Multi-element mineral water and preparation method thereof
A technology of mineral water and minerals, applied in food preparation, food science, application, etc., can solve the problems of unseen, high cost, complicated process, etc., and achieve the effect of good taste, simple manufacturing process and low cost
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Embodiment 1
[0039] The content of each ion in the mineral water designed in this embodiment is (unit: mg / L): zinc ion 0.5, strontium ion 0.5, lithium ion 0.5, bromide ion 2.34, iodide ion 0.3, selenium ion 0.02, metasilicate 35, calcium Ion 7.5, magnesium ion 3, potassium ion 31.6, chloride ion 12.0, manganese ion 0.4, ferrous ion 0.5, vanadium ion 0.1, acetate ion 14.7.
[0040] The first step is to weigh the compound: In order to obtain the mineral water with the above ion content, weigh the following compound (unit: grams):
[0041] Zinc chloride 1.04 Strontium bromide 1.41
[0042] Lithium metasilicate 3.25 Potassium iodide 0.39
[0043] Selenium dioxide 0.028 Calcium acetate 19.7
[0044] Vanadium pentoxide 0.18 Calcium chloride 6.9
[0045] Potassium metasilicate 63.7 Magnesium chloride 11.8
[0046] Manganese chloride 0.92 Ferrous bromide 1.93
[0047] The second step is to dissolve each compound. Dissolve potassium iodide, all chlorides and all bromides in 500 ml water to form the firs...
Embodiment 2
[0051] The content of each ion in the mineral water designed in this embodiment is (unit: mg / L): zinc ion 0.63, strontium ion 0.6, lithium ion 0.65, bromide ion 4.85, iodide ion 0.31, selenium ion 0.02, metasilicate 40, calcium Ion 6.5, magnesium ion 2.5, potassium ion 39.2, chloride ion 12.2, manganese ion 0.5, ferrous ion 0.51, vanadium ion 0.1, acetate ion 11.8, carbonate ion 1.08, sulfate ion 1.4.
[0052] In the first step, weigh the compound: In order to prepare the mineral water with the above ion content, weigh the following compound (unit: grams):
[0053] Zinc iodide 0.126 Zinc bromide 2.07
[0054] Strontium chloride 1.09 Potassium bromide 0.74
[0055] Lithium carbonate 1.34 Lithium hydroxide 0.69
[0056] Lithium sulfate 1.59 Potassium metasilicate 79.0
[0057] Selenium dioxide 0.028 Vanadium pentoxide 0.18
[0058] Manganese bromide 1.95 Ferrous bromide 1.93
[0059] Ferrous iodide 0.06 Calcium chloride 6.92
[0060] Calcium acetate 15.8 Magnesium chloride 9.79
[0...
Embodiment 3
[0065] The content of each ion in the mineral water designed in this embodiment is (unit: mg / L): zinc ion 1.0, strontium ion 0.71, lithium ion 0.85, bromide ion 1.93, iodide ion 0.40, selenium ion 0.03, metasilicate 30, calcium Ion 5.81, magnesium ion 2, potassium ion 29.2, chloride ion 12.1, manganese ion 0.5, ferrous ion 0.5, vanadium ion 0.2, acetate ion 17.8.
[0066] In the first step, weigh the compound. In order to prepare mineral water with the above ion content, weigh the following compounds (unit: grams):
[0067] Calcium iodide 0.116 Magnesium iodide 0.11
[0068] Strontium iodide 0.114 Lithium iodide 0.105
[0069] Lithium bromide 0.543 Lithium chloride 1.84
[0070] Selenium dioxide 0.042 Magnesium chloride 7.83
[0071] Vanadium pentoxide 0.357 Potassium metasilicate 59.2
[0072] Strontium acetate 1.64 Lithium acetate 4.76
[0073] Zinc chloride 1.04 Zinc acetate 1.40
[0074] Calcium acetate 15.0 Calcium chloride 5.54
[0075] Ferrous bromide 1.93 Manganese chlorid...
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