Korea Institute of Energy Research(KIER), Korea
1. Project Name
2. Duration
3. Research Category 1
4. Research Category 2
5. Research Field
6. Researchers
7. Affiliation 1
8. Affiliation 2
9. Address
10. Country
11. Phone
12. Fax
13. Project Summary
14. Publications
15. International Joint Study with
1 Development of Bench-Scale PFBC technology
2 1994-1997
3 coal combustion mechanism, emission, sulfur retention, energy, air
4 combustor modeling, solid handling, emission control, countermeasures
5 chemical engineering
6 Keun-Hee HAN, Sung-Ho Cho, Dowon SHUN
7 Waste Resources Utilization Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3676
12 82-42-860-3134
13 The purpose of the research is to develop pressurized fluidized bed
combustor. The aim is to develop pressurized fluidized bed technology which
is thermally efficient and environmentally safe. Target fuel is imported
bituminous coal.
14 1) Young-Woo Lee and Jae-Ek Son, "Pressurized Fluidized Bed Combustion
Technology for Combined Cycle", Korean Chem. Ind. and Tech., 13(1),
53-69(1995)
15
1 Development of a Hot Gas Desulfurization System for IGCC
2 1994-1996
3 coal gas, desulfurization sorbents, energy, air
4 system design, sorbents production, hot gas desulfurization, countermeasures
5 chemical engineering
6 Jae-Ek SON, Kyoung-Tae JIN, Do-Won SHUN, Keun-Hee HAN, Dal-Hee BAE, Sung-Ho Jo
7 Waste Resources Utilization Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3673
12 82-42-860-3134
13 The goal of the research is to develop a Hot Gas Desulfurization (HGD)
technology, an element technology of the IGCC. The scope of work consists of
the development of desulfurization sorbents, the investigation of their
reaction characteristics, and the development of a bench scale hot gas
desulfurization process.
14 1) YI, Chang-Keun et al. "A Hot Gas Desulfurization Technology for IGCC"
Korea, Chemical Industry & Technology, 13, 466-474, 1995
2) Rhee, Young-Woo et al., "Basic Study on High-Temperature Desulfurization
Sorbents," Proceedings of the 11th Korea-U.S.A. Joint Workshop on Coal
Utilization Technology, 137-151, 1995
15
1 Development of Circulating Fluidized Bed Combustion Boiler for Co-generation
2 1991-1997
3 coal combustion mechanism, emission, air, energy
4 boiler design, operation techniques, emission control, countermeasures
5 chemical engineering
6 Keun-Hee HAN, Dal-Hee BAE, Sung-Ho Cho
7 Waste Resources Utilization Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3672
12 82-42-860-3134
13 The purpose of the research is to develop circulating fluidized bed boiler
for industrial and utility purpose. The aim is to develop circulating
fluidized bed technology which is thermally efficient and environmentally
safe. Target fuel is domestic anthracite and imported bituminous coal.
14 1) Shun, Dowon et al., "Circulating Fluidized Bed Combustion of Korean
Anthracite," Proceedings of the 10th Korea-U.S.A. Joint Workshop on Coal
Utilization Technology, IV-69 (1994).
2) Shun, Dowon et al., "Characteristics of Circulating Fluidized Bed Burning
Korean Anthracite Coal," Proceedings of the 4th Asian Conference on
Fluidized-Bed and Three Phase Reactors, Nov. 38-30, 1994
3) Shun, Dowon, "Operation of CFB boilers in Korean Industry," APEC Experts'
Group on Clean Coal Technical Seminar, August 29-31, 1995
4) Shun, Dowon et al., "Development of Circulating Fluidized Bed Boiler in
Korea," Proceedings of the 11th Korea-U.S.A. Joint Workshop on Coal
Utilization Technology, 245-258, 1995
15
1 Development of Fluidized-Bed Waste Plastics Pyrolysis Process
2 1991-
3 waste treatment, toxic materials, energy recovery, energy, wastes
4 process development, fuel and chemicals recovery,countermeaures
5 chemical engineering
6 Keun-Hee HAN, Dal-Hee BAE, Sung-Ho Cho
7 Waste Resources Utilization Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3672
12 82-42-860-3134
13 The purpose of the research is to develop fluidized bed pyrolysis process of
waste plastics which is not amenable to landfill as well as incineration.
Major subject of the research is to characterize the pyrolysis reaction
pattern in a fluidized bed rector in connection with target product.
To commercialize the process variables as well as elimination of toxic
ingredients is under investigation for economically lucrative and the
environmentally safe process.
14 Ghim, Y. S., Shun, D., Son, J. E., "Pyrolysis of Polystyrene in a
Fluidized-Bed Reactor," Proceedings of the 3rd Asian Conference on
Fluidized-Bed and Three-Phase Reactors, Kyungju, Korea, May 31-June 4,
201-209. 1992
15
1 Collection of Fly Ash by Glass Fabrics in Pulse- Jet Fabric Filters.
2 1989-1990
3 Air Pollution Control, air
4 Particulate Matter Control, countermeasures
5 Chemical Engineering
6 Young-Ok PARK, Jae-Ek SON, Cheol-Oh KOO, Jeong-Hwan LIM
7 Air Pollution Control Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3620
12 82-42-860-3134
13 The purposes of the present research are to develop home-manufactured
fabrics that should be of good quality and not expensive, and to transfer
the filtration technology to the industry that should be properly linked to
the corresponding fabric filter system. In the previous paper, the performance
of glass-fiber fabrics recently developed by a Korean company, Kangnam Ind.
Co., Ltd. in Pusan, was tested at bench scale unit in comparison with that of
imported ones. As a second stage, pilot scale works were designed in order to
obtain proper installation and operation conditions with home-manufactured
fabrics. At first, sever field conditions were collected and reproduced at a
pilot scale test unit equipped with home-manufactured fabric and typical
imported glass fabrics. which is the scope of this paper. More wide variations
of relevant parameters are currently experimented at the same test unit. Field
test is also conducted to demonstrate the adaptation of home-manufactured
fabrics to real coal-fired boilers.
14 Y.O. Park et. al, "Coal Fly Ash Collection by Glass Fabrics; I. Growth of Dust
Deposition and Pressure Drop Characteristics", Journal of Korean Institute of
Chemical Engineers, HWAHAK KONGHAK Vol.29, No.4, August, 1991, pp.463-469.
