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Technical Symposia

Advanced Surface Engineering Division (SE)

The Advanced Surface Engineering Division
(SE) program serves scientists and
technologists interested in new materials,
technologies, characterization,
manufacturing, applications, and
fundamentals of surface engineering. The
sessions focus on the basics and use of
atmospheric pressure plasmas, new
developments in hard and nanostructured
coatings, the possibilities of glancing
angle deposition, novelties in pulsed plasma
processes for surface engineering and
innovations in surface engineering for
thermal managements. In conjunction with the
Thin Films Division (TF) a wide range of
aspects in tribology are covered in joint
sessions. Under these topics, presentations
on novel coating materials, processes to
prepare them, design and modeling,
diagnostics and growth control, mechanical
property characterizations, resistance to
severe conditions, thermal stability and
other aspects related to surface engineering
and coatings are solicited.
-
SE1+PS
Atmospheric Pressure Plasmas
Claus-Peter Klages,
Fraunhofer-Institut für Schicht- und
Oberflächentechnik, Germany,
“Atmospheric-pressure Plasma Activation
of Silicon and Glass Surfaces for
Low-Temperature Direct Bonding”
-
SE2
Hard and Nanostructured Coatings
Helmut Rudigier,
Oerlikon Balzers AG, Liechtenstein, “PVD-Oxide
Coatings for Tribological Applicationns”
-
SE3+TF
Glancing Angle Deposition (GLAD)
Daniel Gall,
Rensselaer Polytechnic Institute,
“Nanorods by Extreme Shadowing: New
Pictures and New Physics”
-
SE4+PS
Pulsed Plasmas in Surface Engineering
Kostas Sarakinos,
Linköping University, Sweden, "High
Power Impulse Magnetron Sputtering (HiPIMS)
for the Deposition of Functional
Nanocrystalline and Amorphous Films"
-
SE5
Surface Engineering for Thermal
Management
Douglas Dudis,
Air Force Research Laboratory, "Surface
Engineering for Thermoelectric Energy
Conversion"
William King,
UIUC, "Surface Thermal Transport and
Thermal Property Characterization at the
Micro and Nanoscale"
-
SE6 Advanced
Surface Engineering Division Poster
Session
-
TR1+SE
Advances in Surface Engineering for
Friction and Wear Control
David Schall,
Oakland University, "Mechanical and
Tribological Properties of Si-doped
Amorphous Carbon Films"
-
TF13+SE
Glancing Angle Deposition (GLAD)
Melik Demirel,
Penn State University

Applied Surface Science Division (AS)

The use of surface analysis methods in
understanding surface and interfacial
properties is essential in order to solve
materials challenges in the fields of
energy, semiconductor processing,
nanoscience and biotechnology. The Applied
Surface Science Division welcomes original
work in applied research of surfaces and
interfaces, including traditional sessions
on electron spectroscopies, all aspects of
surface mass spectrometry, surface and
interface imaging, and instrument automation
and data processing. There will also be a
session on new ion beam technologies for
imaging, sample preparation, and analysis,
and we welcome practical and applied surface
analysis work, particularly with an emphasis
on forensics and failure analysis. ASSD is
proud to co-sponsor several topical
conferences and focus topics joint with
other divisions including spectroscopic
ellipsometry, surface and interface analysis
for energy and graphene materials, and
surface analysis in liquids. Several joint
sessions, with other divisions, will focus
on techniques for biointerface and
biomaterials analysis, near field super
resolution microscopy, characterization and
imaging at the nanoscale including the use
of scanning probes, and characterization of
inkjet printing. Finally, our annual poster
session will cover all aspects of applied
surface science. Students are encouraged to
participate in the student presentation
competition; both posters and oral
presentations will be allowed.
-
AS1 New
Ion Beam Technologies for Imaging,
Sample Preparation and Analysis
Noel Smith,
Oregon Physics
-
AS2 Forensics,
Failure Analysis, and Practical Surface
Analysis
Christine Mahoney,
National Institute of Standards and
Technology
-
AS3 Electron
Spectroscopies
Cedric Powell,
National Institute of Standards and
Technology, “Recent Developments in
Quantitative XPS and AES”
-
AS4 Surface
Mass Spectrometry: SIMS and Beyond
-
AS5 Advanced
Automation and Data Processing
Michael Keenan,
Consultant,
"Strategies for Multivariate Analysis of
Very Large Spectral Images"
-
AS6 Advances
in Surface and Interface Imaging
Brian Gorman,
Colorado School of Mines
-
AS7 Applied
Surface Science Division Poster Session
-
BI8+AS
Integrating Techniques for
Biointerface Analysis
DaeWon Moon,
Korea Research Institute of Standards
and Science, Republic of Korea,
"Integration of Laser and Mass
Spectrometric Imaging for Cardiovascular
Researches"
-
BI9+AS
Near Field and Super Resolution
Microscopy
-
EL1+AS+EM+MS+TF
Spectroscopic Ellipsometry I
Mathias Schubert,
University of Nebraska, Lincoln, "New
Developments in Spectroscopic
Ellipsometry for Characterization of
Organic and Inorganic Surfaces,
Interfaces and Complex Layered
Materials"
-
EL2+AS+EM+MS+TF
Spectroscopic Ellipsometry II
Herbert Wormeester,
University of Twente, The Netherlands,
"Roughness beyond Bruggeman's Effective
Medium Approximation"
-
EL3+AS+EM+MI+MS+TF
Spectroscopic Ellipsometry III
-
EL4+AS+EM+MS+TF
Spectroscopic Ellipsometry Focus
Topic Poster Session
-
EN12+AS
Surface and Interface Analysis of
Materials for Energy
-
GR6+AS+TF
Graphene: Surface Characterization
Regis Decker,
University of California Berkeley,
"Local Probe Investigation of Transition
Metal Atoms on a Gated Graphene Device"
-
GR7+AS+TF
Graphene Synthesis on Metals
Thomas Michely,
University of Cologne, Germany, "From
Perfect Graphene to Cluster
Superlattices"
Peter Sutter,
Brookhaven National Laboratory,
"Transition Metal Catalyzed Graphene"
-
IS3+AS+NS
In Situ
Spectroscopy/Microscopy – In Situ
Nanoscale Processes
Jeffery Drucker,
Arizona State University, “Au on
Vapor-Liquid-Solid Grown Si Nanowires:
Spreading of the Liquid Metal Seed
John
Cumings,
University of Maryland, “In Situ
TEM Studies of Nanomagnetism and Thermal
Transport”
-
IS4+AS+BI
In Situ
Spectroscopy/Microscopy – Biological
Interfaces
Tim Salditt,
Universität Göttingen, Germany,
“Coherent X-ray Imaging of Biological
Cells: Towards High Resolution and
Quantitative Contrast”
Rainer Dahint,
University of Heidelberg, Germany,
"Proteins and Lipids at Liquid/Solid
Interfaces: In Situ Studies by
Neutron Reflectometry and Infrared
Spectroscopy"
-
MB3+AS
Surface Analysis in Liquids
Kathryn Wahl,
Naval Research Laboratory, "Interfacial
Spectroscopy: In situ Approaches to
Understand Adhesion in Marine
Environments"
-
NS6+AS+MN
Characterization and Imaging at
Nanoscale (Force Mapping)
Roland Wiesendanger,
University of Hamburg, Germany,
"Atomic-resolution Spin Mapping at Oxide
Surfaces by Exploiting Magnetic Exchange
Forces"

