Palladium--Hydrogen Complex in Silicon Observed by Electron Spin Resonance Measurement
We have investigated a palladium--hydrogen complex in silicon by electron spin resonance (ESR) measurement. A new ESR spectrum was detected in a sample diffused with palladium and hydrogen. The hyperfine structure of hydrogen atoms in the ESR spectrum shows that the spectrum originates from a pallad...
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Published in | Japanese Journal of Applied Physics Vol. 50; no. 9; pp. 091301 - 091301-4 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
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The Japan Society of Applied Physics
01.09.2011
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Abstract | We have investigated a palladium--hydrogen complex in silicon by electron spin resonance (ESR) measurement. A new ESR spectrum was detected in a sample diffused with palladium and hydrogen. The hyperfine structure of hydrogen atoms in the ESR spectrum shows that the spectrum originates from a palladium--hydrogen complex containing three hydrogen atoms (Pd--H 3 ). The anisotropic $g$-value of Pd--H 3 shows that the Pd--H 3 complex has an anisotropic character of orthorhombic ($C_{2v}$) symmetry. The calculated $g$-values of the Pd--H 3 complex are $g_{1} = 2.12$, $g_{2} = 2.10$, and $g_{3} = 2.03$, and the $g_{2}$ axis is along the $\langle 100 \rangle$ direction. The anisotropic character of orthorhombic ($C_{2v}$) symmetry results from a configuration consisting of one Pd atom at a substitutional site, two equivalent hydrogen atoms at interstitial sites along the $\langle 111 \rangle$ direction, and one hydrogen atom at the next-nearest-neighbor interstitial site along the $\langle 100 \rangle$-twofold symmetry axis. We have also studied the dissociation of a platinum--hydrogen complex by thermal treatment. The activation energy for the dissociation of the Pd--H 3 complex is estimated to be about 1.6 eV. |
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AbstractList | We have investigated a palladium--hydrogen complex in silicon by electron spin resonance (ESR) measurement. A new ESR spectrum was detected in a sample diffused with palladium and hydrogen. The hyperfine structure of hydrogen atoms in the ESR spectrum shows that the spectrum originates from a palladium--hydrogen complex containing three hydrogen atoms (Pd--H 3 ). The anisotropic $g$-value of Pd--H 3 shows that the Pd--H 3 complex has an anisotropic character of orthorhombic ($C_{2v}$) symmetry. The calculated $g$-values of the Pd--H 3 complex are $g_{1} = 2.12$, $g_{2} = 2.10$, and $g_{3} = 2.03$, and the $g_{2}$ axis is along the $\langle 100 \rangle$ direction. The anisotropic character of orthorhombic ($C_{2v}$) symmetry results from a configuration consisting of one Pd atom at a substitutional site, two equivalent hydrogen atoms at interstitial sites along the $\langle 111 \rangle$ direction, and one hydrogen atom at the next-nearest-neighbor interstitial site along the $\langle 100 \rangle$-twofold symmetry axis. We have also studied the dissociation of a platinum--hydrogen complex by thermal treatment. The activation energy for the dissociation of the Pd--H 3 complex is estimated to be about 1.6 eV. We have investigated a palladium–hydrogen complex in silicon by electron spin resonance (ESR) measurement. A new ESR spectrum was detected in a sample diffused with palladium and hydrogen. The hyperfine structure of hydrogen atoms in the ESR spectrum shows that the spectrum originates from a palladium–hydrogen complex containing three hydrogen atoms (Pd–H 3 ). The anisotropic g -value of Pd–H 3 shows that the Pd–H 3 complex has an anisotropic character of orthorhombic ( C 2 v ) symmetry. The calculated g -values of the Pd–H 3 complex are g 1 = 2.12, g 2 = 2.10, and g 3 = 2.03, and the g 2 axis is along the direction. The anisotropic character of orthorhombic ( C 2 v ) symmetry results from a configuration consisting of one Pd atom at a substitutional site, two equivalent hydrogen atoms at interstitial sites along the direction, and one hydrogen atom at the next-nearest-neighbor interstitial site along the -twofold symmetry axis. We have also studied the dissociation of a platinum–hydrogen complex by thermal treatment. The activation energy for the dissociation of the Pd–H 3 complex is estimated to be about 1.6 eV. |
Author | Mori, Yuya Ishiyama, Takeshi Kimura, Shutaro Yamashita, Yoshifumi Kamiura, Yoichi |
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Snippet | We have investigated a palladium--hydrogen complex in silicon by electron spin resonance (ESR) measurement. A new ESR spectrum was detected in a sample... We have investigated a palladium–hydrogen complex in silicon by electron spin resonance (ESR) measurement. A new ESR spectrum was detected in a sample diffused... |
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