Authors :
Saleh Mohammad salehy; Mohammad Bashir Aimaq; Reza Shakoor Shahabi
Volume/Issue :
Volume 7 - 2022, Issue 3 - March
Google Scholar :
https://bit.ly/3IIfn9N
Scribd :
https://bit.ly/3Nx0hHS
DOI :
https://doi.org/10.5281/zenodo.6395406
Abstract :
- Global growth of the steel industry, existence
of rich iron ore resources and excessive domestic
demand for this product; the idea of designing and
optimizing the amount of iron ore and concentrate
required by the factories was created according to the
domestic demand for steel in Afghanistan. In this
research, first all provinces were evaluated according to
factors (iron ore reserves, distance to consumers, water
resources, energy resources, infrastructure and security,
etc.) and then by arranging and distributing
questionnaires and interviewing with experts, Six
provinces are envisaged as candidate options for the
construction of processing plants and another six
provinces as candidate options for the construction of
steel industries. In the linear planning model, three
separate areas of mines, processing plants and steel
industries are formed and each area is divided into its
respective zones based on location and production
capacity. After forming the matrix of road transport
distances between the zones using GIS software, a linear
programming model is formed to optimize the amount of
iron ore required by processing plants and concentrate
required by the steel industry. Optimization of iron ore,
concentrate and steel production required by
Afghanistan up to 2030 horizon has been done using
linear programming model in Excel software. According
to estimates, Afghanistan will need 2.89 million tons of
iron ore, 1.7 million tons of concentrate and 1 million
tons of steel annually by 2030.
Keywords :
Afghanistan, Steel mills, Iron ore mines, Linear programming model
- Global growth of the steel industry, existence
of rich iron ore resources and excessive domestic
demand for this product; the idea of designing and
optimizing the amount of iron ore and concentrate
required by the factories was created according to the
domestic demand for steel in Afghanistan. In this
research, first all provinces were evaluated according to
factors (iron ore reserves, distance to consumers, water
resources, energy resources, infrastructure and security,
etc.) and then by arranging and distributing
questionnaires and interviewing with experts, Six
provinces are envisaged as candidate options for the
construction of processing plants and another six
provinces as candidate options for the construction of
steel industries. In the linear planning model, three
separate areas of mines, processing plants and steel
industries are formed and each area is divided into its
respective zones based on location and production
capacity. After forming the matrix of road transport
distances between the zones using GIS software, a linear
programming model is formed to optimize the amount of
iron ore required by processing plants and concentrate
required by the steel industry. Optimization of iron ore,
concentrate and steel production required by
Afghanistan up to 2030 horizon has been done using
linear programming model in Excel software. According
to estimates, Afghanistan will need 2.89 million tons of
iron ore, 1.7 million tons of concentrate and 1 million
tons of steel annually by 2030.
Keywords :
Afghanistan, Steel mills, Iron ore mines, Linear programming model