Welcome to Tenure Track Laboratories · 2 Analysis of the electron scattering theory of quantum...

NanoSquare Guidebook for Prospective Students 2011

Welcome to Tenure–Track Laboratories— Nanoscience and Nanotechnology Research Center —

Interdisciplinary, world–class research

１

Intensive lectures & close supervision

Collaborative research seminars

Well–equipped laboratories

with considerable free space

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group in Nanoscience & Nanotechnology

by up and coming scientists

Cross-department supervision is possible at the tenure-track system at OPU!

Department ofMathematical Science

Attend NanoSquare orientations for

OPU and students from other universities

Department ofApplied Chemistry

Pass the graduate school

entrance exam

３

School of Engineering/Science

Master’s/Doctoral program

Interview

with

TT lecturers

Students from

other universitiesOPU students

Undergraduate supervision (4th-year)

Graduate supervision

Department ofPhysical Science

School of EngineeringMathematical Science

School of EngineeringApplied Chemistry

School of SciencePhysical Science

held from early spring

until summer

Q.1 How can I learn more about TT lecturers and their labs?

A.1 In addition to referring to this guidebook, please attend our orientations held in the early spring. Inquiries and lab visits are always welcome by TT lecturers.

Q.2 Is it possible for undergraduates to receive TT lecturers’ research supervision?

A.2 Special arrangements can be made for a student who clearly intends to continue TT lecturers’ supervision into graduate school. In this case, the student may be reasonably expected to demonstrate competence in some aspects required to enter the graduate school.

Q.3 Can I choose any TT lecturer as my research supervisor?

A.3 Supervisor selection requires the mutual agreement between the TT lecturer and the student, as well as the approval of Chairman of the corresponding departments and the NanoSquare Program Acting Committee.

Q.4 How many students do TT lecturers accept per year?

A.4 Only a limited number of students are acceptable so TT lecturers can maintain an appropriate level of supervision while conducting world-class research.

Q.5 To which department should I apply?

A.5 Please select the most suitable department for your research project, either in the School of Engineering or School of Science. You may choose by examination subjects.

Q.6 Who will attend my admission interview? Will the TT lecturer I chose be there?

A.6 The TT lecturer you chose will attend your admission interview, however, the chairman of the interview will be selected from among the professors who belong to the department you applied to.

Q.7 Once I’m assigned to the TT lab, who will give me career advice?

A.7 After your assignment to one of the TT labs, a professor who belongs to the department you chose will be selected as your chair supervisor. The chair supervisor will be responsible for your career advice.

Q.8 I’m currently taking the JABEE* program in my department. Can I apply to TT labs in my fourth-year? *JABEE - the Japan Accreditation Board for Engineering Education

A.8 No, you cannot. According to the JABEE program guidelines, undergraduate students cannot receive TT lecturers’ supervision. For more information, please contact us.

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◆Research Thesis Topics

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Hayashi Laboratory

1 Numerical simulation of the scanning tunneling microscopy with molecular tip

2 Analysis of the electron scattering theory of quantum gases

Togawa Laboratory

1 Microscopic analysis of ion conductive material in anti-reactive environments

2Development of manipulation methods of magnetic domain dynamics using pure spin currents

Nishino Laboratory

1 Direct visualization of atomic defects in carbon nanotubes

2 Quantification of electron transport between single molecules

Kojima Laboratory

1 Preparation of functional collagen gel

2 Preparation of photoresponsive materials

Sakamoto Laboratory

1 Investigation of the formation mechanism of ordered mesoporous materials

2 Structural studies of meso-structured materials using electron microscopy

Takahashi Laboratory

1Spectral measurement of Raman scattering light from Silicon photonic crystal nanocavities

2 Theory of the Raman effect in photonic crystal High-Q nanocavities

IidaLaboratory

1Theory of spatial pattern control of metal nano-composite materialsby external fields

2Exploration of principles involved in the highly efficient light-induced charge separation in organic nanostructures

Kosuga Laboratory

1 Development of thermoelectric materials through nanoengineering

2 Improvement of the efficiency of oxide thermoelectric materials by nanosizing

Makiura Laboratory

1 Rational construction of nanofilms with molecular building units

2 Development of nanofilm functionalities by varying substituents

Tokonami Laboratory

1 Preparation of functionalized metallic nanoparticles

2 Fabrication of nanostructures using metallic nanoparticles

XuLaboratory

1Development of fabrication methods of Nano-in-Micro structures by fusion of top-down and bottom-up fabrication technologies

