Inductor for high-temperature induction heating furnace and induction heating furnace
An induction heating furnace and inductor technology, applied in the field of inductors, can solve the problems such as the inability of the furnace temperature to reach 3000 ℃ uniformly, the inability to use conductive powder insulation materials, and the reduction of the residual heat temperature of the furnace, so as to strengthen the overall cooling. effect, improve the service life, reduce the effect of excessive burning
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Embodiment 1
[0025] An inductor for a high temperature induction heating furnace, used in a vertical high temperature induction heating furnace, such as Figure 4 shown. The middle of the furnace body of the heating furnace is the heating body 21, and the center of the heating body is the furnace chamber 50 for accommodating materials. The heating body 21 is in the shape of a barrel, and the outer side of the heating body 21 is provided with an insulation layer, including a sleeve insulation layer 22, an upper insulation layer 23 and a lower insulation layer 24. The insulation layer wraps the heating body 21, and the sleeve insulation layer 22 is wrapped in On the side of the heating body 21, a cover plate 2201 is provided on the top of the sleeve protection layer 22, the upper insulation layer 23 and the lower insulation layer 24 are respectively arranged above and below the heating body 21, the top of the furnace 50 is provided with an inner cover 2301, and the upper insulation layer 23 ...
Embodiment 2
[0033] like figure 2 As shown, the difference between this embodiment and Embodiment 1 is that the heating coil 1 in the middle of the furnace body inductor has a large inter-turn gap, and the inter-turn gap in the middle is provided with two-way nested cooling coils, and the nested cooling coil 2 and nested cooling coils 2001. No cooling coil is provided between the turns at both ends of the heating coil 1 .
[0034] According to the size and change of the gap between the turns of the heating coil, the size and shape of the metal tube of the sleeve cooling coil can be adjusted to meet the different gaps between the turns of the heating coil. Alternatively, set one of the embedded cooling coil 2 and the embedded cooling coil 2001 as a long coil and the other as a short coil, and adjust the length of the embedded cooling coil to satisfy different heating coil turns.
[0035] In other embodiments, the sleeve-type cooling coil 2 is arranged in multiple paths and / or multiple sect...
Embodiment 3
[0037] like image 3 As shown, the difference between this embodiment and Embodiment 1 is that the inter-turn gap between the two ends of the inductor heating coil 1 is also larger, and a sleeve-type cooling coil 2 can be provided, and the sleeve-type cooling coil 2 exceeds the heating coil 1. The overhanging parts of the upper end surface and the lower end surface respectively form the upper cooling coil 3 and the lower cooling coil 4, that is, the sleeve type cooling coil 2 communicates with the upper cooling coil 3 and the lower cooling coil 4.
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