Biomaterial Interfaces Division (BI)

In the tradition of the Biomaterial
Interfaces Division (BI), a broad technical
program has been established that is focused
on progress in biointerface science and
engineering and that brings together an
interdisciplinary group of experts that work
at the intersection of biosurface and
interface science, the nanosciences, and
biomedical engineering. The meeting will
commence on Sunday afternoon with the
Biomaterials Plenary (BP). With the theme
Detecting, Characterizing and Controlling
Biofouling, this year’s plenary aims to
bring the AVS community together to explore
the challenges involved with biofouling
across the disciplines. The three plenary
speakers will address a range of
interconnected themes, marine biofouling,
biofilm formation on biomaterials and
biomolecule adsorption at surfaces. The BID
technical program for the week incorporates
classical topics such as Cell and Bacterial
Interactions at Interfaces, Protein,
peptide, enzyme and sugar interactions at
interfaces, Sensors and Fluidics for
Biomedical Applications, Characterization of
Biointerfaces and Replicating Biological
Environments. These sessions address issues
relating to the fabrication,
characterization and modeling of the
biointerface as well as the translation of
this knowledge into applications.
Additionally, new innovations and recent
trends are covered in the session
Quantitative Sensing Biosurfaces and
Interfaces.
-
BI1
Bacterial Interactions at Interfaces
Hans Griesser,
Ian Wark Research Institute, Australia
-
BI2
Cell Interactions at Interfaces
Heather Canavan,
University of New Mexico
-
BI3
Biomolecules at Interfaces
Daniel Ratner,
University of Washington,
“Characterizing Carbohydrate-Modified
Surfaces: Advancing the Glycomics
Paradigm“
-
BI4
Proteins at Interfaces
Martin Malmsten,
Uppsala University, Sweden, “Interaction
of Amphiphilic Antimicrobial Peptides
with Phospholipid Membranes, Bacteria,
and Cells”
-
BI5
Replicating Biological Environments
and Processes
Marcus Textor,
ETH Zurich, Switzerland, “Engineering
Cell Behavior in Microfabricated
Substrates: Adding Dimensionality to the
Sensory Toolbox”
-
BI6+NS
Quantitative Sensing at Biointerfaces
Andrew Shreve,
Los Alamos National Laboratory
-
BI7
Sensors and Fluidics for Biomedical
Applications
Conrad James,
Sandia National Laboratories
-
BI8+AS
Integrating Techniques for
Biointerface Analysis
DaeWon Moon,
Korea Research Institute of Standards
and Science, Republic of Korea,
"Integration of Laser and Mass
Spectrometric Imaging for Cardiovascular
Researches"
-
BI9+AS
Near Field and Super Resolution
Microscopy
-
BI10 Biomaterial
Interfaces Division Poster Session
-
IS4+AS+BI
In Situ
Spectroscopy/Microscopy – Biological
Interfaces
Tim Salditt,
Universität Göttingen, Germany,
“Coherent X-ray Imaging of Biological
Cells: Towards High Resolution and
Quantitative Contrast”
Rainer Dahint,
University of Heidelberg, Germany,
"Proteins and Lipids at Liquid/Solid
Interfaces: In Situ Studies by
Neutron Reflectometry and Infrared
Spectroscopy"
-
NS2+BI
Biomolecular Templates & Bioinspired
Nanomaterials
Henry Hess, Columbia University,
"Molecular Shuttles for 'Smart Dust'
Biosensors, Active Self-Assembly, and
Protein-Resistant Coatings"

Electronic Materials and Processing Division (EM)

