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Human beings evolved under conditions of high mortality due tofamines, accidents, illnesses, infections and war and therefore therelatively high fertility rates were essential for species survival. Inspite of the relatively high fertility rates it took all the time fromevolution of mankind to the middle of the 19th century for the globalpopulation to reach one billion. The twentieth century witnessed anunprecedented rapid improvement in health care technologies andaccess to health care all over the world; as a result there was asteep fall in the mortality and steep increase in longevity. Thepopulation realized these changes and took steps to reduce theirfertility but the decline in fertility was not so steep. As a result theglobal population has undergone a fourfold increase in a hundredyears and has reached about 7 billion.The State of World Population 2011 looks at the trends—thedynamics—that are defining our world of 7 billion and shows whatpeople in vastly different countries and circumstances are doing intheir own communities to make the most of our world of 7 billion.Some of the trends are remarkable: Today, there are 893 millionpeople over the age of 60 worldwide. By the middle of this centurythat number will rise to 2.4 billion. About one in two people lives in acity, and in only about 35 years, two out of three will. People underthe age of 25 already make up 43 per cent of the world’s population,reaching as much as 60 percent in some countries. India has thesecond largest population in the world, with 1.21 billion peoplecomprising 623.7 million males and 586.5 million females, according
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Preface
Human beings evolved under conditions of high mortality due to
famines, accidents, illnesses, infections and war and therefore the
relatively high fertility rates were essential for species survival. In
spite of the relatively high fertility rates it took all the time from
evolution of mankind to the middle of the 19th century for the global
population to reach one billion. The twentieth century witnessed an
unprecedented rapid improvement in health care technologies and
access to health care all over the world; as a result there was a
steep fall in the mortality and steep increase in longevity. The
population realized these changes and took steps to reduce their
fertility but the decline in fertility was not so steep. As a result the
global population has undergone a fourfold increase in a hundred
years and has reached about 7 billion.
The State of World Population 2011 looks at the trendsthe
dynamicsthat are defining our world of 7 billion and shows what
people in vastly different countries and circumstances are doing in
their own communities to make the most of our world of 7 billion.
Some of the trends are remarkable: Today, there are 893 million
people over the age of 60 worldwide. By the middle of this century
that number will rise to 2.4 billion. About one in two people lives in a
city, and in only about 35 years, two out of three will. People under
the age of 25 already make up 43 per cent of the worlds population,
reaching as much as 60 percent in some countries. India has the
second largest population in the world, with 1.21 billion people
comprising 623.7 million males and 586.5 million females, according
to the provisional 2011 Census report. In the last ten years, 181
million people were added and, since 1947, the population of India
has more than tripled. Interestingly, the addition of 181 million
people to the population during 2001-11 is slightly lower than the
total population of Brazil, the fifth most populous country in the
world. Significantly, the growth is slower compared to the previous
decade. India accounts for 17.5 percent of the world population.
The present book is an initiative to bring out the innovative
ideas of authors and scholars on population issues, I am highly
indebted and gratitude to all authors and scholars who have given
consent for publishing their articles in the edited book form. It gives
me great pleasure to express my thanks to all, who have extended
their helping hands in the completion of this book. I am very grateful
to Dr. M. M. Sheikh, Associate Professor, Dept. of Geography, Govt.
Lohia PG Collage, Churu for his valuable guidance and supervision.
I deeply express my gratitude to my father Mr. Shiv Kumar Ojha,
mother Mrs. Uma Ojha, Brother Mr. Anil Kumar Ojha, and sister in
law Nisha Ojha, Sister Manju Sharma, brother in law Mr. Manoj
Sharma and my aunty Hemlata Ojha for their co-operation in this
work. I also extend special thanks to our all friends who motivated
me to bring out this book. It is hoped this book will be useful for
researchers, environmental activists, subject experts and policy
makers.
