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When evaluating heating solutions for demanding commercial and industrial applications, operational stability and energy efficiency are critical factors. The 90°C high-temperature air source heat pump is engineered with advanced smart technologies designed to optimize performance, reduce operational costs, and streamline facility management. Below are the core technological advantages that make this heat pump a reliable choice for modern heating infrastructure.
Traditional heat pumps often struggle with unnecessary defrosting cycles that interrupt heating operations and consume excess power. This high-temperature air source heat pump utilizes an intelligent, non-sensing defrosting technology. By continuously analyzing multiple system variables—such as ambient temperature, coil temperature, and operating time—the system accurately determines the actual frosting condition. It initiates the defrost cycle only when necessary ("defrosting with frost") and bypasses it when the coils are clear ("no defrosting without frost").
Purchasing Value: This precise control significantly reduces the negative impact of defrosting on overall heating efficiency. It ensures a continuous, stable output of high-temperature water up to 90°C, minimizes temperature fluctuations in your process or heating network, and enhances the long-term reliability of the entire system by reducing mechanical stress on the compressor.
Modern energy infrastructures require flexibility and resilience. This heat pump is designed to function not just as a standalone unit, but as a core component of a multi-energy complementary heating network. It can be readily integrated with other renewable energy sources, such as solar thermal arrays or geothermal energy systems, to create a unified thermal generation hub.
Purchasing Value: By combining multiple energy sources, facility managers can optimize energy consumption based on real-time availability and utility rates. This complementary approach maximizes the use of free or low-cost renewable energy, significantly lowering operational expenses (OPEX). Furthermore, it adds redundancy to the heating infrastructure, ensuring that your facility maintains a stable and reliable heat supply even if one energy source experiences temporary fluctuations.
Different operational phases and varying daily schedules require precise thermal management. This system offers highly personalized temperature settings tailored to specific facility requirements. Users can configure distinct temperature profiles for different time periods throughout the day or week using the intuitive control panel or a dedicated mobile application.
Purchasing Value: This level of customization allows businesses to align heating output exactly with their operational shifts or production cycles. By automatically lowering target temperatures during off-peak hours or non-working periods, the system prevents unnecessary energy waste. It provides a highly tailored heating experience that meets exact process requirements while contributing directly to overall energy conservation targets and cost reduction.
Effective facility management relies on accessible data and responsive control mechanisms. This high-temperature heat pump features comprehensive intelligent control and remote monitoring capabilities. Through a secure mobile application or centralized management platform, operators can monitor real-time device status, adjust temperature parameters, and program automated power-on/off schedules from virtually any location.
Purchasing Value: Remote accessibility transforms how maintenance and daily operations are handled. It eliminates the need for constant manual inspections on-site, thereby reducing labor costs and operational bottlenecks. Facility managers receive immediate insights into system performance, allowing for proactive adjustments and faster responses to any operational anomalies. This smart connectivity enhances overall management efficiency and ensures the heating equipment operates at peak performance with minimal manual intervention.
The following technical parameters detail the performance of the 90°C high-temperature air source heat pump across various operating conditions (A1 to A4). These specifications are provided to assist engineers and procurement teams in accurate equipment selection and system sizing.
Model Type | FKH-70II/CGW |
Top discharge | |
Power supply | 380V3N~50Hz |
Heating capacity under A1 condition (20°C) | 70kW |
Power input under A1 condition | 33.6kW |
Heating capacity under A2 condition (7°C) | 68kW |
Power input under A2 condition | 35.8KW |
Heating capacity under A3 condition (-12°C) | 64kW |
Power input under A3 condition | 41.2kW |
Heating capacity under A4 condition (-20°C) | 60kW |
Power input under A4 condition | 40.2kW |
Maximum operating current | 120A |
Water flow rate | 12m³/h |
Noise level | ≤65dB(A) |
Water side pressure drop | ≤85kPa |
Unit dimensions (L × W × H, mm) | 2260×1030×2170 |
Connection size | DN50(flange) |
Net weight (kg) | 755 |
Note: The heating capacity and power consumption data are tested under specific ambient temperatures. Please refer to these data sheets when evaluating the heat pump for your specific industrial or commercial project requirements to ensure optimal operational stability.
The 90°C high-temperature air source heat pump is engineered to meet demanding heating requirements across diverse commercial, industrial, and residential sectors. By delivering consistent high-temperature output, this system serves as a highly efficient alternative to conventional heating methods, addressing specific project needs while reducing overall energy consumption and environmental impact.
