MESSAGE FROM THE DIRECTORThis year’s Annual Symposium is organized by our Thermal Science and Engineering Division.
Our focus is to address efficiency in power generation, energy production and storage, andenergy utilization. It is well known that one of the objectives of our Institute is that, through our
scenarios, we develop energy solutions that aim to reduce CO2 emissions by 70% from the 1990
levels by the year 2050. A key technology strategy toward achieving our goal is to increase
efficiency in both energy generation and utilization, and it is precisely the target that this year’s
symposium will aim to review. From this discussion, we hope to establish a more concerted
pathway for our research efforts.
In particular, this year we wish to: assess our efforts toward improved and smart conversion ofwaste heat, consider the use of nanomaterials and metal‐organic frameworks for efficient heatpump cycles, explore next generation working fluids and their thermophysical properties, anddiscuss the subject of nanoscale transport and heat transfer mechanisms.
Lastly, through discussion and debate we aim to review the efficacy of I2CNER’s research
portfolio regarding the energy technologies we are aiming to enable as well as the associatedCO2 emission reductions.
I would like to take this opportunity to express, on behalf of all faculty, researchers, andadministrative staff of I2CNER, our sincere appreciation to all who have supported the Instituteand contributed to its progress. It is my great hope that we engage each other in active
discourse, find and establish new research connections, and leave with a renewed excitement
and appreciation for scientific discovery.

Petros Sofronis
Director, I2CNER

1

I N T E R NA T IO N A L I NS T I T UT E F O R C A R B O N -N E U T RA L E N E R G Y R E S E A R C H

2018 I2CNER ANNUAL SYMPOSIUM:
CHALLENGES IN THERMAL SCIENCE AND ENGINEERINGTOWARDS A SUSTAINABLE SOCIETY
I2CNER Hall
Ito Campus
Kyushu University

WEDNESDAY, JANUARY 31, 2018
9:30 AM

Opening Remarks
Prof. Masato Wakayama, Executive Vice President, Kyushu University (5 min)Dr. Akira Ukawa, WPI Program Director, Japan Society for the Promotion of
Science (5 min)Mr. Ross Matzkin‐Bridger, Energy Attaché, U.S. Embassy Tokyo, and Director, U.S.
Department of Energy’s Japan Office (5 min)Prof. Petros Sofronis, Director, International Institute for Carbon‐Neutral Energy
Research (I2CNER) (5 min)Prof. Bidyut Baran Saha, I2CNER, Kyushu University (10 min)

10:00 AM

Keynote Lecture
Thermal Waste Heat Utilization for Achieving Super Smart
Community
Prof. Takao Kashiwagi
International Research Center of Advanced Energy Systems for Sustainability,
Tokyo Institute of Technology

10:50 AM

COFFEE BREAK

11:10 AM

Invited Lecture

Water Adsorption on Various MOFs for Next Generation Cooling
Applications
Prof. Anutosh Chakraborty
School of Mechanical and Aerospace Engineering,
Nanyang Technological University2

11:40 AM

Invited Lecture

Using Carbon Dioxide in Efficient Energy Conversion Systems as
the Way to Carbon‐Neutral SocietyProf. Pega Hrnjak
Air Conditioning and Refrigeration Center/Department of Mechanical Science andEngineering, University of Illinois at Urbana‐Champaign

12:10 PMGROUP PHOTO SESSION

12:20 PMLUNCH & POSTER SESSION

1:10 PM

Keynote Lecture
Different Regimes of Pool BoilingProf. Gautam Biswas
Indian Institute of Technology Guwahati

2:00 PM

Renewable Energy and the Minerals Industry: Focus on Thermal
Energy Applications
Benjamin McLellan
Graduate School of Energy Science, Kyoto University

2:30 PM

Thermophysical Measurement Methods for Individual
Nanomaterials and Control of Nanoscale Thermal Transport
Prof. Koji Takahashi
I2CNER, Kyushu University

3:00 PM

Potential of an Ambient Air for Energy Saving Technologies
through the Maisotsenko Cycle
Prof. Takahiko Miyazaki
I2CNER, Kyushu University

3:30 PM

Invited Lecture

Efficient Electricity Generation Cycles Driven by Low Grade Heat
Prof. Liwei Wang
Institute of Refrigeration and Cryogenics, Shanghai Jiao Tong University

4:00 PM

COFFEE BREAK

4:20 PM

Invited Lecture

Low Global Warming Potential Working Fluids
Prof. J. Steven Brown
School of Engineering, The Catholic University of America

4:50 PM

Thermodynamic Property Measurements of Low‐GWP
Refrigerant Mixtures
Prof. Yukihiro Higashi

3

I2CNER, Kyushu University

5:20 PM

Thermophysical Property Measurements of High‐Pressure
Hydrogen up to 100 MPa and Applications of the Database to
Design for Hydrogen Infrastructure
Prof. Naoya Sakoda
I2CNER, Kyushu University

5:50 PM

Effects of Condensate Flow and Thickness on Heat Transfer ofFilm‐wise Condensation
Prof. Akio Miyara
Department of Mechanical Engineering, Saga University/ I2CNER, Kyushu University

6:20 PM

Closing Remarks
Prof. Yasuyuki Takata, Associate Director, I2CNER, Kyushu University

6:30 PM

RECEPTION
Venue: I2CNER Lounge

4

2018 I2CNER Annual Symposium

Abstracts

Thermal Waste Heat Utilization for Achieving Super Smart Community
Takao Kashiwagi
Distinguished Professor/Emeritus Professor
Director, International Research Center of Advanced Energy Systems for Sustainability,
Tokyo Institute of Technology
Paris agreement has made a great impact on the existing energy and environment systems. In the year
2050, oil will be restricted to transportation sector and chemical usages whilst fuel cells andrenewable energy technologies start realizing their full commercialization potential. On the other
hand, residential sector can be synergistically synchronized with the transport sector, thus, zeroenergy and low-carbon emission housing will be realized in major parts of the world. Still in Japan, theGreat East Japan Earthquake followed by the nuclear plant accidents in March, 2011, has huge impact
on the Japan’s energy systems. Therefore, it is imperative to develop and demonstrate new energy
technologies including waste heat utilization as well as system applications, and propose a granddesign and energy policy plan.
Taking full consideration of these matters and forward guidance, Japanese government undertakes
the creation of advanced energy systems for sustainability. In order to contribute to environmental
protection and energy security, future energy systems should introduce not only a large amount of
renewable but also the development of innovative technologies such as higher utilization of waste
thermal energy in smart energy network systems based on existing base load power stations. This
presentation examines the recent advances of Japanese thermal energy policy focusing on the
integrated thermal infrastructure. Smart society will be built around three key features: integrated
mega-structure, renewable power production, and mobile energy storage with rapid charging. Figure
1 shows such smart society where the residential buildings are interconnected with micro-gridfeatures. Power generation fully employs renewable energy potential whilst electric and plug-in
hybrid vehicles will be employed for transportation as well as mobile energy storage and carriers by
exploiting rapid charging facilities.

Figure 1: Renewable energies, electric vehicles, and plug-in hybrid vehicles in residential communities.