Place: Churu, Rajasthan (India) (Anju Ojha)
Dated: 21th March, 2014
Contents
Preface iContents iii
List of Authors iv
1. Population Growth Dynamics in IndiaAnju Ojha
1
2. Detecting Fallow Agricultural Land and Correlationwith Demographic Indicators in the Branicevo andPomoravlje Districts, SerbiaDarko Jaramaz and Veljko Perovic
34
3. Population Dynamics in Rajasthan StateM. M. Sheikh
60
4. Population Explosion Menace: An OverviewMalti P. Sharma
81
5. Declining Sex Ratio in IndiaVibhuti Patel
90
6. Education and Women Population in IndiaL. R. Patel and Pankaj Rawal
138
7. In-Vitro Fertilization in India: Negotiating Genderand ClassSneha Annavarapu
151
8. Woman Literacy in Rajasthan State of IndiaRatan Lal
172
9. Population Challenges and Development GoalsPreeti Sharma and Devendra Kumar Sharma
180
10. Population Growth Trends in IndiaPardeep Sharma
201
11. Population Trends and Policy in selectedCountriesAkshita Chotia, Pratibha Sharma and Preeti Sharma
217
List of Authors
1. Akshita Chotia Assistant ProfessorDept of Geography, R.K.J.K Barasia PG College, Surajgarh, Jhunjhunu (Raj)
2. Anju OjhaAssistant ProfessorDepartment of GeographyGovt. Lohia PG College, Churu, Rajasthan, INDIA
3. Darko Jaramaz and Veljko PerovicInstitute of Soil Science, Teodora Drajzera 7, Belgrade, Serbia
4. Devendra Kumar SharmaAssistant Professor, Department of GeographyRKJK Barasia PG College, Surajgarh (Jhunjhunu )Raj.
5. Education and Women Population in IndiaL. R. Patel Department .of GeographyJRN University, Udaipur (Raj.) India
6. M. M. SheikhAssociate ProfessorDepartment of GeographyGovt. Lohia PG College, Churu, Rajasthan, India
7. Malti P. Sharma Associate Professor (English), S.K. Govt. (P.G.)College Sikar (Rajasthan), India
8. Pankaj Rawal Department .of GeographyJRN University, Udaipur (Raj.) India
9. Pardeep SharmaAssistant ProfessorDept of GeographyR.K.J.K Barasia PG College, Surajgarh, Jhunjhunu(Raj)
10. Pratibha Sharma Assistant ProfessorDept of Geography, R.K.J.K Barasia PG College, Surajgarh, Jhunjhunu (Raj)
11. Preeti Sharma Assistant Professor, Department of GeographyRKJK Barasia PG College, Surajgarh (Jhunjhunu )Raj.
12. Ratan Lal Govt. School, Badi Kallan (Jodhpur), India
13. Sneha AnnavarapuResearch ScholarDepartment of Humanities and Social Sciences, IITMadras.
14. Vibhuti Patel Professor & Head, Department of Economics, SNDT Womens University, Churchgate, Mumbai
1
Chapter-1
Population Growth Dynamics in India
Anju OjhaAssistant Professor
Department of GeographyGovt. Lohia PG College, Churu, Rajasthan, INDIA
Long years ago we made a tryst with destiny, and now the time
comes when we shall redeem our pledge, not wholly or in full
measure, but very substantially. At the stroke of the midnight hour,
when the world sleeps, India will awake to life and freedom. A
moment comes, which comes but rarely in history, when we step out
from the old to the new, when an age ends, and when the soul of a
nation, long suppressed, finds utterance. It is fitting that at this
solemn moment we take the pledge of dedication to the service of
India and her people and to the still larger cause of humanity. That
future is not one of ease or resting but of incessant striving so that
we may fulfill the pledges we have so often taken and the one we
shall take today. The service of India means the service of the
millions who suffer. It means the ending of poverty and ignorance
and disease and inequality of opportunity. The ambition of the
greatest man of our generation has been to wipe every tear from
every eye. That may be beyond us, but as long as there are tears
and suffering, so long our work will not be over. (Jawahar Lal Nehru,
1947)
With these evocative words, an independent India began her
tryst with destiny. It is fitting that we celebrate the awakening of the
2
Indian economy and an era of faster annual growth by remembering
this pledge of service to the 1.2 billion-plus population in diverse
corners of India. This book is dedicated to exploring the contours of
the day to day lives of Indians in 2004 and 2005, nearly 60 years
after this pledge was made. This search must acknowledge the
achievements of the last century as well as anticipate the challenges
of the twenty-first century. It must document the lived experiences of
Indian families in cities and villages from Kashmir to Kanyakumari as
they go about negotiating their daily lives in a globalizing India.
The high rate of population is a major problem of the Country
and the State as well. Population control remains the most
challenging task before our nation and our state today. Although
India was the first developing country to adopt the Family Planning
Program in 1951, the efforts towards population stabilization in the
last five decades did not fetch the desired results. After the 1994
International Conference on Population and Development (ICPD) at
Cairo, the country as a whole approaching the issue of population
stabilization from a Reproductive Child Health (RCH) perspective.
