1. DESIGN AND DEVELOPMENT SOLAR-WIND HYBRID POWER SYSTEM
ABC INC

2. CONTENT Pollution from power plant Test Video Design stages
Resource analysis
Various applications
Test results
Major benefit

3. Objective
To generate continuous power from wind and solar energy. (day and night)
To use VAWT instead of HAWT
Design and manufacture a Prototype model

4. POLLUTION FROM POWER PLANTS

5. Edith Cowan University

6. SCHEMATIC DIAGRAM

7. Solar-wind hybrid power system
Edith Cowan University

8. Advantages of VAWT over HAWT
CHEAP Maintenance, No gear mechanism
Bird and bat friendly
Quiet in operation
VAWT catches wind more efficiently, does not need to be as tall. Easier to permit in residential neighborhoods.
Small profile
Low height required
More reliable
Less expensive than HAWT (approx. 45%)

9. WA Wind observation

10. Applications

11. Road lighting
Edith Cowan University

12. House lighting
Edith Cowan University

13. LANDSCAPE LIGHTING
Edith Cowan University

14. PUMP IRRIGATION
Edith Cowan University

15. Telecommunication System

16. FISHING BOAT
Edith Cowan University

17. YACHT
Edith Cowan University

18. Various monitoring systems

19. Rural area
Edith Cowan University

20. Technical details and data
SOLAR – WIND HYBRID POWER SYSTEM
START WIND SPEED
5.6 Km/h
Rated wind speed
36 km/h
Rated voltage
12v
Rated power
200w
Wind turbine material
Galvanized iron
No. of wings 8
Fan diameter
60cm
Safe wind speed
50 km/h
Weight
25kg

21. Test Results Output power Wind speed (km/h) o/p (w) 7.2 1 14.4 1.2
25.2 50
28.8 70
32.4
120
wind Vs power.xlsx

22. Specifications of solar panel
TYPE
Polycrystalline
Rated Power
10 W
Battery Charging Time
(deep cycle)
20-50 hrs.
Optimum Operating Voltage
17 v
Optimum Operating Current
0.59 A
Open Circuit Voltage
21 v
Short Circuit Voltage
0.61 A
Specifications of solar panel

23. Buy back scheme “ You can sell us power” –SYNERGY
We can export surplus energy into the gridlines and can reduce electricity bills or get credit amount back.
Edith Cowan University

24. CHALLENGES FACED Very Low wind speed Time management
Material selection and cost
Design decisions

25. LESSION LEARNT Planning Problem solving abilities Auto Cad Pro –E
Various machines real operations

26. More efficient Dynamometer
Future work
Wind turbine design
More efficient Dynamometer

27. CONCLUSION
As we design for the 200 W output system but due to friction loss, slip loss and other losses we come up with 120 W power output system.
Consequently, our design is successful due to major support and guidance from ECU staff, friends and relatives.

28. Special thanks DR. LAICHANG ZHANG DR. ALEX RASSAU DR. XIAOLI ZHOA
DR. DOUGLAS CHAI
MR. K BAJARIA
MR. MITVESH PATEL

29. Thank you