Authors :
Safeeya Fathima; Shashini Yapa; Chinthaka Kularatne; Jingru Liu; Sathsara Panchali; Lawrence Madapatha
Volume/Issue :
Volume 9 - 2024, Issue 12 - December
Google Scholar :
https://tinyurl.com/mremfnbn
Scribd :
https://tinyurl.com/5n6fs42n
DOI :
https://doi.org/10.5281/zenodo.14598600
Abstract :
The Board of Investment (BOI) is a prime
investment facilitation agency in Sri Lanka established in
1978, under the Greater Colombo Economics
Commission to stimulate the Foreign Direct Investment
(FDI). Countrywide, fifteen Export Processing Zones
(EPZ) are dedicated to promoting FDI within the
industrial zones while providing more than 1300
companies to operate outside the demarcated zones under
the BOI purview. Out of the 15 EPZs operating, Kandy
Industrial Park (KIP) plays a key role in the central
region of Sri Lanka as it is the only regional industrial
park functioning under the BOI by facilitating 24
industries to uplift the national economy. The area is
located in a peak and forested interior and is demarcated
as a sensitive area under the Soil Conservation Act in Sri
Lanka. Kandy city and most of the region are shown as
basin topography which is significant to the atmospheric
emission and dispersion mechanisms.
Further, BOI was selected as the focal point to
implement Nationally Determined Contributions (NDCs)
under the framework of the United Nations Framework
Convention on Climate Change (UNFCCC). Hence,
Greenhouse Gas (GHG) emission and Carbon Footprint
(CFP) calculation of this prime industrial park is essential
to maintain a harmonized environment in terms of the
economic, health, and social aspects and the view of global
warming. This assessment spanned 195 acres covering a
wide range of industrial activities including 24 industries
of apparel manufacturing, food processing,
pharmaceutical manufacturing, and telecommunication
systems. According to the theoretical method to calculate
CFP, scope 1, scope 2, and scope 3 were recommended.
However, considering the deep analysis of park activity
responses to the CFP, it has revealed that scope 1 and
scope 2 are the most impactful emission types. The case
study was selected the KIP as boundary. The scope 3 were
disregarded.
Accordingly, the GHG emission showed 1,617,341.13
metric tons of carbon dioxide equivalent (CO2 eq).
Emission inventory for Scope 1 due to diesel and gasoline
combustion contributed 42,775.63 CO2 eq (MT), while
Scope 2 due to electricity usage accounted for 1,574,565.50
CO2 eq (MT). These values are committed to the
environmental challenges and drive to initiate the
mitigation measures.
In context, it has recommended encouraging
investors and industrial management to align with
renewable energy sources especially solar power
compatible with the climate of the region. Further
alternative fuel sources such as biofuels or electrical
vehicle usage practices can be adhered. In addition,
internal modifications, adaptation of cleaner production
mechanisms, equipment optimizations, proper
maintenance, and energy audits were recommended.
Meantime, park managements and the users are adapted
to increase the green cover in order to implement the
natural carbon sink mechanisms forecasting the long
term impact.
In conclusion, the CFP assessment emphasized the
crucial requirements to implement the sustainable
practices to minimize the environmental impact and
global warming. By following the recommended
approaches, the park can potentially address its CFP and
enhance its climate change mitigation efforts align to the
NDCs. This study provides a model for other industrial
zones in Sri Lanka and comprehensively underscores the
significance of dynamic sustainability adaptations in
industrial operations.
Keywords :
Carbon Footprint, Greenhouse Gas Emissions, Kandy Industrial Park, Scope 1 Emissions, Scope 2 Emissions, Energy Efficiency, Renewable Energy, Sustainability, Climate Change.
References :
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- Al Mamun, A. et al. (2024) ‘Energy consumption modeling in industrial sewing operations: A case study on carbon footprint measurement in the apparel industry’, Manufacturing Letters, 41, pp. 1635–1644. Available at: https://doi.org/10.1016/j.mfglet.2024.09.190.
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- Shashini Yapa et al. (2019) ‘Journal of Environmental And Sciences ( ISSN 2836-2551 ) Optimizing Waste-To-Energy Boiler Performance in Kandy Industrial Park : A Comprehensive Life Cycle Assessment and Advanced Efficiency Enhancement Journal of Environmental And Sciences, pp. 1–17.
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The Board of Investment (BOI) is a prime
investment facilitation agency in Sri Lanka established in
1978, under the Greater Colombo Economics
Commission to stimulate the Foreign Direct Investment
(FDI). Countrywide, fifteen Export Processing Zones
(EPZ) are dedicated to promoting FDI within the
industrial zones while providing more than 1300
companies to operate outside the demarcated zones under
the BOI purview. Out of the 15 EPZs operating, Kandy
Industrial Park (KIP) plays a key role in the central
region of Sri Lanka as it is the only regional industrial
park functioning under the BOI by facilitating 24
industries to uplift the national economy. The area is
located in a peak and forested interior and is demarcated
as a sensitive area under the Soil Conservation Act in Sri
Lanka. Kandy city and most of the region are shown as
basin topography which is significant to the atmospheric
emission and dispersion mechanisms.
Further, BOI was selected as the focal point to
implement Nationally Determined Contributions (NDCs)
under the framework of the United Nations Framework
Convention on Climate Change (UNFCCC). Hence,
Greenhouse Gas (GHG) emission and Carbon Footprint
(CFP) calculation of this prime industrial park is essential
to maintain a harmonized environment in terms of the
economic, health, and social aspects and the view of global
warming. This assessment spanned 195 acres covering a
wide range of industrial activities including 24 industries
of apparel manufacturing, food processing,
pharmaceutical manufacturing, and telecommunication
systems. According to the theoretical method to calculate
CFP, scope 1, scope 2, and scope 3 were recommended.
However, considering the deep analysis of park activity
responses to the CFP, it has revealed that scope 1 and
scope 2 are the most impactful emission types. The case
study was selected the KIP as boundary. The scope 3 were
disregarded.
Accordingly, the GHG emission showed 1,617,341.13
metric tons of carbon dioxide equivalent (CO2 eq).
Emission inventory for Scope 1 due to diesel and gasoline
combustion contributed 42,775.63 CO2 eq (MT), while
Scope 2 due to electricity usage accounted for 1,574,565.50
CO2 eq (MT). These values are committed to the
environmental challenges and drive to initiate the
mitigation measures.
In context, it has recommended encouraging
investors and industrial management to align with
renewable energy sources especially solar power
compatible with the climate of the region. Further
alternative fuel sources such as biofuels or electrical
vehicle usage practices can be adhered. In addition,
internal modifications, adaptation of cleaner production
mechanisms, equipment optimizations, proper
maintenance, and energy audits were recommended.
Meantime, park managements and the users are adapted
to increase the green cover in order to implement the
natural carbon sink mechanisms forecasting the long
term impact.
In conclusion, the CFP assessment emphasized the
crucial requirements to implement the sustainable
practices to minimize the environmental impact and
global warming. By following the recommended
approaches, the park can potentially address its CFP and
enhance its climate change mitigation efforts align to the
NDCs. This study provides a model for other industrial
zones in Sri Lanka and comprehensively underscores the
significance of dynamic sustainability adaptations in
industrial operations.
Keywords :
Carbon Footprint, Greenhouse Gas Emissions, Kandy Industrial Park, Scope 1 Emissions, Scope 2 Emissions, Energy Efficiency, Renewable Energy, Sustainability, Climate Change.