Product Description
Emerson CHINAMFG Compressor, CHINAMFG Air-Conditioning Scroll Compressor ZR72KCE-TFD
Copeland Compressor Features
Ā * SuperiorĀ efficiency
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*Ā OutstandingĀ reliability
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*Ā FewerĀ movingĀ parts
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*Ā ComplianceĀ Ā featureĀ Ā offersĀ unprecedentedĀ liquidĀ handlingĀ Ā capability
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*Ā InternalĀ Ā motorĀ Ā protectionĀ Ā canĀ Ā efficientlyĀ Ā protectĀ motorĀ Ā fromĀ highĀ Ā tempĀ Ā andĀ highĀ Ā current
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*Ā VeryĀ Ā lowĀ Ā noise/Ā gasĀ pulsation
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*Ā FiveĀ Ā decibelsĀ quieterĀ Ā thanĀ Ā pistonĀ Ā compressor
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*Ā SimplifiedĀ systemĀ design
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*Ā UniqueĀ Ā unloadĀ startĀ Ā fetureĀ Ā requiresĀ noĀ startĀ capacitors/Ā relay
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*Ā CrankcaseĀ heaterĀ orĀ accumulatorĀ notĀ requiedĀ inĀ mostĀ applications
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*Ā HighĀ Ā heatĀ Ā pumpĀ Ā capacityĀ Ā dueĀ toĀ nearlyĀ 100%Ā vulometricĀ efficiency
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*Ā SelectionĀ Ā scopeĀ Ā rangesĀ fromĀ 1.Ā 5HPĀ Ā toĀ 15HP,Ā andĀ isĀ uprising
Copeland ZR Compressor Specification
|
Phase |
Model | Horse Power/HP | Displacement/ m3/h | AR IĀ 7.2/54.4ĀŗC | Weight/ Kg | Height/ mm | |
| Cooling /W | Input Power/ W | ||||||
| 1 Phase | ZR16K3-PFJ | 1.33 | 3.97 | 4571 | 1320 | 25.9 | 370.4 |
| 1 Phase | ZR18K3-PFJ | 1.5 | 4.37 | 4400 | 1440 | 25.9 | 370.4 |
| 1 Phase | ZR20K3-PFJ | 1.69 | 4.76 | 4890 | 1600 | 25.9 | 370.4 |
| 1 Phase | ZR22K3-PFJ | 1.83 | 5.34 | 5330 | 1730 | 25.9 | 382.8 |
| 1 Phase | ZR24K3-PFJ | 2 | 5.92 | 5920 | 1870 | 26.3 | 382.8 |
| 1 Phase | ZR26K3-PFJ | 2.17 | 6.27 | 6330 | 2000 | 25.9 | 382.8 |
| 1 Phase | ZR28K3-PFJ | 2.33 | 6.83 | 6910 | 2150 | 27.2 | 382.8 |
| 1 Phase | ZR30K3-PFJ | 2.5 | 7.3 | 7380 | 2290 | 28.6 | 405.5 |
| 1 Phase | ZR32K3-PFJ | 2.67 | 7.55 | 7760 | 2410 | 28.1 | 405.5 |
| 1 Phase | ZR34K3-PFJ | 2.83 | 8.02 | 8200 | 2520 | 29.5 | 405.5 |
| 1 Phase | ZR36K3-PFJ | 3 | 8.61 | 8790 | 2700 | 29.5 | 405.5 |
| 1 Phase | ZR40K3-PFJ | 3.33 | 9.43 | 9670 | 2970 | 29.9 | 419.3 |
| 1 Phase | ZR42K3-PFJ | 3.5 | 9.94 | 15710 | 3120 | 29.9 | 419.3 |
| 1 Phase | ZR47K3-PFJ | 3.92 | 11.16 | 11500 | 3530 | 30.4 | 436.6 |
| 3 Phase | ZR22K3-TFD | 1.83 | 5.34 | 5330 | 1650 | 25.9 | 382.8 |
| 3 Phase | ZR24K3-TFD | 2 | 5.92 | 5920 | 1840 | 25.9 | 382.8 |
| 3 Phase | ZR26K3-TFD | 2.17 | 6.27 | 6330 | 1960 | 25.9 | 382.8 |
| 3 Phase | ZR28K3-TFD | 2.33 | 6.83 | 6910 | 2150 | 26.3 | 405.5 |
| 3 Phase | ZR30K3-TFD | 2.5 | 7.3 | 7380 | 2290 | 26.3 | 405.5 |
| 3 Phase | ZR32K3-TFD | 2.67 | 7.55 | 7760 | 2410 | 26.3 | 405.5 |
| 3 Phase | ZR34K3-TFD | 2.83 | 8.02 | 8200 | 2500 | 28.6 | 405.5 |
| 3 Phase | ZR36K3-TFD | 3 | 8.61 | 8790 | 2680 | 27.2 | 405.5 |
| 3 Phase | ZR40K3-TFD | 3.33 | 9.43 | 9670 | 2950 | 28.6 | 419.3 |
| 3 Phase | ZR42K3-TFD | 3.5 | 9.94 | 15710 | 3090 | 28.6 | 419.3 |
