Difference between revisions of "Solar Thermal Collector (STC)"
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{{Solar Thermal Collector (STC) | {{Solar Thermal Collector (STC) | ||
| − | |Description= | + | |Description= |
| − | |Advantages= | + | |Advantages= |
| − | |Disadvantages= | + | |Disadvantages= |
| − | |Application barriers= | + | |Application barriers= |
| − | |Information sources= | + | |Information sources= |
| − | |Image= | + | |Image= |
| − | |Trade= | + | |Trade= |
| − | |Quantity of | + | |Quantity of ModulesMin=1 |
| − | |Tank | + | |Quantity of ModulesMax= |
| − | |Hot Water | + | |Tank CapacityMin=200 |
| − | |Working Pressure of the | + | |Tank CapacityMax= |
| − | | | + | |Hot Water TemperatureMin= |
| − | |Operating | + | |Hot Water TemperatureMax= |
| − | |Annual Degradation Rate in | + | |Stagnation TemperatureMin=184 |
| − | |Annual Produced | + | |Stagnation TemperatureMax=220 |
| − | |Investment | + | |Working Pressure of the SystemMin=2.5 |
| − | |Operational Cost=( | + | |Working Pressure of the SystemMax=10 |
| − | |Replacement Cost=( | + | |DimensionsMin=H/W/D = 201.6/98.5/7.7 |
| − | |Life | + | |DimensionsMax=H/W/D = 203.7/113.7/8.0 |
| − | }} | + | |Gross Collector AreaMin=1.99 |
| − | + | |Gross Collector AreaMax=2.32 | |
| − | + | |Net Aperture AreaMin=1.874 | |
| − | + | |Net Aperture AreaMax=2.244 | |
| − | + | |WeightMin=33 | |
| − | + | |WeightMax=53 | |
| − | + | |Operating EfficiencyMin=75.4 | |
| − | + | |Operating EfficiencyMax=79.9 | |
| + | |Annual Degradation Rate in EfficiencyMin= | ||
| + | |Annual Degradation Rate in EfficiencyMax= | ||
| + | |Peak PowerMin=670 | ||
| + | |Peak PowerMax=1745 | ||
| + | |Annual Produced EnergyMin=358 | ||
| + | |Annual Produced EnergyMax=544 | ||
| + | |Investment CostMin=2,330 | ||
| + | |Investment CostMax=7,176 | ||
| + | |Operational CostMin=113 | ||
| + | |Operational CostMax=164 | ||
| + | |Replacement Cost (Carrier Fluid)Min=23.2 | ||
| + | |Replacement Cost (Carrier Fluid)Max= | ||
| + | |Replacement Cost (Pump)Min=10,4 | ||
| + | |Replacement Cost (Pump)Max= | ||
| + | |Life ExpectancyMin=25 | ||
| + | |Life ExpectancyMax= | ||
| + | |}} | ||
Revision as of 10:56, 7 February 2017
[edit]
| Description | |
|---|---|
| Advantages | |
| Disadvantages | |
| Characteristic features | |
| Application barriers | |
| Information sources | |
| Image | |
| Trade: |
| Parameter | Minimal Value | Maximal Value | Unit |
|---|---|---|---|
| Quantity of Modules | |||
| Tank Capacity |
l | ||
| Hot Water Temperature |
°C | ||
| Stagnation Temperature |
°C | ||
| Working Pressure of the System |
Bar | ||
| Dimensions |
H/W/D in cm | ||
| Gross Collector Area |
m2 | ||
| Net Aperture Area |
m2 | ||
| Weight |
kg | ||
| Operating Efficiency |
% | ||
| Annual Degradation Rate in Efficiency |
% | ||
| Peak Power |
W | ||
| Annual Produced Energy |
kWh/m2 | ||
| Investment Cost |
€ | ||
| Operational Cost |
€/year | ||
| Replacement Cost (Carrier Fluid) |
€/year | ||
| Replacement Cost (Pump) |
€/year | ||
| Life Expectancy |
years |
| Deterioration | Description |
|---|---|
| Causes | |
| Parameter | |
| Degradation Rate | |
| Measurement |
| The Design4Energy project aims to address evolutionary life-cycle evolutionary design methodology able to create energy-efficient buildings flexibly connected with the neighbourhood energy system. | 
|
BL(Ti)=0.788 
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