초록 ▼

A fluid flow-driven energy conversion system configured to oscillate in the presence of fluid flow. The system comprises an adjustable electromechanically controlled fluidfoil, a balance beam, a compensatory weight and an angle of attack positioner to adjust the angle of attack of the fluidfoil with

A fluid flow-driven energy conversion system configured to oscillate in the presence of fluid flow. The system comprises an adjustable electromechanically controlled fluidfoil, a balance beam, a compensatory weight and an angle of attack positioner to adjust the angle of attack of the fluidfoil with respect to fluid flow. The fluidfoil is controlled to permit a consistently optimum angle of attack into the prevailing flow. The kinetic energy of the oscillating action is transferred to a connector for energy transfer to one of a variety of energy storage systems for converting the energy of the linear oscillating motion to other desired forms of energy.

대표청구항 ▼

The Invention claimed is: 1. An adaptable flow-driven energy conversion system, comprising: a balance beam having a pivot; a compensatory weight attached to said beam on one side of said pivot; at least one fluidfoil moveably connected to said beam on the opposite side of said pivot from said weigh

The Invention claimed is: 1. An adaptable flow-driven energy conversion system, comprising: a balance beam having a pivot; a compensatory weight attached to said beam on one side of said pivot; at least one fluidfoil moveably connected to said beam on the opposite side of said pivot from said weight, wherein the direction of a fluid flow is from said fluidfoil towards said compensatory weight, said at least one fluidfoil causing said balance beam to pivot in response to fluid flow over said fluidfoil, wherein the range of oscillation displacement of said balance beam varies due to the force of fluid flow over said fluidfoil; an angle of attack positioner attached to operate on said fluidfoil to control an angle of attack of said fluidfoil with respect to fluid flow; and a converter connected to convert motion of said balance beam to a desired form of energy. 2. The energy conversion system of claim 1, said balance beam comprising: a force arm extending from a first end in the direction of a second end; a load arm extending from said second end in the direction of said first end; and said balance beam rotatably attached to a support mast, said support mast comprising a bearing affixed to a support masthead. 3. The energy conversion system of claim 2, wherein said force arm is a different length than said load arm. 4. An adaptable flow-driven energy conversion system, comprising: a balance beam having a pivot; a compensatory weight attached to said beam on one side of said pivot; at least one fluidfoil moveably connected to said beam on the opposite side of said pivot from said weight, wherein the direction of a fluid flow is from said fluidfoil towards said compensatory weight, said at least one fluidfoil causing said balance beam to pivot in response to fluid flow over said fluidfoil, wherein the range of oscillation displacement of said balance beam varies due to the force of fluid flow over said fluidfoil; an angle of attack positioner attached to operate on said fluidfoil to control an angle of attack of said fluidfoil with respect to fluid flow; a converter connected to convert motion of said balance beam to a desired form of energy; and a fluid flow meter that measures a rate of fluid flow over said fluidfoil to adjust said angle of attack in response to said rate. 5. An adaptable flow-driven energy conversion system, comprising: a balance beam having a pivot; a compensatory weight attached to said beam on one side of said pivot; at least one fluidfoil moveably connected to said beam on the opposite side of said pivot from said weight, wherein the direction of a fluid flow is from said fluidfoil towards said compensatory weight, said at least one fluidfoil causing said balance beam to pivot in response to fluid flow over said fluidfoil, wherein the range of oscillation displacement of said balance beam varies due to the force of fluid flow over said fluidfoil; said fluidfoil further comprising: a leading edge; a trailing edge, wherein said leading edge and trailing edge define an edge axis extending therebetween; and said fluidfoil pivotally connected to a fluidfoil mast that is pivotally connected to a load arm; an angle of attack positioner attached to operate on said fluidfoil to control an angle of attack of said fluidfoil with respect to fluid flow; and a converter connected to convert motion of said balance beam to a desired form of energy. 6. The energy conversion system of claim 5, wherein said fluidfoil oscillates through a positive and a negative lift mode. 7. The energy conversion system of claim 6, wherein said positive lift mode corresponds to said fluidfoil positioned in an upward angle resulting in upward movement of said balance beam. 8. The energy conversion system of claim 6, wherein said negative lift mode corresponds to said fluidfoil positioned in a downward angle resulting in downward movement of said balance beam. 9. The energy conversion system of claim 5, wherein said fluidfoil is substantially orthogonal to the direction of fluid flow. 10. An adaptable flow-driven energy conversion system, comprising: a balance beam having a pivot; a compensatory weight attached to said beam on one side of said pivot; at least one fluidfoil moveably connected to said beam on the opposite side of said pivot from said weight, wherein the direction of a fluid flow is from said fluidfoil towards said compensatory weight, said at least one fluidfoil causing said balance beam to pivot in response to fluid flow over said fluidfoil, wherein the range of oscillation displacement of said balance beam varies due to the force of fluid flow over said fluidfoil; an angle of attack positioner attached to operate on said fluidfoil to control an angle of attack of said fluidfoil with respect to fluid flow, said angle of attack positioner is attached between said fluidfoil and a fluidfoil mast, wherein an oscillation displacement sensor triggers said positioner to invert said angle of attack when said fluidfoil reaches the limits of said positive and negative lift mode; and a converter connected to convert motion of said balance beam to a desired form of energy. 11. The energy conversion system of claim 10, wherein said positioner maintains said fluidfoil at an angle of attack to consistently arrive at the limit of a positive and a negative lift mode. 12. An adaptable flow-driven energy conversion system, comprising: a balance beam having a pivot; a compensatory weight attached to said beam on one side of said pivot; at least one fluidfoil moveably connected to said beam on the opposite side of said pivot from said weight, wherein the direction of a fluid flow is from said fluidfoil towards said compensatory weight, said at least one fluidfoil causing said balance beam to pivot in response to fluid flow over said fluidfoil, wherein the range of oscillation displacement of said balance beam varies due to the force of fluid flow over said fluidfoil; an angle of attack positioner attached to operate on said fluidfoil to control an angle of attack of said fluidfoil with respect to fluid flow; a converter connected to convert motion of said balance beam to a desired form of energy; and at least one control rod that extends equidistantly and parallel to said balance beam and is pivotally attached to a support masthead and to a fluidfoil mast. 13. An adaptable flow-driven energy conversion system, comprising: a balance beam having a pivot; a compensatory weight attached to said beam on one side of said pivot; at least one fluidfoil moveably connected to said beam on the opposite side of said pivot from said weight, wherein the direction of a fluid flow is from said fluidfoil towards said compensatory weight, said at least one fluidfoil causing said balance beam to pivot in response to fluid flow over said fluidfoil, wherein the range of oscillation displacement of said balance beam varies due to the force of fluid flow over said fluidfoil; an angle of attack positioner attached to operate on said fluidfoil to control an angle of attack of said fluidfoil with respect to fluid flow; a converter connected to convert motion of said balance beam to a desired form of energy; and an energy recapture device that propels the movement of said balance beam in response to said angle of attack positioner inverting said fluidfoil between a positive and a negative lift mode.