Advanced methods and systems for generating renewable electrical energy

• US 20140175799A1
• Filed: 12/24/2012
• Published: 06/26/2014
• Est. Priority Date: 12/24/2012
• Status: Abandoned Application

• Current Assignee: Joseph Akwo Tabe
• Original Assignee: Joseph Akwo Tabe
• Inventors: TABE, JOSEPH AKWO
• Application Number:
  US13/726,401
• Publication Number:
  US 20140175799A1
• Time in Patent Office: Days
• US Class Current: 290/55
• CPC Class Codes: F03D 80/60 Cooling or heating of wind motors
• CPC Class Codes: F03D 9/00 Adaptations of wind motors for special use; Combinations of wind motors with apparatus driven thereby; Wind motors specially adapted for installation in particular locations hybrid wind-photovoltaic energy systems for the generation of electric power H02S10/12
• CPC Class Codes: F03D 9/25 the apparatus being an electrical generator F03D9/22 takes precedence
• CPC Class Codes: F03D 9/28 the apparatus being a pump or a compressor
• CPC Class Codes: F03D 9/34 on stationary objects or on stationary man-made structures
• CPC Class Codes: F05B 2240/9112 which is a building
• CPC Class Codes: Y02B 10/30 Wind power
• CPC Class Codes: Y02E 10/72 Wind turbines with rotation axis in wind direction
• CPC Class Codes: Y02E 10/728 Onshore wind turbines

Abstract

Disclosed embodiment provides enclosed wind and hydropower energy generation being disposed with electrical energy generation apparatus, comprising advanced methods and systems for maximizing net impact on wind turbine operations. The enclosed wind and hydropower energy generation provides an effective environment for turbine maintenance scheduling, refurbishment, and replacement. Embodiment comprises advanced methods and systems for generating renewable electrical energy via performance enhancement and reliability.

Claims

1. An electrical generation system;

comprising;

at least a building structure;

at least a turbine assembly;

at least an apparatus for generating fluid pressure force affixed within said building structure;

at least a communication apparatus for controlling the rotational speed for said turbine assembly; and

said turbine assembly responsive to the operation of said apparatus for generating fluid pressure force for generating renewable electrical energy.

2. The electrical energy generation system of claim 1, wherein said apparatus for generating fluid pressure force further comprises at least a wind generator apparatus.

3. The electrical energy generation system of claim 1, wherein said turbine assembly further comprises variable rotational speed set point.

4. The electrical energy generation system of claim 1, wherein said turbine system further disposed with sensors arranged for communication with said communication apparatus to obtain at least one of:

measurable operational parameters;

immeasurable operational parameters.

5. The electrical energy generation system of claim 1, wherein said turbine assembly further enclosed in said building structure responsive to said apparatus for generating fluid pressure force.

6. The electrical energy generation system of claim 1, wherein said communication apparatus further comprising means for comparing at least one mechanical/electromechanical operational parameter for adjusting the speed and electrical energy output of said turbine assembly.

7. The electrical energy generation system of claim 1, wherein said building structure further comprises at least one of:

a compressed air medium;

a central monitoring station;

wherein said building structure further configured to selectively permit adjustment of at least one of;

said turbine assembly rotation;

controlling said apparatus for generating fluid pressure force;

in response to an external requirement and/or demand, producing electrical energy.

8. The electrical energy generation system of claim 6, wherein at least one measured operational parameter further comprises at least one of:

at least a generator speed;

at least a power output;

at least turbulence intensity within said building structure;

at least fluid inlet and outlet speed for said building structure;

at least a generator torque;

at least ambient temperature for said building structure;

at least inlet and outlet fluid pressure differential;

at least a generated fluid density;

at least a component temperature;

at least the electrical current in generator rotor;

at least the electrical current in generator stator;

at least the voltage in generator rotor;

at least the voltage in generator stator;

at least the power output factor;

at least a drive train vibration;

at least a yaw position; and

/or any combinations thereof.