The Electronic Materials and Processing
Division (EM) sponsor sessions on electronic
materials growth, processing, and
characterization. The technical sessions and
posters cover recent advances in contacts to
semiconductors and nanostructures, defects
in semiconductors, molecular electronics,
highly correlated oxides and nitrides, solid
state lighting, high dielectric constant
materials and interfaces, and high
conductivity substrates. The Division is
co-sponsoring special topic sessions on
electronic materials for energy conversion,
spectroscopic ellipsometry, and graphene and
carbon-based devices, as well as joint
sessions focused on spintronics, photonic
and plasmonic materials and devices, and
control of interfacial properties.
-
EM1 High
k-Oxides and High Mobility Substrates
Jesus del Alamo,
Massachusetts Institute of Technology,
"III-V CMOS: A sub-10 nm Electronics
Technology?"
-
EM2+MI
Semiconducting and Highly Correlated
Oxides and Nitrides
Harold Y. Hwang,
University of Tokyo, Japan, "Oxide
Superconducting Semiconductors"
-
EM3 Molecular
and Organic Electronics
-
EM4 Contacts
and Interfaces in Semiconductors and
Nanostructures
Martin Allen,
University of Canterbury, New Zealand,
"Influence of Spontaneous Polarization
and Intrinsic Gap States on Schottky
Contacts to ZnO"
-
EM5 Solid
State Lighting
Russell D. Dupuis,
Georgia Tech, "Recent Advances in the
MOCVD Growth of III-N Light Emitting
Devices"
-
EM6 Defects
in Semiconductors
Irina Buyanova,
Linköping University, Sweden,
"Identification of the Dominant
Recombination Centers in Dilute
Nitrides"
Yu Jin,
University of Michigan, "Influence of
N-induced Point Defects on the
Electronic Properties of Dilute Nitride
GaAsN Alloys"
-
EM7 Electronic
Materials and Processing Division Poster
Session
-
EL1+AS+EM+MS+TF
Spectroscopic Ellipsometry I
Mathias Schubert,
University of Nebraska, Lincoln, "New
Developments in Spectroscopic
Ellipsometry for Characterization of
Organic and Inorganic Surfaces,
Interfaces and Complex Layered
Materials"
-
EL2+AS+EM+MS+TF
Spectroscopic Ellipsometry II
Herbert Wormeester,
University of Twente, The Netherlands,
"Roughness beyond Bruggeman's Effective
Medium Approximation"
-
EL3+AS+EM+MI+MS+TF
Spectroscopic Ellipsometry III
-
EL4+AS+EM+MS+TF
Spectroscopic Ellipsometry Focus
Topic Poster Session
-
EN11+EM
Electronic Materials for Energy
Conversion & Storage
Anne Dillon,
National Renewable Energy Laboratory
Matt Law,
University of California, Irvine , "Thin
Film Photovoltaics from Nanocrystal
Inks"
-
GR4+EM+MS+TF
Graphene and Carbon-based Devices
Emanuel Tutuc,
University of Texas, Austin, “Electron
Transport in Dual-Gated Mono- and
Bilayer Graphene Devices with High-k
Dielectrics”
-
MI1+EM
Spintronics
Philippe Debray,
University of Cincinnati
-
NS9+EM+EN
Photonic and Plasmonic Materials and
Devices
Teri Odom,
Northwestern University, "Unconventional
and Broadband Plasmonics"
-
SS5+EM
Semiconductor Surfaces and Interfaces
Anton Van der Ven,
University of Michigan
-
TF11+EM
Next Generation Processing
Rudi Hendel,
Periodic Structures, Inc., "Moore's Law
- from Simple Scaling to Materials
Driven"
-
TF12+EM
Control of Interfacial Properties
Peide (Peter) Ye,
Purdue University, "High-k III-V MOSFETs
Enabled by Atomic Layer Deposition"

Magnetic Interfaces and Nanostructures Division (MI)

The Magnetic Interfaces and
Nanostructures Division (MI) program
features recent pioneering results and
fundamental/technological challenges in
magnetic/spintronic materials and
devices. These include new advances in
magnetic-based technologies, synthesis
and processing of new magnetic
materials, and both basic and applied
experimental and theoretical studies of
magnetism. The 2010 program is
characteristically strong, highlighting
new advances in spintronic devices,
magnetic semiconductors and spin
injection (with EM), spin-torque,
proximity effects and exchange bias,
magnetic nanostructures and thin films
(with TF), magnetic correlated oxides
(with EM), magnetic imaging and
spectroscopy (with EL), and
molecular/organic based magnetism. Noted
invited speakers anchor each of these
topics. The Magnetic Interfaces and
Nanostructures Division will be
selecting the best graduate student
presentation from three finalists for
the Leo Falicov Award. The winner of
this award will be announced during the
break of the Thursday morning session.
-
MI1+EM
Spintronics
Philippe Debray,
University of Cincinnati
-
MI2 Organic
Magnetism
Mats Falhman,
Linköping University, Sweden
-
MI3 Molecular/Organic
Based Magnetoelectronics
Gregory J. Szulczewski,
University of Alabama
-
MI4 Spin
Torque Based Devices
Stuart Wolf,
University of Virginia, “A New Twist
on Spin Devices”
-
MI5 Exchange
Bias and Other Proximity Effects
David Lederman,
West Virginia University
-
MI6+TF
Magnetic Nanostructures, Thin
Films and Heterostructure
June Lao,
National Institute of Standards and
Technology
-
MI7 Magnetic
Interfaces and Nanostructures
Division Poster Session
-
AC2+MI
Actinide and Rare Earth Magnetic
Interfaces & Nanostructures
Peter A. Dowben, University of
Nebraska, Lincoln,"Correlation
Effects in Gadolinium Compounds:
Comparison of Theory and Experiment"
-
EL3+AS+EM+MI+MS+TF
Spectroscopic Ellipsometry III
-
EM2+MI
Semiconducting and Highly
Correlated Oxides and Nitrides
Harold Y. Hwang,
University of Tokyo, Japan, "Oxide
Superconducting Semiconductors"
-
GR5+MI+TF
Spins in Graphene: Injection and
Manipulation
Joaquin Fernandez-Rossier,
Universidad de Alicante, Spain, "Spintronics
in Graphene Based Nanostructures"
Oleg Yazyev,
University of California, Berkeley,
"Imperfect Graphene: Point Defects,
Edges, Dislocations and Grain
Boundaries"

