Ferroli OMNIA M 3.2 HI3 8 8 kW 230V

The Ferroli OMNIA M 3.2 HI3 8 (230V) is a monoblock air-to-water reversible heat pump designed for efficient heating, cooling, and domestic hot water (DHW) production. This unit combines advanced technology with ease of installation, making it a versatile solution for modern homes.

• Monoblock Design: Simplifies installation by integrating all hydraulic components within the outdoor unit.
• Reversible Functionality: Provides heating, cooling, and DHW capabilities.
• High Energy Efficiency: Rated A+++ at 35°C and A++ at 55°C water supply temperatures, ensuring low energy consumption.
• Twin Rotary DC Inverter Compressor: Modulates power for efficient and reliable operation.
• Ecological R32 Refrigerant: Uses R32 refrigerant with a low Global Warming Potential (GWP).
• Integrated 3 kW Electric Heater: Offers supplementary heating during extreme cold conditions.
• Wide Operating Temperature Range: Functions effectively in outdoor temperatures as low as -25°C.
• Antifrost Protection: Prevents freezing of hydraulic components without the need for glycol.
• Low Noise Operation: Features a silenced mode that reduces sound levels to 53-56 dB(A).
• Complete Hydronic Kit: Includes a low consumption circulator, water flow switch, air vent, pressure gauge, expansion vessel, safety valve, and Y-filter.
• Advanced Automation: Managed via a wired remote controller, with optional Wi-Fi control through the Omnia Smart system.
• Multiple Heating Circuits: Supports two heating circuits, one with a mixer.
• Cascade Configuration: Can control up to 6 units in a cascade system.
• Compatibility: Integrates seamlessly with photovoltaic systems and smart grids for optimized energy use.

The Ferroli OMNIA M 3.2 HI3 8 (230V) heat pump is engineered for superior performance and ease of use. Its monoblock construction ensures straightforward installation, while the reversible functionality provides year-round comfort. The integration of a 3 kW electric heater and antifrost protection enhances its reliability in harsh climates.