| 3 Phase | ZR45KC-TFD | 3.75 | 10.73 | 11000 | 3380 | 28.6 | 436.3 |
| 3 Phase | ZR46KC-TFD | 3.83 | 10.95 | 11100 | 3390 | 34.9 | 456.9 |
| 3 Phase | ZR47KCE-TFD | 3.92 | 11.16 | 11500 | 3500 | 28.6 | 436.3 |
| 3 Phase | ZR49KCE-TFD | 4.08 | 11.45 | 11700 | 3600 | 35.4 | 456.9 |
| 3 Phase | ZR54KCE-TFD | 4.5 | 12.73 | 12900 | 4030 | 35.4 | 456.9 |
| 3 Phase | ZR57KCE-TFD | 4.75 | 13.42 | 13700 | 4160 | 35.4 | 456.9 |
| 3 Phase | ZR61KCE-TFD | 5.08 | 14.34 | 14600 | 4430 | 35.8 | 456.9 |
| 3 Phase | ZR68KCE-TFD | 5.75 | 16.18 | 16400 | 4970 | 38.1 | 456.9 |
| 3 Phase | ZR72KCE-TFD | 6 | 17.05 | 17400 | 5250 | 38.1 | 456.9 |
| 3 Phase | ZR81KCE-TFD | 6.75 | 19.2 | 19690 | 5830 | 40.9 | 462.4 |
| 3 Phase | ZR84KC-TFD | 7 | 19.75 | 20330 | 6140 | 56.7 | 495.3 |
| 3 Phase | ZR94KC-TFD | 8 | 22.14 | 22940 | 7000 | 58 | 495.3 |
| 3 Phase | ZR108KCE-TFD | 9 | 25.15 | 26250 | 7830 | 72.6 | 533.4 |
| 3 Phase | ZR125KCE-TFD | 10 | 28.77 | 3571 | 9060 | 78 | 533.4 |
| 3 Phase | ZR144KCE-TFD | 10 | 28.8 | 29890 | 8955 | 92 | 542 |
| 3 Phase | ZR160KCE-TFD | 13 | 35.6 | 37330 | 11175 | 98 | 557 |
| 3 Phase | ZR190KCE-TFD | 15 | 42.1 | 45170 | 13400 | 112 | 596 Ā |
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Shipping Cost:
Estimated freight per unit. |
To be negotiated |
|---|
| Lubrication Style: | Lubricated |
|---|---|
| Cooling System: | Air Cooling |
| Cylinder Arrangement: | Balanced Opposed Arrangement |
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What Is the Role of Air Dryers in Scroll Compressor Systems?
Air dryers play a crucial role in scroll compressor systems by removing moisture and contaminants from the compressed air. Here’s a detailed explanation:
Air produced by scroll compressors typically contains moisture, oil vapors, and solid particles. These contaminants can negatively impact the performance and reliability of the compressor system and downstream equipment. Air dryers are specifically designed to address these issues and ensure the delivery of clean and dry compressed air.
The primary roles of air dryers in scroll compressor systems are as follows:
1. Moisture Removal:
Compressed air often contains high levels of moisture, which can lead to various problems. Moisture can cause corrosion in the compressed air system, leading to damage to pipes, valves, and other components. It can also adversely affect the performance of pneumatic tools and equipment. Air dryers remove moisture from the compressed air by employing different drying techniques, such as refrigeration, adsorption, or membrane drying. This helps prevent moisture-related issues and ensures the delivery of dry air to the application.
2. Contaminant Removal:
In addition to moisture, compressed air may contain oil vapors, solid particles, and other contaminants. These contaminants can originate from lubricants used in the compressor, ambient air, or the compressor system itself. Air dryers incorporate features like coalescing filters, activated carbon filters, or desiccant beds to trap and remove these contaminants from the compressed air. By removing contaminants, air dryers help maintain the cleanliness and quality of the compressed air, preventing damage to downstream equipment and ensuring reliable operation.