15
1 Resources Survey and Characterization of Industrial Wastes.
2 1992-1994
3 Wastes Management, wastes
4 Wastes Treatment and Recycle Technology, countermeasures
5 Chemical Engineering
6 Young-Ok PARK, Jae-Ek SON, Cheol-Oh KOO, Jeong-Hwan LIM,
7 Air Pollution Control Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3620
12 82-42-860-3134
13 The status of industrial wastes generation in the Korea industries was
investigated. The data reported to the Ministry of Environment during 1989
to 1991 were analyzed especially for waste plastics, waste oils, and waste
organics. Properties of the wastes samples were characterized by calorific
value analysis, proximate analysis, ultimate analysis, halogen analysis, and
trace elements analysis.
14 1) Y.O. Park et. al, "Analysis of Industrial Wastes Generation and
Characteristics in Capital Circle", Journal of Korea Solid Wastes
Engineering Society, Vol.10, No.3. pp.333-344, 1993
2) Y.O. Park et. al, "Analysis of Industrial Wastes Generation and
Characteristics in Youngnam Area", Journal of Korea Solid Wastes
Engineering Society, Vol.10, No.3. pp.345-355, 1993
15
1 Characterization of Particulate matter Emitted from Industries
2 1993-1994
3 Air Pollution Control, air
4 Particulate Matter Control, countermeasures
5 Chemical Engineering
6 Young-Ok PARK, Jae-Ek SON, Cheol-Oh KOO, Jeong-Hwan LIM,
7 Air Pollution Control Research Team,
Energy and Environment Research Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3620
12 82-42-860-3134
13 A characterization of Particulate matter emitted from in steel industry,
cement industry, coal combustion system, and waste incinerator was conducted
to measure the important physical and chemical characteristics that are
effected in the performance of fabric filters. Based on these measurements,
six industries have been selected to obtain particulate matter samples for
analysis studies. The physical characterization consisted of size distribution
measurement by particle sizer and particle shape analysis by electro scanning
microscope. The chemical characterization consisted of proximate analysis by
proximate analyzer, element analysis by element analyser.
14
15
1 Characterization of Particulate matter Emitted from High Temperature
Industry Processes
2 1994-1995
3 Air Pollution Control, air
4 Particulate Matter Control, countermeasures
5 Chemical Engineering
6 Young-Ok PARK, Jae-Ek SON, Cheol-Oh KOO, Jeong-Hwan LIM, Hong-yong KIM
7 Air Pollution Control Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3620
12 82-42-860-3134
13 A characterization of Particulate matter emitted from in waste gas
treatment process, aluminum refining process, glass manufacturing process,
and water glass manufacturing process was conducted to measure the important
physical and chemical characteristics that are effected in the performance of
fabric filters. Based on these measurements, six industries have been selected
to obtain particulate matter samples for analysis studies. The physical
characterization consisted of size distribution measurement by particle sizer
and particle shape analysis by electro scanning microscope. The chemical
characterization consisted of proximate analysis by proximate analyzer,
element analysis by element analyser.
14
15
1 Enhanced Fabric Filtration Performance Study
2 1993-1994
3 Air Pollution Control, air
4 Particulate Matter Filtration, countermeasures
5 Chemical Engineering
6 Young-Ok PARK, Jae-Ek SON, Cheol-Oh KOO, Jeong-Hwan LIM,
7 Air Pollution Control Research Team,
Energy and Environment Research Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3620
12 82-42-860-3134
13 The objective of this research was to obtain enhanced optimum operating
conditions to improve the performance of fabric filters. Specific objectives
were to 1) verify the relationship between the optimum filtration velocity
to maintain the low pressure drop and high collection efficiency, 2) verify
the relationship between the cleaning conditions to maintain the desired
pressure drop, and 3) verify the effectiveness of an enhanced optimum
operating conditions.
14 Y.O. Park et. al, "Performance Test of Domestic Glass Fabric by Varying
Cleaning Conditions in a Pulse-Jet Fabric Filter", Journal of Korea Society
of Air Pollution, Vol.10, No.3. pp.183-190, 1994.
15
1 Technology for Enhanced Bag Filter Performance and Bag Media
2 1995-1996
3 Air Pollution Control, air
4 Particulate Matter Filtration, countermeasures
5 Chemical Engineering
6 Young-Ok, PARK, Cheol-Oh KOO, Jeong-Hwan LIM, Hong-yong KIM
7 Air Pollution Control Research Team,
Energy and Environment Research Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3620
12 82-42-860-3134
13 The general objective of this research was to develop a high efficiency
fabric filtration technology that can reliably remove particulate matter,
with removal efficiency of at least 99.9% for all particle size, independent
of filter media type.
14
15
1 Performance Test of Domestic Cartridge Air Filter for Gas Turbine.
2 1994-1995
3 Air Pollution Control, air
4 Particulate Matter Filtration, countermeasures
5 Chemical Engineering
6 Young-Ok PARK, Cheol-Oh KOO, Jeong-Hwan LIM, Hong-yong KIM, Hong-yong KIM
7 Air Pollution Control Research Team, Energy and Environment Research epartment
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3620
12 82-42-860-3134
13 Cartridge air filter is the most widely used filter element for the removal
particulate matter in incoming which supply the high pressure natural gas
combustor. The objective of this research project is to test for development
of a domestic cartridge air filter.
14
15
1 Particulate Collection Technology for Air Pollution Control.
2 1991
3 Air Pollution Control, air
4 Particulate Matter Control, countermeasures
5 Chemical engineering
6 Young-Ok PARK, Cheol-Oh KOO, Jeong-Hwan LIM, Hong-yong KIM
7 Air Pollution Control Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3600
12 82-42-860-3134
13 In this study, characteristics and performance of cyclones, scrubbers, EP's
and bagfilters are investigated in detail in order to understand and design
a proper dust collecting facilities for an individual type of participates,
Operation and performance of the industrial facilities were studied by
visiting various fields of, steel factories, cement factories, heat supply
facilities and specific waste incineration site. Also, A bench scale bag
filter system was designed and installed for the fundamental research
starting next year.
