Effect of a Cu seed layer on electroplated Cu film
[Display omitted] ► The morphology of the electroplated Cu films is influenced by the Cu layers. ► The hardness of the electroplated Cu film is influenced by Cu seed layer. ► The Cu film adhesion is influenced by Cu seed layer. ► The Cu film is less corrosion-resistant when its roughness value is hi...
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Published in | Microelectronic engineering Vol. 105; pp. 18 - 24 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
Published |
Amsterdam
Elsevier B.V
01.05.2013
Elsevier |
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Abstract | [Display omitted]
► The morphology of the electroplated Cu films is influenced by the Cu layers. ► The hardness of the electroplated Cu film is influenced by Cu seed layer. ► The Cu film adhesion is influenced by Cu seed layer. ► The Cu film is less corrosion-resistant when its roughness value is higher.
Cu films with different thicknesses were electroplated onto Cu seed layers. Cu seed layers with different thicknesses were sputtered on a Ta barrier layer; the thickness of Cu seed layer was varied by changing the sputtering time. To investigate the influence of the Cu seed layers on the performance of the electroplated Cu films, the morphology, grain size, crystallographic orientation, and mechanical and chemical properties of the electroplated Cu films are presented in this paper. As the thickness of the Cu seed layer increases, the grain size increases, and the surface morphology changes from flat to rough to smooth. The adhesion of the Cu seed layers to the substrate increases with increasing thickness of the Cu seed layers but eventually decreases. After the electroplated Cu films are deposited, the morphology, grain size, and crystallographic orientation of the electroplated Cu films are significantly influenced by the seed layers. The hardness of the electroplated Cu film increases with the thickness of the Cu seed layer, and finally reaches a constant value. The adhesion between the Cu film and the substrates is influenced by the Cu seed layer as indicated by the morphology of the film. The Cu film is less corrosion-resistant when its roughness value is higher. Better mechanical and chemical properties are obtained when the thickness of the Cu seed layer is 150nm. |
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AbstractList | [Display omitted]
► The morphology of the electroplated Cu films is influenced by the Cu layers. ► The hardness of the electroplated Cu film is influenced by Cu seed layer. ► The Cu film adhesion is influenced by Cu seed layer. ► The Cu film is less corrosion-resistant when its roughness value is higher.
Cu films with different thicknesses were electroplated onto Cu seed layers. Cu seed layers with different thicknesses were sputtered on a Ta barrier layer; the thickness of Cu seed layer was varied by changing the sputtering time. To investigate the influence of the Cu seed layers on the performance of the electroplated Cu films, the morphology, grain size, crystallographic orientation, and mechanical and chemical properties of the electroplated Cu films are presented in this paper. As the thickness of the Cu seed layer increases, the grain size increases, and the surface morphology changes from flat to rough to smooth. The adhesion of the Cu seed layers to the substrate increases with increasing thickness of the Cu seed layers but eventually decreases. After the electroplated Cu films are deposited, the morphology, grain size, and crystallographic orientation of the electroplated Cu films are significantly influenced by the seed layers. The hardness of the electroplated Cu film increases with the thickness of the Cu seed layer, and finally reaches a constant value. The adhesion between the Cu film and the substrates is influenced by the Cu seed layer as indicated by the morphology of the film. The Cu film is less corrosion-resistant when its roughness value is higher. Better mechanical and chemical properties are obtained when the thickness of the Cu seed layer is 150nm. Cu films with different thicknesses were electroplated onto Cu seed layers. Cu seed layers with different thicknesses were sputtered on a Ta barrier layer; the thickness of Cu seed layer was varied by changing the sputtering time. To investigate the influence of the Cu seed layers on the performance of the electroplated Cu films, the morphology, grain size, crystallographic orientation, and mechanical and chemical properties of the electroplated Cu films are presented in this paper. As the thickness of the Cu seed layer increases, the grain size increases, and the surface morphology changes from flat to rough to smooth. The adhesion of the Cu seed layers to the substrate increases with increasing thickness of the Cu seed layers but eventually decreases. After the electroplated Cu films are deposited, the morphology, grain size, and crystallographic orientation of the electroplated Cu films are significantly influenced by the seed layers. The hardness of the electroplated Cu film increases with the thickness of the Cu seed layer, and finally reaches a constant value. The adhesion between the Cu film and the substrates is influenced by the Cu seed layer as indicated by the morphology of the film. The Cu film is less corrosion-resistant when its roughness value is higher. Better mechanical and chemical properties are obtained when the thickness of the Cu seed layer is 150 nm. |
Author | Lu, Xinchun Wang, Tongqing Pan, Yan Liu, Yuhong |
Author_xml | – sequence: 1 givenname: Yan surname: Pan fullname: Pan, Yan – sequence: 2 givenname: Yuhong surname: Liu fullname: Liu, Yuhong – sequence: 3 givenname: Tongqing surname: Wang fullname: Wang, Tongqing – sequence: 4 givenname: Xinchun surname: Lu fullname: Lu, Xinchun email: xclu@tsinghua.edu.cn |
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Keywords | Electroplate Cu film Corrosion Mechanical property Sputtering Performance evaluation Grain size analysis Barrier layer Crystal orientation Roughness Texture Surface structure Microelectronic fabrication Hardness testing Chemical properties Copper Grain size Crystallographic direction Surface morphology Mechanical properties Grain orientation Hardness Adhesion Layer thickness Corrosion resistance Sputter deposition Microstructure |
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► The morphology of the electroplated Cu films is influenced by the Cu layers. ► The hardness of the electroplated Cu film is influenced by... Cu films with different thicknesses were electroplated onto Cu seed layers. Cu seed layers with different thicknesses were sputtered on a Ta barrier layer; the... |
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SubjectTerms | ADHESION Applied sciences CHEMICAL PROPERTIES Condensed matter: structure, mechanical and thermal properties Copper CORROSION Cross-disciplinary physics: materials science; rheology CRYSTAL ORIENTATION Crystallography Cu film Deposition by sputtering Electroplate ELECTROPLATING Exact sciences and technology Grain size GRAIN SIZE AND SHAPE HARDNESS Materials science Mechanical and acoustical properties of condensed matter Mechanical properties and methods of testing. Rheology. Fracture mechanics. Tribology Mechanical properties of solids Mechanical property Metals. Metallurgy Methods of deposition of films and coatings; film growth and epitaxy Morphology Orientation Other heat and thermomechanical treatments Physics PROPERTIES Seeds Sputtering Treatment of materials and its effects on microstructure and properties Tribology and hardness |
Title | Effect of a Cu seed layer on electroplated Cu film |
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