System and method for heat and energy recovery and regeneration

1. A heat recovery system, comprising:

a compressor, a solar panel, a first heat exchanger and a second heat exchanger in fluid connection to form a closed fluid circuit; and

wherein the compressor is configured to facilitate fluid movement in the closed fluid circuit between the solar panel, the first heat exchanger and the second heat exchanger;

wherein the first exchanger and the second heat exchanger function as a condenser and evaporator respectively depending on a cooling cycle or a heating cycle;

wherein the solar panel includes a plurality of solar cells connected in parallel, and each solar cell includes a plurality of metal tubes for fluid to pass through;

wherein a temperature sensor is mounted within each of the solar cells and configured to measure temperature inside the respective solar cell;

wherein each solar cell is connected to the circuit via a respective pressure valve, and the status of the pressure valve is configured to depend on the measurement of the temperature sensor in the respective solar cell;

wherein the solar panel further includes a bypass channel for fluid to bypass the solar panel when all the pressure valves are closed; and

wherein the heat recovery system further comprises an outdoor condenser and a condenser fan configured to push warm air induced from the condenser into the solar panel to increase the temperature of the plurality of solar cells via a convective effect in a cooling mode.

2. The heat recovery system of claim 1 , wherein a respective pressure valve is configured to open when the temperature in a respective solar cell is above a certain threshold.

3. The heat recovery system of claim 1 , wherein a respective pressure valve is configured to close when the temperature in a respective temperature sensor is below a certain threshold.

4. The heat recovery system of claim 1 , wherein metal tubes in the plurality of solar cells are made of copper.

5. The heat recovery system of claim 1 , wherein the compressor is a variable speed compressor, and wherein the speed of the compressor depends on thermal energy absorbed via the solar panel.

6. The heat recovery system of claim 1 , wherein the outdoor condenser fan is further configured to draw heat away from the solar panel and into the evaporator in a heating mode.

7. A heat recovery system, comprising:

a compressor, a solar panel, a first heat exchanger and a second heat exchanger in fluid connection to form a closed fluid circuit; and

wherein the compressor is configured to facilitate fluid movement in the closed fluid circuit between the solar panel, the first heat exchanger and the second heat exchanger;

wherein the first exchanger and the second heat exchanger function as a condenser and evaporator respectively depending on a cooling cycle or a heating cycle;

wherein the solar panel includes a plurality of solar cells connected in parallel, and each solar cell includes a plurality of metal tubes for fluid to pass through;

wherein a temperature sensor is mounted within each of the solar cells and configured to measure temperature inside the respective solar cell;

wherein each solar cell is connected to the circuit via a respective pressure valve, and the status of the pressure valve is configured to depend on the measurement of the temperature sensor in the respective solar cell;

wherein the solar panel further includes a bypass channel for fluid to bypass the solar panel when all the pressure valves are closed;

wherein the heat recovery system further comprises a mixing chamber configured for mixing an air intake and an emissions intake, the emissions intake receiving exhaust gas and waste products emitted as a result of fuel combustion;

wherein the first heat exchanger is contained within the mixing chamber for contacting a mixture of air introduced via the air intake and exhaust gas and waste products introduced via the emissions intake such that heat exchange is effectuated with the fluid in fluid circuit;

wherein the second heat exchanger is in fluid communication with the first heat exchanger via the compressor, the compressor is configured to facilitate fluid movement in a fluid circuit between the first and second heat exchanger; and

wherein the compressor is configured to flow fluid through a first thermal exchange coil heated by exhaust heat as a result of fuel combustion and solar energy obtained via the solar panel, thereby increasing fluid pressure in the fluid circuit between the first and second heat exchanger and decreasing electrical consumption of the compressor in a heating cycle.

8. The system of claim 7 , further comprising a reversing valve configured to switch a direction of the fluid movement between the first heat exchanger and the second heat exchanger based on a cooling demand or a heating demand.

9. The heat recovery system of claim 7 , wherein in a heating cycle, the exhaust heat is generated by a furnace and passed through the first thermal exchanger coil and fed into the emission intake of the mixing chamber and the second thermal exchanger is functioned as a condensing coil and releases the heat into a building.

10. The heat recovery system of claim 7 , wherein in a cooling cycle, heat removed from an indoor environment and heat obtained from the solar panel are configured to pass through the second heat exchange coil and thereby increasing fluid temperature and increasing fluid pressure flowing through the compressor.