14
15
1 Development of High Efficiency Fabric Filtration Technology for ndustries.
2 1992-1995
3 Air Pollution Control, air
4 Particulate Matter Filtration, countermeasures
5 Chemical Engineering
6 Young-Ok PARK, Cheol-Oh KOO, Jeong-Hwan LIM, Hong-yong KIM, Hong-yong KIM
7 Air Pollution Control Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3600
12 82-42-860-3134
13 The performance of a fabric filtration technology is superior to those of
other dust removal technologies. This technology provides higher dust
removal efficiency than any other dust removal technologies and is
simultaneously capable of removing sulfur and hydrogen chloride. Therefore,
this technology can be applied for the purpose of flue gas cleaning in
various industrial processes. However, fabric filtration facilities
installed in domestic industries have not been efficiently used due to the
following reasons: 1) poor knowledge of dust and fabric characteristics,
2) inadequate matching of dust and fabric, 3) unestablishment of the design
condition in each industrial processes. In addition, since most fabrics are
imported, they are expensive and the manufacturing method and structure of
them cannot be easily changed to meet the characteristics of dust. In this
research, firstly it is attempted to develop high performance domestic filter
fabrics suitable for the dusts generated in various dust-generating processes,
combustion processes and establish operating conditions for each dust in order
to obtain satisfactory performances. Secondly, it is attempted to develop a
high efficiency fabric filtration technology through the standardization of
the design technology and the establishment of the optimum operating
conditions.
14 1) Y.O. Park et. al,
"Emission Control Technology in Waste Incineration(=A5=B0)", Journal of
Korea Solid Wastes Engineering Society, Vol.11, No.2. pp.302-317, 1993
2) Y.O. Park et. al,
"Emission Control Technology in Waste Incineration(=A5=B1)", Journal of
Korea Solid Wastes Engineering Society, Vol.11, No.3. pp.475-487.
15
1 Development of a Simultaneous SO2 and Dust Removal Process Using A Fabric
Filter
2 1994-1996
3 Flue Gas Cleaning, air
4 Air Pollution Control, countermeasures
5 Chemical & Environmental Engineering
6 Kim, Seong Soo
7 Energy and Environmental Research Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3621
12 82-42-860-3134
13 Baghouse is the most widely used equipment for the removal of dust from flue
gas. The objective of this research project is to develop a process which
could simultaneously remove SO2 and dust using a baghouse from the flue
gases generated in various coal combustion or incineration facilities.
This process involves injection of humidification water and dry sorbent,
which is usually hydrated lime, into the flue gas between the air heater
and the fabric filter. The injection of humidification water is for the
humidification of the flue gas by a fine wate mist. Hydrated lime is
injected into the flue gas after most of the water mist had evaporated. SO2
removal reaction occurs in the duct and in the fabric filter. Depending on
the operating conditions, more than 90% of the SO2 can be removed in the
fabric filter alone due to the reaction with unreacted hydrated lime.
The major process variables for the SO2 removal reaction in the fabric
filter are filtration velocity, sorbent/SO2 mole ratio, and humidity.
Currently optimization of these variables are under study.
14 1) S. S. Kim, "The Effects of Process Variables on the Simultaneous Removal
of SO2 and Dust in A Fabric Filter," in Preparation, 1996=A7=A02)S. S. Kim,
"Utilization of Fly Ash/Ca(OH)2 Sorbents for Dry SO2 Removal Process,"in
Preparation, 1996.
15
1 Development of an In-Duct Sorbent Injection Process for SO2 Removal
2 1996-1997
3 Flue Gas Cleaning, air
4 Air Pollution Control, countermeasures
5 Chemical & Environmental Engineering
6 Kim, Seong Soo
7 Energy and Environmental Research Department
8 KIER
9
10 Korea
11 82-42-860-3621
12 82-42-860-3134
13 The objective of this research project is to develop an in-duct dry sorbent
injection technology for SO2 removal from flue gas. This process involves
injection of humidification water and dry sorbent, which is usually hydrated
lime, into the flue gas between the air heater and the dust collection unit.
The injection of humidification water is for the humidification of the flue
gas by a fine water mist. Hydrated lime is injected into the flue gas after
most of the water mist has evaporated. SO2 removal reaction occurs in the
duct and additionally in the dust removal unit, which is usually ESP or a
fabric filter. The major process variables in this process are sorbent/SO2
mole ratio, SO2 concentration, humidity, and residence time of the flue gas.
The effects of these variables on the process performances are under study.
14 1) S. S. Kim, "The Effects of Process Variables on the Performances of an
In-Duct Sorbent Injection Process for SO2 Removal," in Preparation,
1996.
15
1 Oil Recovery by the Coprocessing of Waste Tire and Waste Oil
2 1992-1995
3 Wastes, energy
4 Reaction Mechanism, Pyrolytic Process Development, countermeasures
5 Chemical Engineering
6 Dong-Chan KIM, Dae-Hyun SHIN, Soo-Hyun CHUNG, Sang-Guk KIM, Gye-Shik KANG,
Jae-Kyung WOO, Sung-Geun SON, Jung-Duk KIM, Nam-Sun ROH, Kwang-Ho KIM
7 Wastes Pyrolysis Research Team, Energy&Environment Research Department
8 KIER(Korea Institute of Energy Research), MOE(Ministry of Environment)
9 71-2 Jang-dong, Yusong-ku, Taejon 305-343
10 Korea
11 82-42-860-3630
12 82-42-860-3134
13 The process developed in this research enables waste tire and waste motor
oil to be simultaneously pyrolyzed without causing any environmental problems.
This process is to produce oil by thermally pyrolyzing waste tires in heated
waste motor oils. The R&D work on this process is now actively underway aiming
at the appication of the technology to actual plant.
