55th IEEE Semiconductor Interface Specialists Conference | ||||
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2024IGZO thin-film transistor reliability: the last standing roadblock for memory applications, A. Chasin1, P. Rinaudo1,2, Y. Zhao1,2, H. Dekkers1, M. van Setten1, S. Subhechha1, A. Kruv1, D. Matsubayashi1, A. Pavel1, Y. Wan1, K. Trivedi1, N. Rassoul1, A. Belmonte1, G. S. Kar1, B. Kaczer1, and J. Franco1, 1imec, Belgium, 2U. Leuven, Belgium Monolithic 3D Integration of Functionally Diverse 2D Devices, S. Das, Pennsylvania State U. Variability in Hafnia-based Ferroelectrics: A Phase-Field Simulation based Perspective, R. Koduru and S. K. Gupta, Purdue U. Hafnia-Based FeRAM for High-Density, High-Speed Embedded Memory, C. Neumann, S.-C. Chang, B. Granados Alpizar, S. Shivaraman, B. Bangalore Rajeeva, C.-C. Lin, J. Peck, N. Kabir, Y.-C. Liao, W. Chakraborty, N. Haratipour, I.-C. Tung, V. Nikitin, H. Li, G. Allen, T. Hoff, A. Oni, S. Atanasov, T. Tronic, A. Roy, M. Metz, I. Young, J. Kavalieros, and U. Avci, Intel CFET Technology for Future Logic Scaling, S. Liao, TSMC Gate Stack Innovations for Gate-All-Around (GAA) Device Architecture to Continue Transistor Scaling, R. Bao, D. Guo, and H. Bu, IBM Pioneering Innovation for Next Generation 3D Memory Era, K. Park, J. Kim, Y. S. Tak, I. Zoh, S. H. Jang, S. W. Jung, S. Y. Yang, G. H. Yon, H. J. Kim, Z. Wu, S. C. Oh, I. Jeon, D. S. Lee, J. Kim, J. M. Oh, J. K. Lee, I.-M. Park, S. U. Han, K. Kim, M. H. Cho, H. J. Lim, H. M. Choi, W. Kim, J. Han, D. Ha, S. Park, J. Han, H. S. Kim, Y. J. Song, B. J. Gu, S. J. Ahn, S. J. Hyun, and J. Song, Samsung Device Engineering for High-Performance Gallium Oxide Electronics, A. Deenan, N. Wriedt, C. Joishi, J. Hwang, S. A. Ringel, H. Zhao, J. McGlone, and S. Rajan, Ohio State U. 2023Enabling Gate Pitch Scaling in the Angstrom Era, A. Penumatcha, Intel Radiation Effects and Reliability in 3D Integrated Circuits, E. X. Zhang1, S. Toguchi2, R. D. Schrimpf3, M. L. Alles3, and D. M. Fleetwood3, 1U. of Central Florida, 2Microchip Technology Inc., 3Vanderbilt U. Interconnects: New Materials for High Conductivity, D. Gall, Rensselaer Polytechnic Institute Protonic Electrochemical Synapses for Analog Deep Learning and Beyond, B. Yildiz, MIT Entering a New Era of Nanosheet FET-based Device Architectures with Increased FEOL-BEOL Synergies, A. Veloso, G. Eneman, P. Matagne, B. Vermeersch, H. Arimura, B. O'Sullivan, C. Porret, and N. Horiguchi, imec, Belgium Oxide Semiconductor Transistors for LSI Application, M. Kobayashi, U. Tokyo, Japan Ovonic Threshold Switching (OTS) Device for Selector Applications, J. Lee, S. Ban, and H. Hwang, POSTECH, Korea Interface Trapping and Scattering in 4H-SiC MOSFETs, S. Dhar, Auburn U. 2022Device Engineering and Benefit Maximization for Advanced Cryo, H.-L. Chiang, J.-J. Wu, P.-J. Liao, T.-C. Chen, C.-S. Chang, X. Bao, J. Cai, M. F. Chang, H. Chuang, C. H. Diaz, H.-S. P. Wong, M. Passlack, and I. Radu, TSMC, Taiwan Efficient Control of 2D Magnets, C. Gong, U. Maryland EWF control of advanced high-thermal-budget RMG gate stack, H. Arimura, J. Franco, S. Brus, E. Dentoni Litta, and N. Horiguchi, imec, Belgium Ferroelectric field-effect transistors: Reliability and logic compability, D. Das, N. Tasneem, and A. Khan, Georgia Institute of Technology Hardware Algorithm Co-optimization for Scalable Analog Compute Technology, T. Ando, IBM Interfaces between GaN and AlN: epitaxy, properties and devices, H. G. Xing, Cornell U. Oxide Semiconductor Back-end-of-line(BEOL)-CompatibleTransistors