Due to socio-economic and demographic heterogeneity it is,
however, not possible to implement all the components of the
program of action adopted at ICPD, in all the states all at once.
There is an urgent need, therefore, to take the regional variations
into account while developing programs and action plans that are
state specific. The population of an area is the outcome of its
physical, socio-economic environment. Population study, gives an
idea not only about the region but also gives an idea about the
resource because, population is also one on the major resource of
3
any region. Population study is concerned not only with the
population variables but also with the relationship between
population variables and social, economic, political, biological,
geographical variables etc. It includes both qualitative and
quantitative aspects of human population.
India is one of the very few countries in the world, which has a
proud history of holding Census after every ten years. The Indian
Census has a very long history behind it. The earliest literature Rig
Veda reveals that some kind of population count was maintained
during 800-600 BC. Kautilyas Arthasastra, written around 321-296
BC, laid stress on census taking as a measure of State policy for
purpose of taxation. During the regime of Mughal king Akbar the
Great, the administrative report Ain-e-Akbari included
comprehensive data pertaining to population, industry, wealth and
many other characteristics.
The History of Census began with 1800 AD when England had
begun its census but the population of dependencies was not known
at that time. In its continuation , based on this methodology census
was conducted in town of Allahabad in 1824 and in the city of
Banaras in the year 1827-28 by James Princes. The first complete
census of an Indian city was conducted in 1830 by Henry Walter in
Dacca. In this census the statistics of population with sex and broad
age group and also the houses with their amenities were collected.
The first census in India, commonly referred to as 1872 census, was
conducted over five years between 1867 and 1872, and thus was
not synchronous. The exercise was started by the British who
wanted to know the size, composition and characteristics of
4
population in their colonies but it was not conducted over the entire
territory controlled by the British. The subsequent censuses were
synchronous and gradually were canvassed throughout the country.
Despite political and other problems, Censuses in India have
continued to be conducted every 10 years. After Independence,
Parliament passed the Census Act of 1948 and created a post of
Census Commissioner. Earlier, the whole operation used to be
temporarily set up for 2-3 years and wound up after the census was
conducted and results published. The Act empowered census
department to ask certain questions and made answering them
obligatory for citizens. Information collected is treated as confidential
and can be used only for statistical purposes.
Population in the World currently growing at a rate of 1.1.0
percent per year. India has more people than Europe, more than
Africa, more than the entire Western Hemisphere. Indias population
will exceed that of China before 2030 to become the worlds most
populous country, a distinction it will almost certainly never lose.
Just one group, Indian boys below age 5, numbers 62 million-more
than the total population of France. Indias annual increase of nearly
19 million contributes far more to annual world population growth
than any other country (Population Bulletin, Sep. 2006). The
average population changes currently estimated at round 75 million
per year. Indias population in 1901 was about 238.4 million which is
increased by more than four times in 110 years to real population of
1210 million in 2011. India is often described as a collection of many
countries held together by a common destiny and a successful
democracy. Its diverse ethnic, linguistic, geographic, religious, and
5
demographic features reflect its rich history and shape its present
and future. No fewer than 16 languages are featured on Indian
rupee notes. It is also only the second country to achieve a
population of 1 billion. While it is an emerging economic power, life
remains largely rooted in its villages. India, accounting for nearly 18
percent of the world population has been experiencing slow but
steady demographic transition since the second half of the last
century. In recent years, however, the fertility transition in India has
accelerated resulting in rapid changes in the age structure of the
population. This change creates unique opportunities along with
significant challenges both for the economy and society. The
Census 2011 was the largest such exercise in the world. Our census
history goes back to 1872 when although a census was conducted,
it is not regarded as a regular census as it was not conducted at the
same time. Since 1881 India has conducted decennial censuses
without any interruption. We have numerous tables on the
demographic, social and economic life of the people in this country
of great demographic diversity
The census in India collects and publishes information on
various characteristics of the population, such as, age and sex
distribution, social and cultural factors such as religion, literacy,
languages known, migration and economic activities of the people.
