Product Description
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| R22 50HZĀ | SPEC. | |||||
| Model | Power(HP) | Displacement(m³/h) | ARI | Weight(KG) | Height(MM) (Including shock-absorbing strap) | |
| Capacity(W) | Input Power(W) | |||||
| One-Phase(220V-240V) | ||||||
| ZR28K3-PFJ | 2.33 | 6.83 | 6900 | 2520 | 26 | 383 |
| ZR34K3-PFJ | 2.83 | 8.02 | 8200 | 2540 | 29 | 406 |
| ZR34KH-PFJ | 2.83 | 8.02 | 8200 | 2540 | 29 | 406 |
| ZR36K3-PFJ | 3 | 8.61 | 8900 | 2730 | 29 | 406 |
| ZR36KH-PFJ | 3 | 8.61 | 8900 | 2730 | 29 | 406 |
| ZR42K3-PFJ | 3.5 | 9.94 | 15710 | 3140 | 30 | 419 |
| ZR47K3-PFJ | 3.92 | 11.02 | 11550 | 3460 | 32 | 436 |
| Three-Phase(380V-420V) | ||||||
| ZR28K3-TFD | 2.33 | 6.83 | 6900 | 2140 | 25 | 383 |
| ZR34K3-TFD | 2.83 | 8.02 | 8200 | 2500 | 28 | 406 |
| ZR34KH-TFD | 2.83 | 8.02 | 8200 | 2470 | 28 | 406 |
| ZR36K3-TFD | 3 | 8.61 | 8790 | 2680 | 29 | 406 |
| ZR36KH-TFD | 3 | 8.61 | 8300 | 2680 | 28 | 406 |
| ZR42K3-TFD | 3.5 | 9.94 | 15710 | 3100 | 28 | 419 |
| ZR47KC-TFD | 3.92 | 11.16 | 11550 | 2430 | 30 | 436 |
| VR61KF-TFP-542 | 5.08 | 14.37 | 14900 | 4636 | 28.5 | 436 |
| ZR61KC-TFD | 5.08 | 14.37 | 14600 | 4430 | 37 | 457 |
| ZR61KH-TFD | 5.08 | 14.37 | 14972 | 4440 | 35.9 | 457 |
| ZR68KC-TFD | 5.57 | 16.18 | 16900 | 4950 | 39 | 457 |
| ZR72KC-TFD | 6 | 17.06 | 17700 | 5200 | 39 | 457 |
| ZR81KC-TFD | 6.75 | 19.24 | 19900 | 5800 | 40 | 462 |
| Ā | ||||||
| VR94KS-TFP | 8 | 22.14 | 23300 | 6750 | 57 | 497 |
| VR108KS-TFP | 9 | 25.68 | 26400 | 7500 | 63 | 552 |
| VR125KS-TFP | 10 | 28.81 | 31000 | 9000 | 63 | 552 |
| VR144KS-TFP | 12 | 33.22 | 35000 | 15710 | 63 | 552 |
| VR160KS-TFP | 13 | 36.37 | 38400 | 11400 | 65 | 572 |
| VR190KS-TFP | 15 | 43.34 | 46300 | 13700 | 66 | 572 |
| ZR250KC-TWD | 20 | 56.57 | 60000 | 17700 | 142 | 736 |
| ZR310KC-TWD | 25 | 71.43 | 74000 | 22000 | 160 | 725 |
| ZR380KC-TWD | 30 | 57.5 | 92000 | 26900 | 176 | 725 |
| ZR81KC-TFD | 6.75 | 19.24 | 19900 | 5800 | 40 | 462 |
| Ā | ||||||
| VR94KS-TFP | 8 | 22.14 | 23300 | 6750 | 57 | 497 |
| VR108KS-TFP | 9 | 25.68 | 26400 | 7500 | 63 | 552 |
| VR125KS-TFP | 10 | 28.81 | 31000 | 9000 | 63 | 552 |
| VR144KS-TFP | 12 | 33.22 | 35000 | 15710 | 63 | 552 |
| VR160KS-TFP | 13 | 36.37 | 38400 | 11400 | 65 | 572 |
| VR190KS-TFP | 15 | 43.34 | 46300 | 13700 | 66 | 572 |
| Ā | ||||||
| ZR250KC-TWD | 20 | 56.57 | 60000 | 17700 | 142 | 736 |
| ZR310KC-TWD | 25 | 71.43 | 74000 | 22000 | 160 | 725 |
| ZR380KC-TWD | 30 | 57.5 | 92000 | 26900 | 176 | 725 |
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| TECHNICAL DATA | |||||||
| Model | ZB15KQ | ZB19KQ | ZB21KQ | ZB26KQ | ZB29KQ | ZB38KQ | ZB45KQ |
| ZB15KQE | ZB19KQE | ZB21KQE | ZB26KQE | ZB29KQE | ZB38KQE | ZB45KQE | |
| Motor Type | TFD | TFD | TFD | TFD | TFD | TFD | TFD |
| PFJ | PFJ | PFJ | PFJ | PFJ | Ā | Ā | |
| Power(HP) | 2 | 2.5 | 3 | 3.5 | 4 | 5 | 6 |
| Displacement(m³/h) | 5.92 | 6.8 | 8.6 | 9.9 | 11.4 | 14.5 | 17.2 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Starting Current(LRA) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| TFD | 24.5-26 | 30-32 | 36-40 | 41-46 | 50 | 58.6-65.5 | 67-74 |
| PFJ | 53-58 | 56-61 | 75-82 | 89-97 | 113 | Ā | Ā |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Rated Load Current(RLA) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| TFD | 4.3 | 4.3 | 5.7 | 7.1 | 7.9 | 8.9 | 11.5 |
| PFJ | 11.4 | 12.9 | 16.4 | 18.9 | 19.3 | Ā | Ā |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Max. Operating Current(MCC) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| TFD | 6 | 6 | 8 | 10 | 11 | 12.5 | 16.1 |