and Memories, X. Gong, K. Han, S. Samanta, C. Sun, C. Wang, and Z. Zheng, National U. of Singapore, Singapore Reduced Contact Resistances for Moire Lattice Interfaces of MoS2 and otherLayeredCompounds, J. Robertson1, Z. Zhang1, and Y. Guo2, 1U. Cambridge, UK, 2Wuhan U., China 2021A New Era of Integrated Molecular Electronics: A Programmable Single-Molecule Biosensor on a Semiconductor Chip, B. Merriman, Roswell Biotechnologies Atomic-layer-deposited atomically thin In2O3 channel for BEOL logic and memory applications, P. D. Ye, Purdue U. CMOS Logic Technology Scaling Beyond FinFETs - In memoryof the legacy of T. P. Ma, H. Bu, D. Guo, D. Dechene, V. Narayanan, A. Chen, J. Rozen, and M. Frank, IBM Dielectrics for Devices from CMOS Extension to Beyond-CMOS A personal research journey owing to the inspiration, guidance, and support of Prof. Ma, A. Chen, SRC Ferroelectric Materials and Devices for Disruptive Semiconductor Technology, J. Heo1, D.-H. Choe1, H. Lee1, S. Jo1, H. Bae1, S. G. Nam1, J.-H. Kim1, E. Lee1, Y. Kim2, H. Kim2, Y. Lee1, T. Moon1, and H. Lee1, 1Samsung Advanced Institute of Technology, Korea, 2Sungkyunkwan U., Korea Functional Integration on III-V Nanowires, L.-E. Wernersson, Lund U., Sweden Hafnia-based Ferroelectrics, S. Slesazeck1, S. Lancaster1, M. Engl1, and T. Mikolajick1,2, 1NaMLab gGmbH, Germany, 2TU Dresden, Germany High-Frequency Ga2O3 FETs and Interface Related Challenges in Their Development, M. Higashiwaki, T. Kamimura, and S. Kumar, National Institute of Information and Communications Technology, Japan Mark Reed and the Birth of Nanoelectronics, A. Seabaugh1, W. R. Frensley2, and J. N. Randall3, 1U. Notre Dame, 2UT Dallas, 3Zyvex Labs Mark Reedand the Birthof Molecular Electronics, J. M. Tour, Rice U. RF-Biased Atomic Layer Annealing of Polycrystalline Materials at Low Temperature on Insulators, A. J. McLeod1, S. T. Ueda1, J. Spiegelman2, and A. C. Kummel1, 1UCSD, 2RASIRC 2020Interface Effects on the Reliability of Hafnium Oxide-Based Ferroelectric Memories, P. C. McIntyre, Stanford U. Van der Waals Integration beyond 2D Materials, X. Duan, UCLA Progress and issue in oxide semiconductors, H. Hosono1,2, 1Tokyo Institute of Technology, Japan, 2National Institute for Materials Science, Japan Insulators for 2D Nanoelectronics: Expectations vs. Reality, Y. Y. Illarionov1,2, T. Knobloch1, and T. Grasser1, 1TU Wien, Austria, 2Ioffe Institute, Russia Discovery and transistor applications of polarization-induced 2D hole gases at polar semiconductor heterojunctions, D. Jena, R. Chaudhuri, S. Bader, K. Nomoto, and H. Xing, Cornell U. Reliability Physics of Post-Moore Era Electronic Devices, M. A. Alam, Purdue U. Discoveryand Understanding of Single-Atom Memory Effect in 2D Atomic Sheets, D. Akinwande, UT Austin 65K-RRAM-Array Analog Conductance Relaxation Characterization For Neural Network Inference, W. Wan and H.-S. P. Wong, Stanford U. Dielectric-Diamond Interfaces, Y. Yang, Y. Yao, X. Wang, F. A. Koeck, and R. J. Nemanich, Arizona State U. MOCVD based dielectrics on GaN: Impact of growth conditions, composition and polarity, I. Sayed and U. Mishra, UCSB 2019Dielectric Interface and Materials Challenges for Quantum Computing, R. Pillarisetty, Intel Narrow interconnects: The search for new metals, D. Gall, A. Jog, E. Milosevic, Rensselaer Polytechnic Institute The Next Era of Scaling in Electronics, S. Datta, U. Notre Dame Hafnium-based Vertical Ferroelectric FET: A New Mass Storage Device, J. Van Houdt, 1imec, Belgium, 2U. Leuven, Belgium Hardware