14 1) Dong-Chan Kim et al., Recovering Oil through the Coprocessing of Waste Tire
and Waste Oil, Journal of the Korean Institute of Resources Recycling,
Vol.4,No.4,1995
2) Soo-Hyun Chung et al., Study on the Reaction of CuO/=A5=E3-Al2O3 and SO2
Using Distributed Pore Size Model, Hwahak konghak(Journal of the Korean
Institute of Chemical Engineers),Vol.28,No.2,April, pp.184-195,1990
3) Sang-Guk Kim et al., A Study on the Utilization of Waste Tire/Waste Motor
Oil Pyrolytic Residue for Asphalt, Journal of the Korean Institute of
Resources Recycling,Vol.4,No.4,1995
15
1 Development of Gas Decomposition Technology Using Microwave Energy
2 1994-1996
3 Air, Hazardous Substances(SOx,NOx,etc.)
4 Reaction Mechanism, Gas Decomposition Process Development, countermeasures
5 Chemical Engineering
6 Dae-Hyun SHIN, Woo-Young SONG, Jae-Kyung WOO, Dong-Chan KIM, Sang-Guk KIM,
Nam-Sun ROH, Kwang-Ho KIM, Gye-Shik KANG
7 Wastes Pyrolysis Research Team, Energy&Environment Research Department
8 KIER(Korea Institute of Energy Research),
MOST(Ministry of Science and=Technology)
9 71-2 Jang-dong, Yusong-ku, Taejon 305-343
10 Korea
11 82-42-860-3630
12 82-42-860-3134
13 The objective of this study is to develop a process using microwave energy,
by which various hazardous gases generated in industrieas can be treated.
Especially, the primary target of this study is to develop a dry process by
which NOx and SOx can be treated simultaneously from stack and to develop a
process by which hazardous gases such as halogen compounds, HCN, H2S, etc.,
generated in chemical process, can be treated.
14 1) Dae-Hyun Shin et al., Pyrolytic Incineration of Plastics and Heat Recovery,
Proceedings of Energy Reservation Technology Workshop, Nov.2-4,
Yusong Hotel,Taejon,pp.291-304,1995
15
1 Study on the Development of the Combustion Technology of Gaseous Products and
Tar Produced from the Waste Pyrolysis
2 1990-1993
3 Wastes, energy
4 Reaction Mechanism, Pyrolytic Process and Combustion Technology Development,
countermeasures
5 Chemical Engineering
6 Nam-Sun ROH, Kwang-Ho KIM, Dae-Hyun SHIN, Dong-Chan KIM, Jung-Duk KIM,
Soo-Hyun CHUNG, Gye-Shik KANG
7 Wastes Pyrolysis Research Team, Energy & Environment Research Department
8 KIER(Korea Institute of Energy Research),
MOST(Ministry of Science and Technology)
9 71-2 Jang-dong, Yusong-ku, Taejon 305-343
10 Korea
11 82-42-860-3630
12 82-42-860-3134
13 In this study, pyrolytic gasification experiments are performed for the 3
types of wastes such as waste tires, waste rubberws, and waste synthetic
resins, using bench-scale experimental facilities. The experimental results
including the analysis on the production amount and composition of the
pyrolytic gaseous products, the acquisition of optimum combustion conditions,
and combustion gas disposal are utilized as a basis data for the facility
improvement and equipment design.
14 1) Dong-Chan Kim et al., A Comparative Analysis of Pollution Problem between
Combustion Oil and Coal, Energy R & D,Vol.5,No.3,1982
15
1 Development of Physical Desulfurization and Deashing Technology of
High-sulfur Coals Using Column Flotation Technology
2 1994-1996
3 High-sulfur, Hihg-ash Coals, air
4 Process Development for the Rejection of Sulfur and Ash from Coal,
countermeasures
5 Chemical Engineering
6 Sung-Geun SON, Jung-Duk KIM, Jae-Ek SON, Dong-Chan KIM, Gye-Shik KANG
7 Wastes Pyrolysis Research Team, Energy&Environment Research Department
8 KIER(Korea Institute of Energy Research),
MOTIE(Ministry of Trade, Industry and Energy)
9 71-2 Jang-dong, Yusong-ku, Taejon 305-343
10 Korea
11 82-42-860-3630
12 82-42-860-3134
13 Korea generated 165,000GWh of electricity in 1994. The energy sources used
to generate the electricity include oil(25%), LNG(12%), coals(25%),
nuclear(35%), and hydro(3%). Being an energy-poor country, Korea generates
95% of its electricity by using the imported energy sources. The long-term
projection indicates that the electricity generation in Korea will reach
54,000MWe in 2006 and that by then, about 30% of total electricity will be
generated using coals. The objective of this study is to develop an optimum
rejection process of sulfur and ash from the high-sulur, high-ash coals that
may be imported, basically using column flotation technology, to meet such
long-term demand.
14 1) Sung-Geun Son et al., Float/Sink Separation of Commingled Plastic Waste,
Journal of Korean Solid Wastes Engineering Society,Vol.12,No.1,pp.99-103,
1995
2) Sung-Geun Son et al., Development on the Technology of Desulfurization and
Deashing of High Sulfur Coals by Column Flotation, Autumnal Proceedings of
the Korea Society for Energy Engineering, Nov.9,Korea Atomic Energy
Research Institute(KAERI), Taejon, 1995
15
1 Investigation on the Characteristics of Liquid Wastes Depending on Their
Generation Sources and Study on Optimum Treatment Method
2 1995-1996
3 Air, Wastes, Hazardous Substances
4 Oxidative Pyrolysis, Monitoring
5 Environmental Engineering, Toxicology
6 Sang-Guk KIM, Dong-Chan KIM, Dae-Hyun SHIN, Nam-Sun ROH, Kwang-Ho KIM
7 Wastes Pyrolysis Research Team, Energy & Environment Research Department
8 KIER(Korea Institute of Energy Research),
MOTIE(Ministry of Trade, Industry and Energy)
9 71-2 Jang-dong, Yusong-ku, Taejon 305-343
10 Korea
11 82-42-860-3632
12 82-42-860-3134
13 Since liquid wastes are currently being collected and treated without
respect of their kinds and charateristics, energy is not saved from
incineration facility and furthermore, creats environmental problems.
In this study, present status of liquid waste generation and treatment
is investigated, and thermal decomposition characteristics are studied
using a lab-scale thermal reactor. The purpose of this research is to
divide liquid wastes into groups, and to present best treatment method
for their each group.
14
15
1 A Study on the Separation of Heavy Hydrocarbon Oil and Valuable Metals from
Residual Oil
2 1989-1992
3 heavy hydrocarbon oil, valuable metal recovery, wastes, energy
4 supercritical solvent extraction, countermeasures
5 chemical engineering
6 YoungIhll KIM, ChoonHo KIM, IlHyun BAEK, IkSoo Choi, SangDo Park,
JongSup LEE, JoungKi KIM
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 Supercritical solvent extraction technique was applied for the extraction of
heavy hydrocarbon oil from the atmospheric and vacuum residues and for the
recovery of vanadium and nickel from the separated asphaltene.