7

Water Adsorption on Various MOFs for Next Generation Cooling
Applications
Anutosh Chakraborty, How Wei Benjamin Teo, and Sibnath Kayal
School of Mechanical and Aerospace Engineering, Nanyang Technological University
The knowledge of water uptakes on metal organic frameworks (MOFs) under static and dynamic
conditions are necessary for understanding adsorption isotherms and kinetics, which enables us todesign thermal compressor for adsorption assisted heat transmission applications such as adsorption
cooling and desalination. In this article, we report an experimental study to calculate the amount ofwater uptakes on MOFs for the temperatures ranging from 25°C to 65°C and pressures up to thesaturated conditions. We use gravimetric method to calculate water uptakes. Hence various types of
MOFs (types MIL-101(cr), alkali doped MIL-101 (Cr), CAU-10, Al-Fum with various formic acid andzeolite doped Al-Fum) are investigated using a surface characteristic analyzer, which employs thestatic volumetric method with liquid Nitrogen at 77.4 K as the filing fluid. The surface area of eachadsorbent is studied using Brunauer–Emmett–Teller (BET) method whilst the pore size distribution(PSD) analysis is conducted with the Non-Local Density Functional Theory (NLDFT). The experimentallymeasured isotherms and kinetics data are fitted with various models. The synthesis procedures of
MOFs are also presented here.
Figure 1 shows the SEM (Scanning Electro-Microscopy) diagram for the Al-Fum samples. The originalsynthesis has shown a strong agglomeration between the particles of the samples. By adding formic
acid, the particles of Al-Fum has shown less agglomeration with more individual, quadarhedral
shaped, nano-sized particles. The effect is stronger with higher dosage of formic acid added. Thiseffect is known as the modulation of MOF structure due to the addition of formic acid. Based on themodulated Al-Fum, the particle is approximately 1 nm.

(a)

(b)

(c)

(d)

Figure 1: SEM of Al-Fum (a) and modulated Al-Fum samples with formic acid of (b) 5ml, (c) 10ml and(d) 15ml added. Modulated samples show less agglomeration of particles due to the addition of
formic acid.

8

Using Carbon Dioxide in Efficient Energy Conversion Systems
as the Way to Carbon-Neutral Society
Pega Hrnjak
ACRC, Department of Mechanical Science and Engineering,
the University of Illinois at Urbana-Champaign
One of the ways to reduce quantity of carbon dioxide in the atmosphere is to use it in the energy
conversion systems instead of high GWP fluids used in vapor compression cycles. Even being relatively
small in mass, combined with high GWP value of currently used refrigerants and excellent systemefficiency overall effects is significant.
The paper will present major differences between cycles and systems using two types of working
fluids, with examples of options to increase the efficiency of transcritical carbon dioxide systems. The
presentation will also show the level of efficiencies reached and trends in current applications.

Figure 1: Trans critical CO2 system with ejector and internal heat exchanger.
(Elbel, S.W., Hrnjak, P.S., 2004. Int. Refrigeration A/C Conf., no.708.)9Different Regimes of Pool Boiling
Gautam Biswas, Vinod Pandey, and Amaresh Dalal
Indian Institute of Technology
Boiling is an intricate phenomenon exhibiting various regimes from bubble generation over thesurface during nucleate boiling to bubble generation through a vapor film during film boiling. In thepresent study, we incorporated a numerical technique (CLSVOF) to simulate the bubble generation,
growth and its departure during pool boiling. In the film boiling regime, the bubble growth isgoverned by the instabilities at the liquid-vapor interface. The instability mode transforms from
Rayleigh-Taylor at the low wall-superheat temperature to Taylor-Helmholtz at the higher superheat
values, governing the bubble-separation distance. The bubble morphology varies from discrete
bubbles at low superheat to vapor columns at the higher superheat values. The heat transfer rateduring film boiling therefore depends on the degree of superheat. The application of electric field
across the interface intensifies the bubble growth rate, reducing the critical wavelength andenhancing the heat transfer rate. A threshold intensity of applied electric field is required to achieve asignificant effect in bubble morphology and heat transfer rate. In the reduced gravity condition, theelectrohydrodynamic forces are the dominant reason for the instability at the interface. Hence, theelectric field can be utilized to acquire the same heat transfer rate during boiling as in the earth’s
condition. The vapor generation rate can also be controlled.
When the wettability of the solid surface is considered during film boiling, the vapor film ruptures forthe high wettability surfaces leading to the transition from the film boiling to nucleate boiling regime.
For the low wettability surface where the liquid-solid contact does not occur, the application ofelectric field is found to result in increased vapor generation rate and eventually the transition to
nucleate boiling.
Unlike to the bubble growth in film boiling where the heat transfer occurs solely from the heatedsurface to the vapor film, in nucleate boiling the growth of bubble is due to the combined effect ofheat transfer from superheated liquid and microlayer evaporation. Through the numericalsimulations, the effect of surface superheat on the growth rate and heat transfer is analyzed. The
effect of liquid subcooling on the bubble growth and after its departure is also studied.

(a)

(b)

(c)

Figure 1: (a) Effect of EHD and buoyancy during film boiling (b) Growth of a single bubble during
nucleate boiling and (c) transition due to surface wettability (top = ψ = 30°,bottom= ψ = 120°) .

10

Renewable Energy and the Minerals Industry:
Focus on Thermal Energy Applications
Benjamin C. McLellan
Graduate School of Energy Science, Kyoto University
The minerals industry is a vital sector globally, underpinning much of the technology that is both
fundamental for modern society’s operations and also for the clean energy technologies that are key
for future decarbonisation. While the industry contributes significantly to the energy sector, it also
requires a significant proportion of the world’s energy to produce minerals, and subsequently
produces a significant amount of greenhouse gas emissions from the current carbon-based energy
system. One of the limiting elements of lowering emissions in this sector, is the requirement for highquantity and high quality electricity, fuel and heat. Most renewable energy technologies are focusedon the provision of electricity as a key to decarbonisation of the energy system. However, theprovision of thermal energy is also possible from technologies such as geothermal, concentrating solar
power and biomass, or from the transformation of electricity into hydrogen or synfuels. Figure 1
shows that the amount of renewable energy utilised in the minerals subsectors is significantly lower
than the average of all economic sectors, globally. At the same time, the amount of electricity used isdifferentiated across the sectors. This study explores the potential and limitations of renewableenergy in the minerals sector, specifically thermal applications across the supply chain of minerals.

Figure 1: Renewable energy usage (left); and Electricity usage as a percentage of total final energy
consumption in the minerals industry subsectors compared to all economic sectors

11Thermophysical Measurement Methods for Individual
Nanomaterials and Control of Nanoscale Thermal Transport
Koji Takahashi1,2, Qin-Yi Li1,2, and Xing Zhang1,3
1International Institute for Carbon-Neutral Energy Research (WPI-I²CNER), Kyushu University
2
Faculty of Engineering, Kyushu University
3
Department of Engineering Mechanics, Tsinghua University

Low-dimensional nanomaterials have attracted worldwide attention due to their promising
applications in next-generation electronics and energy harvesting devices. Accurate measurement andprecise control of nanoscale thermal transport are of crucial importance for both device development
and fundamental research. In this talk, I will introduce our recent progress on the development ofthermal measurement methods for individual nanomaterials and control of nanoscale thermaltransport. Above all, I will present both contact and non-contact nanoscale thermal measurement
methods, including a T-type method for comprehensively measuring the thermal and thermoelectric
properties of individual nanomaterials and a dual-mode Raman optothermal method for in-situ
measuring the thermal properties of suspended and device-geometry nanomaterials. In the second
part of my talk, I will present how to experimentally tune the thermal as well as thermoelectric
properties of carbon nanomaterials through shape control, defect engineering and chemical
modification. For example, we realized length control on the thermal transport in individual singlewalled carbon nanotubes, indicating ballistic-to-diffusive crossover in one-dimensional thermaltransport. Significant width dependence of thermal transport have been observed in suspended
graphene ribbons over a width range between ~40nm to ~2μm, indicating 2D nature of phonontransport in this ultrathin carbon sheet. Through unsymmetrical shape control, we have realized
remarkable 2D thermal rectification in suspended graphene sheets. Through defect engineering via
focused ion beams, thermal conductivity of suspended graphene has been effectively reduced by~40%. Through fluorination in graphene, thermal conductivity in this chemically modified 2D sheet
was reduced by 95%. Furthermore, through bromine doping in graphene fibers, we have obtained
record high thermoelectric performance in carbon nanomaterials.