Implementation of RRAM based Binarized Neural Networks, Z. Zhou1, P. Huang1, Y.Z. Zhang1, Y. C. Xiang1, W. S. Shen1, Y. D. Zhao1, Y. L. Feng1, B. Gao2, H. Q. Wu2, H. Qian2, L. F. Liu1, X. Zhang1, X. Y. Liu1, and J. F. Kang1, 1Peking U., China, 2Tsinghua U., China Recent progress towards ternary logic devices for extreme low power architecture, B. H. Lee1, S. Kim1, K. Kim1, H. Lee1, S. Kang2, M. M. Sung3, 1GIST, Korea, 2Pohang Institute of Science and Technology, Korea, 3Hanyang U., Korea Future Directions in > 100 GHz Devices, M. J. W. Rodwell, B. Markman, Y. Fang, UCSB Engineering High Performance Oxide Memristors, J. L. MacManus-Driscoll, U. Cambridge, UK Intermixing-protected interfacial phase-change memory to make better superlattices for future PCM, J. Tominaga, AIST, Japan Growth of Topological Insulators and Related Heterostructures, C. L. Hinkle, U. Notre Dame 2018Interfaces for CMOS bioelectronics, K. Shepard, Columbia U. Future Scaling of Advanced Logic Devices, H. Bu, IBM ALD for Semiconductor Interfaces, G. Wilk, ASM America Surface Processes for Selective Atomic Layer Deposition, S. F. Bent, Stanford U. Quasi-Static Negative Capacitance (QSNC): Science Fact or Science Fiction?, T. P. Ma, Yale U. Investigating Interface States and Border Traps in the Oxide/MoS2 System, P. K. Hurley1, P. Zhao2, P. Bolshakov2, G. Mirabelli1, E. Caruso1, F. Gity1, S. Monaghan1, J. Lin1, L. Walsh1, K. Cherkaoui1, C. M. Smyth2, A. Khosravi2, A. Azcatl2, C. L. Hinkle2, R. M. Wallace2, and C. D. Young2, 1Tyndall National Institute, Ireland, 2UT Dallas Dopant-Free Carrier Selective Contacts for Highly Efficient Si Solar Cells, A. Javey, UC Berkeley Physics in Charge Injection Induced On-Off Switching Mechanism of Resistive Random Access Memory (ReRAM) and Superlattice GeTe/Sb2Te3 Phase Change Memory (iPCM), K. Shiraishi, Nagoya U., Japan 2017Data Mining for New Two- and One-dimensional Weakly Bonded Solids and Application to Two-dimensional Phase Change Materials, G. Cheon, D. A. Rehn, Y. Zhou, and E. J. Reed, Stanford U. Electronic Label-Free Biosensing Assays, M. A. Reed, Yale U. Ferroelectric fluorite structured oxides: Materials fundamentals, switching, wake- up, and applications in electronics and energy, M. H. Park and C. S. Hwang, Seoul National U., Korea Enabling Continued Device Scaling: An Equipment Supplier's Perspective, D. Hemker, Lam Research Emerging memories: High density integration challenges, N. Ramaswamy, Micron Technology Oxide Electronics Harnessing Electronic Phase Transitions, S. Datta1, N. Shukla1, M. Jerry1, A. Parihar2, and A. Raychowdhury2, 1U. Notre Dame, 2Georgia Institute of Technology Interfaces and contacts in next generation silicon photovoltaics, P. Stradins, W. Nemeth, and S. Harvey, NREL Band-to-band tunneling devices from two-dimensional materials, A. Prakash, P. Wu, and J. Appenzeller, Purdue U. 2016Addressing Process Integration Challenges for 2D Semiconductor Materials, R. M. Wallace, UT Dallas Interface Engineering for High Performance Insulator-Protected MIS Photosynthesis Cells, P. C. McIntyre, Stanford U. Material Innovation Ferroelectric Hafnium Oxide: Towards Cheaper Memories, Steeper Slopes and New Value Adders for HKMG, J. Müller1, H. Mulaosmanovic2, S. Müller2,3, P. Polakowski1, J. Ocker2,3, M. Noack2,3, S. Riedel1, T. Ali1, M. Peši?2, U. Schröder2, S. Slesazeck2, T. Mikolajick2,4, 1Fraunhofer, Germany, 2NaMLab, Germany, 3Ferroelectric Memory GmbH, Germany, 4TU Dresden, Germany Perspective on III-V Tunnel-FETs: bridging the gap between ideal