2Investigation of long-term functions of cells in a micro-hydrogel with nanostructures

YagiLaboratory

1 Synthesis of oxide nanomaterials in the liquid phase

2 Synthesis of metallic nanomaterials via electroless deposition

◆Graduate Education

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Hayashi Laboratory

1Theoretical study on the vortex structures in non-centrosymmetric superconductors

2 Theoretical study of the flux-flow resistivity under a rotational magnetic field

Togawa Laboratory

1 Microscopic analysis of ferroelectric domain dynamics

2 Clarification of the nature of magnetic domain dynamics induced by spin currents

Nishino Laboratory

1 Development of a high-resolution spin-polarized STM

2 Development of nanobio-recognition devices

Kojima Laboratory

1 Development of DDS for metastatic cancer treatment

2 Preparation of organic-inorganic hybrid biomaterials

Sakamoto Laboratory

1 Structural studies of mesoporous materials using 3-D electron microscopy

2Synthesis and characterization of meso-structured materials using electron microscopy

Takahashi Laboratory

1 Calculation for Silicon Raman laser using photonic crystal nanocavities

2 Fabrication and characterization of Silicon Raman laser

IidaLaboratory

1Control of ordered formation in nano-assembly and design of their functions with light fields

2Exploration of principle in ultra-weak force metrology based on the fluctuation control by light

Kosuga Laboratory

1Improvement of thermoelectric performance of nanocrystalline thermoelectric materials and development of thermoelectric modules

2 Development of high-performance thermoelectric materials for application

Makiura Laboratory

1 Evaluation of physical properties induced by external stimuli on nanofilms

2Studies on the formation mechanism of nanofilms assembled by solution-based processes

Tokonami Laboratory

1 Application of highly ordered metallic nanoparticles to biosensors

2 Development of DNA multi-array sensor using metallic nanoparticles

XuLaboratory

1Measurement and elucidation of wetting of nanodroplets on well-defined nanostructures

2Development of protein nano-patterning methods for single molecule immunoassays

YagiLaboratory

1 Formation of solid electrolyte film via electroorganic synthesis

2Improvement of charge-discharge characteristics of rechargeable batteries usingnanomaterials

Nanoscience and Nanotechnology Research Center (N2RC), Research Organization for the 21st Century

Theoretical Study on

Phenomenology of

Superconductivity

Our goal is to explore and understand the variety of

quantum phenomena in condensed matter systems, especially

regarding “superconductivity.”

Join us in theoretical study and the exploration of

quantum phenomena in the natural world !

We investigate physical phenomena occurring in spatially

inhomogeneous situations of superconductivity.– Quantized flux (or vortex) under magnetic fields

– Surface state

– Junction system (called the Josephson junction)

In addition, another research theme is the development of numerical simulation

codes for analysis of experimental data obtained by scanning tunneling microscopy (STM)

with a molecular tip in collaboration with Dr. Nishino’s laboratory at N2RC.

Various phenomena in unconventional superconductors

Numerical simulation of scanning tunneling microscopy with molecular tip

. . . etc. Topics in theoretical condensed matter physics

Reference:

http://goo.gl/qY3S0

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Dr. Nobuhiko Hayashi

Office: Bldg C10, Rm #422

Phone: +81 72 254 8203

Ext: 3553

n-hayashi<at>21c.osakafu-u.ac.jp

http://goo.gl/qY3S0

http://goo.gl/qY3S0

Nanoscience and Nanotechnology Research Center (N2RC), Research Organization for the 21st CenturyNanoscience and Nanotechnology Research Center (N2RC), Research Organization for the 21st Century

Manipulation and Control of Electromagnetic Responses

in Nano-scaled Electrical Devices

Development of highly-efficient control and manipulation technology of electromagnetic responses in nano-scaled electrical devices, using in-situ TEM analysis of the physical properties of spintronic, ferroelectric, ion conductivity, superconductivity, multi-ferroic materials

Development and application of novel “in-situ” TEM analysis techniques available in extreme environmental conditions

Lorentz microscopy

（electron interferometry）

500 nm

Visualization of physical

properties related to

electric and magnetic field

MultiferroicsFerro-

electricityIon

conductivitySpintronics

（nano magnetism）

TEM holder for

electric signal application

Y. Togawa et al., APL 92, 012505 (2008).

USA Patent: US 7,808,814.