Designed to effectively replace traditional coal-fired boilers or gas stoves, this high-temperature heat pump provides users with a more comfortable and environmentally friendly heating method. It is especially widely used in centralized heating projects in northern regions and rural household heating setups where reliable warmth is essential during cold seasons.
For residential applications, achieving a stable indoor temperature without the emissions associated with fossil fuels is a major priority for modern infrastructure. This heat pump system ensures a continuous supply of heat, maintaining consistent comfort levels for households. By integrating this technology into centralized heating networks or individual rural homes, project developers and property managers can significantly lower long-term heating costs while complying with increasingly strict environmental regulations. The system's ability to maintain stable operation makes it a dependable choice for large-scale residential retrofitting and new construction heating projects.
In the textile sector, maintaining precise water temperatures is critical for production quality. This heat pump system reliably provides high-temperature hot water at 85 ℃ for industrial hot water needs such as printing and dyeing factories, bleaching and dyeing factories, dyeing and finishing factories, and textile factories.
Compared with traditional boilers for hot water production, this air source heat pump offers substantial operational advantages. Traditional boilers often require complex regulatory approvals, dedicated operational staff, and high fuel costs. In contrast, this heat pump ensures the operation is simple and stable. The consistent 85 ℃ water output guarantees that dyeing processes achieve targeted color fastness and material treatment without temperature fluctuations. Furthermore, the operating cost is low, and it is environmentally friendly, helping textile facilities meet sustainability targets and reduce their carbon footprint while maintaining production efficiency.
The production of ceramics and glass requires intense and consistent heat sources for various stages of manufacturing. This high-temperature heat pump is used in the manufacturing process to provide high-temperature heat sources, melt, process, and solidify materials, with higher energy efficiency and environmental advantages.
Industrial processes in ceramic and glass production are traditionally highly energy-intensive. By integrating this advanced heat pump technology, manufacturing facilities can achieve a more energy-efficient method for pre-heating, drying, and curing stages. The system provides a stable thermal output that contributes to uniform material processing, which is vital for minimizing defect rates and ensuring the structural integrity of the final glass or ceramic products. The transition to an air source heat pump for these specific thermal requirements optimizes energy utilization and reduces reliance on direct fossil fuel combustion, aligning heavy manufacturing processes with modern ecological standards.
Upon taking delivery of the goods, the purchaser will furnish an instructional video.
We understand that proper installation and correct initial setup are crucial for maximizing the lifespan and efficiency of industrial heating equipment. To ensure a smooth deployment, a detailed operational video guide will be provided immediately upon receipt of the equipment. This visual guide covers essential operating procedures, basic system navigation, and safety protocols, enabling your technical team or local installers to quickly understand the system's interface and operational logic. This straightforward guidance helps reduce installation time, minimizes the risk of setup errors, and ensures that the heat pump can be integrated into your specific residential or industrial application with minimal downtime.
To address potential heating efficiency drops in severe cold, we recommend utilizing a two-stage compression or cascade heat pump system, such as the COLDNOT model. This configuration is specifically designed to ensure stable and reliable operation even at ambient temperatures as low as -35 °C. For additional reliability, auxiliary electric heating can be installed as a backup. However, we advise carefully evaluating your operational strategy, as auxiliary heating may lead to an increase in overall energy consumption during prolonged use.
We offer a comprehensive after-sales support system to ensure seamless equipment management. Every unit is delivered with detailed user manuals and practical maintenance guidelines to direct operators in the correct use and daily upkeep of the heat pump. Additionally, we provide regular user training programs and responsive technical support activities. These services are designed to enhance your team's operational skills, strengthen maintenance awareness, and maximize the long-term stability of the equipment.
Safeguarding the equipment against extreme weather begins at the initial design and installation phase. We strongly advise evaluating the specific site environment and implementing necessary physical protective measures, such as installing dedicated windbreaks and rain covers.
Furthermore, establishing a routine for comprehensive inspections and maintenance is essential to ensure the heat pump remains fully functional under harsh environmental conditions.
When extreme weather warnings are issued, taking proactive preventative measures in advance will significantly reduce potential operational risks and prevent unexpected equipment downtime.
Need high-temperature hot water for your industrial or commercial application? Tell us your required water temperature, heating capacity, ambient conditions and operating schedule. Our team can help evaluate whether the FKH-70II/CGW is suitable for your project and recommend the right heat pump configuration.