Besides, during housing census conducted a year before the
population count, information is also collected on type of housing,
amenities and assets possessed by households. Analysis of the
data collected from several Censuses provide a unique opportunity
to understand the dynamics of and trends in various facets of the
6
diverse population of the country. A population Census is the
process of collecting, compiling, analyzing and disseminating
demographic, social, cultural and economic data relating to all
persons in the country, at a particular time in ten years interval.
Conducting population census in a country like India, with great
diversity of physical features, is undisputedly the biggest
administrative exercise of peace time. The wealth of information
collected through census on houses, amenities available to the
households, socio economic and cultural characteristics of the
population makes Indian Census the richest and the only source for
planners, research scholars, administrators and other data users.
The planning and execution of Indian Census is challenging and
fascinating.
7
BackgroundIndia is the largest democratic country in the world. It accounted for
more than 17 percent of the worlds population in 2010 according to
the estimates prepared by the United Nations (United Nations,
2008). This 17 per cent of the world population lives on less than 2.5
percent of the total land area of the planet Earth. Between 2000 and
2010, worlds population is been estimated to have increased at the
rate of 1.22 percent per year, adding an average of 79 million
persons each year. Very close to 22 percent of this increase is
estimated to have accounted for by the increase in population in
India and this contribution has been the largest, even larger than the
contribution of China, the most populous country in the world today
8
(United Nations, 2008). Projections prepared by the United Nations
suggest that by the year 2050, population of India will increase to
1614 million which will account for almost 19 percent of the
estimated world population of 9150 million at that time. This means
that of the projected 2854 million increases in world population in the
50 years between 2000 and 2050, more than 571 million or almost
19 percent increase in the world population will be confined to India
alone. These projections also indicate that by the year 2050, India
will become the most populous country in the world.
During the nineties, the government of India has taken a
number of key policy initiatives that have relevance to future
population growth in the country. The first of these initiatives was the
National Population Policy 2000 which aimed at achieving zero
population growth in the country by the year 2045 through reducing
fertility to the replacement level by the year 2010 (Government of
India, 2000). At the same time the process of economic reforms that
started in 1990 continued with varying pace throughout this period.
A revival of economic reforms and better economic policies during
the first decade of the present century has accelerated the economic
growth rate. Today, India is the second fastest growing major
economy of the world. These facts explain the special interest with
which the results of the 2011 population census in India have been
published. They supply basic information about population size, rate
of population growth, population sex ratio and levels of literacy for
the country as a whole as well as for its constituent states and Union
Territories.
9
Trends of Growth Rate The population of India as of 1 March 2011 was 1,210,193,422
persons. This implies an increase of 17.653 percent in the ten-year
period since the 2001 population census. The proportionate
increase in the population of the country during the decade 1991-
2001 was 21.353 per cent which means that the population increase
in the country has continued to slow down and the rate of retardation
in population growth appears to have increased. In terms of the
average annual growth rate, the population of the country increased
at a rate of 1.626 percent per year, well below the average annual
increase of 1.935 percent per year during 1991-2001. A notable
feature of the population figures is that they are very close to the
population projected by the Government of India for the period 2001-
2011 on the basis of the 2001 population census. Government of
India had projected that the population of the country will increase to
1,192,506 thousand by the year 2011 (Government of India, 2006).
Similarly, United Nations had estimated that Indias population would
increase to more than 1214 million by the year 2010 (United
Nations, 2008). The population figures of 2011 population census
suggest that the enumerated population in the country exceeded the
projected population by almost 18 million. During the period 1991-
2001, the enumerated population of the country exceeded the
project population by around 16 million whereas, the enumerated
population exceeded the projected population by less than 9 million
during the period 1981-91(Chaurasia and Gulati, 2008). In fact, the
average annual population growth rate during the period 2001-2011
based on the figures of the 2011 population census works out to be
almost 1.63 percent per year which is substantially higher than the
10
project average annual growth rate of 1.48 percent per year. This
suggests that demographic transition - reduction in fertility and
mortality - in the country has been slower than the projected one.
Population projections prepared by the Government of India are
based on the assumption that the replacement fertility will be
achieved by the year 2021 not in 2010 as aimed in the National
Population Policy 2000. However, the average annual population
growth rate during the period 2001-2011 derived from the figures of
the 2011 population census suggests that the decrease in fertility in
the country has been slower than the project one which means that
the country will not able to achieve replacement fertility even by the
year 2021. This means that there is only a distant possibility of
achieving stable population by the year 2045 as stipulated in
National Population Policy 2000.
