF-2.86/5-16 | Nitrogen gas | 895 | 0.5 | 1.6 | 740 | 55 | Air cooled | 3200*2200*1750 | ~3500 |
| 7 | DW-2.4/(18-25)-50 | Raw gas | 2900 | 1.8-2.5 | 5.0 | 980 | 160 | Water cooled | 4300*3000*1540 | ~4500 |
| 8 | VW-5.6/(0-6)-6 | Isobutylene gas | 1650 | 0-0.6 | 0.6 | 740 | 45 | Water cooled | 2900X1900X1600 | ~3500 |
| 9 | VW-3.8/3.5 | Mixed gas | 200 | Atmospheric pressure | 0.35 | 980 | 18.5 | Water cooled | 2200*1945*1600 | ~2000 |
| 10 | ZW-1.7/3.5 | Vinyl chloride gas | 100 | Atmospheric pressure | 0.35 | 740 | 15 | Water cooled | 2700X1600X2068 | ~2000 |
| 11 | ZWF-0.96/5 | Hydrogen chloride gas | 55 | Atmospheric pressure | 0.5 | 740 | 11 | Air cooled | 2000*1500*2000 | ~1000 |
| 12 | VW-0.85/(0-14)-40 | Refrigerant gas | 300 | 0-1.4 | 4.0 | 740 | 55 | Water cooled | 4500*2300*1780 | ~5500 |
| 13 | DW-3.78/(8-13)-(16-24) | Ammonia gas | 2700 | 0.8-1.3 | 1.6-2.4 | 740 | 75 | Water cooled | 3200*2000*1700 | ~3500 |
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| Warranty: | 12 Months |
|---|---|
| Lubrication Style: | Customized |
| Cooling System: | Air/Water /Mixed Cooling |
| Cylinder Arrangement: | Balanced Opposed Arrangement |
| Cylinder Position: | Customized |
| Structure Type: | Open Type |
| Customization: |
Available
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How Do Gas Air Compressors Compare to Diesel Air Compressors?
When comparing gas air compressors to diesel air compressors, there are several factors to consider, including fuel efficiency, power output, cost, maintenance requirements, and environmental impact. Here’s a detailed explanation of how these two types of air compressors compare:
1. Fuel Efficiency:
Diesel air compressors are generally more fuel-efficient compared to gas air compressors. Diesel engines have higher energy density and better overall efficiency than gasoline engines. This means that diesel compressors can produce more work output per unit of fuel consumed, resulting in lower fuel costs and longer runtimes between refueling.
2. Power Output:
Diesel air compressors typically provide higher power output compared to gas air compressors. Diesel engines are known for their robustness and ability to generate higher torque, making them suitable for heavy-duty applications that require a larger volume of compressed air or higher operating pressures.
3. Cost:
In terms of upfront cost, gas air compressors are generally more affordable compared to diesel air compressors. Gasoline engines and components are typically less expensive than their diesel counterparts. However, it’s important to consider long-term costs, including fuel expenses and maintenance, which can vary depending on factors such as fuel prices and usage patterns.
4. Maintenance Requirements:
Diesel air compressors often require more regular maintenance compared to gas air compressors. This is because diesel engines have additional components such as fuel filters, water separators, and injector systems that need periodic servicing. Gas air compressors, on the other hand, may have simpler maintenance requirements, resulting in reduced maintenance costs and time.
5. Environmental Impact:
When it comes to environmental impact, diesel air compressors produce higher emissions compared to gas air compressors. Diesel engines emit more particulate matter, nitrogen oxides (NOx), and carbon dioxide (CO2) compared to gasoline engines. Gas air compressors, especially those powered by propane, tend to have lower emissions and are considered more environmentally friendly.
6. Portability and Mobility:
Gas air compressors are generally more portable and easier to move compared to diesel air compressors. Gasoline engines are typically lighter and more compact, making gas air compressors suitable for applications where mobility is essential, such as construction sites or remote locations.
It’s important to note that the specific requirements of the application and the availability of fuel sources also play a significant role in choosing between gas air compressors and diesel air compressors. Each type has its own advantages and considerations, and the choice should be based on factors such as the intended usage, operating conditions, budget, and environmental considerations.
In conclusion, gas air compressors are often more affordable, portable, and suitable for lighter applications, while diesel air compressors offer higher power output, fuel efficiency, and durability for heavy-duty operations. Consider the specific needs and factors mentioned above to determine the most appropriate choice for your particular application.
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What Is the Role of Air Receivers in Gas Air Compressor Systems?
Air receivers play a crucial role in gas air compressor systems by serving as storage tanks for compressed air. Here’s a detailed explanation:
1. Storage and Stabilization:
The primary function of an air receiver is to store compressed air generated by the gas air compressor. As the compressor produces compressed air, the air receiver collects and stores it. This storage capacity helps meet fluctuating demand in compressed air usage, providing a buffer between the compressor and the system’s air consumption.
By storing compressed air, the air receiver helps stabilize the supply to the system, reducing pressure fluctuations and ensuring a consistent and reliable flow of compressed air. This is particularly important in applications where the demand for compressed air may vary or experience peaks and valleys.
