Installing the 4.5 Kilowatt Photovoltaic & Solahart
Water Heating Systems
(Click on any image for full size)
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| Figure 1. Roof layout was critical to allow all
the equipment to fit on the roof. |
Figure 2. All roof truss locations were transposed
to the roof surface. |
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| Figure 3. The Solahart Water Heater base was
mounted first. |
Figure 4. The Solahart water collecters were
added after the tank was in place. |
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| Figure 5. Due to the size of the two systems
no roof area was wasted. |
Figure 6. Each PV panel was prepared for mounting
by adding lay-in grounding lugs |
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| Figure 7. Each "L" bracket that would
be holding the rails up was fitted with pitch pads to help establish a watertight
penetration on the roof. |
Figure 8. The pv panels were attached to the
roof via a Uni-Rac rail high-profile mounting system to allow air cooling
underneath the array. |
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| Figure 9. U-shaped brackets beetween the panels
secured them to the rails. |
Figure 10. Once the mounting system was in place
the panels went up very quickly. |
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| Figure 11. Once the panels were mounted team
members made the final wiring connections. |
Figure 12. The pv panels and the rail were grounded
together with a #10AWG braided bare copper wire. |
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| Figure 13. A 6000 watt "Sunny Boy"
inverter (large white box) is the brain of the system. |
Figure 14.Under Duke Power's Independent Power
Provider program the home will have two meters. One for the home and one
for the pv system for sell back. |
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Installing the Water Furnace Geothermal System
(Click on any image for full size)
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| Figure 15 & 16. The trench was 6 feet deep and
circled the home to obtain 1 ton of cooling. |
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| Figure 17. Volunteers helped unroll the pipes that will carry the
geothermal transfer fluid |
Figure 18. Tom Trantham of Water Furnace helps crimp final connections
to ensure tight connectons. |
| Insert image of finished indoor unit |
Insert image of waterlines entering pumping module |
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