Figure 2: Dual-mode Raman optothermal
method and its application in measuring
thermophysical properties of suspended
and supported graphene

Figure 1: T-type method and its application inmeasuring thermal and thermoelectric
properties of an individual graphene fiber

12

Potential of an Ambient Air for Energy Saving Technologies throughthe Maisotsenko Cycle
Takahiko Miyazaki1,2 and Valeriy S. Maisotsenko3
1

Faculty of Engineering Sciences, Kyushu University
International Institute for Carbon-Neutral Energy Research (WPI-I²CNER), Kyushu University
3
Seeley International Americas, Coolerado

2

The air has a large capacity to hold water in the vapor phase and the air holding water vapor is called
the wet air. In general atmosphere contains 1 to 3 % of water vapor, which means that 1 kg of dry air
can hold up to 20 g of water vapor at ambient temperature of 25 degree Celsius, for instance. This
amount of water is equivalent to 50 kJ of thermal energy. Therefore, 1 kg of dry air has a capacity ofholding 50 kJ as a latent heat. Moreover, the capacity is boosted with temperature rise; for example,
at 40 degree Celsius, 1 kg of dry air can hold 50 g of water, which is equivalent to 125 kJ of thermalenergy.
The Maisotsenko Cycle (M-Cycle) is a thermodynamic concept to fully utilize the potential of wet air
for heat and mass transfer processes. The M-Cycle is a proven technology and it is used for efficientevaporative coolers. One of the most major advantages of the M-Cycle is the enhancement of thecooling capacity by lowering the minimum temperature from the wet-bulb, which is the case of
conventional evaporative cooling processes, to the dew point. It is a significant improvement from theviewpoint of energy savings because thermodynamic cycles, for both heat engines and heat pumps,
improve the thermal efficiency and coefficient of performance with lower heat sink temperature,even if it is a few degrees of difference.
Possibility of the M-Cycle application to a various kinds of energy related technologies, such as heatengine, heat pump, and air conditioning will be given in the presentation. The integration of the
M-Cycle concept with adsorption technology will be also discussed and a predicted result of heat andmass transfer in a M-Cycle process with adsorbent will be shown.

Figure 1: The temperature profiles of air passing through a dry channel and a wet cannel (adsorbent
channel) of the M-Cycle with adsorbent.

13Efficient Electricity Generation Cycles Driven by Low Grade Heat
Liwei Wang
Institute of Refrigeration and Cryogenics, Key Laboratory for Power Machinery and Engineering of
M.O.E, Shanghai Jiao Tong University
The electricity generation cycle driven by low grade thermal energy form industries waste heat or
solar energy is an efficient way for energy utilization. But the efficiency for small-scale electricity
generation systems, which is commonly for the dispersed waste heat or solar energy recovery, isalways very small. In order to improve the efficiency of such systems, three types of energy
conversion cycles adapting different temperature ranges are studied and analyzed. Results show thatcycles using ammonia-water and resorption working pairs are the best choices for the temperature
range between 150oC and 250oC. Ammonia-water power cycles using a distillation stage and thermaltank for driving the fluid are proposed. The study showed the cycle can produce 6%-10% more power
than the reference Kalina cycles. The heat exchanger with small diameter pipes is also proposed,
which decreases the volume of system by 40%. The study of the resorption cogeneration cycle
showed that the power generation of the cycle is slightly lower than the Goswami cycle, but therefrigeration performance of the cycle improves greatly. For the low grade heat of 80~150oC the
Organic Rankine Cycle (ORC) is more efficient than ammonia-water and resorption cycle. The
pumpless ORC is developed for small-scale electricity generating systems. Compared with theconventional ORC, whose efficiency is generally zero or negative when the electricity output is lessthan 500 W, the net electricity generation efficiency of pumpless ORC is can reach up to 3% whenelectricity output is around 300 W. The cascading cycle of ammonia-water and pumpless ORC isanalyzed, and the energy utilization efficiency could be improved over 15% compared with the single
stage cycles.
(a)

(b)

(c)

Figure 1: Electricity generation cycles. (a) ammonia-water cycle without electricity driven pump;(b) pumpless ORC; (c) resorption cogeneration cycle

14Low Global Warming Potential Working Fluids
J. Steven Brown
Department of Mechanical Engineering
The Catholic University of America
From the 1930s into the 1970s, halocarbon refrigerants were increasingly used in large quantities in alarge number of applications (from air conditioning and refrigeration applications to solvents,
propellants, foam blowing agents, fire suppressants, inter alia) because by selectively substituting thehydrogens of simple unsaturated hydrocarbons primarily with chlorine, fluorine, and bromine one
could “design” the “optimal” refrigerant to satisfy the previously mentioned criteria. However, thiscontinual, unchecked march forward with halocarbon refrigerants faltered in the 1980s following theidentification in the early 1970s that the chlorine and bromine contained in many of these halocarbon
working fluids acted as catalysts to continuously breakdown stratospheric ozone. This recognition led
to a number of these refrigerants being regulated by the Montreal Protocol (1987) beginning as early
as 1989 in some cases, with chlorine and bromine containing ones being replaced primarily withsaturated hydrofluorocarbons (HFCs). Soon after the widespread ramp up in the use of HFCs, theinternational community began to move toward the regulation of HFCs since many of them possesslarge global warming potentials (GWP).
The first agreement aiming to regulate HFCs was the Kyoto Protocol (1997) with the most recent one
being the Kigali Amendments (2016) to the Montreal Protocol, which dictates a phase-down in the
production and use of HFCs. In addition to regulatory actions, society at large is increasingly
recognizing that many of these saturated halocarbon working fluids are potent greenhouse gases
possessing unacceptably large GWP values. Therefore, more alternative “environmentally-friendly”
working fluids must be identified and commercialized to adhere to regulations, serve society, and toslow the process of global climate change. This goal is the aim of my current research, which is
directed toward the identification of and characterization of alternative, low-GWP working fluids for awide-range of heating, ventilating, air conditioning, and refrigeration (HVAC&R) and organic Rankine
cycle (ORC) applications.
This presentation summarizes some of our recent work and unfolds in two parts. (1) A brief review ofsome thermodynamic property measurements for several unsaturated halocarbon refrigerants. (2) A
brief summary of a large screening and simulation study undertaken to identify potential alternativerefrigerants for several HVAC&R applications.

International Journal of Refrigeration, 38: 71-79.

ASHRAE Journal, 51(8): 22-29.