3. Protection of Equipment:
Air dryers play a vital role in protecting the scroll compressor and downstream equipment. Moisture and contaminants can cause corrosion, fouling, and wear in the compressor, valves, air tools, and other components. By removing moisture and contaminants, air dryers help extend the lifespan of the compressor and reduce the risk of equipment failures, downtime, and costly repairs. They also contribute to improved performance and efficiency of pneumatic equipment.
4. Enhanced Product Quality:
In applications where compressed air comes into direct contact with products, such as in food and beverage processing or pharmaceutical manufacturing, air quality is critical. Contaminated or moist compressed air can compromise product quality, contaminate sensitive processes, or pose health risks. Air dryers ensure that the compressed air used in these applications meets the required quality standards, contributing to the production of high-quality and safe products.
5. Energy Efficiency:
By removing moisture and contaminants from the compressed air, air dryers contribute to improved energy efficiency of the scroll compressor system. Moisture in the compressed air can cause pressure drops and increase the energy consumption of pneumatic equipment. Dry and clean compressed air reduces the load on the system and allows for more efficient operation, resulting in energy savings and reduced operational costs.
It’s important to select the appropriate type and capacity of air dryer based on the specific requirements of the scroll compressor system. Factors such as the desired level of air quality, flow rate, operating conditions, and the type of contaminants present should be considered when choosing an air dryer.
In summary, air dryers play a vital role in scroll compressor systems by removing moisture and contaminants from the compressed air. They contribute to improved performance, reliability, and energy efficiency of the compressor system, as well as protect downstream equipment and ensure the delivery of clean and dry compressed air for various applications.
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How Do Scroll Compressors Compare to Piston Compressors?
When comparing scroll compressors to piston compressors, several factors come into play. Here’s a detailed explanation:
1. Design and Operation:
Scroll compressors and piston compressors have different designs and operating principles. Scroll compressors utilize two interlocking spiral-shaped scrolls to compress the refrigerant or gas. The scroll motion creates a continuous compression process with minimal pulsations. On the other hand, piston compressors use a reciprocating piston driven by a crankshaft to compress the refrigerant or gas. The piston motion generates pulsations during compression.
2. Efficiency:
Scroll compressors are generally more efficient than piston compressors. The continuous compression process of scroll compressors, along with minimal clearance volume, reduces energy losses and improves overall efficiency. In contrast, piston compressors experience more energy losses due to the reciprocating motion and clearance volume. Scroll compressors are known for higher part load efficiency, especially when equipped with variable speed drive (VSD) technology.
3. Noise and Vibration:
Scroll compressors tend to operate with lower noise and vibration levels compared to piston compressors. The interlocking scroll motion in scroll compressors creates a smooth compression process with reduced pulsations, resulting in quieter operation. Piston compressors, on the other hand, generate more noise and vibration due to the reciprocating motion and pulsations during compression.
4. Size and Compactness:
Scroll compressors are generally more compact than piston compressors. The absence of reciprocating parts in scroll compressors allows for a more compact design, making them suitable for applications where space is limited. Piston compressors, with their reciprocating motion and larger size, require more space for installation.
5. Reliability and Maintenance:
Scroll compressors offer enhanced reliability and require less maintenance compared to piston compressors. Scroll compressors have fewer moving parts, such as valves and piston rings, which reduces the chances of failure or breakdown. Piston compressors, with their more complex design and wearing components, may require more frequent maintenance and have a higher probability of mechanical issues.
6. Capacity and Load Handling:
Piston compressors are generally more suitable for applications with varying load demands. Piston compressors can handle a wider range of capacities and adapt to varying cooling or heating loads. Scroll compressors, while capable of modulation with VSD, may have limitations in extreme load turndown situations.
7. Cost:
The cost of scroll compressors and piston compressors can vary depending on factors such as capacity, brand, and features. In general, scroll compressors tend to be more expensive than piston compressors due to their higher efficiency, quieter operation, and compactness. However, the price difference may vary based on specific models and market conditions.
It’s important to note that the suitability of scroll compressors or piston compressors depends on the specific application requirements, load profile, and other factors. Both types of compressors have their advantages and disadvantages, and the choice between them should be based on a thorough analysis of the application needs.
In summary, scroll compressors offer advantages such as higher efficiency, quieter operation, compactness, and enhanced reliability. Piston compressors, on the other hand, may be more suitable for applications with varying load demands. Factors such as efficiency, noise, size, reliability, load handling, and cost should be considered when comparing scroll compressors to piston compressors.


editor by CX 2023-09-28