device design and experimental realizations through calibration, A. S. Verhulst1, Q. Smets1, J. Bizindavyi1,2, D. Verreck1,2, S. El Kazzi1, A. Alian1, J. Franco1, Y. Mols1, A. Vandooren1, R. Rooyackers1, D. Lin1, A. Mocuta1, B. Sorée1,2,3, G. Groeseneken1,2, N. Collaert1, and M. M. Heyns1,2, 1imec, Belgium, 2U. Leuven, Belgium, 3U. Antwerp, Belgium Critical issues and Challenges of High k Gate Stacks for Ge/GOI MOSFETs, S. Takagi, M. Ke, Y. Xiao, R. Zhang, and M. Takenaka, U. Tokyo, Japan Negative Capacitance and Its Implications for Low Voltage Transistors, S. Salahuddin, UC Berkeley 2D/3D Tunnel FETs: Toward Green Transistors and Sensors, K. Banerjee, UCSB III-V Nanowire MosFETs and Tunnel FETs, L.-E. Wernersson, Lund U., Sweden 2015Monolayer Organic Films for Nucleation of ALD on Single Layer Graphene and TMD surfaces, J. H. Park1, I. Kwak1, E. Chagarov1, K. Sardashti1, H. C. P. Movva2, H. Chou2, S. K. Banerjee2, S. Fathipour3, S. K. Fullerton-Shirey3, A. Seabaugh3, S. Vishwanath4, H. G. Xing4, P. Choudhury5, and A. C. Kummel1, 1UCSD, 2UT Austin, 3U. Notre Dame, 4Cornell U., 5New Mexico Tech Physics of electronic transport in low-dimensionality materials for future FETs, M. V. Fischetti, W. G. Vandenberghe, A. S. Negreira, Z.-Y. Ong, and B. Fu, UT Dallas Silicon at the two-dimensional limit: the debut of the silicene transistor, A. Molle, CNR-IMM, Italy GaN-based HEMTs for High-voltage and Low-loss Power Applications, M. Kuzuhara, J. T. Asubar, and H. Tokuda, U. Fukui, Japan Materials and Process Controls in Germanium Gate Stacks, A. Toriumi, U. Tokyo, Japan Two-dimensional Layered Materials and Nano-scale Devices, W. Zhu, UIUC Ultra low-k insulating materials for advanced nanoelectronics, M. R. Baklanov, imec, Belgium Microscopic Aspects of Conductive Filaments Evolution in Metal Oxide RRAM devices, B. Magyari-Köpe and Y. Nishi, Stanford U. 2014From global and local Ge integration approaches on Si(001): Novel insights by advanced synchrotron XRD techniques, T. Schroeder1,2, M. Zoellner1, G. Capellini1, O. Skibitzki1, F. Montalenti3, A. Marzegalli3, M. I. Richard4, T. Schuelli4, Y. Yamamoto1, P. Storck5, and B. Tillack1,6, 1IHP, Germany, 2TU Brandenburg, Germany, 3U. di Milano, Italy, 4European Synchrotron Radiation Facility, France, 5Siltronic, Germany, 6TU Munich, Germany High k oxides on (In)GaAs surfaces studied by synchrotron radiation photoemission, T. W. Pi1, Y. T. Fanchiang2, Y. H. Lin2, T. H. Chiang3, K. Y. Lin2, Y. K. Su3, C. H. Wei1, Y. C. Lin1, G. K. Wertheim4, J. Kwo3, and M. Hong2, 1National Synchrotron Radiation Research Center, Taiwan, 2National Taiwan U., Taiwan, 3National Tsing Hua U., Taiwan, 4Woodland Consulting Single-crystal oxide insulators grown epitaxially on GaAs, Ge and GaN by ALD, R. G. Gordon, X. Liu, X. Wang, and S. B. Kim, Harvard U. Dielectric/III-N Interfaces with Nitridation Interlayer for GaN Power Electronics, K. J. Chen, S. Yang, Z. Tang, and S. Huang, Hong Kong U. Science and Technology, Hong Kong 2D Materials Growth and Prospects, L. Colombo1, S. Banerjee2, R. M. Wallace3, and C. L. Hinkle3, 1Texas Instruments, 2UT Austin, 3UT Dallas Carrier response in electric-field-induced bandgap of bilayer graphene, K. Nagashio, U. Tokyo, Japan Contact engineering, chemical doping and heterostructures of layered chalcogenides, A. Javey, UC Berkeley In-situ probing surfaces of oxide electronic materials with atomic resolution: physical functionalities and memristive mechanisms, S. V. Kalinin, Oak Ridge National Laboratory Memory technologies for the terabit