Useful energy product

1. A process for creating a useful energy product from a chemical species flow comprising passing the chemical species flow through a macroscopic artificial dielectric structure for a gas-permeable susceptor, and subjecting the structure to applied electromagnetic energy, the structure consisting of first regions and second regions, the first regions and the second regions having different depths of penetration of the applied electromagnetic energy, the depth of penetration of the first regions being greater than the depth of penetration of the second regions, wherein:

(a) the first regions are discontinuously interspersed at least a certain distance from each other between and among the second regions,

(b) the transmission of the applied electromagnetic energy by the first regions provides a means for increase interaction between the applied electromagnetic energy and the chemical species flow,

(c) the transmission of the applied electromagnetic energy by the first regions provides a means for increased interaction between the applied electromagnetic energy and the second regions in the gas-permeable susceptor to interact with the second regions, and

(d) the distance between each of the first regions and a volume fraction of the of the structure that the first regions make up assists the applied electromagnetic energy to penetrate the structure and to interact volumetrically with the susceptor and the chemical species flow passing through the susceptor and allows for the synthesis of the useful energy product.

2. The process as claimed in claim 1 wherein the useful energy product is selected from the group consisting of a refined product from crude oil, a refined product from shale oil, a refined product from oil sands, a refined oil from petroleum pitch, a refined oil product, a refined product from heavy petroleum fractions, biofuel, bioethanol, ethanol, biodiesel, biogasoline, biokerosene, hydrogen, syngas, a higher-order chemical species, and combinations thereof.

3. The process as claimed in claim 2 wherein the refined product is obtain from a process consisting of hydrocracking a hydrocarbon, cracking a hydrocarbon, desulphurization of a hydrocarbon, demetalization of a hydrocarbon, removal of water, cleavage of carboxyl group, esterfication, transesterification, etherification, sterilization, evaporation, and combinations thereof.

4. The process as claimed in claim 1 , wherein the chemical species flow comprises at least one component selected from the group consisting of canola oil, sunflower oil, soybean oil, rapeseed oil, mustard seed oil, palm oil, corn oil, soya oil, linseed oil, peanut oil, coconut oil, corn oil, olive oil, animal fat, yellow grease, animal tallow, pork fat, pork oil, chicken fat, chicken oil, mutton fat, mutton oil, beef fat, beef oil, petroleum, hydrogen, shale oil, tar sand, petroleum pitch, petroleum, kerogen, tar, residuum a heavy crude oil, a sugar, a starch, methane, methanol, and combinations thereof.

5. The process as claimed in claim 1 , wherein the second regions are the chemical species flow.

6. The process as claimed in claim 5 , wherein the chemicals species flow is selected from the group consisting of a plant species, and animal fat, a shale oil species, a tar sand species, residuum, heavy oil, petroleum pitch, a kerogen containing material, a solid hydrocarbon, a coal species, a heavy crude, and combinations thereof.

7. The process as claimed in claim 1 , wherein the distance between each of the first regions and a volume fraction of the structure that the first regions make up assists the applied electromagnetic energy to penetrate the structure and to interact volumetrically with the susceptor and the chemical species flow to a greater extent in the combined volume of the first regions, the second regions and the chemical species flow when compared to the penetration of the applied electromagnetic energy in the combined volume of either the second regions and the chemical species flow or only the chemical species flow as the chemical species flow passes through the first regions and allows for the synthesis of the useful energy product.

8. The process as claimed in claim 1 , wherein the physical arrangement and volume fraction of the first regions of the susceptor creates a greater surface area for interaction between the applied electromagnetic energy and any secondary electromagnetic energy produced from the interaction of the applied electromagnetic energy with either the first regions, the second regions, the chemical species flow, the useful energy product or any combination thereof, and the chemical species flow to a greater extent in the combined volume of the first regions, the second regions and the chemical species flow when compared to the penetration of the applied electromagnetic energy in the combined volume of either the second regions and the chemical species flow or only the chemical species flow as the chemical species flow passes through the first regions and allows for the synthesis of the useful energy product.