15

Thermodynamic Property Measurements of
Low-GWP Refrigerant Mixtures
Yukihiro Higashi
Research Center for Next Generation Refrigerant Properties (NEXT-RP)
International Institute for Carbon-Neutral Energy Research (WPI-I2CNER), Kyushu University
The depletion of ozone layer has been recognized as a serious challenging issue since the 1970s, andthe production of CFCs (chlorofluorocarbons) and HCFCs (hydrochlorofluorocarbons) has been
regulated by the Montreal Protocol since 1987. Moreover the global warming effect on the earth
becomes more serious. Recently not only CFCs and HCFCs but also HFCs (hydrofluorocarbons), which
was the alternatives of CFCs and HCFCs, have been added as the target of the refrigerant regulation by
the Paris Agreement of a review of the Kyoto Protocol. Specific targets for a phase down of the HFCs
were agreed at the 28th Meeting of the Parties (MOP28) to the Montreal Protocol (known as the Kigali
Amendments). As a candidate for next generation refrigerants instead of HFCs, HFO(hydrofluoroorefin) refrigerants with a carbon-carbon double bond in the chemical formula are
expected as the refrigerants with the low ozone depletion potential (ODP) and the low global
warming potential (GWP).
Many HFOs and their mixtures have been proposed over the last decade. There is a strong
expectation for refrigerant mixtures because they have a huge possibility to be able to produce manykinds of combination. Especially, our NEXT-RP (Research Center for Next Generation Refrigerant
Properties) is paying attention to the refrigerant mixtures to be the four kinds of HFO component
materials, HFO-1234yf, HFO-1234ze(E), HFO-1123, and HFC-32, summarized in Figure 1(a). In order todevelop and design new air-conditioners and heat pumps, basic thermodynamic-properties of new
refrigerant mixtures as shown in Figure 1(b) is indispensable. In this talk, the trend of the next
generation refrigerant mixtures and the research of accurate thermodynamic property measurements
at the present stage will be introduced. Moreover, I would like to talk about the relationship between
the research of new refrigerants and global environmental issues including the CO2 reduction andenergy problem.

Figure 1(a): Possible combination for
low-GWP refrigerants mixtures.

Figure 1(b): Experimental saturated density forbinary HFO1123 + HFC32 mixture

16Thermophysical Property Measurements of High-Pressure Hydrogenup to 100 MPa and Applications of the Database to Design for
Hydrogen Infrastructure
Naoya Sakoda1, 2, 3, Taichi Kuroki3, Kan’ei Shinzato3, and Yasuyuki Takata1, 2, 3
1Faculty of Engineering, Kyushu University
International Institute for Carbon-Neutral Energy Research (WPI-I2CNER), Kyushu University
3
Research Center for Hydrogen Industrial Use and Storage (HYDROGENIUS), Kyushu University
2

Hydrogen is expected to be a next-generation clean energy carrier, and fuel cell vehicles (FCVs) andhydrogen refueling stations (HRSs) are promising technologies in the hydrogen society. Accurate
thermophysical properties of hydrogen are essential for efficient design of the FCVs and HRSs, but few
reliable experimental data of hydrogen were available at a high-temperature and high-pressure region.
In this study, thermophysical properties of hydrogen; PVT property, viscosity, and thermal conductivity
were measured at temperatures and pressures up to 773 K and 100 MPa, respectively. An equation ofstate and correlations for hydrogen were formulated based on the experimental data, and athermophysical properties database compiling them was developed. For the demand of precoolinghydrogen at the HRSs, thermal conductivity and viscosity have been measured at low temperatures
down to 233 K. Figure 1 shows the experimental apparatus of the thermal conductivity measurementwith a transient short-hot-wire method and a measured temperature rise of a sample of hydrogen byheating the platinum wire of the probe in the pressure vessel. The present database easily calculates thethermophysical properties of hydrogen at arbitrary conditions, and it is applied to a HRS dynamic
simulation, which enables to estimate the change in the temperatures and pressures of hydrogenflowing the devices such as accumulators, valves, tubes, and a pre-cooler consist of the HRS and a FCV
container.

Temperature rise [K]HydrogenPlatinum wire：(diameter 10 mm,
length 10 mm)

Measured data
Calculated data
1

0.5
Temperature: 243 K
Pressure: 99 MPa
0

10-3

10-2
10-1
Time [sec]100

Figure 1: Thermal conductivity measurement apparatus and a measured temperature rise of a sample ofhydrogen at 243 K and 99 MPa by heating the platinum wire.

17Effects of Condensate Flow and Thickness
on Heat Transfer of Film‐wise Condensation
Akio Miyara
Department of Mechanical Engineering, Saga University
Research Center for Next Generation Refrigerant Properties (NEXT‐RP),International Institute for Carbon‐Neutral Energy Research (WPI‐I2CNER), Kyushu University

Condensation heat transfer seems to be well known because Nusselt theory and other theories
developed decades ago can be explained its mechanism in many cases of film‐wise condensation
analytically. However, some unknowns are remained in wavy and turbulent film regions. As shown infigure 1, small noise in the laminar smooth condensate film develops according to the instability of thephenomena. Amplitude of the most unstable waves is developed to large waves and enhances the heattransfer by means of thinning and convecting the film. The circulation flow appears in the large wave
and capillary waves are generated in front of the large wave. In the downstream, the waves collapse andthe wavy film change to the turbulent film.
Additionally, there are variety of application fields of film‐wise condensation and heat transfer
enhancement technology should be developed. In case of condensation in a horizontal tube, heattransfer is dominated by thinner arear of condensate film flow. The thin film is formed on upper part forsmooth tube, very thin film is formed on fin edge for spiral microfin tube, and the very thin film
becomes thinner by drainage effect of herringbone microfin tube. Condensation in plate heat exchanger
is very complex. Two phase flow observation and local heat transfer measurement are explained. The
heat transfer coefficient is vary along flow direction and cross direction to the flow. Condensation ofvapor mixture is explained by using experimental data and physical model. Heat transfer enhancement
for condensation of vapor mixture has not been developed yet.

Figure 1: Wave development and flow in the wavy film

18

I2CNER International Workshops
February 2, 2018

I N T E R NA T I O N A L I NS T I T U T E F O R C A R B O N -N E U T R A L E N E R G Y R E S E A R C H‐HIGHLY EFFICIENT ENERGY CONVERSION MATERIALS‐
I2CNER INTERNATIONAL WORKSHOP

MOLECULAR PHOTOCONVERSION DEVICES DIVISION& ELECTROCHEMICAL ENERGY CONVERSION DIVISION

DATE: FRIDAY, FEBRUARY 2, 2018
TIME: 8:50 AM‐ 5:30 PM
VENUE: I2CNER HALL B
Time

Speaker

Affiliation

8:50‐9:00

Prof. John A.
Kilner

9:00‐10:00

Prof. Ugur
Pasaogullari

Imperial College
LondonCenter for Clean
Energy Engineering(C2E2), University ofConnecticut
University of New
South Wales(UNSW)
Forschungszentrum
Jülich

10:00‐10:30
10:30‐11:00

Prof. Kondo‐
Francois Aguey‐
ZinsouDr. Mariya
Ivanova

11:00‐11:30

Dr. Wilhelm A.
Meulenberg

11:30‐11:50

Prof. Thomas
LippertTitle

Hydride materials for hydrogenstorage and CO2 catalysis
Hydrogen separation Membranes

LunchProf. Colin
AtkinsonProf. Taner
Akbay

Imperial College
LondonACE2, Kyushu
University

1:40‐2:00

Dr. Vincent
Thoréton

I2CNER, Kyushu
University

2:00‐2:20

Dr. Kwati Leonard

I2CNER, Kyushu
University

1:20‐1:40

Introduction of C2E2 activity andadvanced analysis of PEFC

Ceramic Gas Separation
Forschungszentrum Membranes – From
JülichMicrostructural Aspects to
Application
Paul Scherrer
Thin films by Pulsed Laser
Institut (PSI)
Deposition

11:50‐1:00
1:00‐1:20

Opening remarks

21

Mathematical Methods for Solving
Tracer Diffusion Equations
Back‐exchange Tracer Diffusion
Problem
How steam and CO2 influence theoxygen transport kinetics of IT‐
SOFC cathodes
Application of Proton conductor
for steam electrolysis

2:20‐2:40

Dr. Nuttavut
Kosem

I2CNER, Kyushu
University

2:40‐3:00

Prof. Songmei
Sun

I2CNER, Kyushu
University

3:00‐3:20

Dr. Gabseok Seo

I2CNER, Kyushu
University

3:20‐3:40

Hydrogen evolution from waterusing GaN:ZnO coupled tohydrogenase‐producing Escherichia
coli
Inorganic Photocatalyst for CO2
conversion
Understanding the performance
limitation factors; Deep leveltrapped defect in perovskite solar
cells

