Advanced LSI Processing & Materials Science
This area covers all the innovative front-end-of-line process technologies and material sciences for advanced LSI devices. Not only the gate stack technology but all the new concepts on front-end process technologies are welcome. Papers are solicited in the following areas (but are not limited to these areas): (1) advanced gate stack technologies, such as a SiON gate insulator, high-k gate insulator, metal gate, and high-mobility channel materials like Ge and III-V, including device integration technology; (2) front-end-of-line process technologies that break through the scaling limit, such as a low-temperature process, shallow and conformal junction formation, novel diffusion/oxidation, high-precision dry/wet etching and highly controlled surface preparation technique for nm scale fabrication; (3) reliability physics and analysis; and (4) Material characterization and modeling for a LSI process.
Advanced Interconnect / Materials Technology and Characterization
Technologies and sciences that cover an interconnect / materials technology, so-called back-end-of-line (BEOL) processes, and related characterizations are discussed. This area requires new innovations in the material, process / structure, and characterization fields. Papers are solicited in the following areas: (1) new ideas for Cu / low-k systems and packaging technologies; (2) new structures and materials for future interconnects, such as a 3-D interconnect with TSV, a carbon based interconnect, an on-chip optical interconnect, and BEOL-based memory applications, i.e. MRAM, PRAM, and PRAM; (3) passive components for RF or High-speed operations (4) characterization technologies for materials, mechanical and electrical properties, metrology and yield improvement; (5) reliability phenomena, and their physics.
CMOS Devices / Device Physics
The aim of this area is to discuss advanced silicon device technologies and physics. Papers are solicited in the following areas: (1) advanced silicon CMOS devices and their integration technologies; (2) performance-booster technologies such as high-mobility channels including strained-Si, SiGe, Ge and III-V's; (3) device architectures such as a planar SOI, FinFET, multi-channels, nano-wires and their parasitic characteristics; (4) device physics of not only advanced CMOS but also emerging transistors, such as a tunneling FET and sub-Vth transistor including modeling and simulation on carrier transport; (5) reliability-assessment technologies including HC, NBTI and RTN; (6) circuit-design interaction including modeling of devices; and (7) manufacturing and yield sciences in conjunction with the increasing variability of device parameters, due to random and systematic variations.
Advanced Memory Technology
Advanced memory technologies are very much expected to explosively evolve SoC devices and digital information technologies toward "high speed, low power, high density, broadband and mobile." Papers are solicited in the area of all advanced volatile and nonvolatile memory devices, such as DRAM, flash (including SONOS and nanocrystal devices), FeRAM, MRAM, phase change RAM, resistance RAM (resistive memories of transition metal oxide or perovskite oxide, ion-plug memory, and conductive bridge memory, etc.), one time programming memory, 3-D memory, organic memory, probing memory and others. Topics include memory-cell-device physics, performance improvement and characterization, process integration and materials, tunneling dielectrics, ferroelectric and ferromagnetic materials, reliability, failure analysis, quality assurance and testing, modeling and simulation, process control and yield enhancement, integrated circuits, new concept memories, and new applications and systems (solid state disks, memory cards, programmable logic, etc.).
Advanced Circuits and Systems
Original papers bridging the gap between materials, devices, circuits, and systems in ULSI are solicited in subject areas that include, but not limited to the following: (1) advanced digital, analog, and mixed-signal circuits as well as memory; (2) high-speed and high-frequency circuits for wireless, wireline, and optical communication; (3) technologies for systems on a chip (SoC) and system in a package (SiP), including three-dimensional IC technology and intra/inter-chip interface design; (4) device, interconnect and circuits modeling for heterogeneous integration; (5) interface circuits and systems for sensor devices; (6) circuits and systems for MEMS devices as well as RF MEMS; (7) heterogeneous integration circuits and systems for nano/bio sensors and MEMS; (8) advanced interconnect technologies for body area network as well as wearable computer; (9) circuit technologies for emerging devices as well as thin film transistors, micro/nano devices, and organic devices.
Compound Semiconductor Electron Devices and Related Technologies
This session covers all aspects of advanced electron device and IC technologies based on compound semiconductors, including III-V, III-N, SiC, oxide semiconductors and other materials. Papers are solicited in the following areas: (1) FETs, HFETs, HEMTs, HBTs, and other novel device structures; (2) high-voltage or high-temperature electron devices; (3) Discrete devices and ICs for microwave and millimeter-wave applications; (4) high-speed digital ICs; (5) advanced sensor devices; (6) transparent thin film transistors; (7) theory and physics of electron devices; (8) processing and characterization techniques for devices and ICs; (9) stability and reliability issues; and (10) novel applications utilizing compound semiconductor devices and circuits. Contributions related to other interesting topics are also welcome.
Photonic Devices and Optoelectronic Integration
This area covers all aspects of photonic devices, featuring silicon photonics, quantum photonics and solid-state lighting towards creating highly integrated systems of optical telecommunication, optical interconnection and efficient illumination. The aspects include but are not limited to: (1) light sources (LDs, LEDs, etc.), optical amplifiers/attenuators and photodetectors (photovoltaic cells); (2) waveguides, waveguide devices, 2D/3D optical wiring, and photonic integrated circuits of any materials; (3) functional optical devices including modulators, switches, memories and any of MEMS devices; (4) optical quantum structures including quantum wells, quantum wires, and quantum dots; (5) photonic and plasmonic structures including photonic crystals and surface-plasmon antennae; (6) nonlinear signal-processing devices including wavelength converters, all-optical switches; (7) device structures and circuit designs for optoelectronic integration; (8) implementation and packaging of photonic devices; (9) novel phenomena and applications including slow/fast light and optoelectronic tweezers; (10) optical material growth and fabrication process as well as characterization techniques, etc.
Advanced Material Synthesis and Crystal Growth Technology
The scope of this area covers all kinds of synthesis, growth, and fabrication techniques of materials and structures including semiconductors, oxides, etc. The principle idea is to foster mutual communication of commonly important key technologies in synthesis processes among people in different fields of materials science. Specific scopes are, but not limited to, the following: (1) novel synthesis, growth, and fabrication techniques; (2) novel material systems; (3) silicon-related materials; (4) nitride-related compound semiconductors; (5) carbon nanomaterials; (6) functional oxides; (7) nanowires and nanoparticles; (8) self-assembly; (9) nanoscale 3-D structures; (10) characterization of fundamental properties.
Physics and Application of Novel Functional Devices and Materials
This area covers physics, applications and fabrication techniques of novel functional devices and materials. We strongly encourage novel, pioneering, and fundamental research works that would be influential in various solid state devices of materials (semiconductors, metals, superconductors, magnetic and organic materials, etc.). Specific topics are (1) quantum phenomena in nanostructures; (2) transport and optical characteristics of low-dimensional structures; (3) devices dealing with single electron, hole, exciton, photon, and other quanta; (4) solid-state quantum computing and communications; (5) nanometer-scale characterization with scanning probe techniques; (6) nanofabrication techniques and self-organized phenomena; and (7) other novel functional devices, but are not limited to these subjects.
Organic Materials Science, Device Physics, and Applications
This area covers organic materials, device physics, characterization, and applications to organic devices. Papers are solicited in the following areas (but are not limited to these areas): (1) organic transistors and circuits; (2) organic light emitting devices; (3) organic diodes, photodetectors, and photovoltaic devices; (4) chemical sensors and gas sensors; (5) molecular electronics; (6) fabrication and characterization of organic thin films; (7) electrical and optical properties of organic thin film and materials; (8) organic-inorganic hybrid systems; and (9) interfacial phenomena, LC devices, EPD devices, etc.
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