9. A system for creating a useful energy product from a chemical species flow, the system comprising:

a macroscopic artificial dielectric structure for a gas-permeable susceptor, the structure consisting of first regions and second regions, the first regions and the second regions having different depths of penetration of applied electromagnetic energy, the depth of penetration of the first regions being greater than the depth of penetration of the second regions, and

flowing the chemical species flow through the gas-permeable susceptor, and subjecting the chemical species flow to the applied electromagnetic energy within the structure,

wherein:

(a) the first regions are discontinuously interspersed at least a certain distance from each other between and among the second regions,

(b) the transmission of the applied electromagnetic energy by the first regions provides a means for increase interaction between the applied electromagnetic energy and the chemical species flow,

(c) the transmission of the applied electromagnetic energy by the first regions provides a means for increased interaction between the applied electromagnetic energy and the second regions in the gas-permeable susceptor to interact with the second regions, and

(d) the distance between each of the first regions and a volume fraction of the structure that the first regions make up assists the applied electromagnetic energy to penetrate the structure and to interact volumetrically with the susceptor and the chemical species flow passing through the susceptor and allows for the synthesis of the useful energy product.

10. The system as claimed in claim 9 wherein the useful energy product is selected from the group consisting of a refined product from crude oil, a refined product from shale oil, a refined product from oil sands, a refined oil from petroleum pitch, a refined oil product, a refined product from heavy petroleum fractions, biofuel, bioethanol, ethanol, biodiesel, biogasoline, biokerosene, hydrogen, syngas, a higher-order chemical species, and combinations thereof.

11. The system as claimed in claim 10 wherein the refined product is obtain from a process consisting of hydrocracking a hydrocarbon, cracking a hydrocarbon, desulphurization of a hydrocarbon, demetalization of a hydrocarbon, removal of water, cleavage of carboxyl group, esterfication, transesterification, etherification, sterilization, evaporation, and combinations thereof.

12. The system as claimed in claim 9 , wherein the chemical species flow comprises at least one component selected from the group consisting of canola oil, sunflower oil, soybean oil, rapeseed oil, mustard seed oil, palm oil, corn oil, soya oil, linseed oil, peanut oil, coconut oil, corn oil, olive oil, animal fat, yellow grease, animal tallow, pork fat, pork oil, chicken fat, chicken oil, mutton fat, mutton oil, beef fat, beef oil, petroleum, hydrogen, shale oil, tar sand, petroleum pitch, petroleum, kerogen, tar, residuum a heavy crude oil, a sugar, a starch, methane, methanol, and combinations thereof.

13. The system as claimed in claim 9 , wherein the second regions are the chemical species flow.

14. The system as claimed in claim 13 , wherein the chemicals species flow is selected from the group consisting of a plant species, and animal fat, a shale oil species, a tar sand species, residuum, heavy oil, petroleum pitch, a kerogen containing material, a solid hydrocarbon, a coal species, a heavy crude, and combinations thereof.

15. The system as claimed in claim 9 , wherein the distance between each of the first regions and a volume fraction of the structure that the first regions make up assists the applied electromagnetic energy to penetrate the structure and to interact volumetrically with the susceptor and the chemical species flow to a greater extent in the combined volume of the first regions, the second regions and the chemical species flow when compared to the penetration of the applied electromagnetic energy in the combined volume of either the second regions and the chemical species flow or only the chemical species flow as the chemical species flow passes through the first regions and allows for the synthesis of the useful energy product.

16. The system as claimed in claim 9 , wherein the physical arrangement and volume fraction of the first regions of the susceptor creates a greater surface area for interaction between the applied electromagnetic energy and any secondary electromagnetic energy produced from the interaction of the applied electromagnetic energy with either the first regions, the second regions, the chemical species flow, the useful energy product or any combination thereof, and the chemical species flow to a greater extent in the combined volume of the first regions, the second regions and the chemical species flow when compared to the penetration of the applied electromagnetic energy in the combined volume of either the second regions and the chemical species flow or only the chemical species flow as the chemical species flow passes through the first regions and allows for the synthesis of the useful energy product.