Patent 2007-186095, 2009-126523.

“Spin current switch”

Y. Togawa et al., PRL 95, 087002 (2005).

“Vortex ratchet”

Development of novel

device operation principle

Research Targets

Dr. Yoshihiko Togawa


Phone: +81 72 254 8216

Ext: 3557

y-togawa<at>21c.osakafu-u.ac.jp

We carry out “in-situ” TEM analysis of electromagnetic responses

in nano-scaled devices to obtain microscopic information on various

physical properties for application in novel functional devices.

Microscopic analysis of

domain wall structure

in nano magnetic device

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Defects in

carbon nanotubes

We will develop novel analytical methodology to reveal chemical nature and

states on solid surfaces at the atomic/molecular scale.

This leads to discovering novel surface phenomena and to realization of

advanced functional nanostructures.

Development of

nanoelectronic devices

Single Molecule Analysison a Solid Surface

Dr. Tomoaki Nishino


Phone: +81 72 254 8194

Ext: 3649

t-nishino<at>21c.osakafu-u.ac.jpSeeing what was unseen

Functional Materials Defects in carbon nanotubes

Diagnosis Development of biosensors

Spintronics Novel magnetic imaging

Catalysis Discrimination of single molecule chirality

It is vital to “see” tiny objects at the single atom/molecule levels in nanoscience and

nanotechnology.

However, it still remains difficult, or even impossible, to selectively observe area of

interest at these levels.

Single molecule detection

Development of novel

biosensing devices

High resolution magnetic imaging

Spintronics

Single molecule

chiral recognition

Enantioselective

Heterogeneous catalysis

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Creation of Functional Nano-Biomaterials-Nanoscience and Interdisciplinary Research

Leading to Next Generation Medicine-

Dendritic Polymer Nanoparticles for Drug Delivery and Imaging

Functional Collagen Materials using Nanoparticles

Functional Organic-Inorganic Materials

Design of Artificial Proteins

Dr. Chie Kojima


Phone: +81 72 254 8190

Ext: 3563

c-kojima<at>21c.osakafu-u.ac.jp

①Nanocapsules for Drugs and Imaging Agents

Various materials encapsulated in the dendrimer.

→Cancer Metastatic Dependent Drug Release

1) Collagen-mimic Dendrimer2) Dendrimer/Collagen Hybrid Gel

Our ultimate goal is to overcome diseases afflicting people worldwide.

①Biomaterials for Cancer TherapyCancer is the leading cause of death in Japan. Development of biomaterials for cancer therapy

and diagnosis is indispensable. We are studying nanocapsules and nanoparticles for drug delivery and imaging.

②Biomaterials for Tissue EngineeringTissue engineering of the nervous system, muscle and bone is useful for treatment of accidental

spinal cord injury and congenital intractable diseases. We have studied functional scaffolds for some stem cells and functional biomaterials to apply to regenerative medicine.

Our research techniques are based on chemistry and cell biology. Our projects are part of an interdisciplinary research, in collaboration with various researchers with backgrounds in medicine, pharmaceutics and physics.

Functional Nanoparticle: Dendrimer

Gold Nanoparticle

Photo-thermogenicity

↓Imaging,

Laser Treatment

Surface modification

Encapsulation

②Functional Collagen Materials

→Functional Cell Scaffold

Heating

→Temperature-dependent Drug Release

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Structural Studies of Self-Assembled

Meso-Structured Materials

Structural characterization of meso-structured materials.

Development of electron microscopy methods for meso-structured materials.

Understanding of self-assembled meso-structured materials.

Dr. Yasuhiro Sakamoto


Phone: +81 72 2548124

Ext: 5504

y-sakamoto <at>21c.osakafu-u.ac.jp

Our group focuses on structural characterization of

self-assembled meso-structured materials, including

porous materials (e.g. silica mesoporous materials,

zeolites) and colloid crystals using electron microscopy,

and the development of electron microscopy methods

for meso-structured materials.

Self-assembly of small building blocks such as atoms,

molecules, nano-particles and micelles into

mesoscopic structures is a common phenomenon in

nature, and has attracted the attention of many fields,

including physics, chemistry, biology and material

science. Recently, porous materials have become one

of the most frequently discussed self-assembled

meso-structured materials. Structural study of those

materials using electron microscopy provides crucial

information in the understanding of their properties

and formation mechanisms, and in the development

of science and technology.

