System and method for converting ocean wave energy into electricity
A system and method for harnessing power associated with ocean waves and converting that power into electricity. The apparatus is a buoy that houses a vertically oriented central shaft, a pendulum, a generator mechanism, and other components that synergistically operate to optimize power output of the buoy. Both the load on the pendulum and the effective length of the pendulum may be varied in response to changing environmental conditions. Also, the buoy may be part of a network that shares environmental data and a series of best tuning responses to that data, across the network. A library of environmental data and associated tuning responses is built at a central location and shared across the network.
1. A computer readable medium, said medium comprising:
logic for measuring environmental conditions;
logic for determining an optimized pendulum setting for said measured conditions; and
logic for varying the effective length of said pendulum or the resistance placed upon said pendulum to optimize power output of said pendulum according to said determined optimized pendulum setting.
2. The computer readable medium of claim 1 further comprising logic for measuring conditions remotely from said pendulum and transmitting said measurements locally to said pendulum, wherein said measurements are used to determine said optimized pendulum setting.
3. The computer readable medium of claim 1 further comprising logic for computing instructions to achieve said optimized setting locally at said pendulum.
4. The computer readable medium of claim 1 further comprising logic for retrieving said setting from a central database.
5. The computer readable medium of claim 1 further comprising logic for comparing said measured environmental conditions against environmental conditions stored in a database and deriving said setting based, at least in part, upon said comparison.
6. The computer readable medium of claim 1 further comprising logic for transmitting and receiving said measured environmental conditions and said determined instructions.
7. The computer readable medium of claim 1 further comprising logic for storing at least one optimized pendulum setting associated with a first set of measured environmental conditions.
8. A method of optimizing power output of a pendulum rotating under the influence of wave motion, said method comprising:
evaluating power output of said pendulum;
optimizing the power output by varying in the effective length of said pendulum or the resistance placed upon said pendulum; and
measuring environmental conditions and optimizing the power output of said pendulum in response to said measuring;
wherein said measuring environmental conditions is performed remote from said pendulum.
9. The method of claim 8 wherein said varying is performed, at least in part, in response to comparing said measured environmental conditions to environmental conditions stored in a database.
10. A method of optimizing power output of a pendulum rotating under the influence of wave motion, said method comprising:
evaluating power output of said pendulum; and
optimizing the power output of said pendulum by varying the effective length of said pendulum or the resistance placed upon said pendulum;
wherein said optimization of the power output is performed remote from said pendulum.
11. The method of claim 10 wherein said optimization of the power output further comprises transmitting instructions from said remote location to said pendulum to vary the effective length of said pendulum or the resistance placed upon said pendulum.
12. A method of optimizing power output of a pendulum rotating under the influence of wave motion, said method comprising:
evaluating power output of said pendulum;
optimizing the power output of said pendulum by varying the effective length of said pendulum or the resistance placed upon said pendulum; and
storing at least one optimized pendulum setting associated with a first set of measured environmental conditions.
13. A method of optimizing power output of a pendulum rotating under the influence of wave motion, said method comprising:
evaluating power output of said pendulum;
optimizing the power output of said pendulum by varying the effective length of said pendulum or the resistance placed upon said pendulum; and
determining instructions to achieve said optimization;
wherein said instructions are retrieved from a central location.
14. A power optimization network, said network comprising:
a first plurality of buoys, said buoys comprising at least one pendulum generating power under the influence of wave motion and a communication module for transmitting information relating to power output of said pendulum; and
a first central station in communication with said first plurality of buoys, said first central location comprising a database for storing said transmitted information and transmitting instructions comprising one or more pendulum settings optimized according to said power output information.
15. The network of claim 14 wherein said one or more pendulum settings are configured to optimize the power output of said pendulum.
16. The network of claim 15 wherein said first plurality of buoys further comprising a measurement module for measuring environmental conditions, and wherein said communication module further transmits and receives information relating to said measured environmental conditions with said first central location.
17. The network of claim 16 wherein said optimization of the power output of said pendulum is based, at least in part, upon said measured environmental conditions.
18. The network of claim 14 wherein said instructions comprising instructions to vary the effective length of said at least one pendulum or the resistance placed upon said at least one pendulum.
19. The network of claim 14 further comprising:
a second plurality of buoys, said second plurality of buoys comprising:
a pendulum for generating power under the influence of wave motion and a communication module for transmitting information relating to power output of said pendulum; and
a second central station in communication with said second plurality of buoys, said second central location comprising:
a communication module for communicating with said first central station.