14
15 1) IlHyun BAEK, ChoonHo KIM, SungHyun Kim, YoungIhll KIM, SungSun Hong,
"The Separation of the Separated Asphaltene Oil from Atmospheric Residual
Oil using Continuous feeding system," Jrnl. of the Korean Ind. & Eng.
Chemistry, 4 (3), 515 (1993).,
2) IlHyun BAEK, ChoonHo KIM, SungHyun Kim, YoungIhll KIM, SungSun Hong,
"A Study on the Extraction of Heavy Hydrocarbon Oil from Atmospheric
Residual Oil using Supercritical n-pentane Solvent, " Jrnl. of KIChE,
31 (6), 796 (1993).
1 Development of Industrial Waste Heat Recovery System Using Chemical Heat
Pump with NH3-salt
2 1993-1996
3 waste heat recovery, chemical heat pump, energy
4 system design, static & dynamic simulation, experimental works,
countermeasures
5 chemical engineering
6 IkSoo Choi, YoungIhll KIM, IlHyun BAEK, JoungKi KIM
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 The objective of this research is to develop industrial waste heat recovery
system using chemical heat pump which adopt NH3-salts as media. Experimental
apparatus was set to measure the performance of chemical heat transformer,
and the simulation program for system design was developed.
14
15 1) SeungHoon Choi, SaeIll Lee, HongKyu Choi, IlHyun BAEK, IkSoo Choi,
HaeSoo Chun, "A Study on the Dynamic Design of STELF system for
Performance Enhancement," in the Proceedings of '94 KIChE Fall Meeting,
(1994).
2) IlHyun BAEK, YoungIhll KIM, IkSoo Choi, SeungHoon Choi, "Performance
Characteristics of Chemical Heat Transformer using Salts-NH3 System,"
in the Proceedings of '95 KIChE Spring Meeting (1995).
1 Development of Manufacturing Process for Coal-Base Fragmental Activated
Carbon through Pilot Scale Plant
2 1992-1993
3 coal-base activated carbon, manufacturing process, energy
4 pilot scale design, countermeasures
5 chemical engineering
6 ChoonHo KIM, IkSoo Choi, JoungKi KIM
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 In order to develop the manufacturing process for coal-base fragmental
activated carbon, basic experiments to test the performances of activated
carbon for liquid treatment made by Indonesian lignite were executed.
And then pilot scale manufacturing process plant was designed and built.
The activated carbons produced through this pilot plant were tested, and
showed suffiecient performances for liquid treatment.
14
15
1 Development of High Quality Activated Carbon Manufacturing Process using
Chinese Coal
2 1995-1996
3 coal-base activated carbon, manufacturing process, energy
4 pilot scale design, countermeasures
5 chemical engineering
6 ChoonHo KIM, IkSoo Choi, JoungKi KIM
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 Coal-based activated carbon was manufactured using a bench-scale rotary kiln
type furnace and the effects of various operating variables on the process
yield and quality of the product were investigated. Two kinds of Chinese
coals were used as the feed to the process.
14
15
1 Development of Highly Efficient Process for Simultaneous Removal of SOx and
NOx from Flue Gas
2 1991-1994
3 flue gas treatment, environmental control, air
4 process development, basic experiment, countermeasures
5 chemical engineering
6 HyungKeun LEE, HangDae Jo, WonKil Choi
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 The object of this study is to develop the simultaneous SOx and NOx
removal process from flue gases using limestone and P4 additive.
The basic experiments to select the additive and test the performance of
additive at various conditions and the recovering characteristics of the
byproduct of P4 oxidation through bench-scale apparatus and mini-pilot
scale system were executed. And the oxidation rate of sulfite to sulfate
was measured by lab-scale apparatus.
14
15 1) SungHyun Kim, HyungKeun LEE, ByungHun Son, KwangJoong Oh, "NOx Removal
from the Mixing Gases Simulating Flue Gases by P4 Additives," Jrnl. of
Korean Society of Environmental Engineers, 15, 5, 727(1993).,
2) HyungKeun LEE, ByungHun Son, SungHyun Kim, KwangJoong Oh, "A Study on
the Oxidation Rates of Yellow Phosphorus in the Simultaneous Removal
Process of SO2 & NO," Jrnl. of Korean Society of Environmental Engineers,
16, 4, 563-571(1994).,
3) HyungKeun LEE, HangDae Jo, WonKil Choi, SungHyun Kim, "Scaleup tests for
combined removal of SO2/NOx in wet FGD system," Jrnl. of Korean Solid
Wastes Engineering Society, 13, 1(1996).
1 A Study for the Rerefining Process of Waste Lubricating Oil as a Fuel Oil
2 1992-1994
3 waste lub oil rerefining, chemical treatment, energy
4 process development, basic experiment, countermeasures
5 chemical engineering
6 SangDo Park, JongSup Lee, JoungKi Kim
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 The object of this study is to develop the rerefining process of waste
lubricating oil mainly from the passenger cars. Rerefined waste lubricating
oil by chemical treatment is to be used as a fuel oil. In this study
rerefining process of waste lubricating oil by chemical treatment was
designed by commercial-scale based on laboratory-scale experiments. And
the TFE(thin film evaporator) to produce higher quality oils from waste
lubricating oils was designed by computer simulation and basic experimental
results.
14
15
1 A Study on Environmental Pollution Control in Energy Field
2 1991-1994
3 flue gas treatment, environmental control, air
4 process development, basic experiment, countermeasures
5 chemical engineering
6 ByoungMoo MIN, JongSup Lee
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 The object of this study is to prepare the detail program for reducing
the pollutants that emitted from energy field in Korea and to analysed the
environmental technology development programs and activities to reduce
emission of carbon dioxide in developed countries.
14
15
1 A Study on the Development of Highly Efficient Absorbent of CO2 from Flue
Gases
2 1994-
3 flue gas treatment, environmental control, air
4 basic experiment, performance test, countermeasures
5 chemical engineering
6 ByoungMoo MIN, JongSup Lee
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 The object of this study is to develop the highly efficient and reliable
absorbent of CO2 from flue gases. Basic experiments were executed to test
the basic properties of amines selected as a basic absorbing material.
