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X. Agnello J. Naveen et al.
1 Introduction
The cement Industrial process is a very complex high-energy consumption to run,
which leads to environmental issues by using non-renewable energy resources, heavy
electricity depended industries like Aluminum smelter, copper smelter, iron and
steel, cement, paper and pulp, fertilizer industries (Gupta 2013; Sengupta 2016).
And it is clear that steel, aluminum, cement are the largest consumers of commercial
energy compared to other industrial sectors. Energy Reduction for (Perform-AchieveTrade) PAT (Ministry of power 2012) Indian Cement industry comprises of 210 large
cement plants (BEE 2018), and that accounts for 10.3% of total fuel consumption
in the manufacturing sector (Khurana et al. 2002). Cement industry depends upon
combusted energy level (specific heat capacity) which is used for operation can
be conducted smooth by the operators Green rating project (GRP) has focused to
implement the directives of European union best available technology (BAT). Which
is very essential in finding the carbon emission reduction and carbon foot printing for
a year or a decade? So to update technology regulatory systems are enhancing system
based support like monitoring and have prior responsible for the energy audit ISO
50001, the main focus in the cement industry is on air pollution control, adsorption
and energy conservation.
2 Study Area
The select Cement industry taken for the study situated in Ariyalur is an “Ultra red”
category industry as the pollution load is very high. The production of cement is 3
MT per day.
2.1 Materials and Methods
Economic Parameters
Cost variables: In this cost analysis basic cost parameters like capital expenditures, variable cost, Buy back cost and viability of the mechanism (Life time of the
mechanism in years) of the two treatment process are Elicited by the environmental
engineer has a secondary data this are necessary cost to find (Benefit cost per liter).
VC = Variable cost, FC = Fixed cost, BB = BuyBack cost, Viability Period
of the mechanism
Steps involved
1. The total Buyback cost is equal to capital investment in Rupees. Multiply with
buyback cost in %, is divide by 100 is equal to Rupees (Total Buyback cost).
2. Actual capital Investment equals to capital Investment in Rupees minus Total
buyback cost in Rupees is equal to fixed cost per year in Rupees,
X. Agnello J. Naveen et al.
1 Introduction
The cement Industrial process is a very complex high-energy consumption to run,
which leads to environmental issues by using non-renewable energy resources, heavy
electricity depended industries like Aluminum smelter, copper smelter, iron and
steel, cement, paper and pulp, fertilizer industries (Gupta 2013; Sengupta 2016).
And it is clear that steel, aluminum, cement are the largest consumers of commercial
energy compared to other industrial sectors. Energy Reduction for (Perform-AchieveTrade) PAT (Ministry of power 2012) Indian Cement industry comprises of 210 large
cement plants (BEE 2018), and that accounts for 10.3% of total fuel consumption
in the manufacturing sector (Khurana et al. 2002). Cement industry depends upon
combusted energy level (specific heat capacity) which is used for operation can
be conducted smooth by the operators Green rating project (GRP) has focused to
implement the directives of European union best available technology (BAT). Which
is very essential in finding the carbon emission reduction and carbon foot printing for
a year or a decade? So to update technology regulatory systems are enhancing system
based support like monitoring and have prior responsible for the energy audit ISO
50001, the main focus in the cement industry is on air pollution control, adsorption
and energy conservation.
2 Study Area
The select Cement industry taken for the study situated in Ariyalur is an “Ultra red”
category industry as the pollution load is very high. The production of cement is 3
MT per day.
2.1 Materials and Methods
Economic Parameters
Cost variables: In this cost analysis basic cost parameters like capital expenditures, variable cost, Buy back cost and viability of the mechanism (Life time of the
mechanism in years) of the two treatment process are Elicited by the environmental
engineer has a secondary data this are necessary cost to find (Benefit cost per liter).
VC = Variable cost, FC = Fixed cost, BB = BuyBack cost, Viability Period
of the mechanism
Steps involved
1. The total Buyback cost is equal to capital investment in Rupees. Multiply with
buyback cost in %, is divide by 100 is equal to Rupees (Total Buyback cost).
2. Actual capital Investment equals to capital Investment in Rupees minus Total
buyback cost in Rupees is equal to fixed cost per year in Rupees,