| PFJ | 16 | 18 | 23 | 24 | 27 | Ā | Ā |
| Motor Run | 40μF/370V | 40μF/370V | 55μF/370V | 60μF/370V | 60μF/370V |  |  |
| Crankcase Heater Power(W) | 70 | 70 | 70 | 70 | 70 | 70 | 70 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Size of Connecting Pipe(INCH) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Outer Diameter of Wxhaust Pipe | 1/2 | 1/2 | 1/2 | 1/2 | 1/2 | 1/2 | 1/2 |
| Outer Diameter of Suction Pipe | 3/4 | 3/4 | 3/4 | 3/4 | 7/8 | 7/8 | 7/8 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Dimensions(MM) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Length | 242 | 242 | 243 | 243 | 242 | 242 | 242 |
| Width | 242 | 242 | 244 | 244 | 242 | 242 | 242 |
| Height | 383 | 383 | 412 | 425 | 430 | 457 | 457 |
| Foot Bottom Installation Dimensions(Aperture) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) |
| Fuel Injection(L) | 1.18 | 1.45 | 1.45 | 1.45 | 1.89 | 1.89 | 1.89 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Weight(KG) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Net.W | 23 | 25 | 27 | 28 | 37 | 38 | 40 |
| Gross.W | 26 | 29 | 30 | 31 | 40 | 41 | 44 |
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| TECHNICAL DATA | |||||||
| Model | ZB48KQ | ZB58KQ | ZB66KQ | ZB76KQ | ZB88KQ | ZB95KQ | ZB114KQ |
| ZB48KQE | ZB58KQE | ZB66KQE | ZB76KQE | ||||
| Motor Type | TFD | TFD | TFD | TFD | TFD | TFD | TFD |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | |
| Power(HP) | 7 | 8 | 9 | 10 | 12 | 13 | 15 |
| Displacement(m³/h) | 18.8 | 22.1 | 25.7 | 28.8 | 38.2 | 36.4 | 43.4 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Starting Current(LRA) | 101 | 86-95 | 100-111 | 110-118 | 110-118 | 140 | 174 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Rated Load Current(RLA) | 12.1 | 16.4 | 17.3 | 19.2 | 22.1 | 22.1 | 27.1 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Max. Operating Current(MCC) | 17 | 23 | 24.2 | 26.9 | 31 | 31 | 39 |
| Crankcase Heater Power(W) | 70 | 90 | 90 | 90 | 90 | Ā | Ā |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Size of Connecting Pipe(INCH) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Outer Diameter of Wxhaust Pipe | 3/4 | 7/8 | 7/8 | 7/8 | 7/8 | 7/8 | 7/8 |
| Outer Diameter of Suction Pipe | 7/8 | 11/8 | 13/8 | 13/8 | 13/8 | 13/8 | 13/8 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Dimensions(MM) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Length | 242 | 263.6 | 263.6 | 263.6 | 263.6 | 242 | 264 |
| Width | 242 | 284.2 | 284.2 | 284.2 | 284.2 | 285 | 285 |
| Height | 457 | 477 | 546.1 | 546.1 | 546.1 | 522 | 553 |
| Foot Bottom Installation Dimensions(Aperture) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) | 190X190(8.5) |
| Fuel Injection(L) | 1.8 | 2.51 | 2.25 | 3.25 | 3.25 | 3.3 | 3.3 |
| Ā | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Weight(KG) | Ā | Ā | Ā | Ā | Ā | Ā | Ā |
| Net.W | 40 | 59.87 | 60.33 | 65.32 | 65.32 | 65 | 65 |
| Gross.W | 44 | Ā | Ā | Ā | Ā | Ā | Ā |
Archean refrigeration has been focusing on the refrigeration industry for more than 10 years. The compressors are sold all over the world and have been well received. The company has accumulated strong experience in the compressor market, rich technical support, and a satisfactory one-stop procurement solution. You can rest assured You don’t need to worry about this series, from placing an order to receiving the goods. We provide a complete solution to serve customers well, which is our purpose of hospitality.
