FKH-100II/CGW
LEOMON
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This device adopts dual stage compression stacking technology and has independent low-temperature and high-temperature cycling systems. Even if the ambient temperature drops to -35 ℃, the system can intelligently adjust two levels to maintain a stable 90 ℃ hot water output. The dual compressors work alternately, with balanced operating pressure to prevent overload. This technology effectively solves the common problem of single-stage heat pumps shutting down due to high compression ratios in extreme cold weather.
Compared with traditional electric boilers, this cascade heat pump saves a substantial portion of energy costs. It captures free heat from ambient air and upgrades it to 90°C hot water through dual-stage compression, delivering much more thermal energy than the electricity it consumes.The unit requires smaller transformers and power lines than electric boilers, reducing initial investment costs. Most industrial users recover their equipment investment within a short period through reduced energy bills.
Equipped with independently developed advanced microcomputer control board, this equipment has automatic operation, timed start stop, intelligent zone defrosting, and precise temperature control function of dual circulation system. Quickly obtain operating parameters and issue control commands to ensure stable operation of the unit. Users can monitor device data and status in real-time through the APP, remotely control unit switches and temperature adjustments, and receive alarm notifications. Engineers can conduct remote fault analysis and diagnosis to improve service efficiency.
The unit operates with no combustion, no open flame, and zero emissions. There is no risk of gas leakage, explosion, or carbon monoxide poisoning. It produces clean steam without boiler chemicals or combustion residues, making it ideal for industries with strict safety and hygiene requirements. The use of environmentally friendly refrigerants further reduces the impact on the ozone layer and greenhouse effect.
| Type | FKH-10I/CGW | FKH-18II/CGW | FKH-35II/CGW | FKH-70II/CGW | FKH-100II/CGW | FKH-130II/CGW | ||||||||||||||
| Side air outlet | Top out wind | Top out wind | Top out wind | Top out wind | Top out wind | |||||||||||||||
| Power specifications | 220V~50Hz | 380V3N~50Hz | 380V 3N~50Hz | 380V3N~50Hz | 380V3N~50Hz | 380V3N~50Hz | ||||||||||||||
| Heating capacity under A1 operating condition(20) | 10kW | 18kW | 35kW | 70kW | 100kW | 130kW | ||||||||||||||
| Heating consumption power under A1 working condition | 4.8kW | 8.2kW | 16.8kW | 33.6kW | 47.6kW | 61.5kW | ||||||||||||||
| Heating capacity under A2 working condition(7) | 9.5kW | 17kW | 34kW | 68kW | 95kW | 125kW | ||||||||||||||
| Heating consumption power under A2 working condition | 5kW | 8.9kW | 17.9kW | 35.8KW | 50kW | 65.8kW | ||||||||||||||
| Heating capacity under A3 working cond ition (-12) | 9.5kW | 17kW | 32kW | 64kW | 90kW | 110kW | ||||||||||||||
| Heating consumption power under A3 working condition | 6.2kW | 10.6kW | 20.6kW | 41.2kW | 56.5kW | 68.5kW | ||||||||||||||
| Heating capacity under A4working condition(-20) | 8kW | 16kW | 30kW | 60kW | 80kW | 100kW | ||||||||||||||
| Heating consumption power under A4 working condition | 5.6kW | 11.1kW | 20.1kW | 40.2kW | 55.2kW | 68.9kW | ||||||||||||||
| Maximum operating current | 40A | 35A | 70A | 120A | 160A | 200A | ||||||||||||||
| Discharge | 1.7m³/h | 3.1m³/h | 6m³/h | 12m³/h | 17.2m³/h | 24.1m³/h | ||||||||||||||
| Noise | ≤56dB(A) | ≤58dB(A) | ≤60dB(A) | ≤65dB(A) | ≤68dB(A) | ≤72dB(A) | ||||||||||||||
| Water side pressure loss | ≤72kPa | ≤75kPa | ≤75kPa | ≤85kPa | ≤85kPa | ≤88kPa | ||||||||||||||
| Unit size (ength x width x height mm) | 1030×410×1390 | 860×780×1780 | 1550×780×1780 | 2260×1030×2170 | 2260×1230×2170 | 2260×1230×2170 | ||||||||||||||
| CONNECT SIZE | DN32(hexagon nipples) | DN32(hexagon nipples)` | DN40(hexagon nipples) | DN50(flange) | DN65(flange) | DN80(flange) | ||||||||||||||
| Unit weight (kg) | 160 | 215 | 415 | 755 | 1110 | 1250 | ||||||||||||||
Used to provide 85°C high-temperature hot water for electroplating solution tank heating and parts cleaning. Heating of electroplating solution and parts cleaning solution accounts for a significant portion of total electricity costs. The high-temperature heat pump can also be used for dehydration drying of parts, reducing the electroplating cost per unit product. Stable temperature ensures uniform plating quality.
Provides 60-85°C high-temperature hot water for printing and dyeing factories, bleaching and dyeing factories, dyeing and finishing factories, and weaving factories. The stable hot water supply improves dye uptake and color consistency while reducing energy consumption. Simple operation, low operating costs, and environmental friendliness make it an ideal replacement for traditional boilers in textile processing.
The high-temperature heat pump is easy to operate, stable, and has low operating costs, ensuring the normal operation of the production process flow. Also used for cleaning, scalding, and sanitation in food processing facilities, with clean hot water meeting food safety standards.
The leather factory requires a large amount of high-temperature hot water during the process of processing and making leather. The hot water should be controlled between 70-80°C. Traditional processes consume a lot of energy and have high operating costs. The use of high-temperature heat pumps can greatly reduce operating costs while providing stable, consistent water temperature for leather processing.
>> Product Operate Guide
Upon taking delivery of the goods, the purchaser will furnish an instructional video.
A: The unit is designed for a service life of 10-15 years with proper maintenance. The stainless steel construction resists corrosion, and the industrial-grade compressor and components are built for long-term continuous operation. The modular design also allows easy replacement of individual parts when needed, further extending the overall lifespan. Many of our units installed over a decade ago are still running reliably today.
A: Yes, in most cases. The cascade 90°C heat pump is designed as a direct replacement for coal-fired, gas, and electric boilers in many industrial and commercial heating applications. It can provide 90°C hot water with lower operating costs, zero emissions, and no fuel storage requirements. However, for very large facilities with extremely high heat demand, multiple units can be installed in parallel to achieve the required capacity. Our engineers can evaluate your current system and recommend the best configuration.
A: The unit is designed with multiple noise reduction optimizations. It uses silent compressors and axial fans to reduce sound source noise. Multiple noise reduction control system designs and sound-absorbing barrier technology further reduce operating noise. The overall structure and pipeline integration are optimized, and vibration automatic monitoring technology controls poor pipeline vibration. In most industrial settings, the sound level is comparable to normal background noise.