MEMS and NEMS Technical Group (MN)

The MEMS and NEMS Technology
Group (MN) program will highlight
recent advances in emerging areas of
micromechanical systems at the micro
and nanoscale ranging from
fundamental studies of functional,
integrated devices to novel
applications of micro and
nanoelectromechanical systems (MEMS/NEMS).
The ability to collectively
manipulate, control and detect
vibrational dynamics of MEMS/NEMS
raises intriguing possibilities of
integrating these devices with
existing fluidic, electronic and
optical on-chip networks. This
year’s session will cover these
areas which are thematically related
to multi-scale interaction of
materials with focus directed
towards fabrication at the micro-
and nano-scale, along with
integration, packaging and
reliability of MEMS and NEMS and
characterization for MEMS and NEMS.
Additionally, applications of MEMS
and NEMS devices in the sensing
arena by employing local
biochemically functionalized
nanoscale sites on surface of NEMS
oscillator arrays for selective
biomolecular adsorption, integration
with active CMOS architectures for
RF-MEMS applications, high
Q-resonant dynamics in air,
nanoscale vibrational mass sensing
using fluidic resonantors,
ultrananocrystalline diamond
nanowires and thin film
nanostructuring, parametric
excitation and nonlinear dynamics,
integrated gas chromatagraphy
system, and advanced nanofabrication
techniques are the core topics of
discussions.
-
MN1
Multi-scale Interactions of
Materials and Fabrication at the
Micro- and Nano-scale
Harold Craighead,
Cornell University
-
MN2
Integration, Packaging and
Reliability of MEMS and NEMS
Maarten De Boer,
Sandia National Laboratories
-
MN3 Characterization
for MEMS and NEMS
John Carlisle,
Advanced Diamond Technologies,
Inc.
-
MN4
MEMS and NEMS Technology
Group Poster Session
-
NS6+AS+MN
Characterization and Imaging
at Nanoscale (Force Mapping)
Roland Wiesendanger,
University of Hamburg, Germany,
"Atomic-resolution Spin Mapping
at Oxide Surfaces by Exploiting
Magnetic Exchange Forces"
-
PS10+MN
Plasma Processing for 3D
Integration, TSV, and MEMS
-
TR4+MN
Tribological Issues in MEMS
and NEMS
Irwin Singer,
Naval Research Laboratory,
"Vapor Phase Lubrication:
Competition, Tribochemistry and
Third Bodies"
-
VT3+MN
MEMS Sensors, Vacuum Gauges
and Measurements
Kevin Ewsuk,
Sandia National Laboratories,
"Practical Issues and
Applications for Vacuum and
Hermetic Microsystems Packaging"

Manufacturing Science and Technology Group (MS)

Manufacturing
Science and Technology
Group (MS) In 2010, the
main focus of the MSTG
group will be on the
manufacturing technology
issues for carbon based
nanoelectronic devices.
The MSTG will also
co-sponsor sessions on
focus topics such as
ellipsometry and a
session on Gas Analysis
in Vacuum and Process
Applications with the
Vacuum Technology Group.
The recent advances in
the fabrication of
graphene based devices
on SiC substrates points
to the potential for
changing the paradigm of
silicon based
technology. To achieve
this promise, great
strides in both research
and development must
occur. With each advance
in carbon based
electronics, the
progression from high
mobility research
material to prototype
device to prototype
circuit must be
accompanied by an
evaluation of
manufacturability. For
example, how uniform are
the large area graphene
layers in terms of
device performance? An
MSTG organized “all
invited” session will be
one of the many sessions
on the graphene focus
topic. In addition, the
MSTG will hold a
contributed session on
processing, metrology,
characterization and
modeling for carbon
based devices. Metrology
has long been a key part
of the MSTG technical
sessions. This year,
MSTG will co-sponsor the
ellipsometry focus
topic. Ellipsometry is
key measurement method
for research,
development, and
manufacturing. The
applications of
ellipsometry include
nanoelectronics,
photovoltaics, solid
state lighting, and
bio-technology.
-
EL1+AS+EM+MS+TF
Spectroscopic
Ellipsometry I
Mathias Schubert,
University of
Nebraska, Lincoln,
"New Developments in
Spectroscopic
Ellipsometry for
Characterization of
Organic and
Inorganic Surfaces,
Interfaces and
Complex Layered
Materials"
-
EL2+AS+EM+MS+TF
Spectroscopic
Ellipsometry II
Herbert Wormeester,
University of Twente,
The Netherlands,
"Roughness beyond
Bruggeman's
Effective Medium
Approximation"
-
EL3+AS+EM+MI+MS+TF
Spectroscopic
Ellipsometry III
-
EL4+AS+EM+MS+TF
Spectroscopic
Ellipsometry Focus
Topic Poster Session
-
GR4+EM+MS+TF
Graphene and
Carbon-based Devices
Emanuel Tutuc,
University of Texas, Austin, “Electron
Transport in
Dual-Gated Mono- and
Bilayer Graphene
Devices with High-k
Dielectrics”
-
GR8+MS
Low Dimensional
Carbon Device
Manufacturing
Michael Fritz,
DARPA
D. Kurt Gaskill,
U.S. Naval Research
Laboratory
James Hannon,
IBM T.J. Watson
Research Center
Yu-Ming Lin,
IBM T.J. Watson
Research Center
Jeong Moon,
HRL Laboratories
LLC, "RF/Digital
Device Applications
of Carbon based
Nanoelectronics"
-
VT2+MS
Gas Analysis in
Vacuum and Process
Applications
R. Graham Cooks,
Purdue University,
"Miniature Mass
Spectrometers for
Surface and Gas
Analysis"
-
VT4+MS
Contamination
Control and
Outgassing
Michael Sherer,
Sherer Consulting
Services, Inc,
"Point-of-Use
Abatement Devices
and Exhaust
Management
Strategies"