2. Pressure Regulation:
Another role of the air receiver is to assist in pressure regulation within the gas air compressor system. As compressed air enters the receiver, the pressure inside increases. When the pressure reaches a predetermined upper limit, typically set by a pressure switch or regulator, the compressor stops supplying air, and the excess air is stored in the receiver.
Conversely, when the pressure in the system drops below a certain lower limit, the pressure switch or regulator signals the compressor to start, replenishing the compressed air in the receiver and maintaining the desired pressure level. This cycling of the compressor based on pressure levels helps regulate and control the overall system pressure.
3. Condensate Separation:
During the compression process, moisture or condensate can form in the compressed air due to the cooling effect. The air receiver acts as a reservoir that allows the condensate to settle at the bottom, away from the outlet. The receiver often includes a drain valve at the bottom to facilitate the removal of accumulated condensate, preventing it from reaching downstream equipment and causing potential damage or performance issues.
4. Energy Efficiency:
Air receivers contribute to energy efficiency in gas air compressor systems. They help optimize the operation of the compressor by reducing the occurrence of short-cycling, which refers to frequent on-off cycling of the compressor due to rapid pressure changes. Short-cycling can cause excessive wear on the compressor and reduce its overall efficiency.
The presence of an air receiver allows the compressor to operate in longer and more efficient cycles. The compressor runs until the receiver reaches the upper pressure limit, ensuring a more stable and energy-efficient operation.
5. Air Quality Improvement:
Depending on the design, air receivers can also aid in improving air quality in the compressed air system. They provide a space for the compressed air to cool down, allowing moisture and some contaminants to condense and separate from the air. This can be further enhanced with the use of additional filtration and drying equipment installed downstream of the receiver.
In summary, air receivers play a vital role in gas air compressor systems by providing storage capacity, stabilizing compressed air supply, regulating system pressure, separating condensate, improving energy efficiency, and contributing to air quality control. They are an integral component in ensuring the reliable and efficient operation of compressed air systems across various industries and applications.
Are There Different Types of Gas Air Compressors Available?
Yes, there are different types of gas air compressors available, each designed to suit specific applications and requirements. These different types vary in terms of design, power source, configuration, and intended use. Here’s a detailed explanation of the various types of gas air compressors:
1. Reciprocating Gas Air Compressors:
Reciprocating gas air compressors, also known as piston compressors, use a reciprocating motion of one or more pistons to compress the air. These compressors are commonly used for small to medium-scale applications and are available in both single-stage and two-stage configurations. Single-stage compressors compress the air in a single stroke, while two-stage compressors use an additional cylinder for further compression, resulting in higher pressures.
2. Rotary Screw Gas Air Compressors:
Rotary screw gas air compressors utilize two interlocking helical screws to compress the air. These compressors are known for their continuous and efficient operation, making them suitable for demanding industrial applications. They are often used in industries such as manufacturing, construction, and automotive where a constant supply of compressed air is required.
3. Rotary Vane Gas Air Compressors:
Rotary vane gas air compressors use a rotor with sliding vanes to compress the air. As the rotor rotates, the vanes slide in and out, creating compression chambers that compress the air. These compressors are compact, reliable, and often used for smaller-scale applications or in situations where space is limited.
4. Centrifugal Gas Air Compressors:
Centrifugal gas air compressors operate by accelerating the air using a high-speed impeller. The accelerated air is then redirected into a diffuser, which converts the velocity energy into pressure energy. These compressors are commonly used for large-scale applications requiring high volumes of compressed air, such as in power plants, refineries, or chemical processing industries.
5. Oil-Free Gas Air Compressors:
Oil-free gas air compressors are designed to provide clean, oil-free compressed air. They feature special sealing mechanisms and materials to prevent oil contamination in the compressed air. These compressors are commonly used in industries where oil-free air is essential, such as food and beverage processing, pharmaceuticals, electronics manufacturing, and painting applications.
6. Portable Gas Air Compressors:
Portable gas air compressors are specifically designed for mobility and ease of transportation. These compressors often feature wheels, handles, or trailers for convenient movement. They are commonly used in construction sites, remote job locations, outdoor events, or other situations where compressed air is needed at different locations.
7. High-Pressure Gas Air Compressors:
High-pressure gas air compressors are designed to generate compressed air at elevated pressures. These compressors are used in applications that require air pressure higher than the standard range, such as in diving operations, breathing air systems, or specialized industrial processes.
8. Biogas Air Compressors:
Biogas air compressors are specifically designed to compress biogas, which is generated from the decomposition of organic matter. These compressors are used in biogas production facilities, landfills, wastewater treatment plants, or agricultural operations where biogas is produced and utilized as an energy source.
These are just a few examples of the different types of gas air compressors available. Each type has its own advantages and is suitable for specific applications based on factors such as required airflow, pressure, mobility, oil-free operation, and environmental considerations. It’s important to choose the appropriate type of gas air compressor based on the specific needs of the application to ensure optimal performance and efficiency.
editor by CX 2024-05-16