ANK REVERSIBLE HEAT PUMP EFFICIENCY, ENERGY SAVINGS & WELL-BEING

Transcription

1 ANK REVERSIBLE HEAT PUMP EFFICIENCY, ENERGY SAVINGS & WELL-BEING Air-cooled axial fans Scroll compressors R410A Cooling capacity 6,8-30,0kW Heating capacity 8,0-33,5kW

2 ANK reversible heat pump all the heat you want, with extremely high efficiency levels optimised for heat pump operation production of hot water up to 60 C production of hot water with outdoor temperatures between -20 C and 42 C reduces heating costs by up to 30% compared with the best conventional systems (condensation boilers) can be combined with all terminals (radiant panels, fancoils and radiators) and is able to produce domestic hot water reduced weight and dimensions, thanks to the use of R410A refrigerant offers greater temperature and acoustic comfort high efficiency compressors also available in version with circulation pump only, or with storage tank too Inverter axial flow fan units for heat pumps (ANK020H ANK085H) Condensation boiler -30% New ANK heat pump annual electricity savings compared with the best condensation boilers reduction in emissions of CO 2, the carbon dioxide responsible for the greenhouse effect ANK is subjected to the strict energy efficiency tests needed in order to obtain EHPA on the German, Austrian and Swiss markets. ANK HA (heat pump and version with pump and buffer tank) ANK H (standard version) and HP (version with pump)

3 VMF SYSTEM From the machine to the system. The ANK High Efficiency heat pump can be managed and controlled together with the various system elements, thanks to the VMF system. VMF: Variable Multi Flow system Management and control system for hydronic systems for air conditioning, heating and the production of domestic hot water. The VMF system allows the complete control of every single component of a hydronic system - both locally and centralised - and, taking full advantage of the communication between the various components of the system itself, it manages the performance levels, never at any time neglecting to satisfy the comfort requests of the end user, but doing it in the most efficient way possible, and therefore with excellent energy savings too. Combining the control (local and centralised) with the flexibility of installation and operation typical of a hydronic system, the result is a valid alternative to systems with a variable refrigerant flow (VRF). The VMF system is extremely flexible, even allowing various degrees of control and management (extendable at different times too): 1) Control of a single fancoil 2) Control of a microzone (one MASTER fancoil and a maximum of 5 SLAVE fancoils) 3) Control of a network of several independent zones (one MASTER fancoil and a maximum of 5 SLAVE fancoils for each zone) 4) Control of a network of fancoils, plus the management of the heat pump 5) Control of a network of fancoils and the heat pump, plus the management of the domestic hot water system (DHW) 6) Control of a network of fancoils and the heat pump, production of domestic water, and additional circulators (a maximum of 12, using 3 additional VMF- CRP modules) 7) Control of a network of fancoils and the heat pump, production of domestic water, additional circulators, plus the management of up to 3 heat recovery units (with the possibility to manage up to 3 VOC probes) or a boiler (VOC = air quality probe) The VMF system can pilot and manage - via a VMF-E5 panel - up to 64 zones, consisting of a MASTER fancoil and up to 5 SLAVE fancoils connected to each MASTER, giving a total of 384 fancoils Besides the central control supplied by the VMF-E5 panel, the MASTER fancoils must be provided with a local control interface; this interface can be assembled on the fancoil (VMF-E2/E2H) or on a wall panel (VMF-E4) Various functions can be controlled via the VMF-E5 panel, including: - the identification of the different zones, setting a distinguishing name for each one - the control and setting of the ON/OFF function, and the temperature setting for each zone - the setting and management of the temperature of the heat pump - the scheduling of time slots Simple installation of the fancoil network, thanks to the SELF-MONITORING function of the MASTER fancoils VMF systems central interface Zone interface As awarded by The Chicago Athenaeum: Museum of Architecture and Design. The E4 panel is the winner for the International design Award «Good Design 2010» for the «Electronics»

