Difference between revisions of "Biomass Boiler"
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{{Biomass Boiler | {{Biomass Boiler | ||
| − | |Description= | + | |Description= |
| − | |Advantages= | + | |Advantages= |
| − | |Disadvantages= | + | |Disadvantages= |
| − | |Application barriers= | + | |Application barriers= |
| − | |Information sources= | + | |Information sources= |
| − | |Image= | + | |Image= |
| − | |Trade= | + | |Trade= |
| − | | | + | |FuelMin=Wood Pellet |
| − | |Input | + | |FuelMax=Wood chips |
| − | |Output | + | |Input CapacityMin= |
| − | |Water | + | |Input CapacityMax= |
| − | |Water Flow Temperature (Maximum/Minimum)=( | + | |Output CapacityMin=3.9 |
| − | |Water Return Temperature (Maximum/Minimum)=( | + | |Output CapacityMax=75 |
| − | |Operating | + | |Water CapacityMin=55 |
| − | |Heating | + | |Water CapacityMax=256 |
| − | |Operating | + | |Water Flow Temperature (Maximum/Minimum)Min=50 |
| − | |Annual Degradation Rate in | + | |Water Flow Temperature (Maximum/Minimum)Max=95 |
| − | | | + | |Water Return Temperature (Maximum/Minimum)Min=40 |
| − | | | + | |Water Return Temperature (Maximum/Minimum)Max=55 |
| − | |Noise | + | |Operating PressureMin= |
| − | |Maximum CO | + | |Operating PressureMax=3.0 |
| − | |Maximum NOX | + | |Heating SurfaceMin= |
| − | |Investment | + | |Heating SurfaceMax= |
| − | |Operational | + | |Operating EfficiencyMin=89 |
| − | | | + | |Operating EfficiencyMax=91 |
| − | | | + | |Annual Degradation Rate in EfficiencyMin= |
| − | + | |Annual Degradation Rate in EfficiencyMax= | |
| − | + | |DimensionsMin=865/590/1168 | |
| − | + | |DimensionsMax=1774/1090/1810 | |
| − | + | |WeightMin=261 | |
| − | + | |WeightMax=890 | |
| − | + | |Noise LevelMin= | |
| − | + | |Noise LevelMax= | |
| − | + | |Maximum CO EmissionMin= | |
| + | |Maximum CO EmissionMax= | ||
| + | |Maximum NOX EmissionMin= | ||
| + | |Maximum NOX EmissionMax= | ||
| + | |Investment CostMin=4,640 | ||
| + | |Investment CostMax=9,280 | ||
| + | |Operational CostMin=2,900 | ||
| + | |Operational CostMax= | ||
| + | |Maintenance CostMin=174 | ||
| + | |Maintenance CostMax=579 | ||
| + | |Life ExpectancyMin=18 | ||
| + | |Life ExpectancyMax=20 | ||
| + | |}} | ||
Latest revision as of 11:42, 7 February 2017
[edit]
| Description | |
|---|---|
| Advantages | |
| Disadvantages | |
| Characteristic features | |
| Application barriers | |
| Information sources | |
| Image | |
| Trade: |
| Parameter | Minimal Value | Maximal Value | Unit |
|---|---|---|---|
| Fuel | |||
| Input Capacity |
kW | ||
| Output Capacity |
kW | ||
| Water Capacity |
l | ||
| Water Flow Temperature (Maximum/Minimum) |
°C | ||
| Water Return Temperature (Maximum/Minimum) |
°C | ||
| Operating Pressure |
Bar | ||
| Heating Surface |
mm² | ||
| Operating Efficiency |
% | ||
| Annual Degradation Rate in Efficiency |
% | ||
| Dimensions |
L/W/H in mm | ||
| Weight |
kg | ||
| Noise Level |
dBA | ||
| Maximum CO Emission |
ppm | ||
| Maximum NOX Emission |
ppm | ||
| Investment Cost |
€ | ||
| Operational Cost |
€/year | ||
| Maintenance Cost |
€/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 
|
|---|