9. The electrical energy generation system of claim 7, wherein the external requirement further comprises at least one of:

at least a power factor;

external temperature conditions;

external fluid force conditions;

a site property conditions;

an electrical requirement;

maximum power output;

electrical power demand;

fluid force condition;

maintenance condition;

mechanical conditions;

electromechanical conditions; and

/or any combinations thereof.

10. The electrical energy generation system of claim 1, wherein said sensor further disposed on or in close proximity to said turbine assembly.

11. The electrical energy generation system of claim 1, wherein said apparatus for generating fluid pressure force further comprises at least one of:

a compressor for generating compressed air pressure;

a wind generation apparatus;

a pumped fluid pressure;

a conduit pressure flow channel; and

/or any combination thereof.

12. The electrical energy generation system of claim 1, wherein said apparatus for generating fluid pressure force further comprises at least one of:

compressed air pressure force generation apparatus, pneumatic pressure means.

13. The electrical energy generation system of claim 1, wherein said turbine assembly is further operable by at least one of:

the pneumatic pressure means to generate renewable electrical energy;

compressed air means;

coupling means.

14. The electrical energy generation system of claim 13, wherein said pneumatic pressure means further comprises at least one of:

compressed air apparatus;

a pneumatic apparatus being responsive to the operation of said compressed air apparatus;

pneumatic apparatus being responsive to compressed air pressure.

15. The electrical energy generation system of claim 1, further comprising nano technology solar cell apparatus, compressed air means for generating electrical energy.

16. The electrical energy generation system of claim 15, wherein said nano technology solar cell apparatus further comprises at least a non ferrous material having excellent electrically conductive properties, each material being embedded in a silicon substrate, and wherein said silicon substrate is etched/fused in at least one of:

a nano fiber material;

a nano fiber glass substrate;

a microfiber material; and

/or any combinations thereof.

17. The electrical energy generation system of claim 1, wherein said building structure further comprises at least an energy medium comprising at least one of:

a heat exchanger for cooling at least one of;

the building medium, the turbine assembly;

pressure force environment;

electrical energy production plant; and

/or any combination thereof; and

wherein the heat exchanger is located inside the building structure and further configured to control a temperature and humidity condition.

18. The electrical energy generation system of claim 1, wherein said apparatus for generating fluid pressure force further comprises at least a machine each comprising a generator, wherein each generator further comprising a first channel for air-inlet and at least a second channel for air-outlet, and wherein each generator further responsive to said fluid pressure force for generating electrical energy.

19. The electrical energy generation system of claim 1, wherein said apparatus for generating fluid pressure force is in association with said building structure to enable at least one of:

energy transport platform;

method for generating controllable energy;

means for controlling said turbine assembly operational parameter;

method for reducing unscheduled electrical outage;

method for monitoring turbine operations;

method for scheduling turbine maintenance;

method for withstanding extreme environmental conditions;

non-seasonal energy production means; and

/or any combination thereof.

20. The electrical energy generation system of claim 1, wherein said apparatus for generating fluid pressure force further comprises at least one of:

method for enhancing wind reliability;

method for increasing energy generation;

method for producing regenerative fluid pressure force;

method for producing regenerative energy;

method of compressing atmospheric pressure in at least a structure for communication with said turbine assembly to generate renewable electrical energy;

methods of channeling atmospheric pressure into a structure, compressing the pressure within the structure, and providing at least a turbine assembly responsive to the compressed air;

means for allowing the compressed air to return back to atmospheric pressure;

at least a pathway for compressing atmospheric pressure to generate electrical energy;

a mobile wind turbine assembly device; and

/or any combination thereof.

21. The electrical energy generation system of claim 1, wherein said apparatus for generating fluid pressure force further comprises a compressed air method of generating renewable electrical energy.

22. The electrical energy generation system of claim 1, wherein said apparatus for generating fluid pressure force in association with said turbine assembly, further comprising a pneumatic method of generating electrical energy.