The EVOTERM systems results from the combination of more than
30 years of know-how in the development of heat pump technologies,
with the need for to contribute to the Paris Agreement (2015) by
reducing CO2 emissions and at the same time, respond to consumers
that are increasingly more demanding and concerned about the
economy and efficiency of their houses.
EVOTERM COMBI is an all-in-one solution. An Air Heat Pump built to the highest standards of quality with outstanding performance. With a compact design, it carries out heating and cooling, as well as the production of Domestic Hot Water, using the latest DC Inverter technology.
Complies with the Energy Regulation for Housing standard (REH).
EVOTERM COMBI is an all-in-one solution. An Air Heat Pump built to the highest standards of quality with outstanding performance. With a compact design, it carries out heating and cooling, as well as the production of Domestic Hot Water, using the latest DC Inverter technology.
Complies with the Energy Regulation for Housing standard (REH).
Heat pumps are systems that use the principle of thermodynamics to extract natural heat from ambient air into your home. ENERGIE heat pumps are the ideal solution to increase energy efficiency, taking advantage of the environment as the main source of energy.
There is a cooling liquid that is pumped to an outdoor heat exchanger (evaporator). Here the liquid, with the help of a fan, absorbs the energy from the atmosphere to the temperature differential obtained outdoors. During this process, the liquid changes to a gaseous state. The gaseous state is sucked in by the mechanical part of the system, the compressor. Here it is compressed, the pressure goes up and consequently the liquid temperature increases. After this, the liquid travels to a second inside heat exchanger (condenser) and transfers heat to the water in the cylinder. The fluid goes into liquid state by cooling down. The liquid pressure is reduced due to a strangulation that happens in the expansion valve and the process starts again.
There is a cooling liquid that is pumped to an outdoor heat exchanger (evaporator). Here the liquid, with the help of a fan, absorbs the energy from the atmosphere to the temperature differential obtained outdoors. During this process, the liquid changes to a gaseous state. The gaseous state is sucked in by the mechanical part of the system, the compressor. Here it is compressed, the pressure goes up and consequently the liquid temperature increases. After this, the liquid travels to a second inside heat exchanger (condenser) and transfers heat to the water in the cylinder. The fluid goes into liquid state by cooling down. The liquid pressure is reduced due to a strangulation that happens in the expansion valve and the process starts again.
| INDOOR UNIT | ||||
| Heating Capacity | kW | 3 - 13 | ||
| Nominal (1) | kW | 6,00 |
||
| Maximum | kW | 13,00 | ||
| Nominal Consumption | kW | 1,34 | ||
| COP (1) | 4,5 | |||
| Cooling Capacity (2) | kW | 3 - 12,7 | ||
| Nominal (2) | kW | 4,70 | ||
| Maximum | kW | 12,70 | ||
| Nominal Consumption | kW | 1,12 | ||
| EER (2) | 4,2 | |||
| Energy Class - Environment Heating | A++ | |||
| Dimensions | AxLxP | mm | 1900x600x840 | |
| Weight | Kg. | 243 | ||
| Maximum Temperature | ºC | 60 | ||
| Hydraulic Connections | Outlet / Inlet | 1"M | ||
| Domestic Hot Water (DHW) | Tank | L | 200 | |
| Material | INOX AISI 316L | |||
| Máx. Temp. (compressor only) | ºC | 70 | ||
| Electrical Backup | W | 1500 | ||
| DHW Connections | Cold / Hot | 3/4” M | ||
| COP DHW (3) | 3,27 | |||
| Consumption Profile | L | |||
| Efficiency η | % | 138 | ||
| DHW Energy Class | A+ | |||
| Refrigerante | Type | R410A | ||
| Preload | Kg. | 3,5 | ||
| Connections | Liquid | 1/2” | ||
| Vapor | 3/4” | |||
| Sound Pressure | (distance 1m) | dBA | 42 | |
| Electrical Supply | Type | 230V or 400 V | ||
| Electrical Cable | 230V | mm2 | 3G6 | |
| 400V | mm2 | 5G4 | ||
| Protection Circuit Breaker | 230V | 40A | ||
| 400V | 32A | |||
| OUTDOOR UNIT | ||||
| Dimensions | AxLxP | mm | 700x940x600 | |
| Weight | Kg | 37 | ||
| Sound Pressure | (distance 10m) | dBA | 34 | |
| Type | Evaporator + Fan | |||
| Fan | Silent Axial Fan | |||
| INTERCONNECTION BETWEEN UNITS | ||||
| Electrical wiring | mm2 | 3G1,5 + 4 x 0,5 | ||
| Maximum distance without addition of refrigerant | m | 10 | ||
| Maximum distance with addition of refrigerant | m | 20 | ||
| Maximum drop | m | 15 | ||
(1) According to the standard EN 14511, A 7 / W 30/35 | (2) According to the standard EN 14511, A 35 / W 18/23 | (3) According to the standard EN 16147, A 14 / W 10/54