(http://www.nanosq.21c.osakafu-

u.ac.jp/ttsl_lab/y_sakamoto/index.html)

１１


Waveguide

Nanocavity Raman

1.55 m

1.45 m

Silicon Photonic Devices using High-Q Photonic Crystal Nanocavities

Enhancement of nonlinear optical effects in high-Q nanocavities

Development of silicon Raman laser using high-Q nanocavities

Development of optical communication devices using nanocavities

Increasing the record of Q factor for the nanocavities

Dr. Yasushi Takahashi


Phone: +81 72 254 8129

Ext: 3537

y-takahashi<at>21c.osakafu-u.ac.jp

Capturing photon in a

micro region

Wavelength selective filters

Optical networks, optical circuits

High Q Photonic Crystal Nanocavities

7

6

5

4

3

2

1

020151050

3 ns Q : 3.6 million

Record of Q factor ~ 4 million

Optical memory, Quantum information

Advanced control of photon bychanging the periodicity of the air holes

Enhancement of optical Raman effect

Ultra-small Si Raman laser

Novel emission devices

HP

http://www.nanosq.21c.osakafu-u.ac.jp/ttsl_lab/y_takahashi/index.html

We study the photonic crystal high-Qnanocavities which is expected to lead tothe development of novel optical devices.Research methods are calculation,fabrication, and measurement. Students areencouraged to spontaneously work on thestudy with freedom, enthusiasm, vigor, andenjoyment .

Waveguide

Nanocavity

240 nmAlign nano-scale air-holesin a triangular lattice

Fabricated by up-to-dateengineering

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Nanodynamics created by

Light & Fluctuation:“Fabrication,” “Observation,”& “Manipulation”

of the Morphology and Functions of Nano-

composite Materials by Light

Statistical mechanics and thermodynamics of nano-objects excited by light

Microscopic theory of excited nano-objects using the quantum chemistry

Simulation of dynamics and final states of nano-objects under external fields

Optical applications & analyses of nano-systems under fluctuations

We aim to create nano-systems with novel optical functions based on

the optical control of fluctuations!

◎High performance

cluster-computing

system

◎Theoretical methods:

Quantum mechanics,

Electrodynamics,

Nonequilibrium statistical

physics

Methods & Equipment

◆We will offer a course to enhance your

skills in theoretical research with the

Numerical Computation Training Course

and Journal Club to read specialized books.

◆Since we are involved in the active

collaboration and communication with

experimental groups, an experimental

demonstration based on your theoretical

results can be realized.

Let's pioneer new fields under our keywords 'Light' &

'Fluctuation' from fundamental to applied research!

A major part of our research is developing the principles involved in

◎ Fabrication of novel nano-composite materials based on bottom-up control

◎ High sensitive measurement & analysis methods based on fluctuation control

utilizing light irradiation induced force and phenomena. Based on the obtained principles, we

aim to construct new fields in "Light-induced Force Nano Engineering.“ One goal is to

construct the foundation of next generation nanotechnology in order to solve environmental and

energy issues, and develop applications for life science based on the above principles. From

analogies with biological systems, we are working to establish the foundation of a fabrication

method for a highly-functional photo-energy conversion system and for nano-scale devices

driven by light and fluctuations.

We have a strong background in Solid State Photo Physics, but are working towards

interdisciplinary research with the collaboration of researchers in various fields, such as

"Photo-Physical Chemistry," “Analytical Chemistry,” and "Biological Science."

Please see our website: http://www.nanosq.21c.osakafu-u.ac.jp/ttsl/en/en_t_iida.html

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Dr. Takuya Iida


Phone: +81 72 254 8132

Ext: 3564

t-iida<at>21c.osakafu-u.ac.jp

Nanoscience and Nanotechnology Research Center (N2RC), Research Organization for the 21st CenturyNanoscience and Nanotechnology Research Center (N2RC), Research Organization for the 21st Century

Development of Novel Thermoelectric Materials with High Performance

Thermoelectric Conversion Technology is now Expected to Contribute to Solving Global Warming and Climate Change Issues by Recovering and

Converting Waste Heat into Electricity, Thus Improving the Total Energy Utilization and Suppressing the Consumption of Fossil Fuels.