era: a paradigm shift, J. Van Houdt, imec, Belgium Memcomputing: computing with and in memory, M. Di Ventra1, F. L. Traversa1, Y. V. Pershin2, 1UC San Diego, 2U. South Carolina Reliability challenges of high mobility channel technologies: SiGe, Ge and InGaAs, J. Franco1, B. Kaczer1, Ph.J. Roussel1, M. Cho1, T. Grasser2, H. Arimura1, D. Cott1, J. Mitard1, L. Witters1, N. Waldron1, D. Zhou1, A. Alian1, A. Vais1, D. Lin1, K. Martens1, M. A. Pourghaderi1, S. Sioncke1, N. Collaert1, A. Thean1, M. Heyns, and G. Groeseneken3, 1imec, Belgium, 2TU Wien, Austria, 3U. Leuven, Belgium Evaluation of thermal properties of nanoscale MOSFETs and thermal aware device design of nano devices, K. Uchida1,2, A. Shindome1, T. Takahashi1,2, T. Matsuki3, T. Shinada3, and Y. Inoue3, 1Keio U., Japan, 2CREST, Japan, 3AIST, Japan 2013Schottky Barrier Height Engineering for Low Resistance Contacts to Ge and III-V Devices, K. Saraswat, J.-Y. Lin, A. Nainani, A. Roy, G. Shine, and Z. Yuan, Stanford U. Growth and characterization of Silicene, Germanene and other 2D layered materials, A. Dimoulas, D. Tsoutsou, E. Xenogiannopoulou, E. Golias, P. Tsipas, and S. Kassavetis, NCSR DEMOKRITOS, Greece SymFET: A novel Graphene-Insulator-Graphene Tunneling Device, D. Jena, U. Notre Dame Modeling SET and RESET transients in Hf-based RRAM devices using the Hourglass approach, R. Degraeve1, A. Fantini2, N. Raghavan1,2, Y. Y. Chen1,2, L. Goux1, S. Clima1, S. Cosemans1, B. Govoreanu1, D. J. Wouters1,2, Ph. Roussel1, G. S. Kar1, G. Groeseneken1,2, and M. Jurczak1, 1imec, Belgium, 2U. Leuven, Belgium Overcoming critical instabilities at the interfaces of scaled HfO2/Al2O3/Si gate stacks on In0.53Ga0.47As-On-Insulator, C. Marchiori1, M. El Kazzi1, L. Czornomaz1, D. Pierucci2, M. Silly2, F. Sirotti2, E. Uccelli1, M. Sousa1, and J. Fompeyrine1, 1IBM, Switzerland, 2Synchrotron SOLEIL, France Heavily doped epitaxially grown source in InGaAs MOSFET for high drain current density, Y. Miyamoto1, T. Kanazawa1, Y. Yonai1, A. Kato1, K. Ohsawa1, M. Oda2, T. Irisawa2, and T. Tezuka2, 1Tokyo U. Technology, Japan, 2AIST, Japan Reducing EOT and Interface Trap Densities of High-k/III-V Gate Stacks, S. Stemmer1, V. Chobpattana1, R. Engel-Herbert2, B. Mazumder1, T. E. Mates1, and W. J. Mitchell1, 1UCSB, 2Penn State U. Materials Selection and Device Design for Low Power Tunnel Transistors, S. Datta, Penn State U. Disorder Induced Gap States at the High-k/III-V Interface, E. M. Vogel, Georgia Institute of Technology 2012Physics and Chemistry of the High k/InGaAs Interface for High Mobility Channel MOSFET, J. Kwo1, M. Hong2, T.-W. Pi3, W. W. Pai2, Y. M. Chang2, M. L. Huang1, Y. C. Liu1, C. A. Lin1, T. D. Lin2, Y. H. Chang1, and W. C. Lee1, 1National Tsing Hua U., Taiwan, 2National Taiwan U., Taiwan, 3National Synchrotron Radiation Research Center, Taiwan XPS Studies of Oxides on III-V, R. M. Wallace, UT Dallas Weakly Interacting Epitaxial Systems: the Semiconductor/SrTiO3 Case, G. Saint-Girons1, A. Danescu1, B. Gobaut1, J. Penuelas1, G. Grenet1, G. Renaud2, N. Blanc2, V. Favre-Nicollin2, M. El Kazzi3, F. Sirotti3, and M. Silly3, 1Ecole Centrale de Lyon, France, 2CEA, France, 3Synchrotron SOLEIL, France Graphene Bilayer Pseudospin FETs and 2D-2D Tunnel FETs, C. Corbet, D.Reddy, S. Kang, D. Basu, S. Kim, L. F. Register, E. Tutuc, and S. K. Banerjee, UT Austin Strained InGaSb Metamorphic Growth and High-k Oxides Interfaces for P-Channel MOSFETs, S. Oktyabrsky, A. Greene, S. Madisetti, M. Yakimov, R. Moore, and V. Tokranov, SUNY Albany Mechanism of RRAM Operations in HfO2-based Devices, G. Bersuker, SEMATECH Fundamental Aspects of HfO2-based High-k Metal Gate Stack Reliability and tinv-Scaling for MGHK CMOS Technologies, E. Cartier, IBM Internal Photoemission at Ge/Oxide and AIII-BV/Oxide Interfaces, V. V. Afanas’ev, H.