Nanometer-scale Science and Technology Division (NS)

The
Nanometer-scale
Science and
Technology
Division
(NS) is
devoted to
exploring
the exciting
and rapidly
evolving
areas of
science and
technology
at the
nanoscale.
Manipulating
atoms,
atomic layer
processing,
synthesis,
manufacture
and
applications
of shape and
size-selected
nanostructures,
nanomaterials
in different
environments,
molecular
and
composite
nanostructured
materials
for
photovoltaics
and other
energy
applications,
and
nanoscale
characterization/imaging
are just
some of the
topics that
will be
covered
during our
sessions.
Research
groups from
all over the
globe will
be
represented
in these
presentations.
Our program
will include
talks from
invited
speakers who
are at the
top of their
respective
fields, and
includes
sessions on:
imaging at
the
nanoscale,
bio-inspired
nanomaterials,
molecular
machines,
organic
photovoltaics,
nanotubes,
nanowires
and
nanoparticles,
oxide-based
nanoelectronics,
biomolecular
templates,
nanostructures
for energy
conversion
and
harvesting,
nanomaterials
in the
environment,
and imaging
and
characterization
at the
nanoscale.
The
applications
are far
reaching
including
electronics,
communications,
energy, and
biomedical.
Nano science
and
technology
is impacting
many other
fields of
study and we
also
cosponsor
sessions in
Biomaterials,
Photovoltaics,
and
Nanotribology
and
Nanomechanics.
-
NS1
Nanowires and Nanoparticles
Peng Cheng,
Cornell University, "Single-nanoparticle
Catalysis at Single-turnover
Resolution"
-
NS2+BI
Biomolecular Templates & Bioinspired
Nanomaterials
Henry Hess, Columbia
University, "Molecular Shuttles
for 'Smart Dust' Biosensors,
Active Self-Assembly, and
Protein-Resistant Coatings"
-
NS3
Oxide Based Nanoelectronics
Andrea Caviglia,
University of Geneva,
Switzerland, "Tuning
Superconductivity at the LaA1O3/SrTiO3
Interface"
-
NS4
Nanomanufacturing
John Randall,
Zyvex Labs, "Atomically Precise
Fabrication of 3D Structures
with Top Down Control"
-
NS5
Nanotubes - Electronics and
Functionalization
Michael Strano,
Massachusetts Institute of
Technology, "The Chemistry of
One Dimensionally Confined
Electrons: Carbon Nanotubes for
Energy and Bio-detection
Applications"
-
NS6+AS+MN
Characterization and Imaging
at Nanoscale (Force Mapping)
Roland Wiesendanger,
University of Hamburg, Germany,
"Atomic-resolution Spin Mapping
at Oxide Surfaces by Exploiting
Magnetic Exchange Forces"
-
NS7
Nanomaterials in the
Environment
Vicki Colvin,
Rice University, "Nanotechnology
in the Environment: Safety by
Design"
-
NS8
Molecular Machines
Ben Feringa,
The University of Groningen, the
Netherlands, "In Control of
Molecular Motion; From Molecular
Motors to Nanomachines"
-
NS9+EM+EN
Photonic and Plasmonic
Materials and Devices
Teri Odom,
Northwestern University,
"Unconventional and Broadband
Plasmonics"
-
NS10
Nanometer-Scale Science and
Technology Division Poster
Session
-
BI6+NS
Quantitative Sensing at
Biointerfaces
Andrew Shreve,
Los Alamos National Laboratory
-
EN5+NS
Nanostructures for Energy
Conversion & Storage
Yi Cui,
Stanford University, "Designing
Inorganic Nanostructures for
Solar Cells and Energy Storage
Devices"
-
EN6+NS
Organic Photovoltaics
Jean Frechet,
University of California,
Berkeley, "Designing Polymer
Systems for Photovoltaics"
Antoine Kahn,
Princeton University
-
GR9+NS
Graphene: Chemical Reactions
Manish Chhowalla,
Rutgers University, "Tunable
Photoluminescence from
Chemically Derived Graphene"
-
IS3+AS+NS
In Situ
Spectroscopy/Microscopy – In Situ
Nanoscale Processes
Jeffery Drucker,
Arizona State University, “Au on
Vapor-Liquid-Solid Grown Si
Nanowires: Spreading of the
Liquid Metal Seed
John
Cumings,
University of Maryland, “In Situ
TEM Studies of Nanomagnetism and Thermal
Transport”
-
TR3+NS
Nanomechanics and
Nanotribology
Robert Carpick,
University of Pennsylvania,
"Atomic-scale Processes in
Tribological Wear"

Plasma Science and Technology Division (PS)