And the experiments on the transport properties (the rates of reaction and
the diffusion coefficients) will be executed.
14
15
1 Development of Advanced Technology for Removal of Environmental Pollutants
from Flue Gases
2 1994-
3 flue gas treatment, environmental control, air
4 process development, basic experiment, countermeasures
5 chemical engineering
6 HyungKeun LEE, HangDae Jo, WonKil Choi
7 Fossil Fuel Research Team, Energy and Environment Department
8 KIER
9 71-2 Jangdong, Yusungku, Taejon 305-343
10 Korea
11 82-42-860-3640
12 82-42-860-3134
13 The object of this research is to develop the spray drying absorber to treat
flue gas from boilers or waste incinerators. In this study basic experiments
were executed to test and develop the efficient absorbents for spray drying
process for flue gas treatment. The mini-pilot scale spray drying system was
built to test and identify the reliability and performance of this process
and the absorbents developed. And mathematical model was also developed to
predict the spray drying absorber(SDA) performances depending on
experimental variables.
14
15
1 Recovery of energy from wastes (Development of the oil recovery from
waste-water sludge by using high pressure liquefaction technology)
2 1994-1996
3 waste, energy
4 reaction mechanism, modeling, countermeasures
5 engineering
6 Ho-Tae Lee,
7 Energy Conversion Research Department
8 KIER
9 71-2 Jang-dong Yousung-Ku, Taejon, 305-343
10 KOREA
11 82-42-860-3662
12 82-42-860-3302
13 energy recovery and utilization of wastes like sewage sludge, plastics, etc.
14
15
1 Study on the production of alternative fuels by carbon dioxide hydrogenation
2 1993-1996
3 Global change, air, energy
4 Countermeasures, Reaction mechanism
5 Chemistry
6 Kyu-Sung SIM, Sang-Do HAN, Jong-won KIM, Youn-Soon Kim, Ki-Bai Park
7 Clean Fuel Res. Lab
8 KIER
9 71-2, Jang-dong, Yusong-ku, Taejon 305-343
10 Korea
11 82-42-860-3017
12 82-42-860-3302
13 The aim of this study is the development of technologies of the fuel
production from carbon dioxide by catalytic hydrogenation. These chemical
fixation methods will help to reduce carbon dioxide emission, which is known
as the main reason of global warming.
14
15
1 Development of measurement system for optimum combustion control of boiler.
2 1995-1997
3 air pollution, air
4 measurement
5 chemystry, physic
6 SIM, kyu-Sung, KIM Jong-Won, SON Young-Mok
7 Clean Fuel Lab. Energy Conversion Department
8 KIER, MOST
9 71-2 Chag-dong Yusung-gu, Taejon 305-600, Korea
10 Korea
11 82-42-860-3449
12 82-42-860-3302
13 Semiconductor type gas sensors for sensing of exhaust gases were fabricated,
and which use to development of measurement system for optimum combustion
control of boiler.
14 1) D.S. LEE, S.D. HAN et. al., "Fabrication and Nox sensing characteristic
of WO3 doped with SnO2 and Pt thick film device", J. of the Korean
Sensors Society, Vol.5 No.5 1996.
2) I. J. KIM, S.D. HAN, et. al., "Catalyst effect and sensing Characteristic
of plate type SnO2 thick film sensor for CO gas", The 7th Conference on
Sensor Technology, The Korean Sensors Society, Pohang, 1996.
15
1 Desulfurization from Coal and Petroleum Coke by using Caustic Leaching Process
2 1995-1997
3 wastes, carbon
4 reaction mechansim, impact assessment
5 engineering
6 Si-hyun LEE, Eung-kwon SHON, Sang-il CHOI, Ju-soo HYUN, Chu-sik PARK,
Young-jun LIM, Sung-wan KIM
7 Low Emission Combustion Research Team, Energy Conversion Research Department
8 KIER
9 71-2, Jangdong, Yusonggu, Taejon
10 Korea
11 82-42-860-3452
12 82-42-860-3302
13 The purpose of this project is to make ultra clean carbonaceous material
from coal andcoke by removing the sulfur and ash using caustic. Although
caustic leaching process(molten or solution) has been recognized as an
expensive process for desulfurization until now, it is an only process
that can make high quality acivated or cleaned carbon from high sulfur
and high ash solid fuel. Molten caustic leaching and impregnation in
caustic solution followed by calcination process are investigated.
recovery of caustic also studied in this project.
14 1) Si-Hyun Lee, Changes in Combustion Characteristics of Coals after
Treatment with Molten Caustic Leaching, of the Korean Institute of
Chemical Engineers, 32, 376-384,1994
2) Si-Hyun Lee, Changes in Organic Structure of Coals after Treatment
with Molten Caustic Leaching, J of the Koren Institute of Chemical
Engineers, 33, 675-683, 1995
3) Si-Hyun Lee, Effect of Molten Caustic Leaching on the Structure of
Anthracite, Twelfth International Pittsburgh Coal Conference, 499-504,
1995
15
1 The Development of Cyclone Combustor for Clean Coal Technology
2 1994-1996
3 coal, waste gas, energy
4 combustion technology, countermeasures
5 engineering
6 Eung Kwon SHON, Sang I1 CHOI, Si Hyun LEE, Ju Sik PARK, Yung Jun LIM,
Sung Won KIM
7 Low Emission Combustion Research Team, Energy Conversion Research Dept.
8 KIER
9 71-2 Jangdong, Yusongku, Taejon 305-343
10 Korea
11 82-42-860-3451
12 82-42-860-3302
13 Advanced cyclone combustion systems are one class of the emerging clean
coal technologies being developed to improve the quality of the nation's
air, while increasing the use of abundant energy resource. In cyclone
combustion system, coal is burned at a temperature high enough so that
coal ash melts and turned to liquid. This liquid then flows down the
combustor walls and is collected and withdrawn. Therefore, there are
few soild ash particles to pass out of the chamber with the hot gases.
In addition, the sulfur found in most coals can also be removed at this
point. Calcium compounds are introduced into the chamber, where they
combine with the sulfur. The resulting sulfur compounds melt and join the
slag. Also, because a cyclone combustor operates fuel-rich in the primary
zone it will suppress NOx formation. The hot gaseous combustion products
formed are ducted into the retrofitted boiler, where sufficient air is
added to complete combustion of these gases.