Development of High-Efficient Thermoelectric Materials

by Nanostructure control

Development of Eco-Friendly Ceramic Thermoelectric Materials

Development of Thermoelectric Materials Intended for Space Applications

Thermoelectric Modules

Aiming at Various Applications

We are planning to develop novel thermoelectric materials and modules through experimental and computational approachesWhy don’t you join us ?

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Dr. Atsuko Kosuga


Phone: +81 72 254 9826

Ext: 3620

a-kosuga <at>21c.osakafu-u.ac.jp

Thermoelectric Materials


Development of Functional

Surface/Interface Nanostructures based

on Molecular Systems

Nanofilm fabrication with molecular building units

Structural analysis by X-ray diffraction techniques

Development of nanofilm properties

Interface study of heterostructures

Dr. Rie Makiura


Phone: +81 72 254 9851

Ext: 3554

r-makiura<at>21c.osakafu-u.ac.jp

Rational design and construction offunctional nano-layered systems,whose structural and chemical/physical properties can be easilyswitched, represents a key objectivein modern material science at thenanoscale level and a key challengefor future nanodevices.

Metal-organic frameworks (MOFs), which consist of molecular organic building blocks, are considered to be potential materials for such surface nanoarchitectures.

Using a variety of deposition techniques on selectedsubstrates, layer-by-layer “bottom-up” growth of MOFsallows unprecedented control of structural organization atthe molecular level, and fine tuning of system properties atthe same time.

Concept

Research Plan

The importance of the research is to explore thepotential of MOF nanofilms with designedstructures and embedded multiple functionalitiesas critical components of future integratednanodevices.

Future View

Organic molecular

building block

Metal linker

・Phase transition・Ionic conduction

・Magnetic order

Gas pressure

Electric field

Magnetic field

I. Construction of PCP nanofilm II. Physical/Chemical properties

III. Size & interface controlled nanoparticles

VI. PCP surface nanostrucutre integrated

with nanoparticles

Separation

Reaction

Transport

１５


Optical and Electrical Biosensing

Using Gold Nanoparticles

Development of an electrical DNA sensor by using gold nanoparticle (AuNP) arrayed film

Fabrication of AuNP arrayed film to study nerve cell function

Development of an optical virus-detecting sensor using arrayed AuNPs

Dr. Shiho Tokonami


Phone: +81 72 254 9824

Ext: 3567

s-tokonami<at>21c.osakafu-u.ac.jp

Stained glass

AuNP

Properties of AuNP

Virus-detecting sensor by using SERS of arrayed AuNPs

DNA sensor using AuNP arrayed film

Addition of target DNA

Formation of DNA double-

strand between adjacent

nanoparticles

Electrical path

Purplish red color due

to the localized surface

plasmon resonance

Nanoparticulation

Gold

Monitoring a resistancechange of DNA caused bya transition from single todouble-strand

Closely arranged AuNPsSurface-enhanced Raman scattering (SERS)

Target species:

▪ Staphylococcus aureus

▪ Bacillus coli

▪ HIV etc…

AuNPs are connected through the antigen-antibody reaction, which induces SERS.

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Medicine

Development of Nano/Micro

Interfaces and Integrated Devices

at the Molecular and Cellular levels

Creation of nano/micro interfaces by integrating biomaterial engineering &.

nano-/microfabrication technology

Creation of cellular and molecular devices for medicine, based on the

construction of well-defined nano/micro interfaces

Development and application of chemical & biological nano/microfluid devices

Development of Extreme Nanofabrication(Fusion of Top-Down and Bottom-Up Methods)

Design and Synthesis of Functional

Biomaterials

Nano-in-Micro Biointerfaces

(NiMBi)

Cellular and Molecular Devices

Nano-/Microfluidic Devices

Nanofabrication Technology

Bridging the nanoscale and microscale of cells

is the key to understanding life phenomena at

the cellular and molecular levels.

IntegrationBiomacromolecules

Cellular Assay

Cells

Microspace

Well-defined

extracellular

Matrix

(ECM) at

the nano-

scale level

Molecular Analysis

Device

Lab-on-a-Chip

Nanochannels

Nanopillars

Nano-in-Micro/Nano-in-Nano Structures10 m

1 m

500 nm

Multi-functions

for nano-devices

Multi-functional moieties

Chip fabrication

Surface modification

Fluidic control

Chemical and biological processes

Separation, analysis, and detection

Application in fields of medicine,

pharmacy, environment, and energyBiomaterials Engineering

１７

Dr. Yan Xu

Office::Bldg C10, Rm # 306

Phone: +81 72 254 7813

Ext: 3579

[email protected]


Synthesis of nanomaterials

for rechargeable battery

systems

Without a magnetic field With a magnetic field

We are researching practical

thermodynamics and electrochemistry, which

are useful in the synthesis of various

materials. Learning through a series of

laboratory seminar is provided.