Coffee breakHigh performance fromextraordinarily thick organic light‐
emitting diodes
Halloysite nanotubes based hybrid
coating with bothsuperhydrophobic andsuperoleophobic properties
Molecular‐Based
Photoelectrochemical Cells for
Visible‐Light‐Driven Hydrogen
Production from Water
Anchor effect of dye in dye‐sensitized photocatalytic water
splitting for effective hydrogenproduction reaction

3:40‐4:00

Prof. Toshinori
Matsushima

I2CNER, Kyushu
University

4:00‐4:20

Dr. Wei Ma

I2CNER, Kyushu
University

4:20‐4:40

Prof. Hironobu
Ozawa

Faculty of Science,
Kyushu University

4:40‐5:00

Prof. Motonori
Watanabe

I2CNER, Kyushu
University

5:00‐5:20

Prof. Aleksandar
Staykov

I2CNER, Kyushu
University

Oxygen Reduction Reaction on
Carbon‐coated Iron Nanoparticles

5:20‐5:30

Prof. Tatsumi
Ishihara

I2CNER, Kyushu
University

Closing remarks

22

I NTE R N A T I ON A L I N S T I T U TE F O R C A R B O N -N E U TR A L E NE R G Y R E S E A R CH

- HYDROGEN-MATERIALS INTERACTIONS -HYDROGENIUS, I2CNER & HYDROMATE JOINT RESEARCH SYMPOSIUM
I2CNER HYDROGEN MATERIALS COMPATIBILITY DIVISION,HYDROGENIUS FATIGUE AND FRACTURE DIVISION,& HYDROMATEDATE: FRIDAY, FEBRUARY 2, 2018
TIME: 9:20 AM-5:20 PM
VENUE: LECTURE ROOM, 3F, SHIIKI HALL
Time

Speaker

Affiliation

9:20-9:30

Prof. Hisao Matsunaga

Kyushu University

Opening Remarks

Dr. Brian SomerdaySouthwest
Research InstituteChair

9:30-10:00

10:00-10:30

10:30-11:00

Prof. Eiji Akiyama

Prof. Abdelali Oudriss

Prof. Ryusuke
Matsumoto

Title

Invited Talk
Electrochemical hydrogen permeation tests
Tohoku University
to study hydrogen embrittlement
Invited Talk
Some advances on the implication of
crystalline defects on hydrogen diffusion
and trapping mechanisms in fcc materials :Experimental and modelling approaches

University of
La Rochelle

Kyoto University

11:00-11:20

Invited Talk
Atomistic Study of Hydrogen Effects on
Stability and Mobility of Vacancy and
Vacancy-Clusters

BreakProf. Junichiro Yamabe

HYDROGENIUS,
Kyushu University Chair& HydroMate, AIST23

11:20-11:50

11:50‐12:20

Prof. Shuai Wang

Prof. Bai An

Invited Talk
Collective dislocation behavior in thepresence of hydrogen

University of
Wisconsin

Invited Talk
Application of SPM-related nanotechnology
in hydrogen embrittlement studies

AIST

12:20-1:20

Lunch

1:20-2:20

Poster Session
Prof. Arnaud Macadre

I2CNER,
Kyushu University

2:20-2:50

Prof. Michal
Lewandowski

TWI

2:50-3:20

Prof. Masanobu Kubota

I2CNER, Kyushu
University

3:20-3:50

Prof. James Burns

University ofVirginia

3:50-4:10

Chair
Invited Talk
Influence of high-pressure hydrogen
atmospheres on mechanical performance ofaustenitic stainless steels at low
temperatures
Invited Talk
Effect of impurities added to hydrogenenvironment on fracture toughness of CrMo steels with different strength levels
Invited Talk
The effect of microstructure on thehydrogen environment assisted cracking
susceptibility of a precipitation hardened
Ni-Cu alloy

Break
Dr. Akihide Nagao

JFE Steel

4:10-4:40

Mr. Yuhei Ogawa

Kyushu University

4:40-5:10

Prof. Osamu Takakuwa

HYDROGENIUS,
Kyushu University

5:10-5:20

Dr. Brian SomerdaySouthwest
Research Institute

24

Chair
Invited Talk
Interpretation of hydrogen-assisted fatigue
crack propagation in a pure BCC iron basedon crack tip plasticity evolution
Invited Talk
Compatibility of Type 304 stainless steel tohigh-pressure hydrogen gas
Closing Remarks

I NTE R N A T I ON A L I N S T I T U TE F O R C A R B O N -N E U TR A L E NE R G Y R E S E A R CH

-VARIOUS ASPECTS OF HYDROGEN-RELATED PROCESSES AT
TRIBO-INTERFACES2018 HYDROGENIUS and I2CNER Tribology Symposium
I2CNER HYDROGEN MATERIALS COMPATIBILITY DIVISION& HYDROGENIUS TRIBOLOGY DIVISION

DATE: FRIDAY, FEBRUARY 2, 2018
TIME: 10:00 AM-6:00 PM
VENUE: LECTURE ROOM, 3F, SHIIKI HALL
Time

Speaker

Affiliation

10:00-10:05

Joichi Sugimura

Kyushu University

Title
Opening Remarks

10:05-11:55 Session 1
Chairperson: Yoshinori Sawae, Kyushu University

10:05-10:45

Géraldine Theiler

10:45-11:10

Naofumi Kanei

11:10-11:35

Go Tatsumi1, Yuji
Shitara1, PengYao2, Toshiaki
Wakabayashi2

BAM, Germany

Kobe Steel, Ltd.

1 JXTG Nippon Oil &Energy Corporation,
2 Kagawa University

Vlad B. Niste,
11:35-11:55

Hiroyoshi Tanaka,

Kyushu University

Joichi Sugimura
25

Keynote Lecture
Tribology of Polymers Materials in Cryogenic
Hydrogen and Methane
Invited Talk
Technological trends of high pressure hydrogencompressor - Approach of KOBELCO Group Invited Talk
Influences of sulfur-containing additives on
grease decomposition and hydrogen generation
by nascent metal surface
Invited Talk
Inhibiting hydrogen permeation in bearing steel
by controlling tribofilm growth in the contact

11:55-12:50 Lunch
12:50-2:45 Session 2
Chairperson: Kanao Fukuda, Universiti Teknologi Malaysia

12:50-1:30

1:30-1:55

1:55-2:20

2:20-2:45

Ali Erdemir

Shinya Sasaki,
Hiharu Okubo

Yusuke Ootani

Satoru Maegawa

Argonne National
Laboratory, USA

Tokyo University of
Science, Japan

Tohoku University,Japan

Tottori University,Japan

2:45-3:00

Keynote Lecture
The role of hydrogen in carbon tribology: A
mechanistic overview
Invited Talk
Super-low friction mechanism of diamond-likecarbon lubricated with an environmentallyfriendly ester based oil
Invited Talk
Tribochemical wear of silicon-based materials
mediated by proton transfer: Molecular
dynamics sliding simulation analysis
Invited Talk
Visualization of real contact area of rubbermaterials sliding on hard substrates
Break

3:00-4:25 Joint Symposium of Hydrogen Tribology Team and Hydrogen Polymers Team
Chairperson: Dr. Neha RUSTAGI, Fuel Cell Technologies Office, DOE, USA
3:00-3:40

Dr. Kevin Simmons

3:40-4:20

Joichi Sugimura

4:20-4:25

Prof. Shin
Nishimura

Pacific Northwest Invited Talk
National Laboratory, Hydrogen Compatible Polymeric Materials
USA
Kyushu University