17. A device for creating a useful energy product from a chemical species flow, the device comprising a macroscopic artificial dielectric structure for a gas-permeable susceptor for subjecting the chemical species flow to applied electromagnetic energy, the structure consisting of first regions and second regions, the first regions and the second regions having different depths of penetration of applied electromagnetic energy, the depth of penetration of the first regions being greater than the depth of penetration of the second regions, wherein:

(a) the first regions are discontinuously interspersed at least a certain distance from each other between and among the second regions,

(b) the transmission of the applied electromagnetic energy by the first regions provides a means for increase interaction between the applied electromagnetic energy and the chemical species flow,

(c) the transmission of the applied electromagnetic energy by the first regions provides a means for increased interaction between the applied electromagnetic energy and the second regions in the gas-permeable susceptor to interact with the second regions, and

(d) the distance between each of the first regions and a volume fraction of the structure that the first regions make up assists the applied electromagnetic energy to penetrate the structure and to interact volumetrically with the susceptor and the chemical species flow passing through the susceptor and allows for the synthesis of the useful energy product.

18. The device as claimed in claim 17 wherein the useful energy product is selected from the group consisting of a refined product from crude oil, a refined product from shale oil, a refined product from oil sands, a refined oil from petroleum pitch, a refined oil product, a refined product from heavy petroleum fractions, biofuel, bioethanol, ethanol, biodiesel, biogasoline, biokerosene, hydrogen, syngas, a higher-order chemical species, and combinations thereof.

19. The device as claimed in claim 18 wherein the refined product is obtain from a process consisting of hydrocracking a hydrocarbon, cracking a hydrocarbon, desulphurization of a hydrocarbon, demetalization of a hydrocarbon, removal of water, cleavage of carboxyl group, esterfication, transesterification, etherification, sterilization, evaporation, and combinations thereof.

20. The device as claimed in claim 17 , wherein the chemical species flow comprises at least one component selected from the group consisting of canola oil, sunflower oil, soybean oil, rapeseed oil, mustard seed oil, palm oil, corn oil, soya oil, linseed oil, peanut oil, coconut oil, corn oil, olive oil, animal fat, yellow grease, animal tallow, pork fat, pork oil, chicken fat, chicken oil, mutton fat, mutton oil, beef fat, beef oil, petroleum, hydrogen, shale oil, tar sand, petroleum pitch, petroleum, kerogen, tar, residuum a heavy crude oil, a sugar, a starch, methane, methanol, and combinations thereof.

21. The device as claimed in claim 17 , wherein the second regions are the chemical species flow.

22. The device as claimed in claim 21 , wherein the chemicals species flow is selected from the group consisting of a plant species, and animal fat, a shale oil species, a tar sand species, residuum, heavy oil, petroleum pitch, a kerogen containing material, a solid hydrocarbon, a coal species, a heavy crude, and combinations thereof.

23. The device as claimed in claim 17 , wherein the distance between each of the first regions and a volume fraction of the structure that the first regions make up assists the applied electromagnetic energy to penetrate the structure and to interact volumetrically with the susceptor and the chemical species flow to a greater extent in the combined volume of the first regions, the second regions and the chemical species flow when compared to the penetration of the applied electromagnetic energy in the combined volume of either the second regions and the chemical species flow or only the chemical species flow as the chemical species flow passes through the first regions and allows for the synthesis of the useful energy product.

24. The device as claimed in claim 17 , wherein the physical arrangement and volume fraction of the first regions of the susceptor creates a greater surface area for interaction between the applied electromagnetic energy and any secondary electromagnetic energy produced from the interaction of the applied electromagnetic energy with either the first regions, the second regions, the chemical species flow, the useful energy product or any combination thereof, and the chemical species flow to a greater extent in the combined volume of the first regions, the second regions and the chemical species flow when compared to the penetration of the applied electromagnetic energy in the combined volume of either the second regions and the chemical species flow or only the chemical species flow as the chemical species flow passes through the first regions and allows for the synthesis of the useful energy product.