Reactive sputtering method and reactive sputtering apparatus
a sputtering apparatus and reactive technology, applied in the direction of vacuum evaporation coating, coating, electric discharge tube, etc., can solve the problems of shortening the life of the target shield, limiting the miniaturization, and different film characteristics for each processing
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first embodiment
[0027]FIG. 1 is a schematic diagram of a sputtering apparatus suitable for implementing a method of the present embodiment. A film deposition processing chamber 100 is configured so as to be heated to a predetermined temperature by a heater 101. Further, the film deposition processing chamber (container) 100 is configured such that a to-be-processed substrate 102 is heated to a predetermined temperature by a heater 105 via a susceptor 104 embedded in a substrate holder 103. The substrate holder 103, which is a substrate holder capable of holding the substrate, preferably can rotate at a predetermined rotating speed from the viewpoint of film thickness uniformity. In the film deposition processing chamber, a target 106 is disposed at a position facing the to-be-processed substrate 102. The target 106 is disposed at a target holder 108 via a back plate 107 made of metal such as Cu. Note that a form of target assembly combining the target 106 and the back plate 107 may be fabricated as...
second embodiment
[0040]Next, a second embodiment will be explained.
[0041]FIG. 3 shows a reactive sputtering apparatus according to the second embodiment. While the reactive sputtering apparatus of the second embodiment has approximately the same configuration as that of the reactive sputtering apparatus in the first embodiment, a different point is that the reactive sputtering apparatus of the second embodiment does not have the shield 120 but uses a radiation thermometer 122 monitoring the strength of infrared light and visible light. Further, a shield plate 116 has not only a through hole 131 facing a target 106 but also a through hole (opening) 132 facing the radiation thermometer 122, and a space around a substrate can be observed via the through hole 132. That is, the radiation thermometer 122 is a member around a to-be-processed substrate 102 except the to-be-processed substrate 102 and is configured to measure the temperature of a member (adhesive member) facing the sputtering space via the t...
third embodiment
[0045]Next, a third embodiment will be explained with reference to FIGS. 4A and 4B. While a reactive sputtering apparatus of the third embodiment has approximately the same configuration as that according to the second embodiment, a different point is a configuration of a shield plate 116. In the third embodiment, the shield plate 116 is provided with a through hole 131 having approximately the same diameter as that of a target 106 and configured to be rotatable according to an instruction from a reactive gas control mechanism 209, and thereby the through hole 131 can be moved by the rotation to respective positions facing a radiation thermometer 122 and the target 106.
[0046]In the interim of film deposition (e.g., after film deposition or before film deposition), the through hole 131 is caused to face the radiation thermometer 122 for enabling temperature measurement (FIG. 4A) and also, during the film deposition, the through hole 131 is moved to the position facing the target 106 ...
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Abstract
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