Tribology of rubbers in hydrogen
Closing Remarks of Oral Session
Prof. Shin Nishimura, Kyushu University

4:25-4:30

Break

26

4:30-6:00 Poster Session
PT
01

PT
02

PT
03

PT
04

PT
05

PT
06

PT
07

PT
08

Hikaru Okubo,
Shinya Sasaki
Prabakaran
Saravanan, Roman
Selyanchyn,
Hiroyoshi Tanaka,
Joichi Sugimura
Kohei Shirahama1,
Hiroyoshi Tanaka1,
Takeshi Maeda2,
Joichi Sugimura1
Keisuke Manabe,
Hiroyoshi Tanaka,
Joichi Sugimura
Naotoshi Shimizu1,
Yoshinori Sawae2,
Takehiro Morita2,
Shugo Onitsuka2,
Joichi Sugimura2
Reona Umei, Keiji
Sakaki, Takehiro
Morita, Yoshinori
Sawae, Joichi
Sugimura
Yoshinori Sawae,
Eiichi Miyakoshi,
Shunichiro Doi,
Takehiro Morita,
Joichi Sugimura
Shotaro Koizumi1,
Hiroyoshi Tanaka1,
Yuuya Hayashi2,
Naruhiko Inayoshi2,
Joichi Sugimura1

Tokyo University of
Science, Japan

Frequency modulation atomic force microscopy(FM-AFM) observation of adsorbed films on
diamond-like carbon (DLC) surfaces

Kyushu University

Tribology of polyethylenimine / molybdenum
disulphide (PEI/MoS2)15 films in dry
atmospheres

1 Kyushu

Effect of environmental gas on friction andUniversity, 2 Kyocera
wear of various ceramics
Corporation, Japan

Kyushu University

1 IHI Corporation , 2

Kyushu University

Effects of oxygen and water on friction andwear of DLC slid against pure metals

Friction and wear of polymer composites inhydrogen environment at low temperature

Kyushu University

Effect of trace moisture content on low friction
mechanism of carbon fiber filled PTFE in highpurity hydrogen

Kyushu University

Friction and wear of polymer composites in highpressure hydrogen

1 Kyushu University,
2 DENSO

Corporation, JapanPT
09

Daisuke Takekawa1,
Yoji Sunagawa1,
Hiroyoshi Tanaka2

1 Idemitsu Kosan

Co., Ltd., 2 Kyushu

PT
10

Hiromitsu Kakudo,
Satoshi Takada,
Makoto Yoshida

Japan Aerospace
Exploration Agency,
Japan

University

27

Effects of environmental gases on friction andwear of stainless steels

Hydrogen generation from cyclic compounds inrolling contact of steel, Joichi Sugimura2
Japan
Evaluation of new type bearing retainer for
liquid rocket engine turbopumpI NTE R N A T I ON A L I N S T I T U TE F O R C A R B O N -N E U TR A L E NE R G Y R E S E A R CH

- THERMAL ISSUES FOR HYDROGEN AND NEW REFRIGERANTSFOR ENERGY SYSTEMS –HYDROGENIUS AND I2CNER JOINT RESEARCH SYMPOSIUM(I2CNER THERMAL SCIENCE AND ENGINEERING DIVISION& HYDROGENIUS THERMOPHYSICAL PROPERTIES DIVISION)

DATE: FRIDAY, FEBRUARY 2, 2018
TIME: 9:50 AM – 4:55 PM
VENUE: CONFERENCE ROOM, 2F, I2CNER BLDG. 1
TimeSpeaker

Affiliation

9:50-10:00

Yasuyuki Takata

Kyushu University

10:00-10:40

Shalabh C. Maroo

10:40-11:20

Prashant Valluri

11:20-11:40

Askounis Alexandros

11:40-12:00

Daniel Orejon

Title
Opening remarks

Experimental and Molecular Study of
Syracuse University Microlayer in Pool Boiling and Thin-Film
Evaporation
University of
Watching Sessile Droplets Evaporate:
Edinburgh
Beautiful (and Never Boring) Phenomena
Can Ultrathin Water Films Remain Stable
Kyushu University
in Nanoconfinement?
Coalescence-induced Droplet-jumping
Kyushu University Suppression by Microstructures on
Superhydrophobic Surfaces

12:00-1:20

Lunch

1:20-2:00

Emadabathuni
Anil Kumar

2:00-2:40

Khairul Habib

2:40-3:00

Biao Shen

Indian Institute ofTechnology
Tirupati
Universiti
Teknologi Petronas(UTP)
Kyushu University

3:00-3:10

Effective Thermal Conductivity of Metal
Hydride Beds: Measurement, Simulation
and Augmentation
Photo Thermoelectric Air Duct Systems for
Self-Sustainable Buildings
Boiling on Surfaces with Heterogenous
Wettability

Break

28

Kenji Takizawa

National Instituteof Advanced
Industrial Scienceand Technology(AIST)

3:40-4:10

Ryo Akasaka

Kyushu Sangyo
University

4:10-4:30

Yutaku Kita

Kyushu University

4:30-4:50

Taichi Kuroki

Kyushu University

4:50-4:55

Naoya Sakoda

Kyushu University

3:10-3:40

29

Evaluation of Low Flammability for Next
Generation Refrigerants
Current Status and Future Development ofa New Fundamental Equation of State forcis-1,1,1,4,4,4-Hexafluoro-2-butene (R1336mzz(Z))
Drop mobility on Microtextured Surfaces
with Wettability Contrasts
Temperature Rise of Hydrogen Storage
Cylinders by Thermal Radiation from Fireat Hydrogen-Gasoline Hybrid Refueling
Stations
Closing Remarks

I N T E R NA T I O N A L I NS T I T U T E F O R C A R B O N -N E U T R A L E N E R G Y R E S E A R C H‐HYDROGEN ACTIVATION FOR EFFICIENT MATERIALSTRANSFORMATION‐
I2CNER INTERNATIONAL WORKSHOPCATALYTIC MATERIALS TRANSFORMATIONS DIVISION

DATE: FRIDAY, FEBRUARY 2, 2018
TIME: 12:55 PM‐5:15 PM
VENUE: I2CNER HALL A
CO‐SPONSOR: CENTER FOR SMALL MOLECULE ENERGY, KYUSHU UNIVERSITY
Time
12:55‐1:00
1:00‐1:35
1:35‐1:50
1:50‐2:25

Speaker

Affiliation

Prof. Miho
YamauchiProf. Chang Ho
CholProf. Tatsuya
UchidaI2CNER, Kyushu
University

Prof. Kyungsu Na

Chuo University
I2CNER, Kyushu
University
ChonnamNational
University

2:25‐2:40
2:40‐3:15

Title

Prof. Hideaki
Ogata

Hokkaido
University

3:15‐3:30

Dr. Miho Isegawa

I CNER, Kyushu
University

3:30‐4:05

Dr. Takanori
Shima

Riken

4:05‐4:20

4:35‐5:10
5:10‐5:15

Photo‐induced Hydrogen
Transfer via Redox‐active Ligand
Catalytic Dehydrogenation using
Oxygen as a Hydrogen Accepter
Catalytic Conversion of C1 Feedstocks
to Value‐Added Chemicals using
Nanostructured Catalysts

Coffee break2

4:20‐4:35

Opening remarks

Hydrogen activation by hydrogenases
DFT Study on Fe(IV)‐Peroxo Formationand H‐Atom Transfer Triggered O2
Activation in a Bio‐Inspired Model of[NiFe]‐Hydrogenase
Molecular Multimetallic Polyhydrides:
Activation and Functionalization of
Dinitrogen and Aromatics