For example, as shown on the left,

synthesis processes of metal and oxide

nanomaterials are designed based on a

potential-pH diagram.

Liquid-phase synthesis of metal and oxide nanomaterials

Formation of solid electrolyte film via electro-organic synthesis

Improvement in the charge-discharge properties of rechargeable

batteries using nanomaterials as electrode materials

The electron microscopy images on the left

show ferromagnetic metal nanowires, which

were synthesized in a process that combines

ferromagnetic nanoparticles and an external

magnetic field. Metal nanowires can be

modified into oxide nanowires. Selective

oxidation of the nanowire surface can provide

an electrode active material with electron-

conducting paths.

To develop rechargeable batteries with a electromotive force higher

than 4V, establishing a synthesis process of solid electrolyte film with a

high carrier ion and low electron conductivity is important. In this

laboratory, we are also studying the formation of a solid electrolyte film

via electro-organic synthesis.

１８

By establishing a simple and low-cost synthesis process of metal and

oxide nanomaterials, we seek to develop next generation rechargeable

batteries with high charge-discharge properties.

We are seeking to synthesize electrode active materials and solid electrolyte materials,

and fabricate batteries to conduct charge-discharge tests. By learning and enjoying how

to create things, we are working to develop next generation rechargeable batteries.

Dr. Shunsuke Yagi


Phone: +81 72 254 7791

Ext: 3551

s-yagi<at>21c.osakafu-u.ac.jp

Profiles of tenure-track special lecturers

Dr. Nobuyuki Hayashi

Biography : Master of Science and PhD in Science at Okayama University. Research Associate at Okayama University. Worked at ETH Zurich, the Japan Atomic Energy Agency, and took up the position in January 2009. Research : Theoretical condensed matter physics, especially superconductivity. Investigating novel phenomena in unconventional superconductors, and non-centrosymmetric systems. Goal : Before scientific discovery and technological invention, there always come the achievements of those conducting basic research. As I am involved in basic science, I would like to pass along the benefits of the experience I have gained to the young.

Dr. YoshihikoTogawa

Biography : Master of Engineering and PhD in Engineering at the University of Tokyo. Worked as a researcher at the Single Quantum Dynamic Research Group, Frontier Research System, RIKEN, and took up the position in January 2009. Research : Development of a new principle of device operation for next-generation electronic devices. Focused on electric conducting phenomena such as spintronic, superconducting, ferroelectric and ion-conductive properties, and advanced research based on in-situ analysis of electromagnetic responses in devices, using an electronic microscope. Goal : The Eureka moment is the greatest time for scientists. I hope to achieve such moments by enjoying my research and exploring novel research fields over the years ahead.

Dr. TomoakiNishino

Biography : BS in Chemistry at the University of Tokyo. Became an assistant professor, and then obtained a PhD in Science at the University of Tokyo. Worked as a JST researcher for PRESTO from 2007 to 2011. Took up the position in January 2009. Research : Developed new chemical analysis methods of single molecules by using scanning tunneling microscopy. Especially focused on developing quantitative evaluation of spatial resolved atomic defects in carbon nanotubes, and creating nano biodevice applications. Goal : I would like to establish a process for rapid DNA diagnosis using very small sample amounts.

Dr. ChieKojima

Biography : Obtained Master’s degree in Engineering from Osaka Prefecture University. PhD in Biostudies at Kyoto University. Worked as an assistant professor at the Department of Applied Chemistry, Graduate School of Engineering, Osaka Prefecture University. Took up the position in January 2009. Research : Preparation and biomedical applications of functional polymers and organic-inorganic hybrid materials. Goal : The development of novel nano-biomaterials by utilizing my experience in polymer chemistry and molecular biology and collaborating with other researchers in different fields. I would like to contribute to developing a functional nanocapsule which works selectively on cancer cells.

