Rare earth sesquioxide crystal growth device and method based on temperature gradient method
A technology of sesquioxide and temperature gradient method, which is applied in the direction of crystal growth, single crystal growth, single crystal growth, etc., can solve the problems of high cutting viscosity, difficulty, crystal pollution, etc., to reduce impurities, prolong service life, cost reduction effect
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Embodiment 1
[0028] Such as figure 1 As shown, a rare earth sesquioxide crystal growth device based on the temperature gradient method includes a quartz cylinder 1, an induction heating coil 2, a zirconia upper insulation layer 3, a zirconia insulation cylinder 4, a zirconia insulation layer 5, a seed Crystal protection layer 6, crucible 7 and zirconia base 10, the induction heating coil 2 is wound on the outer side wall of the quartz cylinder 1, the zirconia upper insulation layer 3 is arranged above the zirconia insulation cylinder 4, and together with it placed in the quartz cylinder 1, the crucible 7 is placed in the zirconia insulation cylinder 4, and the zirconia insulation layer 5 and the seed crystal protection layer 6 are arranged between the crucible 7 and the zirconia insulation cylinder 4, and the seed crystal protection layer The bottom of 6 is provided with zirconia base 10.
[0029]Wherein, the induction heating coil 2 has 7 to 12 coils, is made of copper, and has an induct...
Embodiment 2
[0037] Select ytterbium oxide (Yb 2 o 3 doped Sc 2 o 3 Rare earth ion sesquioxide crystal matrix, using the device and method described in Example 1, to prepare Yb:Sc with a large size of Φ36mm×41mm 2 o 3 crystals. Among them, the reducing protective gas input into the thermal field space is H 2 (1%-10%)+Ar, all the other are the same as embodiment 1.
Embodiment 3
[0039] Choose erbium oxide (Er 2 o 3 Doping Y 2 o 3 Rare earth ion sesquioxide crystal matrix, using the device and method described in Example 1, to prepare Er: Y with a large size of Φ38mm×45mm 2 o 3 crystals. Among them, the reducing protective gas input into the thermal field space is H 2 (0.5%-10%)+N 2 , all the other are with embodiment 1.
[0040] Example 3
[0041] Select iron oxide (Fe 2 o 3 doped GdScO 3 Rare earth ion sesquioxide crystal matrix, using the device and method described in Example 1, to prepare Fe:GdScO with a large size of Φ34mm×39mm 3 crystals. The reducing protective gas input into the thermal field space is CO (1%-10%)+Ar, and the rest are the same as in Embodiment 1.
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Abstract
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