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| Installation Type: | Movable Type |
|---|---|
| Lubrication Style: | Lubricated |
| Cylinder Position: | Vertical |
| Model: | Zp83kce-Tfd-457 |
| Transport Package: | Wooden/Cartoon Box |
| Specification: | 26*26*58CM |
| Samples: |
US$ 100/Piece
1 Piece(Min.Order) | |
|---|
| Customization: |
Available
|
|
|---|
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What Is the Impact of Ambient Temperature on Scroll Compressor Performance?
Ambient temperature has a significant impact on the performance of scroll compressors. Here’s a detailed explanation:
1. Capacity and Cooling Efficiency:
The ambient temperature directly affects the cooling capacity and efficiency of a scroll compressor. As the ambient temperature increases, the cooling capacity of the compressor decreases. This is because the compressor needs to work harder to reject heat to a higher ambient temperature, resulting in reduced cooling efficiency. Conversely, at lower ambient temperatures, the cooling capacity of the compressor increases.
2. Compressor Overheating:
High ambient temperatures can lead to compressor overheating. When the ambient temperature exceeds the manufacturer’s recommended operating range, the compressor may struggle to dissipate heat effectively. This can cause the compressor to overheat and potentially lead to compressor damage or premature failure. Adequate ventilation and airflow around the compressor are crucial to mitigate the risk of overheating.
3. Increased Power Consumption:
In hotter ambient conditions, scroll compressors may require more power to maintain the desired cooling output. The compressor’s motor has to work harder to overcome the elevated temperature and compressor inefficiencies caused by high ambient temperatures. As a result, the compressor’s power consumption may increase, leading to higher energy costs.
4. Refrigerant Properties:
Ambient temperature also affects the properties of the refrigerant circulating in the compressor system. The refrigerant’s pressure and temperature characteristics change with variations in ambient temperature. These changes can impact the compressor’s suction and discharge pressures, affecting its overall performance and efficiency. Manufacturers provide performance data and specifications that consider specific ambient temperature ranges for optimal compressor operation.
5. Defrost Cycle:
In refrigeration systems that incorporate defrost cycles, ambient temperature plays a crucial role. During the defrost cycle, the outdoor unit of the system (which includes the scroll compressor) temporarily switches to heating mode to melt accumulated frost or ice. The ambient temperature affects the duration and effectiveness of the defrost cycle. In colder ambient temperatures, the defrost cycle may need to operate for longer to ensure complete defrosting.
6. System Design Considerations:
The impact of ambient temperature on scroll compressor performance should be considered during system design. Proper sizing and selection of the compressor, along with other system components such as condensers and evaporators, should account for the expected ambient temperature range. Oversizing the compressor or underestimating the effects of high ambient temperatures can lead to inefficient operation, higher energy consumption, and potential system issues.
It is important to note that different scroll compressor models may have specific temperature limitations and performance characteristics. Manufacturers provide guidelines and performance data, including ambient temperature ranges, to ensure optimal compressor operation and reliability.
Understanding the impact of ambient temperature on scroll compressor performance helps in proper system design, installation, and maintenance. It allows for efficient operation, improved reliability, and optimized cooling performance in various applications.
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What is the Lifespan of a Typical Scroll Compressor?
The lifespan of a typical scroll compressor can vary depending on several factors. Here’s a detailed explanation:
1. Quality and Design:
The quality and design of the scroll compressor play a significant role in determining its lifespan. Well-built compressors with robust components and reliable manufacturing processes tend to have longer lifespans. Compressors from reputable manufacturers that adhere to industry standards and best practices are generally more durable and have extended lifespans.
2. Maintenance and Service:
The lifespan of a scroll compressor can be influenced by the maintenance and service it receives. Regular maintenance, including cleaning, lubrication (for lubricated compressors), and inspection of critical components, helps to ensure optimal performance and identify potential issues before they become major problems. Proper maintenance practices, such as timely filter replacements and refrigerant checks, contribute to the longevity of the compressor.
