Orthogonal combination mask method for preparing material chip
A chip and mask technology, applied in the field of materials, can solve the problems of inconsistent actual concentration, reduced chip area utilization, precise control of angle rotation, etc., to achieve the effect of fast screening efficiency, high utilization rate, and quasi-continuous element concentration
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Embodiment 1
[0024] To prepare alkaline earth orthosilicate Me 2 SiO 4 : Eu 2+ 0.01 (Me=Be, Mg, Ca, Sr, Ba) Orthogonal combined material chip (5 factors and 5 concentration levels) as an example. The 5 concentration levels of each alkaline earth ion are achieved through 5 deposition thicknesses, namely 0.2nm, 0.4nm, 0.6nm, 0.8nm, and 1nm (the element concentration is usually controlled by the element deposition thickness in the combined method).
[0025] Orthogonal table L 25 (5 6 ) is improved 5*(5-1) orthogonal table (such as figure 1 ): take L 25 (5 6 ) is the female parent (excluding the first column and the first 5 rows in the table, and the remaining 5*4 (columns 2 to 6, rows 6 to 25) in the table at this time. SiO 2 The layer deposition thickness is fixed at 1.5nm (taking the atomic concentration of Si as the standard, that is, the atomic concentration of Si is 1), prepared according to the improved orthogonal table 5*(5-1), and the available 20 Me 2 SiO 4 : Eu 2+ 0.01 (...
Embodiment 2
[0029] To prepare perovskite GdAlO 3 :RE 0.1 (RE=Eu, Pr, Sm) Orthogonal combined material chip (3 factors 3 concentration levels) as an example. The three concentration levels of each rare earth ion are achieved through three deposition thicknesses, namely 0nm, 0.5nm, and 1nm (the element concentration is usually controlled by the element deposition thickness in the combined method).
[0030] Orthogonal table L 9 (3 4 ) is improved 3*(3-1) orthogonal table for the parent (such as Figure 4 ): take L 9 (3 4 ) is the female parent (excluding the first column and the first 3 rows in the table, and the remaining 3*2 (columns 2 to 4, rows 4 to 9) in the table at this time. GdAlO 3 The layer deposition thickness is fixed at 15nm (taking the atomic concentration of Gd as the standard, that is, the atomic concentration of Gd is 1), and the preparation is carried out according to the improved orthogonal table 3*(3-1), and the available 6 GdAlO 3 :RE 0.1 (RE=Eu, Pr, Sm) samples....
Embodiment 3
[0034] to prepare MeTiO 3 (Me=Be, Mg, Ca, Sr, Ba, Fe) Orthogonal combined material chip (6 factors and 3 concentration levels) as an example. The three concentration levels of each metal ion are achieved by three deposition thicknesses, namely 0nm, 0.5nm, and 1nm (the element concentration is usually controlled by the element deposition thickness in the combined method).
[0035] Orthogonal table L 18 (3 7 ) is an improved 3*(6-1) orthogonal table for the parent (such as Figure 7 ): take L 18 (3 7 ) is the female parent (excluding the first column and the first 3 rows in the table, and the remaining 3*5 (columns 2-7, rows 4-18) in the table at this time. TiO 2 The layer deposition thickness is fixed at 3nm (taking the atomic concentration of Ti as the standard, that is, the atomic concentration of Ti is 1), prepared according to the improved orthogonal table 3*(6-1), and 15 MeTiO can be obtained 3 (Me=Be, Mg, Ca, Sr, Ba, Fe) samples. In these 15 samples, not only the s...
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