A method for judging magnesium oxide agglomeration and hydration state in magnesium oxide coating solution for silicon steel
A magnesia coating solution and magnesia technology, applied in instruments, measuring devices, scientific instruments, etc., can solve the problems of indistinguishable particle size and inapplicability to actual conditions, and achieve the effect of reducing agglomeration
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Embodiment 1
[0028] What this embodiment takes is the A-type magnesium oxide coating solution prepared by the production line, and the temperature of the coating solution is 8.0°C;
[0029] The method for discriminating magnesium oxide agglomeration situation in A-type magnesium oxide coating solution, its steps:
[0030] 1) Detect the initial viscosity value V of magnesium oxide coating solution 0 , detect the initial viscosity value V0 It is carried out with a viscometer at the temperature of the magnesium oxide coating solution at 8.0°C; the detected initial viscosity value V 0 42.1cp;
[0031] 2) Detect the viscosity value V of magnesium oxide coating solution 1 , will measure the initial viscosity value V 0 The magnesia coating solution was stirred for 20 minutes at a speed of 2000rpm, and the temperature change value of the magnesia coating solution was 0.3°C, that is, when the temperature of the magnesia coating solution was 8.3°C, the viscosity value V of the magnesia coating so...
Embodiment 2
[0042] What this embodiment takes is the B-type magnesium oxide coating solution prepared by the production line, and the temperature of the coating solution is 6.0°C;
[0043] The method for discriminating magnesium oxide agglomeration status in B-type magnesium oxide coating liquid, its steps:
[0044] 1) Detect the initial viscosity value V of magnesium oxide coating solution 0 , detect the initial viscosity value V 0 It is carried out with a viscometer at the temperature of the magnesium oxide coating solution at 6.0°C; the detected initial viscosity value V 0 is 72.5cP;
[0045] 2) Detect the viscosity value V of magnesium oxide coating solution 1 , will measure the initial viscosity value V 0 The magnesium oxide coating solution was stirred for 5 minutes at a speed of 2000rpm, and the temperature change value of the magnesium oxide coating solution was 0.5°C, that is, when the temperature of the magnesium oxide coating solution was 6.5°C, the viscosity value V of the...
Embodiment 3
[0056] What this embodiment takes is the C-type magnesium oxide coating solution prepared by the production line, and the temperature of the coating solution is 6.5°C;
[0057] The method for discriminating the agglomeration of magnesium oxide in the C-type magnesium oxide coating solution, the steps:
[0058] 1) Detect the initial viscosity value V of magnesium oxide coating solution 0 , detect the initial viscosity value V 0 It is carried out with a viscometer at the temperature of the magnesium oxide coating solution at 6.5°C; the detected initial viscosity value V 0 is 28.7cP;
[0059] 2) Detect the viscosity value V of magnesium oxide coating solution 1 , will measure the initial viscosity value V 0 The magnesium oxide coating solution was stirred for 5 minutes at a speed of 1500rpm, and the temperature change value of the magnesium oxide coating solution was 0.2°C, that is, at the temperature of the magnesium oxide coating solution was 6.7°C, the viscosity value V of...
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