The object of this study is to develop cyclone combustor by our own efforts,
then we made two staged cyclone combustor which is bench scale. The result
of burning test, the proper air ratio is about 1.0 and coal feeding rate
were more then 30 kg/hr. In the case of Peco-semi coal combustion, it was
certified that carbon conversion efficiency was more than 95% and ash
removal efficiency in a state of fusion of slag was about 70%.
14 1) Ju Soo Hyun et. al., The Development of Cyclone Combustor for Clean Coal
Technology, Korea, Report, 1996
2) Ju Soo HYUN et. al., Combustion Characteristic of Slagging Combustor,
Korea, The Korea Society for Energy Engineering, 1995
3) Ju Soo Hyun et. al., Slagging Combustor, Korea, Energy R&D, 1992
15
1 Development of 2-Staged Low Emission P.C. Combustor
2 1994-1997
3 Global change, Air
4 Reaction mechanism
5 Engineering (Combustion)
6 SHON Eung-Kwon, Lee Shi-Hyun, HYUN Ju-Soo, PARK Chu-Sik,
RHIM Young-Jun, KIM Sung-One
7 Low Emission Combustion Research Team, Energy Conversion Research Dept.
8 KIER
9 71-2, Jangdong, Yusungku, Taejon, 305-343
10 Korea
11 042-860-3457
12 042-860-3302
13 The objective of this study is development of low emission pulverized coal
combustor for reduction of pollutant emission from coal combustion system.
The pollutants from pulverized coal combustion systems are fly-ash and NOx,
SOx. This study was done as followings for reducation of such atomospheric
pollutants. 1) Staged combustion by using fuel staging and air staging was
studied for Nox reducation. 2) High temperature slagging combustion was
studied for fly-ash removal in combustor. 3) Absorbing SOx in high
temperature flue gas by using limestone was studied. 4) Gas reburning
technology will be studied for clean coal combustion.
14
15
1 Thermal enegy recovery from waste by cyclonic incinerator
2 1994-1996
3 hazardous subustances
4 reaction mechanism, measurement
5 engineering
6 Eung-Kwon SHON, Si-Hoon LEE, Ju-Soo HYUN
7 Low Emission Combustion Div. Department of Energy Conversion
8 KIER
9 71-2 Jang-dong, Yusung-ku, Taejon, 305-343
10 Korea
11 82-42-860-3450
12 82-42-860-3302
13 This study aims at establishing incinerating technologies that are needed
to reduce a toxic gas release from stack during the industrial liquid
waste burning.
14
15
1 Treatment, Regeneration and Life-elongation of Spent Catalysts in Heavy Oil
Upgrading
2 1994-1997
3 Wastes, Catalysts
4 Regeneration, activity measurement, recycle, countermeasures
5 engineering
6 Heon JUNG, Wanglai YOON, Hotae LEE
7 Energy Conversion Process Team, Energy Conversion Research Department
8 KIER
9 P.O. Box 103, Yusung, Taejon 305-600
10 Republic of Korea
11 82-42-860-3663
12 82-42-860-3302
13 The objective of this research is to develop a complete technology package
to deal with the problems involved in spent catalysts generated from heavy
oil upgrading processes in oil refineries. Detailed technologies include:
regeneration, rejuvenation and metal reclamation of spent residue
hydrodesulfurization(RDS) catalysts and large scale recycling of spent
fluid catalytic cracking catalysts. The successful development of this
program will save a lot of money to be used in purchasing fresh catalysts
and also get precious metal resources from wastes.
14
15
1 Recovery of energy from wastes (Development of the oil recovery from
waste-water sludge by using high pressure liquefaction technology)
2 1994-1996
3 waste
4 reaction mechanism, modeling, countermeasures
5 engineering
6 Ho-Tae Lee
7 Energy Conversion Research Department
8 KIER
9 71-2 Jang-dong Yousung-Ku, Taejon, 305-343
10 Korea
11 82-42-860-3662
12 82-42-860-3302
13 energy recovery and utilization of wastes like sewage sludge, plastic, etc.
14
15
1 Coprocessing of waste plastics and waste oil into high quality fuel oils
2 1996-1998
3 wastes
4 modelling
5 engineering
6 Yoon, W.L., Lee, H.T., Jung, H., Park, J.S., Hwang Y.J.
7 Energy conversion department
8 KIER
9 71-2, Jangdong, Yusonggu, Taejeon
10 Korea
11 82-42-860-3660
12 82-42-860-3302
13 This study is aimed at optimizing both the oil quality and yields from the
coprocessing of waste oil and waste plastics. Under optimum reactions, the
stability of our own conceptual process will be steadily tesed to see if
there exists any problems in continuous processing. After the completion of
the stability test, the conceptual process will be scaled-up for the pilot
plant studies.
14 1) Lee, D. K., Yoon, W. L., Lee, I. C. and Woo, S. I., "Residual oil
hydrodesulfurization using dispersed catalysts in a carbon packed
trickle bed reactor", Energy & Fuels, 9, 2(1995)
2) Yoon, W.L., Lee, D. K. and Lee, I.C., "Liquefaction of Alaskan Usibelli
subbituminous coal using oil soluble metal naphthenates as catalyst
precursors", accepted in Fuel journal
3) Kim, C. H., Yoon, W. L., Lee, I.. C. and Woo, S. I., "The effect of Ni
loading and the sulfidation temperature on the structure and catalytic
activity of Ni-W hydrodesulfurization catalysts, accepted in Applied
Catalyis journal
15
1 Development of coal gasification technology for IGCC
2 1993-1996
3 coal, energy
4 gasification, countermeasures
5 engineering
6 Jae Goo LEE, Jae Ho KIM, Hyo Jin LEE, Tae Jun Park
7 Coal Gasification Research Team, Energy Conversion Research Dept.
8 KIER
9 71-2 Jangdong, Youseougku, Taejon, 305-343
10 Korea
11 82-42-860-3353
12 82-42-860-3302
13 This main purpose of this research is to support basic research for the
development of entrained flow coal gasifier to be utilized for IGCC power
system. The entrained flow coal gasifier was developed by KIER and various
experiments was performed with the temperatures, oxygen ratios and coals.