The Plasma Science and Technology Division (PS) program highlights state-of-the-art advances in plasma research, ranging from fundamental studies of plasma physics and chemistry to new applications in plasma processing. Abstracts describing novel research are being solicited in the areas of plasma etching and deposition, plasma modeling, plasma-surface interactions, plasma sources, 3-D integration (including TSV and MEMS), and plasma diagnostics, sensors and control. One may also choose to present emerging work that focuses on atomic layer or neutral beam etching, atmospheric pressure plasmas, microplasmas, liquids and multiphase discharges, medical and biological applications of plasma science, and plasma applications in aerospace and combustion. After a successful first year, we are excited to continue offering a session on Plasma Processing for Photovoltaics in conjunction with the Energy Frontiers Topical Conference. In addition to the oral sessions, abstracts may be submitted to the poster session, which provides an excellent opportunity for one-on-one discussion of new results with colleagues.
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PS1 Advanced BEOL / Interconnect Etching
Nicolas Posseme, CEA-LETI-MINATEC, France, "Plasma Processes Challenges for Porous SiOCH Patterning in Advanced Interconnects”
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PS2 Advanced FEOL / Gate Etching
Chris Lee, Lam Research
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PS3 Plasma Surface Interactions (Fundamentals & Applications)
Koji Eriguchi, Kyoto University, Japan, "Modeling of Plasma-Induced Damage and Its Impacts on Parameter Variations in Advanced Electronic Devices"
Masaru Hori, Nagoya University, Japan
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PS4 Atomic Layer Etching
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PS5 Neutral Beam Processing
Geun-Young Yeom, SungKyunkwan University, South Korea, “Possible Applications of Neutral Beam Generated by Low Angle Reflection of a Reactive Ion Beam to Nanoscale Semiconductor Processing”
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PS6 Plasma Diagnostics, Sensors and Control
Holger Kersten, University of Kiel, Germany
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PS7+TF Plasma Deposition and Plasma Enhanced ALD
Jeon Han, SungKyunkwan University, South Korea
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PS8 Plasma Sources
Frank Chen, UCLA, “PM Helicons: A Better Mousetrap”
Uwe Czarnetzki, Ruhr-University Bochum, Germany, “Independent Control of Ion Energy and Flux in CCPs by the Electrical Asymmetry Effect”
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PS9 Atmospheric Plasma Processing and Micro Plasmas
R. Mohan Sankaran, Case Western Reserve University
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PS10+MN Plasma Processing for 3D Integration, TSV, and MEMS
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PS11 Plasma Modeling
Laxminarayan Raja, The University of Texas at Austin
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PS12 Plasma Applications for Aerospace and Combustion
Mark Cappelli, Stanford University
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PS13 Plasmas for Medical and Biological Applications
Takamichi Hirata, Tokyo City University, Japan
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PS14 Liquids and Multiphase Discharges
Antoine Rousseau, Ecole Polytechnique, France, “Dynamic of Plasma Ignition and Propagation in Water”
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PS15 Plasma Science and Technology Division Poster Session
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EN1+PS Plasmas for Photovoltaics & Energy Applications
Tom Tanaka, Applied Materials
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SE1+PS Atmospheric Pressure Plasmas
Claus-Peter Klages, Fraunhofer-Institut für Schicht- und Oberflächentechnik, Germany, “Atmospheric-pressure Plasma Activation of Silicon and Glass Surfaces for Low-Temperature Direct Bonding”
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SE4+PS Pulsed Plasmas in Surface Engineering
Kostas Sarakinos, Linköping University, Sweden, "High Power Impulse Magnetron Sputtering (HiPIMS) for the Deposition of Functional Nanocrystalline and Amorphous Films"

Surface Science Division (SS)