4 +60 C MAXIMUM TEMPERATURE OF THE WATER PRODUCED -20 C THE MINIMUM WINTER TEMPERATURE FOR OPERATION OF THE ANK HIGH EFFICIENCY HEAT PUMP -30% ENERGY SAVINGS COMPARED WITH THE BEST CONDENSATION BOILERS SAVINGS ON BILLS Thanks to the painstaking design of the heat exchange circuit, and the use of the new R410A fluid, the ANK high efficiency heat pump ensures notable savings on your heating bill, all year round. These savings can be up to 30% per year when compared with condensation boilers. This means that for every 100 euros spent on electricity, the new ANK range will save you about 30 euros. NIGHT-TIME SILENCE The ANK high efficiency heat pump was designed with particular emphasis on silent running, thanks to the choice of components with the highest acoustic quality and the continuous monitoring of the machines being developed at Aermec R&D. The accuracy of acoustic data reported by Aermec is guaranteed by the European Certification Body Eurovent. RESPECT FOR THE ENVIRONMENT Thanks to greater energy efficiency and the use of fluid refrigerant R410A, harmless to the stratospheric ozone layer, the ANLI Inverter series is environmentally friendly. R410A is also a fluid with high thermodynamic efficiency and this makes it possible, together with use of the Inverter, to reduce CO 2 emissions. Totting up the savings in terms of summer climate control, winter heating and the production of domestic hot water, in comparison with the use of an ON-OFF heat pump, CO 2 emissions fall by 30%.

5 -30% IS THE REDUCTION OF CO 2, CARBON DIOXIDE EMISSIONS RESPONSIBLE FOR THE GREENHOUSE EFFECT. THE CARBON DIOXIDE RESPONSIBLE FOR THE GREENHOUSE EFFECT -50% REDUCED MAINTENANCE COSTS COMPARED WITH A TRADITIONAL BURNER BOILER -30% REDUCED STARTING CURRENT THANKS TO THE SOFT START DEVICE HIGH TEMPERATURE DOMESTIC WATER The ANK high efficiency heat pump can produce hot water with ambient temperatures down to -20 C. The temperature of the water produced can reach 60 C in the summer, and this means the ANK heat pump can be used to produce domestic hot water and heat a swimming pool all year round % savings in the production of domestic hot water compared with a condensation boiler [euros] 15% 25% 35% 45% 50% 45% 35% 20% 10 10% 10% 0 January 0% 0% February March April May June July August September October November December Size data - ANK ANK u.m. Version Height A (mm) All Width B (mm) H-HP HA Depth C (mm) All H Weight (kg) HP HA A A A A B B B B C C C C ANK H-HP ANK HA ANK H-HP-HA

6 Example of system components A maximum number of 4 VMF-CRP modules can be installed and each one can perform several tasks based on the type of setting: - Control 4 pumps - Control 3 heat recovery units and 3 VOC sensors (in this case the correct number of VMF-VOC accessories must be purchased) - Control a boiler The only requirement to install VMF-CRP modules is the presence of a VMF-E5 centralised control Selection 4: The VMF-ACS accessory allows to control the different components needed to produce domestic hot water; for detailed information on the types of systems manageable by VMF-ACS, refer to technical documentation of the accessory Selection 3: Selection 2: * * Selection 1: As awarded by The Chicago Athenaeum: Museum of Architecture and Design. * Winner for the International design Award «Good Design 2010» for the «Electronics» Thermostat for serial connection VMF-E0/E1/E18 Commands interface for MASTER unit VMF-E2/E2H/E4 Research and innovation are essential prerequisite in order to maintain the leadership in the global market and Aermec, which holds this position, has always distinguished itself for the cutting-edge solutions of its products. The innovative capacity and constant attention to research in order to meet market needs and trends, as well as anticipating the demands, are developed through highly skilled staff but also through the co-operation with prestigious universities and teachers of subjects related to air-conditioning. The devices of the future are developed and designed within the modern Aermec laboratories, equipped with sophisticated and constantly updated equipment, such as the new semi-anechoic chamber of the Research and Development Department.

