DRAFT
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In the Framework of the 21st
International Conference “CODATA 2008”
SCIENTIFIC INFORMATION FOR
SOCIETY:
FROM TODAY TO THE FUTURE
"
Organized
by
The
NSF International Materials
Institute
Combinatorial Sciences and Materials Informatics
Collaboratory (CoSMIC)
Ukrainian-Japanese Centre
and Metal Physics Department,
Physical Engineering Faculty,
of the
Sponsored by
The
NSF international Materials
Institute
Combinatorial Sciences and Materials Informatics
Collaboratory (CoSMIC)
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3-4 October, 2008,
Venue: Ukrainian-Japanese Centre
of the
“Kyiv Polytechnic Institute”
General Information
From “
and Prof. Sergey Sidorenko.
_______________________________________________________________
Prof. Shuichi Iwata:
This
international “
Materials science seeks to
understand structure–property relationships, which may be very complex and
difficult to discover.
We look for patterns in data that
have multiple and different length and time
scales. It is rarely possible to construct
a single multiscale theory or experiment which can meaningfully and accurately
capture relevant information. Data driven design will permit us to survey
complex, multiscale information in a high throughput, statistically robust, and
yet physically meaningful manner. The application of such approaches can have a significant impact in materials design and
discovery.
As this approach to materials
science is still in its infancy, it is important to introduce these concepts to the new generation of scientists entering
materials science and engineering. They will need to learn an interdisciplinary field that merges
ideas from computational materials
science and materials theory with machine learning,
databases, and parallel and distributed computing and combinatorial experimentation that can integrate data with
scientific principles to enable materials discovery and enhance our
understanding of structure property relations.
As the fields on materials
science and engineering are huge and containing
rich legacies reflecting the history of human beings, younger generations
need to take advantage of these new advances in materials science and this summer school is part of a global effort
in integrating research with education.
________________________________________________________________
Prof.
Rajan Krishna:
The
aim of this workshop is to examine design of materials as related to electronic
structure, crystal structure and thermodynamics from the perspective of data
science. The lectures will explore the challenges of acquiring data via
experimental or computation means as well as the analysis of that data through
coupling it to theory and informatics methods. The applications of these approaches
will cover a broad range of materials including intermetallics, crystalline
ceramics, nanostructures and molten salts to mention a few. The workshop will
also have a component that will be held as a joint meeting with the CODATA Task
Group on Materials Data Exchange and Operability. This will be used to examine
data handling practices in the materials science community.
________________________________________________________________
Prof.
Sergey Sidorenko:
Documents and results of the workshop
will be published by National Technical University of Ukraine “Kyiv Polytechnic
Institute” and disseminated also internationally through web based modules and
notes, Webcasts and other publications.
We'd like to propose to combine “
Venue:
Ukrainian-Japanese Centre and Metal Physics Department, Physical Engineering
Faculty of the
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Draft
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“ School Masters: Prof. Shuichi Iwata, Prof. Krishna
Rajan and Prof. Sergey Sidorenko |
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September 30, October 1, October 2 |
Arrivals. Transfer to Hotels and NTUU "KPI" Hostel #19. |
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October 3 |
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830 - 900 |
Registration. Coffee |
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Ukrainian-Japanese
Centre of the NTUU "KPI", Library,
3 floor: |
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900 - 910 |
Greetings
by: Michael
Zgurovskiy, Rector of the NTUU "KPI", Vladislav
Luk'yanov, Deputy of the Verkhovna Rada of |
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910 - 1010 |
Perspectives on data science and design science on materials by
Krishan LAL and Shuichi IWATA |
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1010 - 1030 |
Coffee Break |
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1030 - 1130 |
From the first principles calculations to the molecular dynamics for
the materials design in terms of the data science by Shuhei OHNISHI |
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1130 - 1230 |
Designing structure maps: addressing the “curse of dimensionality”
problem by Krishna RAJAN |
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1230 - 1330 Catering Halls |
Lunch |
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1330 - 1430 |
Walking
around University and the |
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1430
- 1530 Ukrainian-Japanese
Centre of the NTUU "KPI", Library, 3 floor |
The nanostructure problem: Solving the inverse problem for
nanostructure from scattering data by Simon BILLINGE |
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1530 - 1630 |
Data and modeling driven approach towards discovery in materials
design by Ying CHEN |
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Library,
Hall #12, 5th
floor: |
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1630 - 1700 in the Hall #12 foyer |
Coffee Break |
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1700 - 1730 |
Fundamentals in Nuclear Fuel Performance by Motoyasu KINOSHITA |
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1730 - 1830 |
