The population of the 
developing countries like the Pakistan is increasing more rapidly than the 
average growth rate 1.8% of world’s population (Population Division, 2009). The 
increasing food demands in the developing countries need another food revolution 
(Huang et al., 2002). Almost 65% of the world is total population is starving 
for food and its proportion more in poor countries of the world (Food Security 
Statistics, 2008).
At the present scenario along with the food security, Malnutrition is becoming 
an important problem in the areas where improper food supply and lack of the 
diversification in the foods. Micronutrients deficiency has directly concern 
with Malnutrition.
According to World Health Organization the deficiency of the Zinc, iron and 
vitamin in human population is more in the developing countries of the world. 
Deficiency of Zinc in humans is Causes five major diseases and also causes death 
(WHO, 2002). 
There are 2.7 billion people suffer from zinc deficiency in the world (WHO, 
2002; Muller and Krawinkel, 2005). In future according to experts about more 
than 50% population of the world is under the risk of zinc deficiency and it is 
more in the poor countries of the Asia and Africa.
(Figure1)
In Pakistan the deficiency of Zinc is at the alarming stage, almost every third 
children is suffer from zinc deficiency and about more than 40% of the mothers 
are suffering from deficiency of Zinc Bhutta et al. (2007).
In the developing countries of Africa and Asia, mostly people depended upon the 
cereals for food and there is almost no diversification in food. Requirement of 
zinc is differ with respect to gender and growth period for example a women 
require 10 mg Zn d−1 and an adult man require 12 mg Zn d−1 for their proper 
growth and development. But their requirements cannot be fulfilled due to the 
lack of diversification in food habits and depended upon the cereals which are 
low in the Zinc% (Bouis and Welch, 2010).Pregnant women require more zinc almost 
14 mg Zn d−1 during their pregnancy and also throughout their lactation period.
In most of the countries zinc deficiency occurs because people of these 
countries are eating cereals like the wheat and rice for example in Pakistan, 
India, Iran and China, wheat and rice are grown on the soils having low zinc 
status and the grains of the crops provide too less concentration of Zinc to 
fulfill the human requirements (Alloway, 2008: IZA, 2009).
Bio fortification is only and single option to tackle the issue of Zinc 
deficiency among the population of the developing countries and from all over 
the world. Wheat is the staple food of the areas where the Zinc deficiency is 
present so the zinc fortified wheat is the best option to overcome of this 
problem (FAO Database, 2005; Seleiman et al., 2010). 
The Common verities of wheat are unable to get the enough Zinc form the alkaline 
calcareous soils and semiarid conditions to meet their own proper growth and 
development (IZA, 2009). So the less availability of the zinc responsible for 
the low grain yields low concentration of zinc and causing the zinc deficiency 
in the humans.
A common wheat grains have 25-30 μg Zn g−1 dry weight. It is necessary for to 
cover the zinc requirements from the grains of wheat it should be more >50 μg Zn 
g−1 dry weight of grains of wheat (Cakmak, 2008).
Zincol is the Zn fortified variety of wheat growing in the Pakistan, which has 
the more zinc concentration in their grains, leaves and stem also than the 
local/ common wheat varieties. It has almost 3-5 times more Zinc concentration 
in their grains with the almost equal yield of grains as like local varieties of 
wheat. Zincol is the genetically Zinc fortified variety which is more efficient 
to uptake the zinc from the soil and also the translocation of the zinc within 
the plant into the grains. Figure 2
Grains of Zincol (Figure 2)
Through growing the Zn fortified varieties like the zincol in all over the world 
and eating the grains obtained from these types of varieties, we can inhabit the 
zinc deficiency in all over the world. 
So we can protect our self, our children and our future generation through 
invading the practice of growing the fortified varieties into our traditional 
agricultural cropping system. 
References:
Alloway, B. J. 2008. Zinc in Soils and Crop Nutrition, 2nd edition. IZA 
Brussels, Belgium and IFA Paris, France.
Bhutta, Z. A., A. Jiwani, A. Feroze, N. Kissana and I. O. Monasterio. 2007. 
Assessment of human zinc deficiency and determinants in Pakistan: Implications 
for interventions. In: Proceeding of International Zinc Association conference 
‘Zinc Crops 2007 - Improving Crop Production and Human Health’. May 24–26, 2007. 
Istanbul, Turkey.
Bouis, H. E. and R. M. Welch. 2010. Biofortification: A sustainable agricultural 
strategy for reducing micronutrient malnutrition in the global south. Crop Sci. 
50:S20–S32.
Cakmak, I. 2008. Enrichment of cereal grains with zinc: Agronomic or genetic 
biofortification? Plant Soil 302:1–17.
Food Security Statistics. 2008. The State of Food Insecurity in the World. Rome, 
Italy: Food and Agricultural Organization.
Huang, J., C. Pray and S. Rozelle. 2002. Enhancing the crops to feed the poor. 
Nature 418:678–684.
IZA. 2009. Zinc in Fertilizers: Essential for Crops, Essential for Life! 
International Zinc Association, Brussels, Belgium.
FAO Database. 2005. Online at < https://faostat.fao.org/site/609/default.a spx#ancor> 
on May 5, 2010.
Food Security Statistics. 2008. The State of Food Insecurity in the World. Rome, 
Italy: Food and Agricultural Organization.
Muller, O. and M. Krawinkle. 2005. Malnutrition and health in developing 
countries. Can. Med. Ass. J. 173:279–286.
Population Division. 2009. World Population Prospects: The 2008 Revision. 
Working Paper No. ESA/P/WP.210. United Nations, Department of Economic and 
Social Affairs, New York, USA.
Seleiman, M. F., S. M. Abdel-Aal, M. E. Ibrahim and P. Monneveux. 2010. 
Variation of yield, milling, technological and rheological characteristics in 
some Egyptian bread wheat (Triticum aestivum L.) cultivars. Emir. J. Food Agric. 
22:84–90.