full2013_e - page 15

A
CKNOWLEDGMENT
The author would like to grateful thank The Joint
Graduate School of Energy and Environment (JGSEE),
Center of Excellence on Energy Technology and
Environment (CEE-PERDO), King Mongkut’s University
of Technology Thonburi (KMUTT), Bangkok, Thailand
for the financial support to this study through PhD
research scholarship. Sincere gratitude is expressed to
Office of Agricultural Economics, Ministry of
Agriculture and Cooperatives, and Office of the Cane and
Sugar Management, Ministry of Industry, for the support
in statistics information and data. Finally, the Aerosol
from Biomass Burning to the Atmosphere (ABBA)
research group is highly appreciated for their technical
assistance and contribution.
R
EFERENCES
[1]
Office of Agricultural Economics (OAE); Agricultural
Statistics of Thailand 2002/03-2011/12 (in Thai), 2013,
p.15
[2]
Junginger M., Faaij A., Broek R. V. D.,Koopmans A.,
Hulscher W.; Fuel Supply Strategies for Large-scale Bio-
energy Projects in Developing Countries. Electricity
Generation from Agricultural and Forest Residues in
Northeastern Thailand. J. Biomass and Bioenergy, vol.21,
2001, pp. 259-275.
[3]
Danchang Bio-energy Co. Ltd; The Quantity of Sugarcane
Field Residues Using as Secondary fuel for bagasse power
plant,
[online]
Available
from
82Z1IRNF9460T6GE9B9UZ1SFW2U [accessed August
10, 2010].
[4]
Office of the Cane and Sugar Board (OCSB); Statistics of
sugarcane production in 2002/03-2011/12 (in Thai).
[online]
Available
from
production [accessed March 17, 2012].
[5]
Jenkins B.M.; Atmospheric pollutant emission factor from
open burning of sugar cane by wind tunnel
simulation –
Final Report
. University of California, Davis, 1994, pp.
[6]
The Intergovernmental Panel on Climate Change (IPCC).;
2006 IPCC Guidelines for National Greenhouse Gas
Inventories
, [online] Available from
html [accessed
December 13, 2011].
[7]
Basanta M.V., Dourado-Neto D., Reichardt K., Bacchi
O.O.S., Oliveira J.C.M., Trivelin P.C.O., Timm L.C.,
Tominaga T.T., Correchel V., Ca´ssaro F.A.M., Pires
L.F., de Macedo J.R.; Management effects on nitrogen
recovery in a sugarcane crop grown in Brazil. J.
GEODERMA, Vol.116, 2003, pp.235-248.
[8]
Bhattacharya S.C., Shrestha R.M., Ngamkajornvivat S.;
Potential of Biomass Residue Availability: The Case of
Thailand. J
. Energy Sources
,
Vol. 11, 1989, p. 201-216.
[9]
King Mungkut’s University of Technology Thonburi
(KMUTT);
Assessment of potential amount solid-biomass
from agricultural residues and agro-residues from sawed
timber, furniture and short rotation tree for heat and
power generation in Thailand (in Thai)
, King Mungkut’s
University of Technology Thonburi, 2006, pp.2-42.
[10]
Pollution Control Department (PCD);
Monitoring and
Assessment of Open Burning in Agricultural Areas/Lands
(in Thai)
, Ministry of Natural Resource and Environment,
Thailand, 2007, pp.7.2- 7.3.
[11]
Energy Policy and Planning Office; SPP and VSPP
situation, [online] Available from
accessed
March 13, 2013].
[12]
Siemers W.; Development of tools to estimate alternatives
strategies and options in using biomass for energy, Final
report for Thailand Research Fund, Bangkok, 2009, p.24.
[13]
Office of Natural Resources and Environmental Policy
and Planning (ONEP); Environmental Impact Assessment
report [online] Available from
[accessed March 13, 2013].
[14]
Mitr Kalasin Sugar Co., Ltd; Environmental Impact
Assessment report [online] Available from
accessed November 30, 2010].
[15]
Energy for Environment Foundation (EFE); Biomass
Analysis,
[online]
Available
from
20Value.pdf
[accessed April 13, 2007].
2013 International Conference on Alternative Energy in Developing Countries and Emerging Economies
- 14 -
1...,5,6,7,8,9,10,11,12,13,14 16,17,18,19,20,21,22,23,24,25,...907
Powered by FlippingBook