Frontiers of modern materials. Metallic foams – by Sergei SIDORENKO
and Olexandra Byakova |
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1830 - 2000 |
Group discussions with snacks and drink |
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2000
- 2030 in
Hall #12 |
Concert (folk music) |
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October 4 |
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Ukrainian-Japanese
Centre of the NTUU "KPI", Library,
3 floor: |
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Studies |
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900 - 1230 |
Frontiers of data sciences on materials by Toshihiro ASHINO and Laura
BARTOLO (Joint Session with CODATA TG Meeting) |
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1230 - 1400 |
Walking around university (University Laboratory) |
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1400 - 1500 |
Lunch |
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1500 - 1700 |
Students reports and discussions: Challenges on data science and design
Science on materials after 2007
Summer School by KPI/UT/TU students |
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1700 |
Closing
ceremony with Buffet |
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Abstracts
Perspectives
on data science and design science on materials
Shuichi Iwata
The
Phase changes from data collection and selection
into data-driven design and planning are going to happen in many fields. Data quality matters every time and everywhere: gold
in, gold out. Reasonable estimations of data uncertainties produce better
results and outcomes. The more the problem to be solved is uncertain, the more
we should become flexible. Evidence-based deterministic approaches do not work
effectively, and adaptive and heuristic approaches work better coupled with in situ data capture, evaluation, and quick decision and timely actions.
Holistic creativity as a group is a key for success of the group, when
practical maintenance of data quality for proper decision is important.
The time
constants of data life cycle are becoming shorter, and the diversity of stakeholders
and complexities of data are increasing. New disciplines are continuously
created by taking advantage of available data and devices so as to prepare solutions
in a timely fashion. Without proper management of continuously-produced
important data and without the productivity of new disciplines based on data,
we cannot solve important problems of the world.
Materials design was tried by
Michael Faraday in 19th century, and now we have databases,
From the first principles calculations
to the molecular dynamics for the materials design in terms of the data science
Shuhei Ohnishi
Discussions are focused on the method how to
create effective interatomic potentials from the first principles calculations
in computational materials science. Several examples such as d-electron metals
and metal/hydrogen systems of clusters, surfaces, and bulk crystals are
introduced by the first principles calculations based on the density functional
theory. Applying the force data determined by the force-matching method using
the first principles calculations, we can investigate dynamical properties not
only the equilibrium but also non-equilibrium states by introducing various
external environmental parameters like temperature and pressure by the
symplectic method in molecular dynamical calculations.
The importance of database by theoretical experimental results with the
aids of computers will be discussed for our future work.
Designing
structure maps: addressing the “curse of dimensionality” problem
Structure maps have a long and distinguished history and have formed the
foundation in linking crystal chemistry with crystal structure. The challenge
in all these maps is that they have a priori assumption as to the important
parameters that govern their classification behavior. In this presentation, we
show how data mining techniques can help to design new structure maps as well
as reproduce established ones. The use of structure maps as design tools for
computational and experimental studies for crystallography.
The
nanostructure problem: Solving the inverse problem for nanostructure from
scattering data
Simon Billinge
Crystallographic methods are the gold standard for atomic structure
determination, however a broad and growing class of materials and/or nanophase morphologies do
not yield to a crystallographic analysis.
The scattering is diffuse and Bragg-peaks become broad and
overlapped. This is "the
nanostructure problem" which currently has no robust solution. I will discuss our approaches to solving this
inverse problem, highlight some of successes and challenges as well as point to
a new paradigm of complex or multimodal modeling that is emerging for these
problems.
Data and modeling driven approach
towards discovery in materials design
Ying
Chen
The
An integration of two types of approach for materials design, the
data-driven approach based on the comprehensive materials database and the model-driven approach based on the
theoretical calculation corresponding to various physical models, has been proposed as an efficient way to accelerate the speed of finding target
atomic configuration from huge number of candidates when designing new
materials with specified properties. Mapping approach is utilized by mining the
data in materials databases for discovering the regularities and correlations
on the compound formation, constitution and crystal structures, which directly
provides hints on candidate
materials in preliminary stage. On the basis of regularities revealed by data
mining, various theoretical approaches are applied to the target substances for
investigating further their structural stability, phase equlibrium, and
physical properties in order to estimate the possibility to be new materials
and to understand the insight into the origin of those regularities. Several
examples are presented to show how this combined approach is attempted towards discovery new materials.