3. Operating Conditions:
The operating conditions under which the scroll compressor operates can impact its lifespan. Factors such as ambient temperature, humidity levels, and operating hours can affect the compressor’s performance and wear on its components. Compressors that operate in extreme temperatures or high humidity environments may experience more stress and have a shorter lifespan compared to those operating in more favorable conditions.
4. Load and Cycling Patterns:
The load and cycling patterns of the compressor also impact its lifespan. Compressors that consistently operate at or near their maximum capacity or frequently cycle on and off may experience more wear and tear. Compressors that are properly sized, matched to the load requirements, and operate within recommended duty cycles tend to have longer lifespans.
5. System Design and Installation:
The design and installation of the overall system in which the scroll compressor is installed can affect its lifespan. Proper system design, including appropriate sizing, adequate airflow, and efficient ductwork, ensures that the compressor operates under optimal conditions. Additionally, proper installation practices, such as correct refrigerant charge and proper electrical connections, contribute to the longevity of the compressor.
6. Application and Usage:
The specific application and usage of the scroll compressor can also impact its lifespan. Compressors used in commercial or industrial settings, where they may be subjected to heavy usage or demanding conditions, may have shorter lifespans compared to those used in residential applications with lighter usage. The type of refrigerant used and the presence of contaminants or corrosive substances in the system can also affect the compressor’s lifespan.
7. Average Lifespan:
On average, a well-maintained and properly operated scroll compressor can have a lifespan of 10 to 15 years. However, it’s important to note that this is an estimate, and individual compressors may experience longer or shorter lifespans based on the factors mentioned above.
It’s recommended to consult the manufacturer’s guidelines and specifications for the specific model of the scroll compressor to determine its expected lifespan and any recommended maintenance intervals. Additionally, working with qualified HVAC professionals can help ensure proper installation, maintenance, and troubleshooting of the scroll compressor, maximizing its lifespan and performance.
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What Is the Efficiency of Scroll Compressors?
The efficiency of scroll compressors can vary depending on various factors. Here’s a detailed explanation:
1. Overall Efficiency:
Scroll compressors are known for their high overall efficiency compared to other compressor types. The scroll design allows for a continuous compression process with minimal clearance volume, reducing energy losses and improving efficiency. This can result in energy savings and lower operating costs in applications where scroll compressors are used.
2. Part Load Efficiency:
The part load efficiency of a scroll compressor refers to its performance at partial cooling or heating loads. Scroll compressors can maintain high efficiency even at part load conditions, thanks to their modulation capabilities. Variable speed scroll compressors, in particular, can adjust their capacity to match the required load, resulting in improved part load efficiency and energy savings. This makes scroll compressors well-suited for HVAC systems that experience varying cooling or heating demands.
3. System Efficiency:
The efficiency of a scroll compressor is not solely determined by the compressor itself but also by the overall system design and components. The efficiency of the entire HVAC system, which includes the compressor, condenser, evaporator, and other components, influences the overall efficiency. Proper system design, sizing, and matching of components are crucial for achieving optimal system efficiency.
4. SEER and EER Ratings:
When evaluating the efficiency of HVAC systems that incorporate scroll compressors, two commonly used metrics are SEER (Seasonal Energy Efficiency Ratio) and EER (Energy Efficiency Ratio). SEER is a measure of the cooling efficiency over an entire cooling season, while EER represents the cooling efficiency at a specific operating condition. Higher SEER and EER ratings indicate greater efficiency. Scroll compressors, with their high efficiency and modulation capabilities, can contribute to achieving higher SEER and EER ratings in HVAC systems.
5. Application-Specific Efficiency:
The efficiency of scroll compressors can also vary based on the specific application and operating conditions. Factors such as ambient temperature, refrigerant type, system design, and load profile can impact the compressor’s efficiency. Manufacturers provide performance data and efficiency specifications for scroll compressors under different operating conditions to help users select the most suitable compressor for their specific application.
It’s important to note that the efficiency of scroll compressors is continuously improving with advancements in technology and design. Manufacturers are constantly working on enhancing the efficiency of scroll compressors to meet the increasing demand for energy-efficient HVAC systems.
In summary, scroll compressors are known for their high overall efficiency and can maintain efficiency even at part load conditions. The efficiency of scroll compressors is influenced by factors such as part load performance, system design, SEER and EER ratings, and application-specific considerations. By selecting the appropriate scroll compressor and optimizing the overall system design, HVAC systems can achieve high levels of efficiency and energy savings.


editor by CX 2024-05-16