Wafer-Scale Statistical Analysis of Graphene FETs-Part I: Wafer-Scale Fabrication and Yield Analysis

被引:14
作者
Smith, Anderson D. [1 ]
Wagner, Stefan [2 ,3 ]
Kataria, Satender [2 ,3 ]
Malm, B. Gunnar [1 ]
Lemme, Max C. [2 ,3 ,4 ]
Ostling, Mikael [1 ]
机构
[1] KTH Royal Inst Technol, Dept Integrated Devices & Circuits, S-16440 Kista, Sweden
[2] Univ Siegen, Nanotechnol Lab, D-57076 Siegen, Germany
[3] Rhein Westfal TH Aachen, D-52074 Aachen, Germany
[4] AMO GmbH, D-52074 Aachen, Germany
关键词
Graphene; graphene FET ( GFET); RF; statistics; wafer-scale fabrication; FIELD; TRANSISTORS;
D O I
10.1109/TED.2017.2727820
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Wafer-scale, CMOS compatible graphene transfer has been established for device fabrication and can be integrated into a conventional CMOS process flow back end of the line. In Part I of this paper, statistical analysis of graphene FET (GFET) devices fabricated on wafer scale is presented. Device yield is approximately 75% (for 4500 devices) measured in terms of the quality of the top gate, oxide layer, and graphene channel. Statistical evaluation of the device yield reveals that device failure occurs primarily during the graphene transfer step. In Part II of this paper, device statistics are further examined to reveal the primary mechanism behind device failure. The analysis from Part II suggests that significant improvements to device yield, variability, and performance can be achieved through mitigation of compressive strain introduced in the graphene layer during the graphene transfer process. The combined analyses from Parts I and II present an overview of mechanisms influencing GFET behavior as well as device yield. These mechanisms include residues on the graphene surface, tears, cracks, contact resistance at the graphene/metal interface, gate leakage as well as the effects of postprocessing.
引用
收藏
页码:3919 / 3926
页数:8
相关论文
共 47 条
[1]  
[Anonymous], WAFER SCALE STAT A 2
[2]   Ultrahigh-mobility graphene devices from chemical vapor deposition on reusable copper [J].
Banszerus, Luca ;
Schmitz, Michael ;
Engels, Stephan ;
Dauber, Jan ;
Oellers, Martin ;
Haupt, Federica ;
Watanabe, Kenji ;
Taniguchi, Takashi ;
Beschoten, Bernd ;
Stampfer, Christoph .
SCIENCE ADVANCES, 2015, 1 (06)
[3]   Ultrahigh electron mobility in suspended graphene [J].
Bolotin, K. I. ;
Sikes, K. J. ;
Jiang, Z. ;
Klima, M. ;
Fudenberg, G. ;
Hone, J. ;
Kim, P. ;
Stormer, H. L. .
SOLID STATE COMMUNICATIONS, 2008, 146 (9-10) :351-355
[4]   Synthesis, Transfer, and Devices of Single- and Few-Layer Graphene by Chemical Vapor Deposition [J].
De Arco, Lewis Gomez ;
Zhang, Yi ;
Kumar, Akshay ;
Zhou, Chongwu .
IEEE TRANSACTIONS ON NANOTECHNOLOGY, 2009, 8 (02) :135-138
[5]   Mobility and saturation velocity in graphene on SiO2 [J].
Dorgan, Vincent E. ;
Bae, Myung-Ho ;
Pop, Eric .
APPLIED PHYSICS LETTERS, 2010, 97 (08)
[6]   Raman spectrum of graphene and graphene layers [J].
Ferrari, A. C. ;
Meyer, J. C. ;
Scardaci, V. ;
Casiraghi, C. ;
Lazzeri, M. ;
Mauri, F. ;
Piscanec, S. ;
Jiang, D. ;
Novoselov, K. S. ;
Roth, S. ;
Geim, A. K. .
PHYSICAL REVIEW LETTERS, 2006, 97 (18)
[7]   Scalable Electrical Compact Modeling for Graphene FET Transistors [J].
Fregonese, Sebastien ;
Magallo, Maura ;
Maneux, Cristell ;
Happy, Henri ;
Zimmer, Thomas .
IEEE TRANSACTIONS ON NANOTECHNOLOGY, 2013, 12 (04) :539-546
[8]   Graphene: Status and Prospects [J].
Geim, A. K. .
SCIENCE, 2009, 324 (5934) :1530-1534
[9]  
HaiJun Wang, 2010, Proceedings of the 2010 International Conference on Machine Vision and Human-Machine Interface (MVHI 2010), P6, DOI 10.1109/MVHI.2010.75
[10]   High-Frequency Graphene Voltage Amplifier [J].
Han, Shu-Jen ;
Jenkins, Keith A. ;
Garcia, Alberto Valdes ;
Franklin, Aaron D. ;
Bol, Ageeth A. ;
Haensch, Wilfried .
NANO LETTERS, 2011, 11 (09) :3690-3693