Power Shift System to Store and Distribute Energy

Abstract

Disclosed is a machine learning energy management system that regulates incoming energy sources into compressed air storage operations and energy generation. Compressed air is directed into a thermoregulation system that cycles storage tanks according to physical qualities. A boost impulse creates energy to initiate the electrical energy generation. The compressed air operations and energy generation leverage the heating and cooling of an external HVAC system to improve performance and conservation of the heating and cooling for an external building. The system combines real-time data, historical performance data, algorithm control, variable air pressure for demand-based generation, tank-to-tank thermal cycling, building air heat exchanger, and boost pulsation to achieve optimized system efficiency and responsiveness.

1 . An energy management machine comprising:
 at least one control component;   at least one monitoring component configured to generate performance data;   an air compression device coupled to said at least one control component and configured to receive energy from an energy source to create a volume of high-pressured air from an ambient air source;   a cycling tank array comprising at least two storage tanks, such that each storage tank is coupled to said at least one monitoring component, said at least one control component, and said air compression device;   a fill order component coupled to said at least one control component, and comprising a first cycling algorithm configured to determine which storage tank receives a portion of high-pressured air based on said performance data;   a release order component coupled to said at least one control component, and comprising a second cycling algorithm configured to determine which storage tank releases the portion of high-pressured air based on said performance data;   an air motor coupled to said at least one control component and the cycling tank array;   a generator coupled to said at least one control component and the air motor;   a boost impulse component coupled to said at least one control component, the air compression device, and the air motor;   a distribution apparatus connected to said at least one control component, the generator, and an electrical power grid;   a controller connected to said at least one control component and an Internet source, and comprising: a processing component that determines future energy demand; a machine learning component that determines a continuum of optimal operating parameters; a performance component that determines when to capture energy, when to store energy, and when to generate energy; and an integration component that incorporates the continuum of optimal operating parameters to control at least one control component and at least one monitoring component.   
     
     
         2 . The energy management machine according to  claim 1 , wherein said control component comprises at least one of the following: an actuator valve, a dutch, and a pressure regulator. 
     
     
         3 . The energy management machine according to  claim 2 , wherein at least one monitoring component comprises either a temperature sensor or a pressure sensor. 
     
     
         4 . The energy management machine according to  claim 3 , wherein the boost impulse component is a tank configured to receive a second volume of high-pressured air from the air compression device to initiate the air motor from the resting position to reach an operational speed and discontinues once the air motor reaches the operational speed. 
     
     
         5 . The energy management machine according to  claim 3 , wherein the boost impulse component is a spring apparatus configured to initiate the air motor. 
     
     
         6 . The energy management machine according to  claim 4 , further comprising:
 an HVAC exchanger coupled to the controller and configured to receive captured heat created by the air compression device, and   a radiator coupled to the controller and configured to receive cooling created by electrical energy generation,   wherein the controller leverages the captured heat and cooling to improve performance and conservation of heating and cooling operations of an external building.   
     
     
         7 . The energy management machine according to  claim 6 , wherein the utility grid and the electrical power grid are the same energy source and wherein the controller further comprises a cost analysis algorithm that controls the capture of energy from the energy source when the energy is at an initial rate and the electrical energy is distributed when energy is at a subsequent rate that is higher than the initial rate. 
     
     
         8 . The energy management machine according to  claim 6 , wherein at least one energy source comprises a utility grid, a solar cell, or a wind turbine. 
     
     
         9 . The energy management machine according to  claim 8 , wherein the wind turbine comprises a mechanically-coupled transmission operable to convey rotational energy from a multiple of wind vanes within the wind turbine directly to compress ambient air for storage into the cycling tank array. 
     
     
         10 . The energy management machine according to  claim 6 , wherein the environmental force is a thermal equilibrium force. 
     
     
         11 . A method of managing energy generation, the method comprising the steps of:
 operating a controller to obtain information from an internet source, wherein the information includes energy supply and demand data, energy cost data, curtailment data, and weather data;   capturing energy from at least one energy source;   using the captured energy to compress ambient air into a volume of high-pressured air;   storing the high-pressured volume of air in a cycling tank array comprising at least two storage tanks such that the storage tanks are filled one at a time according to a fill order;   monitoring the temperature and pressure values of each storage tank, wherein the temperature of each storage tank is changed by an environmental force;   determining the fill order based on the lowest temperature and the lowest pressure of each storage tank within the cycling tank array;   determining a release order for the cycling tank array based on the highest temperature and the highest pressure of each storage tank within the cycling tank array;   filling each storage tank with the high-pressured air according to the fill order and releasing the high-pressured air from each storage tank one at a time according to the release order;   operating a boost impulse to initiate an air motor from a resting position to an operational speed and discontinuing the boost impulse once the air motor reaches the operational speed;   once the air motor reaches the operational speed, controlling the release of the high-pressured air from the cycling tank array to operate the air motor coupled to a generator to create a quantity of electrical energy;   deriving performance data from a system monitoring process;   analyzing said information from an internet source to calculate future energy demand data;   using machine learning algorithms to process the future energy demand data with the performance data to determine a continuum of optimal operating parameters;   integrating the continuum of optimal operating parameters to determine when to capture energy, when to store energy, and when to generate energy;   controlling the distribution of the quantity of electrical energy to an electrical power grid.   
     
     
         12 . The method of managing energy generation according to  claim 11  that uses one or more of the following control components: an actuator valve, a clutch, and a pressure regulator. 
     
     
         13 . The method of managing energy generation according to  claim 12  that uses one or more of a temperature sensor and a pressure sensor. 
     
     
         14 . The method of managing energy generation according to  claim 13 , wherein the boost impulse is a tank configured to receive a second volume of high-pressured air to initiate the air motor from the resting position to reach an operational speed and discontinues once the air motor reaches the operational speed. 
     
     
         15 . The method of managing energy generation according to  claim 13 , wherein the boost impulse is a spring apparatus configured to initiate the air motor. 
     
     
         16 . The method of managing energy generation according to  claim 14  that uses:
 an HVAC exchanger coupled to the controller and configured to receive captured heat created by an air compression device, and 
 a radiator coupled to the controller and configured to receive cooling created by electrical energy generation, 
 leveraging the captured heat and cooling to improve performance and conservation of heating and cooling operations of an external building. 
 
     
     
         17 . The method of managing energy generation according to  claim 16 , wherein the utility grid and the electrical power grid are the same energy source and wherein the controller further comprises a cost analysis algorithm that controls the capture of energy from the energy source when the energy is at an initial rate and the electrical energy is distributed when energy is at a subsequent rate that is higher than the initial rate. 
     
     
         18 . The method of managing energy generation according to  claim 16 , wherein at least one energy source comprises a utility grid, a solar cell, or a wind turbine. 
     
     
         19 . The method of managing energy generation according to  claim 18 , wherein the wind turbine comprises a mechanically-coupled transmission operable to convey rotational energy from a multiple of wind vanes within the wind turbine directly to compress ambient air for storage into the cycling tank array. 
     
     
         20 . The method of managing energy generation according to  claim 16 , wherein the environmental force is a thermal equilibrium force.