Monodisperse grinding fluid and preparation method thereof and method for preparing inorganic oxide sol
A technology of inorganic oxides and grinding fluids, applied in other chemical processes, chemical instruments and methods, etc., can solve the problem of wide particle size distribution and achieve uniform particle size distribution
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preparation example Construction
[0058] In combination with the above core idea, the present invention also provides a preparation method of inorganic oxide sol, such as image 3 shown, including:
[0059] Proceed to step S11: providing a solvent, preferably, the solvent is pure water or ethanol.
[0060] Proceed to step S12: adding a predetermined amount of raw materials for the reaction of inorganic oxides into the solvent, so as to form nano inorganic oxides in the solvent. Wherein, the predetermined amount can be selected according to the final required average particle size of the nano-inorganic oxide and the amount of the inorganic oxide sol, and is not specifically limited.
[0061] Proceed to step S13: detecting the particle size of the nano inorganic oxide. Preferably, the particle size of the nano-inorganic oxide can be detected by methods such as laser particle size analyzer or transmission electron microscope.
[0062] Proceed to step S14: judge, if the particle size of the nano-inorganic oxide...
no. 1 example
[0073] The nano-inorganic oxide in the first embodiment is silicon dioxide.
[0074] First, proceed to step S21: prepare an inorganic oxide sol. In this embodiment, step S21 adopts the following steps:
[0075] Go to step S11: provide a solvent, in this embodiment, the solvent is ethanol;
[0076] Proceed to step S12: adding a predetermined amount of raw materials for the reaction of inorganic oxides into the solvent, so as to form nano inorganic oxides in the solvent. Since in this embodiment, the nano-inorganic oxide is silicon dioxide, it is preferable to select tetraethyl orthosilicate and formamide as raw materials for the reaction of the inorganic oxide. In this embodiment, the predetermined particle size is 150nm, so the predetermined amount can be set to 50ml of tetraethyl orthosilicate and 10ml of formamide;
[0077] Proceed to step S13: detecting the particle size of the nano-inorganic oxide;
[0078] Proceed to step S14: judge, in this embodiment, the particle si...
no. 2 example
[0087] The nano-inorganic oxide in the second embodiment is silicon dioxide, and the predetermined particle size is 300 nm.
[0088] First, proceed to step S21: prepare an inorganic oxide sol. In this embodiment, step S21 adopts the following steps:
[0089] Go to step S11: provide a solvent, in this embodiment, the solvent is ethanol;
[0090] Proceed to step S12: adding a predetermined amount of raw materials for the reaction of inorganic oxides into the solvent, so as to form nano inorganic oxides in the solvent. Since in this embodiment, the nano-inorganic oxide is silicon dioxide, it is preferable to select tetraethyl orthosilicate and formamide as raw materials for the reaction of the inorganic oxide. In this embodiment, the predetermined particle size is 300nm, so the predetermined amount can be set to 50ml of tetraethyl orthosilicate and 10ml of formamide;
[0091] Proceed to step S13: detecting the particle size of the nano-inorganic oxide;
[0092] Proceed to step...
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Abstract
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