Nominated as an Excellent Doctoral Dissertation by Peking University in 2014
Proposes innovative methods for addressing the challenges in the source/drain engineering of germanium nMOSFETs
Experimentally demonstrates the methods´ effectiveness with regard to reducing parasitic resistance in the source/drain of germanium nMOSFETs
Dr. Li received his Bachelor degree of Science from Sichuan University in 2009, and Ph.D from Peking University in 2014
Prizes and awards:
2009-2014, Peking University
Leo KoGuan Scholarship, Chenming Hu Scholarship, Merit Student, Creative Talent Award.
2005-2009, Sichuan University
National Scholarship (twice), National Encouragement Scholarship, Xinyuan Scholarship (twice),
Comprehensive First-class Scholarship, Excellent Student Leader.
Publications:
1. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Low Electron Schottky Barrier Height of NiGe/Ge Achieved by Ion-Implantation after Germanidation Technique,” IEEE Electron Device Lett.,vol. 33, no. 12, pp. 1687–1689, Dec. 2012.
2. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Morphology and Electrical Performance Improvement of NiGe/Ge Contact by P and Sb Co-implantation,” IEEE Electron Device Lett., vol. 34, no. 5, pp. 596–598, May. 2013.
3. Zhiqiang Li, Xia An, Quanxin Yun, Meng Lin, Min Li, Ming Li, Xing Zhang, and Ru Huang, "Low Specific Contact Resistivity to n-Ge and Well-Behaved Ge n+/p Diode Achieved by Multiple Implantation and Multiple Annealing Technique,” IEEE Electron Device Lett., vol. 34, no. 9, pp. 1097–1099, Sep. 2013.
4. Zhiqiang Li, Xia An, Quanxin Yun, Meng Lin, Xing Zhang and Ru Huang, "Tuning Schottky Barrier Height in Metal/n-Type Germanium by Inserting an Ultrathin Yttrium Oxide Film,” ECS Solid State Lett., Vol. 1, no. 4, pp. Q33-Q34, 2012.
5. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Study on Schottky Barrier Modulation of NiGe/Ge by Ion-implantation after Germanidation Technique,” The 11th ICSICT, Xi´an, 2012.
This book mainly focuses on reducing the high parasitic resistance in the source/drain of germanium nMOSFET. With adopting of the Implantation After Germanide (IAG) technique, P and Sb co-implantation technique and Multiple Implantation and Multiple Annealing (MIMA) technique, the electron Schottky barrier height of NiGe/Ge contact is modulated to 0.1eV, the thermal stability of NiGe is improved to 600°C and the contact resistivity of metal/n-Ge contact is drastically reduced to 3.8×10–7?-cm2, respectively. Besides, a reduced source/drain parasitic resistance is demonstrated in the fabricated Ge nMOSFET. Readers will find useful information about the source/drain engineering technique for high-performance CMOS devices at future technology node.
Introduction.- Ge-based Schottky barrier height modulation technology.- Metal germanide technology.- Contact resistance of Ge-based devices.- Conclusions.
This book mainly focuses on reducing the high parasitic resistance in the source/drain of germanium nMOSFET. With adopting of the Implantation After Germanide (IAG) technique, P and Sb co-implantation technique and Multiple Implantation and Multiple Annealing (MIMA) technique, the electron Schottky barrier height of NiGe/Ge contact is modulated to 0.1eV, the thermal stability of NiGe is improved to 600 and the contact resistivity of metal/n-Ge contact is drastically reduced to 3.8×10-7 -cm2, respectively. Besides, a reduced source/drain parasitic resistance is demonstrated in the fabricated Ge nMOSFET. Readers will find useful information about the source/drain engineering technique for high-performance CMOS devices at future technology node.
Dr. Li received his Bachelor degree of Science from Sichuan University in 2009, and Ph.D from Peking University in 2014
Prizes and awards:
2009-2014, Peking University
Leo KoGuan Scholarship, Chenming Hu Scholarship, Merit Student, Creative Talent Award.
2005-2009, Sichuan University
National Scholarship (twice), National Encouragement Scholarship, Xinyuan Scholarship (twice),
Comprehensive First-class Scholarship, Excellent Student Leader.
Publications:
1. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Low Electron Schottky Barrier Height of NiGe/Ge Achieved by Ion-Implantation after Germanidation Technique," IEEE Electron Device Lett.,vol. 33, no. 12, pp. 1687-1689, Dec. 2012.
2. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Morphology and Electrical Performance Improvement of NiGe/Ge Contact by P and Sb Co-implantation," IEEE Electron Device Lett., vol. 34, no. 5, pp. 596-598, May. 2013.
3. Zhiqiang Li, Xia An, Quanxin Yun, Meng Lin, Min Li, Ming Li, Xing Zhang, and Ru Huang, "Low Specific Contact Resistivity to n-Ge and Well-Behaved Ge n /p Diode Achieved by Multiple Implantation and Multiple Annealing Technique," IEEE Electron Device Lett., vol. 34, no. 9, pp. 1097-1099, Sep. 2013.
4. Zhiqiang Li, Xia An, Quanxin Yun, Meng Lin, Xing Zhang and Ru Huang, "Tuning Schottky Barrier Height in Metal/n-Type Germanium by Inserting an Ultrathin Yttrium Oxide Film," ECS Solid State Lett., Vol. 1, no. 4, pp. Q33-Q34, 2012.
5. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Study on Schottky Barrier Modulation of NiGe/Ge by Ion-implantation after Germanidation Technique," The 11th ICSICT, Xi'an, 2012.
Über den Autor
Dr. Li received his Bachelor degree of Science from Sichuan University in 2009, and Ph.D from Peking University in 2014
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Prizes and awards:
2009-2014, Peking University
Leo KoGuan Scholarship, Chenming Hu Scholarship, Merit Student, Creative Talent Award.
2005-2009, Sichuan University
National Scholarship (twice), National Encouragement Scholarship, Xinyuan Scholarship (twice),
Comprehensive First-class Scholarship, Excellent Student Leader.
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Publications:
1. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Low Electron Schottky Barrier Height of NiGe/Ge Achieved by Ion-Implantation after Germanidation Technique," IEEE Electron Device Lett.,vol. 33, no. 12, pp. 1687-1689, Dec. 2012.
2. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Morphology and Electrical Performance Improvement of NiGe/Ge Contact by P and Sb Co-implantation," IEEE Electron Device Lett., vol. 34, no. 5, pp. 596-598, May. 2013.
3. Zhiqiang Li, Xia An, Quanxin Yun, Meng Lin, Min Li, Ming Li, Xing Zhang, and Ru Huang, "Low Specific Contact Resistivity to n-Ge and Well-Behaved Ge n¿/p Diode Achieved by Multiple Implantation and Multiple Annealing Technique," IEEE Electron Device Lett., vol. 34, no. 9, pp. 1097-1099, Sep. 2013.
4. Zhiqiang Li, Xia An, Quanxin Yun, Meng Lin, Xing Zhang and Ru Huang, "Tuning Schottky Barrier Height in Metal/n-Type Germanium by Inserting an Ultrathin Yttrium Oxide Film," ECS Solid State Lett., Vol. 1, no. 4, pp. Q33-Q34, 2012.
5. Zhiqiang Li, Xia An, Min Li, Quanxin Yun, Meng Lin, Ming Li, Xing Zhang, and Ru Huang, "Study on Schottky Barrier Modulation of NiGe/Ge by Ion-implantation after Germanidation Technique," The 11th ICSICT, Xi'an, 2012.
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Inhaltsverzeichnis
Introduction.- Ge-based Schottky barrier height modulation technology.- Metal germanide technology.- Contact resistance of Ge-based devices.- Conclusions.
Klappentext
This book mainly focuses on reducing the high parasitic resistance in the source/drain of germanium nMOSFET. With adopting of the Implantation After Germanide (IAG) technique, P and Sb co-implantation technique and Multiple Implantation and Multiple Annealing (MIMA) technique, the electron Schottky barrier height of NiGe/Ge contact is modulated to 0.1eV, the thermal stability of NiGe is improved to 600¿ and the contact resistivity of metal/n-Ge contact is drastically reduced to 3.8×10-7O.cm2, respectively. Besides, a reduced source/drain parasitic resistance is demonstrated in the fabricated Ge nMOSFET. Readers will find useful information about the source/drain engineering technique for high-performance CMOS devices at future technology node.
Nominated as an Excellent Doctoral Dissertation by Peking University in 2014
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Proposes innovative methods for addressing the challenges in the source/drain engineering of germanium nMOSFETs
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Experimentally demonstrates the methods' effectiveness with regard to reducing parasitic resistance in the source/drain of germanium nMOSFETs
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Includes supplementary material: sn.pub/extras
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