-Y. Chou, M. Houssa, and A. Stesmans, U. Leuven, Belgium 2011Ultrathin EOT scaling of high-k/metal gate stacks, L.-Å. Ragnarsson, M. Cho, T. Chiarella, J. Mitard, T. Schram, E. Röhr, L. Witters, M. Togo, N. Horiguchi, and A. Thean, imec, Belgium Energy Efficient Computing Technologies Towards the End of Silicon Scaling, S. Guha, IBM Oxide-based heterostructures, D. Schlom, Cornell U. Some Observations Associated with Scaling Towards Technologically Relevant Critical Geometries, I. Thayne1, S. Bentley1, M. Holland1, I. Povey2, E. O’Connor2, M. Pemble2, P. K. Hurley2, J. Ahn3, and P. McIntyre3, 1U. Glasgow, UK, 2Tyndall National Institute, Ireland, 3Stanford U. Cross-bar resistive memory using TiO2 thin film, G. H. Kim1, J. H. Lee1, J. H. Han1, S. J. Song1, J. Y. Seok1, J. H. Yoon1, K. J. Yoon1, M. H. Lee1, T. J. Park2, and C. S. Hwang1, 1Seoul National U., Korea, 2Hanyang U., Korea MOS Interface Properties of Ge Gate Stacks based on Ge oxides and the Impact on MOS Device Performance, S. Takagi, R. Zhang, N. Taoka, and M. Takenaka, U. Tokyo, Japan Pushing the material limits in high k dielectrics on high carrier mobility semiconductors. Is in-situ process the best choice?, M. L. Huang1, W. C. Lee1, T. D. Lin2, Y. H. Chang1, C. A. Lin1, Y. C. Chang2, T.-W. Pi3, J. Kwo1,2, and M. Hong2, 1National Tsing Hua University, Taiwan, 2National Tsing Hua University, Taiwan, 3National Synchrotron Radiation Research Center, Taiwan III-V 3D Transistors, P. D. Ye, J. J. Gu, and Y. Wu, Purdue U. 2010Materials and Processes for High-k Metal Gate Stacks for 28 nm and Beyond, P. Kirsch, SEMATECH High Performance InGaAs Quantum Well FETs with High-k Dielectrics, M. Radosavljevic, Intel Nanowire Transistors: Performance Limits, Strain Engineering, Reduction of Parasitic Resistance, Y.-C. Yeo, National U. Singapore, Singapore BiCS Flash Memory Technology, A. Nitayama, Toshiba, Japan In-situ Studies of High-k Oxide Growth on III-V Semiconductors, C. L. Hinkle, UT Dallas Understanding of GeO2 Material Properties for Advanced Ge MIS Stacks, K. Kita, U. Tokyo, Japan 2009Quality control of high-k gate oxides by doping with impurities: Guidelines from theoretical analysis, N. Umezawa, NIMS, Japan Novel charge-based multiferroic composite heterostructures, C. A. F. Vaz, J. Hoffman, and C. H. Ahn, Yale U. Gate Dielectrics, Interfaces, and SISC, T. P. Ma, Yale U. Passivation of InGaAs and InAs by ALD Precursors, J. B. Clemens1, E. A. Chagarov1, M. Holland2, R. Droopad3, J. Shen1, and A. C. Kummel1, 1UCSD, 2U. Glasgow, UK, 3Texas State University - San Marcos Fermi level pinning and its removal at III-V MOS interfaces, H. Hasegawa, M. Akazawa, Hokkaido U., Japan Memory technology: Evolutionary versus revolutionary concepts, J. Van Houdt, imec, Belgium How to improve mobility, performance, and BTI reliability of high-k/metal gate transistors?, X. Garros, M. Casse, G. Reimbold, F. Martin, F. Boulanger, LETI, France 2008High-k/Metal Gate Technology: An Ode to Materials Research and Innovation, V. Narayanan, IBM High k Dielectrics for Next Generations Non Volatile Memories, M. Alessandri1, R. Piagge1, A. Del Vitto1, A. Sebastiani1, C. Scozzari1, C. Wiemer2, L. Lamagna2, G. Ghidini1, and M. Fanciulli2,3, 1Numonyx, Italy, 2CNR INFM, Italy, 3Universits