During this period, we carried out the following experiments ; pysicochemistry
of coal, characteristics of slurry and burner apray, ash and slag formation,
coal gasification kinetics and modeling.
14 1) Jae Goo LEE et. al., " Charateristics of entrained flow coal gasification
in a drop tube reactor" , Fuel, 75(9), 1035-1042(1996)
2) Jae Goo LEE et. al., "Drop tube sutdies for the entrained flow coal
gasification", Hwahak Konghak, 34(4), 496-501(1996)
3) Jae Goo LEE et. al., "Study on flow characteristics in entrained flow
gasifier with high speed impinging jet", Transactions of the KSME, 20(5),
1735-1742(1996)
4) Jae Goo LEE et. al., "Effect of CaCO3 addition as a flux on the melting of
ash and slag", Energy Engg. J., 4(3), 372-378(1995)
5) Jae Goo LEE et. al.,"Coal gasification characteristics in an entrained
flow gasifier", Energy Engg. J., 4(3), 379-386(1995)
15
1 Development of coal gasification technology for IGCC
2 1993-1996
3 coal, energy
4 gasification, countermeasures
5 engineering
6 Jae Ho KIM, Hyo Jin LEE, Jae Goo LEE, Tae Jun PARK
7 Coal Gasification Research Team, Energy Conversion Research Dept.
8 KIER
9 71-2 Jangdong, Yousungku, Taejon, 305-343
10 Korea
11 82-42-860-3350
12 82-42-860-3302
13 World faces a new round for the international concerning to restrain or
even reduce the use of fossil fuels inducing environmental issues such
as CO2 emissions causing green house effect or sulfur emissions for acid
rain etc. In addition, the limited amount and uncertainty regarding to
conventional fuels oil and natural gas reserves are required to develop
their substitute fuels. Coal is the world's most abundant and widely
distributed fossil fuel, and it has been dominant roles in energy industries
over a century. It benefits from a relativery low and stable price that is
little influenced by international events. However, conventional combustion
technoligies are limited to resolve emission problems from burning coal.
Therefore in the longer term, coal is to be converted to clean synthesis
gas with advanced gasification technology and it must be clean, efficient
in an environmentally sound manners.
A number of developed countries have already poured the huge amount of
investments for the researches and a considerable efforts to reduce
emissions of sulfur, nitrogen oxides, and carbon dioxide emissions
abatement. Such emissions will be reduced by the use of high efficiency
clean coal technology based on integrated coal gasification combined cycles
for power generation.
This research aim is to support basic research for the development of high
temperature entrained flow coal gasifier to be utilized for IGCC power system.
The capacity of 0.5-1.0 ton/day PDU entrained flow coal gasifier was
developed by KIER and it will be tested by various coal sources from
overseas including Australian coals.
During the research periods, the following work scopes and experiments were
carried out.
* Measured physical and chemical properties of candidated coals
* Study for system design of coal gasifier
* Development of burner and its characteristic study for combustion and
gasification
* Coal preparation and coal slurry feeding system
* Characteristic of slag flow in gasifier
* High temperature materials for gasifier
* Study for instrumentations and control system
* Slag and particulate removal system
* Modeling of coal gasification
* Date analysis for coal gasification experiments.
14 1) Jae Ho KIM, et. al., "Characteristics of entrained flow coal gasification
in a drop tube reactor" , Fuel, 75(9), 1035-1042(1996)
2) Jae Ho KIM, et. al., "Drop Tube studies for the Entrained Flow Coal
Gasification", Hwahak Konghak, 34(4), 496-501(1996)
3) Jae Ho KIM, et. al., "Effect of CaCO3 Addition as a Flux on the Melting
of ash and slag", Energy Engg. J., 4(3), 372-378(1995)
4) Jae Ho KIM, et. al., "Coal Gasfication Characteristics in An Entrained
Flow gasifier", Energy Engg. J.,4(3), 379-386(1995)
15 CSIRO. Division of coal and energy
1 Development of Coal Gasification technology for IGCC. Research planning for
Clean Coal Technologies.
2 1990-1996
3 Development for entrained-flow coal gasification technology and technology
evaluation for IGCC project in Korea, energy
4 Review of Clean Coal Technologies and prepared Research Programes of CCT for
Power generation plants, countermeasures
5 Chemical, Physical Characteristics of Coals, Reactivity, Ranks,
Structural analysis of Coal conversion.
6 T.J. Park, J.H. Kim, H.J. Lee, J.G. Lee, R.S. OK et al.
7 Energy Conversion Research Department
8 KIER
9 71-2 Jang-dong Yusung-Ku, Taejon, 305-343
10 Korea
11 82-42-860-3300
12 82-42-860-3302
13 To research and development of coal gasification technology to apply
for advanced power generation and clean coal technologies to reduce
environmental problems. To investigate energy utilization technologies
with new energy storage and long distance energy transportation technologies
systems to be recovered by waste heat from industrial complex.
14 Fuel, vol.75, 1996,11th US/Korea Joint Workshop on coal utilization
technology proceeding 95/10/1 U.S.A, 1st China/Korea joint W/S on Coal
Util. Tech. 96/9/2, China, Indonesia/Korea joint seminar on Coal Polocy &
Releated Technology Proceeding 96.8.7.Indonesia. Collaborative research
report. CSIRO/KIER(1995).
15 International Collaborative research with Division of Coal & Energy Technology
CSIRO, 51 Delhi Rd. North Ryde Sydney, Australia(since 1992- ),
US DOE PETC( -1985), U.S.A. and Gas De France(1984- ), France.
16 Please refer to our department research activities of our home page at
WWW(Energy Conversion Research Department, KIER) :
http://WWW.kier.re.kr/e-con.html
1 Recovery of energy from waste (Development of the oil recovery from
waste-water sludge by using high pressure liquefaction technology)
2 1994-1996
3 waste
4 reaction mechanism, modeling
5 engineering
6 Ho-tae Lee
7 Energy Conversion Research Department
8 KIER
9 71-2 Jan-dong Yousung-Ku, Taejon, 305-343
10 KOREA
11 82-42-860-3662
12 82-42-860-3302
13 energy recovery and utilization of waste like sewage sludge, plastics, etc.
14
15