Dr. YasuhiroSakamoto

Biography : PhD in Physics at Tohoku University. JSPS research fellow at Tohoku University. After gaining experience at the Semiconductor Energy Laboratory Co. Ltd and at Stockholm University as a junior research fellow, took up the position in April 2009. Research : Structural studies of meso-structured materials and development of electron microscopy methods. Focuses especially on porous materials and studies the mechanism of their formation. Goal : By using electron microscopy methods, I would like to study the 3D structure of meso-structured materials, and discover the mechanism of nature in the nano-world.

Dr. YasushiTakahashi

Biography : BS in Physics at Keio University. PhD in Advanced Materials Science at the University of Tokyo. Worked as a postdoctoral researcher in Electronic Engineering, Kyoto University, and then took up the position in April 2009. Serving concurrently as a JST researcher for PRESTO. (From 2009 to 2013) Research : Development of Silicon Raman laser using Photonic Crystal Nanocavities. Development of novel optical communication devices using ultra high-Q nanocavities is catching the world’s attention. Goal : My research goal is to become a pioneer in the development of devices for future photonic chips, and also I would like to manage a laboratory, training students, which has the best educational environment in the world.

１９

Dr. TakuyaIida

Biography : Master of Engineering and PhD in Science at Osaka University. After serving as a JSPS research fellow, research fellow of CREST, and an assistant professor in the graduate school of Engineering at Osaka Prefecture University, took up the position in April 2009. Served as a JST researcher for PRESTO from 2007 to 2011. Research : Theory of fluctuation control by light and creation of novel functional nanocomposite materials. Exploring the guiding principles for “Creation,” “Observation,” and “Manipulation” of nano-composite materials by utilizing light and its fluctuations. Goal : By developing principles for the fabrication and the control of a system of highly functional light energy conversion, I would like to contribute to the construction of infrastructure in future nano-technology which will solve environmental and energy problems.

Dr. AtsukoKosuga

Biography : Master of Engineering at Osaka University. PhD in Engineering at Osaka University in 2006. Worked at Murata Manufacturing Co., Ltd, COE Assistant professor at Osaka University, JSPS research fellow at National Institute of Advanced Industrial Science and Technology and took up the position in April 2010. Research : Development of novel high-efficiency thermoelectric materials. Research focuses especially on developing environment-conscious thermoelectric materials and modules through nanostructure control. Goal : I believe anyone has a chance to make a brilliant discovery if the person continues to do research carefully without quitting. I would like to share such a moment with my students and colleagues.

Dr. RieMakiura

Biography : MSc in Chemistry from the University of Tsukuba and DSc from Kyushu University. Research career at SEIKO EPSON Cooperation and at the Department of Chemistry, Kyushu University as an assistant professor, and took up the position in April 2010. Research : Research focus is on the rational design and construction of functional surface/ interface nano-structures, based on molecular systems whose structural and chemical/ physical properties can be easily switched. These nanolayered systems represent a key objective of modern materials science at the nanoscale level and a key challenge for future nanodevices. Goal : One of my goals is to contribute to the nanoscience field as well as the nanotechnology industry by creating highly efficient nanodevices with low energy processes. My concept for conducting research in the laboratory is to respect the spirit of inquiry and to enjoy the research by sharing the inspiration of discovery with my students.

Dr. ShihoTokonami

Biography : Master of Science at Yamaguchi University, PhD in Material Science and Engineering at Osaka Prefecture University. JSPS research fellow, Postdoctoral fellow at Hiroshima University, and Tokyo University of Science Yamaguchi and took up the position in April 2010. Research : Developing chemical sensors using optical and electric characteristics of gold nanoparticles. In particular, creating nanostructures by using nanoparticles and applying these to biosensors. Goal : To develop a sensor for DNA or viruses which would benefit health and hygiene.

Dr. YanXu

Biography : Bachelor from Dalian University of Technology in 2001, Master’s from Dalian Institute of Chemical Physics, Chinese Academy of Sciences in 2004, and PhD from the University of Tokyo in 2007. Served as a JSPS fellow from October 2007 to September 2009 and then as a Research Scientist from October 2009 to March 2011 at the University of Tokyo and took up the position in April 2011. Research : Creation, exploration and application of nano/micro interfaces at molecular and cellular levels, by integration of nano/microfabrication technology and biomaterials engineering. Goal : Based on these novel nano/micro interfaces, I aim to develop miniature integrated devices for applications in the fields of medicine, pharmacy, environment and energy. I also aim to have students actually experience happiness in their research as they work in my lab.