7 Technical data ANK-H ANK - H Alimentation V/ph/Hz 230V 230V 230V 230V 400V 400V 400V 400V 400V 400V 400V 400V Cooling capacity (1) kw 6,82 8,15 9,55 11,69 6,76 8,15 10,5 11, ,5 25,2 29,2 Total input power (1) kw 2,36 2,82 3,24 3,73 2,33 2,82 3,56 3,99 4,35 5,22 8,18 10,14 EER (1) 2,89 2,89 2,95 3,13 2,9 2,89 2,95 2,91 2,99 2,97 3,08 2,88 ESEER (1) 3,16 3,24 3,28 3,46 3,18 3,24 3,27 3,25 3,4 3,33 3,89 3,85 Cooling Energy Class Eurovent (1) C C B A B C B B B B B C Water flow rate (1) l/h Pressure drop (1) kpa Heating capacity (2) kw 7,98 10,05 10,88 13,50 7,976 10,049 12,257 14,07 15,376 17,49 27,19 33,51 Total input power (2) kw 2,54 3,11 3,48 3,88 2,5 3,11 3,79 4,19 4,43 5,07 8,44 10,57 COP (2) 3,14 3,23 3,13 3,48 3,19 3,23 3,23 3,36 3,47 3,45 3,22 3,17 Heating Energy Class Eurovent (2) B A B A B A A A A A A B Water flow rate (2) l/h Pressure drop (2) kpa Cooling capacity (3) kw 9,44 11,30 13,23 16,30 9,36 11,3 14,52 16,04 18,07 21,43 33,69 39,06 Total input power (3) kw 2,48 2,95 3,40 3,93 2,45 2,96 3,73 4,18 4,56 5,51 8,89 11,03 EER (3) 3,81 3,83 3,89 4,15 3,82 3,82 3,89 3,84 3,96 3,89 3,79 3,54 Cooling Energy Class Eurovent (3) A A A A A A A A A A B C Water flow rate (3) l/h Pressure drop (3) kpa Heating capacity (4) kw 8,67 10,92 11,93 14,04 8,67 10,92 13,4 14,8 16,27 18,46 29,12 35,9 Total input power (4) kw 2,12 2,64 2,88 3,27 2,12 2,64 3,22 3,55 3,81 4,36 7,03 11,89 COP (4) 4,09 4,14 4,14 4,29 4,09 4,14 4,16 4,17 4,27 4,23 4,14 3,02 Heating Energy Class Eurovent (4) A A A A A A A A A A A G Water flow rate (4) l/h Pressure drop (4) kpa Performance under average climatic conditions (Average) Pdesignh (5) SCOP (5) 2,58 2,61 2,59 2,66 2,59 2,61 2,6 2,62 2,66 2,60 2,83 2,83 s (5) Efficiency Energy Class (7) A+ A+ A+ A+ A+ A+ A+ A+ A+ A+ A+ A+ Pdesignh (6) SCOP (6) 3,32 3,41 3,43 3,54 3,37 3,41 3,49 3,48 3,59 3,41 3,91 3,91 s (6) Efficiency Energy Class (7) A+ A+ A+ A+ A+ A+ A+ A+ A+ A+ A++ A++ 12 C / 7 C 40 C / 45 C 23 C / 18 C 30 C / 35 C Technical data ANK-HP/HA ANK - HP/HA Alimentation V/ph/Hz 230V 230V 230V 230V 400V 400V 400V 400V 400V 400V 400V 400V Cooling capacity (1) kw 6,91 8,25 9,67 11,85 6,84 8,25 10,61 11,74 13,22 15,68 25,78 29,92 Total input power (1) kw 2,43 2,89 3,30 3,89 2,41 2,89 3,61 4,12 4,5 5,35 8,13 10,21 EER (1) 2,84 2,85 2,93 3,05 2,84 2,85 2,94 2,85 2,94 2,93 3,17 2,93 ESEER (1) 3,28 3,37 3,45 3,47 3,3 3,35 3,44 3,26 3,45 3,41 4,08 3,93 Cooling Energy Class Eurovent (1) C C B B C C B C B B A B Water flow rate (1) l/h High