The Surface Science Division (SS) program encompasses fundamental research, emerging research opportunities, new techniques and forefront analytical studies of surfaces and interfaces. This inter-disciplinary area includes the development and application of state-of-the-art experimental, theoretical and simulation techniques to elucidate scientific concepts underpinning chemical and physical phenomena at surfaces or interfaces. The understanding derived from such studies provides the foundation for the development of technologically relevant materials and processes. In its program the Surface Science division is initiating new focus areas in nanocatalysis, organic functionalization of surfaces, and photon, electron, and ion interactions with surfaces. The division is also co-sponsoring focus topics in graphene, tribology and actinide research, and participating in the Energy Frontiers Topical Conference.
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SS1
Structure of Oxide Surfaces
Christof Wöll,
Karlsruher Institut für Technologie
(KIT), Germany
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SS2
Reactivity of Oxide Surfaces
Charles Peden,
Pacific Northwest National
Laboratory,"Adsorption and Reactions on
Poorly Crystalline γ–Al2O3 Surfaces"
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SS3
Semiconductor Interface
Formation
Roy Clarke,
University of Michigan
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SS4
Compound Semiconductor Surfaces
Stanislaw Krukowski,
Polish Academy of Sciences, Poland
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SS5+EM
Semiconductor Surfaces and Interfaces
Anton Van der Ven,
University of Michigan
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SS6
Surface Dynamics and Atomically
Precise Molecular Chemistry
Josh Ballard,
Zyvex Labs
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SS7
Nucleation and Growth
Charles Campbell,
University of Washington
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SS8
Environmental Interfaces
Gordon Brown,
Stanford University
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SS9
Catalytic and Electronic
Properties of Nanoclusters
Ib Chorkendorff,
Danish Technical University, Denmark
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SS10 Surface
Reactions and Catalysis I
Cynthia Friend,
Harvard University
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SS11 Surface
Reactions and Catalysis II
Francisco Zaera,
University of California at Riverside
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SS12 Frontiers
of Surface Imaging and Dynamics
Gerhard Meyer,
IBM Zurich Research Laboratory,
Switzerland
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SS13 Latest
Developments of In Situ Characterization
Methods of Nanocatalysts "at work"
Anatoly Frenkel,
Yeshiva University
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SS14 Electron,
Photon and Ion Beam Induced Surface
Modification
Phillip Rack,
University of Tennessee, "Focused
Electron Beam Induced Processing:
Experiments, Simulations, and
Applications"
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SS15 Organic
Functionalization of Surfaces
John Anthony,
University of Kentucky, "Relating
Aromatic Molecule Synthesis to Film
Structure/Property Relationships"
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SS16
Surface Science Division Poster
Session
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AC3+SS
Surface Science of Actinides and Rare
Earths
John Joyce,
Los Alamos National Laboratory,
"Electronic Structure of Pu Materials
from Angle-resolved Photoemission"
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EN4+SS
Photocatalysis and Solar Fuels
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EN7+SS
Transparent Conductors
Russel Egdel,
University of Oxford, UK
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EN10+SS
Fundamentals of Charge Separation for
Energy Applications
John Asbury,
Pennsylvania State University
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GR3+SS+TF
Epitaxial Graphene on SiC
Thomas Seyller,
The University of Erlangen-Nürnberg,
Germany, "Epitaxial Graphene on SiC"
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IS1+SS
In Situ Spectroscopy –
Interfacial Chemistry/Catalysis
Hendrik Bluhm,
Lawrence Berkeley National Laboratory,
"Photoelectron Spectroscopy Under Humid
Conditions"
Wolfgang Drube,
HASYLAB, Germany. “Hard X-ray
Photoelectron Spectroscopy: An Effective
Probe for Electronic Structure in
Materials Science”
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IS2+SS
In Situ Spectroscopy/Microscopy –
Interfacial Chemistry/Catalysis
Doron Aurbach,
Bar-Ilan University, Israel, "The Use of
In Situ Spectro-Electrochemical
Tools on the Way to R&D of Rechargeable
Li and Mg Batteries"
Stephen Urquhart,
University of Saskatchewan, Canada,
"X-ray Spectromicroscopy of Organic and
Inorganic Nanostructures"
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TR2+SS
Surface Science for Tribology
Scott S. Perry,
University of Florida, “Atomic
Scale Investigations of Solid
Lubricants”

Thin Film Division (TF)