degli Studi Milano-Bicocca, Italy Reliability Mechanisms in High-K & Metal-Gate Transistor Technology, S. Pae, J. Hicks, J. Jopling, J. Maiz, C. Prasad, M. Hattendorf, and J. Wiedemer, Intel Physical Origin of VTH Instability in High-k MOSFETs, A. Toriumi, U. Tokyo, Japan Enabling Green Transistors with Narrow Bandgap Compound Semiconductors, S. Datta, Penn State U. Interface Studies of Metal Oxide Gate Insulators on Ge and III-V Substrates, P.C. McIntyre1, Y. Oshima1,2, E. Kim1, E. A. Chagarov3, J. Cagnon4, K. C. Saraswat1, S. Stemmer4, and A. C. Kummel3, 1Stanford U., 2TEL, Japan, 3UCSD, 4UCSB Functional Oxide Heterostructures, A. Demkov, UT Austin 2007Electron Transport in Bulk-Si NMOSFET's in Presence of High-k Gate Insulator, K. Maitra1, M. Frank2, V. Narayanan2, B. P. Linder2, E. Gusev3, V. Misra4, and E. Cartier2, 1AMD, 2IBM, 3Qualcomm, 4NCSU Reversible and Irreversible Instabilities in High-k/Metal Gate Stacks, G. Bersuker, SEMATECH Photoemission Study of Metal/High-k Dielectric Gate Stack, S. Miyazaki1, H. Yoshinaga1, A. Ohta1, Y. Akasaka2, K. Shiraishi3, K. Yamada4, S. Inumiya2, M. Kadoshima2, and Y. Nara2, 1Hiroshima U., Japan, 2Selete, Japan, 3U. Tsukuba, Japan, 4Waseda U., Japan Resistance Switching Characteristics of Doped Metal Oxide for Non-Volatile Memory Applications, D. S. Lee, W. Xiang, R. Dong, D. J. Seong, and H. Hwang, GIST, Korea Ge and III/V: the CMOS of the Future, M. Heyns1,2, C. Adelmann1, F. Bellenger1, G. Brammertz1, D. Brunco3, M. Caymax1, B. De Jaeger1, A. Delabie1, G. Eneman1, M. Houssa1, B. Kaczer1, D. Lin4, K. Martens1, M. Meuris1, J. Mittard1, K. Opsomer1, G. Pourtois1, A. Satta1, M. Scarrozza1, E. Simoen1, S. Sioncke1, L. Souriau1, V. Terzieva1, and S. Van Elshocht1, 1imec, Belgium, 2U. Leuven, Belgium, 3Intel, 4Purdue U. Structure and Composition of High-k Films on Alternative Channel Materials, L. Goncharova, O. Celik, C.-L. Hsueh, T. Feng, E. Garfunkel, and T. Gustafsson, Rutgers U. First Principles Investigation of Defects at Semiconductor-Oxide Interfaces, A. Pasquarello, EPFL, Switzerland 2006Challenges in achieving low PMOS Threshold Voltages with Metal Gate Electrodes on Scaled High-k Dielectrics, S. Samevadam, Freescale Multi-Vibrational Hydrogen Release: A dielectric breakdown model for ultra-thin SiO2/SiON and high-k stack, G. Ribes, STMicroelectronics, France Embedded FRAM Technology, T. Moise, Texas Instruments Opportunities for Advanced Technology in Telecommunications, L. Smarr, California Institute for Telecommunications and Information Technology When defects approach a device size, A. Shluger, UCL, UK What happens at high-k dielectric interfaces?, K. Shiraishi, U. Tsukuba, Japan The search for a high performance metal gate/high-k n-mosfet, S. Guha, IBM Opportunities and Challenges for high-k/III-V MOSFETs, P. Ye, Purdue U. 2005Performance and threshold-voltage control in high-k/metal-gate FETs, E. Cartier, IBM Device and Reliability Characteristics of HfSiON-CMOSFETs, M. Takayanagi, Toshiba Interface Band Alignment at High-k/Metal Gate Structures: Interface Dipoles and Internal Fields, R. Nemanich, NCSU Elementary Considerations in Reliability Physics: How a simple model illuminates the mechanism of NBTI Degradation, resolves a 40-year old puzzle, and establishes a protocol for lifetime extrapolation, M. A. Alam, Purdue U. Floating Gate Flash Memory Technology, K. Parat, Intel New Memory Concepts: from Silicon Nanocrystal Technologies to Molecular Memories, B. de Salvo, LETI, France DRAM Memory Technologies, K. Kim and G. Jeong, Samsung 2004Metal Gate Electrodes for CMOS Applications, V. Misra, NCSU Atomic layer deposition of high-k gate dielectrics onto Ge and III-V semiconductors, M. M. Frank1, V. K. Paruchuri1, M. Copel1, E. P. Gusev1, H. Shang1, D. Starodub2, T. Gustafsson2, E. Garfunkel2, C.