Artificial intelligence enabled IoT-fog system in hydroponic automation for heterogeneous plants

1. A method for management of a hydroponic system, the method comprising:

providing a plurality of sensors in a hydroponic cultivator;

communicating data from the plurality of sensors to a data aggregator;

rendering sensed data from the plurality of sensors in a predetermined data format in the data aggregator as aggregator output data;

communicating the aggregator output data to a fog computing unit;

using the fog computing unit to communicate with outside computing routed over an Internet backbone or “cloud”; and

using the fog computing unit to control operation of the hydroponic cultivator based on direct control commands executed through the fog computing unit and data inputs obtained by communications with the outside computing routed over the Internet backbone or “cloud”,

wherein the rendering the sensed data as aggregator output data comprises rendering the sensed data from the plurality of sensors as an aggregation of data concerning different plants in the hydroponic cultivator.

2. The method as described in claim 1 , further comprising:

the fog computing unit using optimization to control operation of hydroponic cultivation of heterogeneous plants using the hydroponic cultivator using an optimized artificial intelligence (AI) model.

3. The method as described in claim 1 , further comprising:

the fog computing unit using optimization to control operation of hydroponic cultivation of heterogeneous plants using the hydroponic cultivator using an optimized artificial intelligence (AI) model, selectively using Nutrient Film Technique (NFT) hydroponics, Deep Water Culture (DWC) hydroponics or both NFT and DWC hydroponics in the hydroponic system.

4. The method as described in claim 3 , further comprising:

performing image analysis to implement a deep learning model to provide for heterogeneous plant growth from seedling stages to full grown stages which varies from plant to plant and at different stages of plant growth for sustainable growth and action.

5. The method as described in claim 1 , wherein the rendering the sensed data as aggregator output data comprises rendering the sensed data from the plurality of sensors as image data obtained from different plants in the hydroponic cultivator.

6. The method as described in claim 1 , comprising:

rendering the sensed data as aggregator output data as an aggregation of data concerning different plants in the hydroponic cultivator; and

the rendering the sensed data as aggregator output data comprises rendering the sensed data from the plurality of sensors as image data obtained from different plants in the hydroponic cultivator.

7. The method as described in claim 1 , further comprising obtaining data, wherein the obtaining data comprises obtaining data pertaining to nutrient quality, temperature, humidity, and light intensity, wherein the data pertaining to nutrient quality comprises data consisting of at least one of pH, salinity, Total Dissolved Solids (TDS) and Electrical Conductivity (EC) data.

8. The method as described in claim 1 , further comprising:

using the fog computing unit to provide data processing for data pertaining to nutrient quality, temperature, humidity, and light intensity, wherein the data pertaining to nutrient quality comprises data consisting of at least one of pH, salinity, Total Dissolved Solids (TDS) and Electrical Conductivity (EC) data;

using the fog computing unit to filter the data pertaining to nutrient quality, temperature, humidity, and light intensity, with redundancy removed; and

routing the data pertaining to nutrient quality, temperature, humidity, and light intensity from the fog computing unit over the Internet backbone or “cloud”.

9. A hydroponic system, the hydroponic system comprising:

a plurality of sensors in a hydroponic cultivator;

a data communication link configured for communicating data from the plurality of sensors to a data aggregator;

the data aggregator configured for rendering sensed data from the plurality of sensors in a predetermined data format as aggregator output data;

a communication link configured for communicating the aggregator output data to a fog computing unit;

an external communication link configured for allowing the fog computing unit to communicate with outside computing routed over an Internet backbone or “cloud”; and

instructions stored in non-volatile media for instructing the fog computing unit to control operation of the hydroponic cultivator based on direct control commands executed through the fog computing unit and data inputs obtained by communications with the outside computing routed over the Internet backbone or “cloud”,

wherein the rendering the sensed data as aggregator output data comprises rendering the sensed data from the plurality of sensors as an aggregation of data concerning different plants in the hydroponic cultivator.

10. The hydroponic system of claim 9 , further comprising:

using the fog computing unit to perform optimization to control operation of hydroponic cultivation of heterogeneous plants using the hydroponic cultivator using an optimized artificial intelligence (AI) model.

11. The hydroponic system of claim 9 , further comprising:

using the fog computing unit to perform optimization to control operation of hydroponic cultivation of heterogeneous plants using the hydroponic cultivator by using an optimized artificial intelligence (AI) model, selectively using Nutrient Film Technique (NFT) hydroponics, Deep Water Culture (DWC) hydroponics or both NFT and DWC hydroponics in the hydroponic system.

12. The hydroponic system of claim 11 , further comprising:

using the fog computing unit to perform image analysis to implement a deep learning model to provide for heterogeneous plant growth from seedling stages to full grown stages which varies from plant to plant and at different stages of plant growth for sustainable growth and action.

13. The hydroponic system of claim 9 , wherein the rendering the sensed data as aggregator output data comprises rendering the sensed data from the plurality of sensors as image data obtained from different plants in the hydroponic cultivator.

14. The hydroponic system of claim 9 ,

wherein the rendering the sensed data comprises rendering the sensed data from the plurality of sensors as aggregator output data as an aggregation of data concerning different plants in the hydroponic cultivator,

and wherein the rendering the sensed data comprises rendering image data obtained from different plants in the hydroponic cultivator.

15. The hydroponic system of claim 9 , wherein the fog computing unit is configured for providing data processing for data pertaining to nutrient quality, temperature, humidity, and light intensity, wherein the data pertaining to nutrient quality comprises data consisting of at least one of pH, salinity, Total Dissolved Solids (TDS) and Electrical Conductivity (EC) data.

16. The hydroponic system of claim 9 , further comprising:

the fog computing unit configured for providing data processing for data pertaining to nutrient quality, temperature, humidity, and light intensity, wherein the data pertaining to nutrient quality comprises data consisting of at least one of pH, salinity, Total Dissolved Solids (TDS) and Electrical Conductivity (EC) data;

the fog computing unit configured for filtering the data pertaining to nutrient quality, temperature, humidity, and light intensity, with redundancy removed; and

the fog computing unit configured for routing the data pertaining to nutrient quality, temperature, humidity, and light intensity over the Internet backbone or “cloud”.

17. A hydroponic system, the hydroponic system comprising:

means for providing a plurality of sensors in a hydroponic cultivator;

a data aggregator and a fog computing unit;

means for communicating data from the plurality of sensors to the data aggregator;

means for rendering sensed data from the plurality of sensors in a predetermined data format in the data aggregator as aggregator output data;

means for communicating the aggregator output data to the fog computing unit;

means for using the fog computing unit to communicate with outside computing routed over an Internet backbone or “cloud”;

means for using optimization to control operation of hydroponic cultivation of heterogeneous plants using the hydroponic cultivator using an optimized artificial intelligence (AI) model, selectively using Nutrient Film Technique (NFT) hydroponics, Deep Water Culture (DWC) hydroponics or both NFT and DWC hydroponics in the hydroponic system; and

means for performing image analysis to implement a deep learning model to provide for heterogeneous plant growth from seedling stages to full grown stages which varies from plant to plant and at different stages of plant growth for sustainable growth and action,

wherein the fog computing unit is configured for controlling operation of the hydroponic cultivator based on direct control commands executed through the fog computing unit and data inputs obtained by communications with the outside computing routed over the Internet backbone or “cloud”.