Coffee break
Prof. Yukina
Takahashi
Dr. Yong Nam
ChoiProf. Ki‐SeokYoon

2

I CNER, Kyushu
University
KAERI
I2CNER, Kyushu
University30

Site‐selective Nanoscale‐photopolymerization on Gold
Nanoparticles via Plasmon Induced
Charge Separation
Hydrogen Storage by Catalytic Ionic
Hydrogenation
Closing remarks

I N T E R NA T I O N A L I NS T I T U T E F O R C A R B O N -N E U T R A L E N E R G Y R E S E A R C H‐ CHALLENGES IN MEMBRANE SCIENCE ‐I2CNER INTERNATIONAL WORKSHOPCO2 CAPTURE AND UTILIZATION DIVISION

DATE: FRIDAY, FEBRUARY 2, 2018
TIME: 1:00 PM‐5:25 PM
VENUE: SEMINAR ROOM 3105‐6, CENTER ZONE BLDG. 3
TimeSpeaker

Affiliation

1:00‐1:10

Prof. Shigenori
Fujikawa

I2CNER, Kyushu
University

1:10‐2:00

Prof. Jong Hak
Kim

Yonsei University

2:00‐2:35

Prof. Masakoto
Kanezashi

Hiroshima
University

2:35‐3:10

Prof. Masamichi
Nishihara

Kyushu University

3:10‐3:30
Prof. Satoshi
Kodama4:00‐4:30

Dr. Masahiro
Seshimo4:55‐5:20
5:20‐5:25<Opening Remarks>
POEM‐based graft copolymers:
Synthesis, Nanostructure andApplications
Pore size controllability and gas
permeation properties of sol‐gel
derived amorphous silica
membranes
Charge‐transfer complex hybrid
films as a ionic conductive
membrane for fuel cell application

Coffee break

3:30‐4:00

4:30‐4:55

Title

Tokyo Institute ofTechnology
Research Institutefor Innovative
Technology for theEarth
2

Dr. Roman
Selyanchyn

I CNER, Kyushu
University

Prof. Ikuo
Taniguchi
Prof. Shigenori
Fujikawa

I2CNER, Kyushu
University
I2CNER, Kyushu
University

31

Process analysis for CO2 capture
technology
Inorganic membranes and its
applications
Creation of size sieving domains inpolydimethylsiloxane for higher
selectivity and permeability gas
separation membranes
Polymeric membranes fornegative carbon emission<Closing Remarks>

I N T E R NA T I O N A L I NS T I T U T E F O R C A R B O N -N E U T R A L E N E R G Y R E S E A R C H‐CO2 BEHAVIOR FROM MOLECULAR TO FIELD SCALE TO
ACHIEVE BETTER CO2 STORAGE‐
I2CNER INTERNATIONAL WORKSHOPCO2 STORAGE DIVISION

DATE: FRIDAY, FEBRUARY 2, 2018
TIME: 1:00 PM‐5:12 PM
VENUE: I2CNER HALL C
Time

Speaker

Affiliation

1:00‐1:15

Takeshi Tsuji

Kyushu Univ.

1:15‐1:35

Kazuya Ishitsuka

Hokkaido Univ.

1:35‐1:50

Tatsunori Ikeda

Kyushu Univ.

1:50‐2:20

Osamu Takano

JAPEX

2:20‐2:32

Chandoeun Eng

Kyushu Univ.

2:32‐2:44

Chanmaly Chhun

Kyushu Univ.

2:44‐3:00

3:00‐3:30

Title
Activity in CO2 storage division
Field‐scale temperature estimation
based on resistivity using neuralnetwork: Application to the Kakkonda
geothermal field
Monitoring of CO2 storage sites using acontrolled and continuous seismic source
systemTectonic and depositional systemtransition of the Cretaceous to Neogene
Sanriku‐Shimokita‐Hidaka‐oki forearc toforeland basin: transformation scenario
from coal‐bearing fluvio‐deltaic forearc
to deeper‐marine foreland
Hydrocarbon characterization using
seismic attributes for Sanriku‐Oki Forearc
basin, northeast Japan
Characterization of hydrate and gas
reservoirs using automatic seismic
velocity analysis and rock physics:
Example from Kumano forearc basin of
the Nankai Trough, Japan

Coffee break

Diogo Bolster

Univ. of Notre
Dame

32

Comparison of micromodel experiments
and numerical simulations of multiphasedisplacement flows under CO2
sequestration relevant conditions

3:30‐3:50

Fei Jiang

3:50‐4:10

Kazuki Sawayama

4:10‐4:40

Yunfeng Liang

4:40‐5:00

Jihui Jia

5:00‐5:12

Hiroki Matsui

Yamaguchi
Effect of wettability alternation on
Univ. & I2CNER multiphase flow behavior in porous media
Numerical investigation about the effect
Kyushu Univ. of aperture closure on fluid behavior indigitalized fracture
Recent Progresses in Molecular Scale
Univ. of Tokyo Investigation of CO2‐Brine‐ClayInteractions for CO2 Geo‐Sequestration
Ab Initio Molecular Dynamics Study ofChina Univ. ofCarbonation and Hydrolysis of Quartz andPetroleum
Basalt Andesine Reactive Surface
Influence of the addition of H2S on
Kyushu Univ.
replacement reaction of CH4 and CO2

IN THE MORNING (10:00‐12:00), WE HAVE 4 GROUP DISCUSSION.
1.
2.
3.
4.

MONITORING: IKEDA, ISHITSUKA, NIMIYA, FERNANDO, NAGTA,GEOLOGIC MODEL CONSTRUCTION: TAKANO, ENG, MALY, KAKDAFLUID FLOW: BOLSTER, JIANG, IKUO, SAWAYAMA, KITAMURA
NANO‐SACALE: LIANG, JIA, MATSUI33

I N T E R N A T I O N A L I N S T I T U T E F O R C A RB O N -N E U T R A L E NE R G Y R E S E A R C H‐ENERGY TRANSITION PATHWAYS FOR JAPAN‐
I2CNER INTERNATIONAL WORKSHOPENERGY ANALYSIS DIVISION

DATE: FRIDAY, FEBRUARY 2, 2018
TIME: 9:30 AM–4:00 PM
VENUE: SEMINAR ROOM 203, CENTER FOR CO‐EVOLUTIONAL SOCIALSYSTEMSTime

Speaker

Affiliation

Title

9:30 – 9:40

Prof. Kenshi
ItaokaI2CNER, Kyushu
University

Opening remark: Low‐Carbon andSustainable pathway considerations andmodelling approaches

9:40 – 10:00

Prof. Andrew
Chapman

I2CNER, Kyushu
University

A brief review of transition theory and theJapanese energy policy approach andtargets

Prof. Benjamin
McLellan

Kyoto University

10:00 – 11:00

Dr. Atsushi
Kurosawa
TBD

11:00 – 11:10

11:10 – 11:50

Prof. Andrew
ChapmanInstitute ofApplied Energy
TBD

Coffee break
Exercise 1:
DOMESTIC landscape: Open discussion
I2CNER, Kyushu
on the pathway and modelling inputs
University
and approach. Notes taken to guide
Exercise 2

11:50 – 1:00

1:00 – 1:40

DOMESTIC landscape: Factors, problems,
barriers, policies and analytical approaches
on energy transition pathways

Lunch

Prof. Kenshi
ItaokaI2CNER, Kyushu
University

Dr. Monterey
Gardiner

BMW Group

1:40 – 2:10
Prof. James
Stubbins

University of
Illinois Urbana‐Champaign

34

Exercise 2:
DOMESTIC landscape: Gathering input
from members on a timeline for“potential transition pathways”
including policy, technology andexogenous impact inputs
INTERNATIONAL landscape: Factors,
problems, barriers, policies andanalytical approaches on energy
transition pathways:

2:10 – 2:20

2:20 – 3:00

Prof. Andrew
Chapman

3:00 – 3:40

Prof. Kenshi
Itaoka3:40 – 4:00

Prof. Andrew
ChapmanCoffee break
Exercise 3:
INTERNATIONAL
landscape: OpenI2CNER, Kyushu
discussion on the pathway andUniversity
modelling inputs and approach. Notes
taken to guide Exercise 4
Exercise 4:
INTERNATIONAL landscape: Gathering
2
I CNER, Kyushu input from members on a timeline for
University“potential transition pathways”
including policy, technology andexogenous impact inputs
2
I CNER, Kyushu Closing and future steps, collaboration
University
opportunities

35

I N T E R N A T I O N A L I N S T I T U T E F O R C A R B O N -N E U T R A L E NE R G Y R E S E A R C H‐SCENERY OF APPLIED MATHEMATICS IN ENERGY PROBLEM‐I2CNER INTERNATIONAL WORKSHOPINITIATIVE ON APPLIED MATH FOR ENERGYDATE: FRIDAY, FEBRUARY 2, 2018
TIME: 9:30 AM‐ 5:30 PM
VENUE: SEMINAR ROOM 3213, CENTER ZONE BLDG. 3
TimeSpeaker

Affiliation

9:30 ‐ 9:35

Kaname Matsue

IMI / I2CNER, Kyushu
University

Opening Address

9:35 ‐ 10:15

Kong Joo Shin

Dept. of Urban andEnvironmental
Engineering, Kyushu
University

Liberalisation of retail electricity
market: Household switching
behaviour and consumer
satisfaction in Japan

10:25 ‐ 11:10

Atsushi
Kawamoto

Toyota Central R&D
Labs., Inc.

Topology Optimization in
Multiphysics Problems

11:20 ‐ 12:00

HiroakiWatanabe

Dept. of MechanicalEngineering, Kyushu
University

Recent R&D on Combustion
Simulation for Energy Industry

12:00‐1:00

Title

Lunch

1:00 ‐ 1:45

TBA

TBA

1:55 ‐ 2:40

Ippei Obayashi

AIMR, Tohoku
University

Jun’ichi Murata

Dept. of ElectricalEngineering, Kyushu
University

3:55 ‐ 4:40

Daniel Packwood

iCeMS, Kyoto
University

Mathematical modeling anddissimilarity analysis fornanomaterial assembly

4:50 ‐ 5:30

Kei Hirose

IMI, Kyushu University

Statistical analysis of energy
consumption data

3:05 ‐ 3:45

TBA

TBA
Theory and Application of
persistent homology
Maths‐ish techniques in electrical
power management

Dinner*Please confirm your attendance at https://secure.congress.ne.jp/q_pit2018/regist_e_q_pit2018.html
if you would like to join the workshop and/or dinner.

36

Programs
DateJan. 31

Feb. 1Event

I2CNER Annual
Symposium

International
Hydrogen Energy
Development Forum
2018

Venue

I²CNER HallACROS Fukuoka(Tenjin)Feb. 2
HYDROGENIUS and I²CNER Joint Research
Symposium

I²CNER International Workshops

I²CNER HallA

I²CNER HallB

I²CNER HallC

Seminar Room
203
COI

Seminar Room
Seminar Room
1F, Center Zone 3 2F, Center Zone 3

Conference
Room
2F, I²CNER Bldg.1

Lecture Room
3F, Shiiki HallHYDROGENIUS
Research
Symposium

Lecture Room
3F, Shiiki Hall

Lecture Room
3F, Shiiki Hall

HydrogenMaterials
Compatibility(Tribology
Division)(10:00-18:00)

Polymers
Division(11:00-18:00)

9:00
30

10:00
30

11:00
30

12:00
30

13:00
30

14:00
30

15:00
30

16:00
30

17:00

I2CNER Annual
Symposium(9:30-18:30)&
Reception(18:30-20:00)

Catalytic
International
Materials
Hydrogen Energy Transformations
Development(12:55-17:15)
Forum 2018
(13:30-16:50)&
Reception(17:00-18:30)

EnergyAnalysis(9:30-16:00)

Molecular
Photoconversion
Devices &Electrochemical
EnergyConversion(8:50-17:30)

HydrogenThermal Science
Materials
and Engineering
Initiative on
Compatibility
Applied Math for (Thermophysical(Fatigue andProperties
EnergyFracture Division)
Division)(9:30-17:30)(9:20-17:20)(9:50-16:55)
CO2 Captureand Utilization(13:00-17:25)

CO2 Storage(13:00-17:12)

30

18:00
30

19:00
30

20:00
30

37

MAP
Campus Map

Shuttle Bus Schedule
Wednesday, January 31

Friday, February 2

AM

AM
8:05

10:50

7:55

8:35

11:20

7:55

↓

↓

11:50

The Residential Suite

8:05

↓

↓

12:00

I²CNER

8:35

8:35

9:15

12:30

Grand Hyatt

7:25

8:20

Nishitetsu Grand Hotel

↓

8:20

↓

Hilton Sea Hawk

The Residential Suite

8:30

↓

I²CNER

9:00

9:00

Grand Hyatt

7:50

Nishitetsu Grand Hotel↓

Hilton Sea Hawk

PM

PM
I²CNER

19:00

20:10

20:10

The Residential Suite

19:35

↓

20:50

Hilton Sea Hawk

19:45

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20:55

Nishitetsu Grand Hotel

20:10

21:00

21:05

Grand Hyatt

21:30

I²CNER

16:15

17:40

17:45

Shiiki Hall

↓

↓

17:55

18:20

20:15

Meinohama

↓

18:10

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18:50

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Nishijin

↓

18:30

↓

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The Residential Suite

↓

↓

20:55

Hilton Sea Hawk

↓

↓

21:05

Nishitetsu Grand H

↓

↓

21:35

17:00

18:50

TenjinNakasu38

19:05

Travel Information

Directions to Ito Campus(It takes approx. 90 min. by train and bus from Fukuoka Airport to Ito Campus, Kyushu University.)

From Fukuoka Airport to Kyudaigakkentoshi Station (35 min.)Take a train on the Fukuoka City Subway Line bound for “Meinohama” or “Karatsu/Nishi-Karatsu” at Fukuoka
Airport Station.
For Meinohama: Change trains to the JR Chikuhi Line bound for “Karatsu/Nishi-Karatsu ” at Meinohama
Station. Get off at Kyudaigakkentoshi Station.
For Karatsu/Nishi-Karatsu: Get off at Kyudaigakkentoshi Station.

From Hakata Station to Kyudaigakkentoshi Station (30 min.)Take a train on the Fukuoka City Subway Line bound for “Meinohama” or “Karatsu/Nishi-Karatsu at Hakata
Station.
For Meinohama: Change trains to the JR Chikuhi Line bound for “Karatsu/Nishi-Karatsu” at Meinohama Station.
Get off at Kyudaigakkentoshi Station.
For Karatsu/Nishi-Karatsu: Get off at Kyudaigakkentoshi Station.

From Tenjin Station to Kyudaigakkentoshi Station (25 min.)Take a train on the Fukuoka City Subway Line bound for “Meinohama” or “Karatsu” at Tenjin Station.
For Meinohama: Change trains to the JR Chikuhi Line bound for “Karatsu/Nishi-Karatsu” at Meinohama Station.
Get off at Kyudaigakkentoshi Station.
For Karatsu/Nishi-Karatsu: Get off at Kyudaigakkentoshi Station.

From Kyudaigakkentoshi Station to Ito Campus (15 min.)Take a Showa Bus going to Kyushu University’s Ito Campus and get off at “Kyudai Big Orange-mae.”

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40

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