-L. Hsueh2, Y. J. Chabal2, J. Grazul3, D. A. Muller3, G. D. Wilk4, and M. Gribelyuk1, 1IBM, 2Rutgers U., 3Cornell U., 4ASM Interface Passivation for SiO2 on 4H-SiC, J. R. Williams1, S. Wang1, T. Isaacs-Smith1, C. Ahyi1, S. Dhar2, A. Franceschetti2, S. T. Pantelides2, L. C. 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Bloechl, Clausthal University of Technology, Germany Creation mechanism of interface defects at the early stage of Si oxidation processes studied by UHV-ESR, S. Yamasaki, AIST, Japan Recent Developments in Understanding Local Effects and Device Properties of Hf-based High-k Dielectrics, G. Wilk, ASM America Development and Characterization of Stacked Gate Dielectrics on GaAs, M. Passlack, Motorola Gate Dielectric Needs for Non-Classical CMOS, H.-S. P. Wong, IBM Suppression of Subcutaneous Oxidation during the Deposition of Amorphous LaAlO3 on Silicon, D. G. Schlom, Penn State U. 2002Gate material issues for high-k gate dielectrics, T.-J. King, UC Berkeley SiC MOSFETS and their interfaces, H. Yano, Nara Institute of Science and Technology, Japan Electronic structure and band offsets in high-k dielectrics, J. Robertson, Cambridge U., UK Electronic structure at Si/high-k dielectronic interfaces, G. Lucovsky, NCSU Effects of interface states and charge trapping on the performance of high-k gate dielectrics devices, J. C. Lee, UT Austin Charge trapping, mobility degradation and reliability of high-k gate stacks, E. Cartier 1,2, A. Kerber2,3, L. Pantisano3, R. Carter3, T. Kauerauf3, and R. Degraeve3, 1IBM, 2SEMATECH, 3imec, Belgium 2001Integration challenges for high-k gate stack engineering, H. R. Huff, A. Agarwal, L. Perrymore, C. Sparks, M. Freiler, G. Gebara, B. Bowers, P. J. Chen, P. Lysaght, J. Barnett, D. Riley, B. Nguyen, Y. Kim, J. E. Lim, S. Lim, G. Bersuker, P. Zeitzoff, G. A. Brown, C. Young, B. Foran, F. Shaapur, A. Hou, C. Lim, H. Alshareef, S. Borthakur, D. J. Derro, R. Bergmann, L. A. Larson, M. I. Gardner, J. Gutt, R. W. Murto, K. Torres, and M. D. Jackson, SEMATECH Capacitively-detected magnetic resonance on semiconductor/oxide interfaces and field effect transistors, M. S. Brandt1, T. Graf1, R. T. Neuberger1, M. Stutzmann1, S. Baldovino2 and M. Fanciulli2, 1TU Munchen, 2INFM, Italy Impact of oxide breakdown on FET and circuit operation and reliability, B. Kaczer, R. Degraeve, A. De Keersgieter, K. Van de Mieroop, M. Rasras, V. Simons, P. J. Roussel, and G. Groeseneken, imec, Belgium Characterization of post-soft breakdown conduction in ultra-thin oxides induced by ionizing radiation and constant voltage stress, J. S. Suehle, NIST The 4H-SiC/SiO2 interface, J. K. McDonald1, A. Franceschetti1, S. T. Pantelides1, R. A. Weller1, L.C. Feldman1, G. Chung2, C. C. Tin2, J. R. Williams2, C.-Y. Lu3, B. S. Um3, and J. A.Cooper Jr.3, and M. K. Das 4, 1Vanderbilt U., 2Auburn U., 3Purdue U., 4Cree Comparative study of high-k CVD films of Hf and Zr Silicate for CMOS devices, M. J. Bevan, M. R. Visokay, J. J. Chambers, A. L. P. Rotondaro, H. Bu, A. Shanware, D. E. Mercer, R. T. Laaksonen, and L. Colombo, Texas Instruments High K gate dielectric university research, J. R. Hauser, NCSU 2000N- and P-Channel FETs Built with HfOz and ZrO2, S. A. 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