Dr. ShunsukeYagi

Biography : Master of Engineering and PhD in Materials Science and Engineering at Kyoto University. After serving as an assistant professor at Kyoto University for four years, took up the position in April 2011. Research : Synthesis of metallic nanomaterials, oxide nanomaterials, and solid electrolyte materials via chemical or electrochemical methods. Application of nanomaterials for rechargeable battery systems. Goal : Establishing inexpensive methods with high-volume production capability for the synthesis of nanomaterials, I would like to contribute to the development of next-generation rechargeable battery technology using nanomaterials.

２０

ContactNanoscience and Nanotechnology Research Center

Phone：+81 72 254 8174 (direct) Ext：3646 NanoSquare <at>21c.osakafu-u.ac.jp

２１

Introduction to Nano Measurement based on analytical chemistry, surface/interface science, and electrochemistry

NanoPhysics

NanoMeasurementNanomaterials

Introduction to Nano Physics based on optical physics, solid-state physics, and material science

Introduction to Nanomaterials based on material science, crystallography, complex chemistry, and biochemistry

Students will learn about green-innovation and life-innovation based on optical physics, solid-state physics,

crystallography, analytical chemistry, surface/interface science, supramolecular chemistry, and biochemistry.

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Lecturer Theme

1Prof. T. IshidaProf. M. Adachi

Introduction to Nanoscience and Nanotechnology,Tenure-track System at OPU

2 Dr. Y. Takahashi"Optical Semiconductor Devices in Daily Life"LED, the world’s leading semiconductor laser developed in Japan fully utilizesnano-technologies

3 Dr. T. Iida

“Fabrication, Observation, and Manipulation of Novel Functional Nanomaterials by Light and Fluctuations"Fabrication of high efficiency light energy conversion materials from nanoparticles dancing in light bowl

4 Dr. N. Hayashi"What Is Superconductivity?"Properties of a macroscopic quantum effect in the natural world

5 Dr. Y. Togawa"Evolution of Information Society by Magnetism"Cutting edge of energy-saving magnetic memory as a key electrical device in an information society

6 Dr. A. Kosuga "Thermoelectric Generation Technology"Environmentally-friendly technology which converts thermal energy to electricity

7 Dr. S. Yagi "Future Battery Technology Using Nanomaterials"High-performance batteries which change one’s lifestyle

8 Dr. R. Makiura"A Novel Nano World Created with Molecular Building Blocks"Introductory lecture about porous materials: a subject of the work nominated for the 2010 Nobel Prize in Chemistry

9 Dr. Y. Sakamoto "Looking into the Nano World! "Microscopic world unveiled by electrons and science of nano-scaled space

10 Dr. C. Kojima"Synthetic Polymers vs. Biopolymers“A chemical viewpoint in organisms which can provide various functional materials

11 Dr. Yan Xu "World on a Chip! "Introduction to micro/nano chemical and biological chips

12 Dr. S. Tokonami "Potential of Metallic Nanoparticles"Nanoparticles can enrich your life

13 Dr. T. Nishino"Science of Single Molecules: Visualizing an Invisible World”Direct observation and manipulation of a single atom/molecule

14Dr. H. HorinakaDr. M. Matsuoka

Initiative of NanoSquare Program

15Dr. Y. KubotaTT lecturers

Invitation to NanoSquare Research Center

Schedule

Lecturers: Prof. T. Ishida, Prof. H. Horinaka, Prof. M. Adachi, Prof. M. Matsuoka, Prof. Y. Kubota

G u e s tSpeakers:

TT lecturers: Dr. Hayashi, Dr. Togawa, Dr. Nishino, Dr. Kojima, Dr. SakamotoDr. Takahashi, Dr. Iida, Dr. Kosuga, Dr. Makiura, Dr. Tokonami, Dr. Xu, Dr. Yagi

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For 3rd-year Every Tuesday, 5th class Omnibus lecture Undergraduates in the 2nd semester 15 weeks

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…Nano Physics …Nanomaterials …Nano MeasurementMSMTPH

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MEXT- Special Coordination Funds for Promoting Science and Technology Program

“Leading University as a Base for Human Resource Development

in Nanoscience and Nanotechnology”

http://www.nanosq.21c.osakafu-u.ac.jp/en/

e-mail: NanoSquare <at>21c.osakafu-u.ac.jp

Date post:	25-Jun-2020
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Welcome to Tenure Track Laboratories · 2 Analysis of the electron scattering theory of quantum...

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