The Thin Film Division (TF) program at AVS-57 will highlight Atomic Layer Deposition (ALD) and chemical vapor deposition (CVD), with 5 sessions focusing on Energy Applications, Organics and Mechanical Applications, Semiconductor Processing, Surface Chemistry and Fundamentals, and Nanostructures and Magnetic Materials. Abstracts are also solicited for sessions on Growth and Characterization, Multifunctional Materials, Modeling and Analysis, and Glancing Angle Deposition (GLAD). Recently introduced and new topics include Nanostructuring Thin Films, Next Generation Processing, Nonvolatile Memories including MRAM and PC-RAM, and Control of Interfacial Properties. TFD is co-sponsoring TF for Photovoltaics for the Energy Frontiers Topical Symposium, a Focus Topic on Spectroscopic Ellipsometry, in addition to several sessions on Graphene, Magnetic Multilayers, BioMEMS, and Actinides.
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TF1+EN
ALD/CVD:
Energy Applications
Peter Stair,
Northwestern University, "ALD
Applications in Heterogeneous
Catalysis"
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TF2
ALD/CVD: Organics and
Mechanical Applications
Victor Bright,
University of Colorado at
Boulder, "ALD for Nano and Micro
Electro-Mechanical Systems"
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TF3
ALD/CVD: Semiconductor
Processing
Byung Hun Lee,
Gwangju Institute of Science and
Technology (GIST), South Korea "ALD
High k/Metal Gate Devices: Novel
Device Concepts"
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TF4
ALD/CVD: Surface Chemistry
and Fundamentals
Nicola Pinna,
University of Aveiro, Portugal,
"Non-aqueous Sol-Gel Chemistry
in Atomic Layer Deposition"
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TF5
ALD/CVD: Nanostructures and
Magnetic Materials
Kornelius Nielsch,
University of Hamburg, Germany,
"Magnetic Nano Objects based on
Atomic Layer Deposition:
Switching Modes in Nanotubes and
Core-Shell Nanowires"
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TF6
Thin Films: Growth and
Characterization
Daniel Gaspar,
Pacific Northwest National
Laboratory, "Growth and
Characterization of Thin Films
for Organic Electronics
Applications"
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TF7
Thin Films: Multifunctional
Materials
Sergei Kalinin,
Oak Ridge National Laboratory,
"Mapping Li-ion Diffusion on the
Nanoscale in Thin Film Battery
Materials"
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TF8
Modeling and Analysis of Thin
Films
Charles Musgrave, University of
Colorado at Boulder, "Modeling
the Surface Chemistry of
Molecular Layer Deposition"
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TF9
Nanostructuring Thin Films
Kannan Krishnan,
University of Washington, "Nanostructured
Thin Film Heterostructures"
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TF10
Thin Films: Nonvolatile
Memories
David Abraham,
IBM, "MRAM: A Practical
Application of Spintronics"
Claudia Wiemer,
CNR-INFM, Italy, "Phase Change
Materials for Random Access
Memories: Deposition,
Characterization and
Performance"
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TF11+EM
Next Generation Processing
Rudi Hendel,
Periodic Structures, Inc.,
"Moore's Law - from Simple
Scaling to Materials Driven"
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TF12+EM
Control of Interfacial
Properties
Peide (Peter) Ye,
Purdue University, "High-k III-V
MOSFETs Enabled by Atomic Layer
Deposition"
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TF13+SE
Glancing Angle Deposition
(GLAD)
Melik Demirel,
Penn State University
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TF14
Thin Film Division Poster
Session
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AC1+TF
Actinide and Rare Earth Thin
Films
Thomas Gouder,
Institute for TranUranics (ITU),
Germany, "5f Localization in
Ultrathin Pu Layers"
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EL1+AS+EM+MS+TF
Spectroscopic Ellipsometry I
Mathias Schubert,
University of Nebraska, Lincoln,
"New Developments in
Spectroscopic Ellipsometry for
Characterization of Organic and
Inorganic Surfaces, Interfaces
and Complex Layered Materials"
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EL2+AS+EM+MS+TF
Spectroscopic Ellipsometry II
Herbert Wormeester,
University of Twente, The
Netherlands, "Roughness beyond
Bruggeman's Effective Medium
Approximation"
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EL3+AS+EM+MI+MS+TF
Spectroscopic Ellipsometry
III
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EL4+AS+EM+MS+TF
Spectroscopic Ellipsometry
Focus Topic Poster Session
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EN2+TF
Thin Films for Photovoltaics
David Ginley,
National Renewable Energy
Laboratory
Paul Holloway,
University of Florida
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EN3+TF
CIGS, CZTS and Chalcopyrite
Films & Solar Cells
Hugh Hillhouse,
Purdue University, "CIGS and
CZTS Nanocrystal-Ink Solar
Cells”
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GR1+TF
Graphene and 2D
Nanostructures
Avik Ghosh,
University of Virginia, "Carbon
Based Electronics: From Modeling
Electron and Thermal Flow to
Device and Circuit Design"
Mark Hersam,
Northwestern University,
"Tailoring the Structure and
Properties of Graphene Through
Chemical Functionalization"
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GR2+TF
Characterization, Properties,
and Applications
Yong Chen,
Purdue University, "Electronic
Properties of Graphene
Synthesized by Chemical Vapor
Deposition"
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GR3+SS+TF
Epitaxial Graphene on SiC
Thomas Seyller,
The University of Erlangen-Nürnberg,
Germany, "Epitaxial Graphene on
SiC"
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GR4+EM+MS+TF
Graphene and Carbon-based
Devices
Emanuel Tutuc,
University of Texas, Austin, “Electron
Transport in Dual-Gated Mono-
and Bilayer Graphene Devices
with High-k Dielectrics”
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GR5+MI+TF
Spins in Graphene: Injection
and Manipulation
Joaquin Fernandez-Rossier,
Universidad de Alicante, Spain,
"Spintronics in Graphene Based
Nanostructures"
Oleg Yazyev,
University of California,
Berkeley, "Imperfect Graphene:
Point Defects, Edges,
Dislocations and Grain
Boundaries"
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GR6+AS+TF
Graphene: Surface
Characterization
Regis Decker,
University of California
Berkeley, "Local Probe
Investigation of Transition
Metal Atoms on a Gated Graphene
Device"
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GR7+AS+TF
Graphene Synthesis on Metals
Thomas Michely,
University of Cologne, Germany,
"From Perfect Graphene to
Cluster Superlattices"
Peter Sutter,
Brookhaven National Laboratory,
"Transition Metal Catalyzed
Graphene"
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MI6+TF
Magnetic Nanostructures, Thin
Films and Heterostructure
June Lao,
National Institute of Standards
and Technology
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PS7+TF
Plasma Deposition and Plasma
Enhanced ALD
Jeon Han,
SungKyunkwan University, South
Korea
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SE3+TF
Glancing Angle Deposition
(GLAD)
Daniel Gall,
Rensselaer Polytechnic Institute
“Nanorods by Extreme Shadowing:
New Pictures and New Physics”

Vacuum Technology Division (VT)

The Vacuum Technology Division (VT) is soliciting abstract submissions in vacuum technology addressing both long-standing and emerging issues important to a wide variety of advanced technology applications. Topics will include: Pumping, outgassing, contamination control, effluent abatement, gas analysis, sealing, vacuum gauging, vacuum and gas flow modeling and calibration methods. A specific focus session on gas analysis for vacuum and process measurements will cover traditional RGA and process gas analyzers but will also cover newer measurement methods such as high-resolution mass spectrometry, Fourier transform infrared and cavity ringdown spectrometry for vacuum, gas delivery and effluent measurements. Vacuum system design, pumping, vacuum-related modeling, total pressure gauging, MEMS sensor development, sealing and packaging, contamination control and effluent management will also be covered. Contributed related papers on the use of vacuum in the astronomy community are encouraged as well as papers on neutron generators and fusion-related vacuum systems, gas handling and measurements, and any new or emerging vacuum technologies. The VTD will continue its poster competition for Student-Built Vacuum Systems with the top place winner receiving a cash prize.
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VT1 Accelerators and Large Vacuum Systems
Woody Weed, Sandia National Laboratories, "Design and Operation of the Z Pulsed Power Facility Vacuum System"
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VT2+MS Gas Analysis in Vacuum and Process Applications
R. Graham Cooks, Purdue University, "Miniature Mass Spectrometers for Surface and Gas Analysis"
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VT3+MN MEMS Sensors, Vacuum Gauges and Measurements
Kevin Ewsuk, Sandia National Laboratories, "Practical Issues and Applications for Vacuum and Hermetic Microsystems Packaging"
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VT4+MS Contamination Control and Outgassing
Michael Sherer, Sherer Consulting Services, Inc, "Point-of-Use Abatement Devices and Exhaust Management Strategies"
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VT5 Vacuum Pumps, Pumping and Applications
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VT6 Vacuum Science and Modeling
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VT7 Vacuum Technology Division Poster Session and Student Posters


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