static pressure (1) kpa Heating capacity (2) kw 7,87 9,92 10,74 13,29 7,867 9,915 12,103 13,852 15,15 17,246 26,59 32,72 Total input power (2) kw 2,60 3,15 3,51 3,98 2,56 3,15 3,82 4,28 4,54 5,16 8,36 10,62 COP (2) 3,03 3,15 3,06 3,34 3,078 3,15 3,17 3,24 3,34 3,34 3,18 3,08 Heating Energy Class Eurovent (2) B B B A B B B A A A B B Water flow rate (2) l/h High static pressure (2) kpa Cooling capacity (3) kw 9,57 11,43 13,38 16,26 9,48 11,42 14,67 16,26 18,3 21,69 34,41 39,96 Total input power (3) kw 2,51 3,00 3,43 4,27 2,48 3 3,76 4,27 4,66 5,59 8,73 11,04 EER (3) 3,81 3,81 3,90 3,81 3,82 3,81 3,9 3,81 3,93 3,88 3,94 3,62 Cooling Energy Class Eurovent (3) A A A A A A A A A A A C Water flow rate (3) l/h High static pressure (3) kpa Heating capacity (4) kw 8,58 10,84 11,90 13,84 8,58 10,84 13,24 14,88 16,12 18,31 28,49 35,06 Total input power (4) kw 2,21 2,64 2,90 3,37 2,18 2,64 3,23 3,6 3,91 4,45 6,95 8,94 COP (4) 3,88 4,11 4,10 4,11 3,94 4,11 4,1 4,13 4,12 4,11 4,1 3,92 Heating Energy Class Eurovent (4) C A A A B A A A A A A B Water flow rate (4) l/h High static pressure (4) kpa Performance under average climatic conditions (Average) Pdesignh (5) SCOP (5) 2,58 2,62 2,59 2,64 2,6 2,62 2,61 2,61 2,65 2,61 2,63 2,61 s (5) Efficiency Energy Class (7) A+ A+ A+ A+ A+ A+ A+ A+ A+ A+ A+ A+ Pdesignh (6) SCOP (6) 3,39 3,49 3,51 3,59 3,45 3,49 3,58 3,53 3,66 3,45 3,82 3,69 s (6) Efficiency Energy Class (7) A+ A+ A+ A+ A+ A+ A+ A+ A+ A+ A++ A+ 12 C / 7 C 40 C / 45 C 23 C / 18 C 30 C / 35 C Date (14511:2013) (1) Water evaporator 12 C/7 C, External air 35 C (2) Water condenser 40 C/45 C, External air 7 C b.s./6 C b.u. (3) Water evaporator 23 C/18 C, External air 35 C (4) Water condenser 30 C/35 C, External air 7 C b.s./6 C b.u. (5) Efficiencies for average temperature Applications (55 C) (6) Efficiencies for low temperature Applications (35 C) (7) Efficiency Energy Class in according to regulation n 811/2013 Pdesignh 70kW AERMEC adheres to the EUROVENT Certification Programme: LCP. The products concerned appear in the EUROVENT web site www. eurovent-certification.com For more information, please refer to the program selection and the technical documentation available on the website

8 Aermec S.p.A. Via Roma, Bevilacqua (VR) - Italia Tel Fax sales@aermec.com All specifications are subject to change without prior notice. Although every effort has been made to ensure accuracy, Aermec does not assume responsibility or liability for eventual errors or omissions. Cod. DANKUY_02