Technology using water as a medium to enable substance molecules to undergo electronic transition and release energy under irradiation by light of various wavelengths

Abstract

A technology using water as a medium to enable substance molecules to undergo electronic transition and release energy under irradiation by light of various wavelengths. A composition consisting of H 2O, TiO 2, and a surfactant corrects the defect that a substance can only absorb light of one wavelength to undergo electronic transition and release energy.

Description

A technology that uses water as a medium to make material molecules undergo electronic transitions and release energy under the irradiation of light of multiple wavelengths. Technical Field

[0001] Quantum mechanics. Background Art

[0002] Quantum mechanics. Technical issues

[0003] A substance can only absorb one wavelength of light and release energy through electronic transition. Technical Solutions

[0004] H2O (99.99999998%-80%) + TiO2 (0.00000001%-10%) + a cationic surfactant [select any one from Figure 1 (0.00000001%-10%)]

[0005]

[0006] H2O (99.99999998%-80%) + TiO2 (0.00000001%-10%) + an anionic surfactant [carboxylate (R-COOM), sulfate (R-OSO3M), sulfonate [R-SO3M (R includes aromatic group)], phosphate (R-OPO3RMR-OPO3M2), fatty acyl-peptide condensate (R1CONHR2COOH), etc., any one (0.00000001%-10%)]

[0007] H2O (99.99999998%-80%) + TiO2 (0.00000001%-10%) + a nonionic surfactant [select any one from Figure 2 (0.00000001%-10%)]

[0008]

[0009] H2O (99.99999998%-88%) + TiO2 (0.00000001%-10%) + a cationic gemini surfactant (0.00000001%-1%)

[0010] H2O (99.99999998%-88%) + TiO2 (0.00000001%-10%) + an anionic gemini surfactant (0.00000001%-1%)

[0011] H2O (99.99999998%-88%) + TiO2 (0.00000001%-10%) + a non-ionic gemini surfactant (0.00000001%-1%) Beneficial effects

[0012] It changes the defect that a substance can only absorb light of one wavelength, causing electron transition to release energy. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] none. Best Mode for Carrying Out the Invention

[0014] H2O (99.99999998%-80%) + TiO2 (0.00000001%-10%) + a cationic surfactant [select any one from Figure 1 (0.00000001%-10%)]

[0015]

[0016] H2O (99.99999998%-80%) + TiO2 (0.00000001%-10%) + an anionic surfactant [carboxylate (R-COOM), sulfate (R-OSO3M), sulfonate [R-SO3M (R includes aromatic group)], phosphate (R-OPO3RMR-OPO3M2), fatty acyl-peptide condensate (R1CONHR2COOH), etc., any one (0.00000001%-10%)]

[0017] H2O (99.99999998%-80%) + TiO2 (0.00000001%-10%) + a nonionic surfactant [select any one from Figure 2 (0.00000001%-10%)]

[0018]

[0019] H2O (99.99999998%-88%) + TiO2 (0.00000001%-10%) + a cationic gemini surfactant (0.00000001%-1%)

[0020] H2O (99.99999998%-88%) + TiO2 (0.00000001%-10%) + an anionic gemini surfactant (0.00000001%-1%)

[0021] H2O (99.99999998%-88%) + TiO2 (0.00000001%-10%) + a non-ionic gemini surfactant (0.00000001%-1%)

[0022] 0014, 0016, 0017, 0019, 0020, 0021 are diluted with less than 100 times of water and sprayed evenly on the application attachment (coal and other fuels, garbage), so as to save more than 50% of coal and other fuels and shorten the time for garbage degradation. Modes for Carrying Out the Invention

[0023] H2O (10%-80%) + TiO2 (10%-80%) + a cationic surfactant [select any one from Figure 1 (10%-80%)]

[0024]

[0025] H2O (10%-80%) + TiO2 (10%-80%) + an anionic surfactant [carboxylate (R-COOM), sulfate (R-OSO3M), sulfonate [R-SO3M (R includes aromatic group)], phosphate (R-OPO3RMR-OPO3M2), fatty acyl-peptide condensate (R1CONHR2COOH), etc. (10%-80%)]

[0026] H2O (10%-80%) + TiO2 (10%-80%) + a nonionic surfactant [select any one from Figure 2 (10%-80%)]

[0027]

[0028] H2O (80%-98%) + TiO2 (1%-10%) + a cationic gemini surfactant (1%-10%)

[0029] H2O (80%-98%) + TiO2 (1%-10%) + an anionic gemini surfactant (1%-10%)

[0030] H2O (80%-98%) + TiO2 (1%-10%) + a non-ionic gemini surfactant (1%-10%)

[0031] The technical solutions of 0023, 0025, 0026, 0028, 0029, and 0030, when diluted with more than 100 times of water, reach the scope of claims 1, 3, 4, 6, 7, and 8 and the scope of the best embodiments 0014, 0016, 0017, 0019, 0020, and 0021 of the present invention and the scope of technical solutions 0004, 0006, 0007, 0009, 0010, and 0011. Industrial Applicability

[0032] Energy saving and environmental protection.

Claims

1. H2O (99.99999998% - 80%) + TiO2 (0.00000001% - 10%) + a cationic surfactant [any one selected from Figure 1 (0.00000001% - 10%)].

2.

3. H2O (99.99999998% - 80%) + TiO2 (0.00000001% - 10%) + an anionic surfactant [any one selected from carboxylate (R - COOM), sulfate (R - OSO3M), sulfonate [R - SO3M (R includes aryl)], phosphate (R - OPO3RMR - OPO3M2), fatty acyl - peptide condensate (R1CONHR2COOH), etc. (0.00000001% - 10%)].

4. H2O (99.99999998% - 80%) + TiO2 (0.00000001% - 10%) + a non - ionic surfactant [any one selected from Figure 2 (0.00000001% - 10%)].

5.

6. H2O (99.99999998% - 88%) + TiO2 (0.00000001% - 10%) + a cationic gemini surfactant (0.00000001% - 1%).

7. H2O (99.99999998% - 88%) + TiO2 (0.00000001% - 10%) + an anionic gemini surfactant (0.00000001% - 1%).

8. H2O (99.99999998% - 88%) + TiO2 (0.00000001% - 10%) + a non - ionic gemini surfactant (0.00000001% - 1%).

9. The core technology of the technical solutions in 1, 3, 4, 6, 7, 8 is: composed of H2O, TiO2, and surfactant, by mass percentage.

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