11
Table 1: India: Population and Population Growth, 1901-2011.
Source: Census of India, 2011
As the result of the slowdown in the population growth, the net
addition to the population decreased in India for the first time during
the period 2001-2011. During the period 1991-2001, the net addition
to the population of the country was around 182.32 million (Table 1)
12
whereas, the net addition to the population of the country during the
period 2001-2011 was 181.6 million. This decrease in the net
addition to the population is perhaps the most remarkable feature of
population transition in India during the period 2001-2011. This is an
indication that the population growth in the country has now started
shrinking. Had the average annual population growth rate during the
period 2001-2011 would have been the same as the average annual
population growth rate during the period 1991-2001, the population
of the country would have increase to 1246.315 million and the net
addition to the population of the country would have been almost
218 million - 56 million more than the actual addition to the
population during the period 2001-2011 as revealed through figures
of the 2011 population census. This trend in the net addition to the
population of the country again confirms that population transition in
the country is picking the momentum and the net addition to the
population of the country has now peaked. However, actual slow
down in the growth of the population during the period 2001- 2011
has been slower than the projected one.
13
14
Figure 1: India Population, 1901-2011
Regional differentials in GrowthRegional diversity or inequality in the growth of population in India is
well known. Moreover, this diversity in population growth has
persisted over time. Any discussion about Indias population growth,
therefore, is incomplete without a discussion on regional differences
in the growth of population. The results of 2011 population census
15
provide information on population size and growth for all the states
and union territories of India.
It reveals considerable geographic variation in the population
growth rate across the states and union territories of the country.
Some states of the country grew relatively slowly, well below the
growth of the country as a whole. Since the size of the population of
different states and Union Territories of the country varies widely,
the population growth rate of different states and Union Territories
has different impact on the population growth rate of the country as
a whole. Because of the varying population size, it is customary to
group the states and Union Territories of the country into three
broad categories; major states (states with a population of at least
20 million at the 2001 census), small states (states with a population
of less than 20 million at the 2001 census), and Union Territories.
According to the 2001 population census, there were 17 states in
the country with a population of 20 million and more while the
population of 12 states was less than 20 million. In addition, there
are 6 Union Territories all of which had a population of less than 20
million. The provisional results of 2011 population census suggest
that the 17 major states of the country account for almost 95 per
cent of the population of the country while the 12 small states
accounted for only about 5 percent of the countrys population.
Union Territories, on the other hand, account for just around 0.3
percent of the population of the country. Trends and patterns of
Indias population growth, therefore, are primarily determined by
population growth trends and patterns in the 17 major states. The
contribution of small states and Union Territories to the growth of the
16
population of the country has always been almost negligible,
although trends and patterns of population growth in Union
Territories are themselves an important area of interest and
analysis. Among the major states of India, the population growth
during the period 2001-2011 has been the most rapid in Bihar
followed by Chhattisgarh and Jharkhand. These states are the only
three major states of India where the average annual population
growth rate was more than 2 percent year during the period under
reference. Interestingly, these three states constitute a geographical
continuity.
The average annual population growth rate has also been
more than 2 percent per year in Jammu and Kashmir, Meghalaya,
Manipur, Arunachal Pradesh and Mizoram during the period under
reference. These states are the smaller states of the country.
Population growth rate has also been quite high in Rajasthan,
Madhya Pradesh, Uttar Pradesh and Haryana. In these states,
population increased at an average annual rate of more than 1.8
percent year during the period under reference which is well above
the population growth rate of the country as a whole. In all, there are
18 states and Union Territories where the average annual
population growth rate has been estimated to be higher than the
national average during the period under reference. These states
and Union Territories account for more than 638 million or almost 53
percent of the population of the country. On the other hand,
Nagaland is the only state in the country which has recorded a
negative population growth during the period under reference.
During the period 1991-2001, the population of Nagaland increased
17
by a whopping 64.5 million but, during 2001-2011, the population of
the state decreased. This appears to be a very conspicuous finding
of the provisional results of 2011 population census. Moreover, there
are only two states - Kerala and Goa - and two Union Territories -
Andaman and Nikobar and Lakshadweep - where the average
annual growth rate during 2001-2011 is estimated to be less than 1
percent per year. The three states where the average annual
population growth rate appears to have increased during the period
2001-2011 compared to the period 1991-2001 are Tamil Nadu,
Chhattisgarh and Manipur. Among these three states, Tamil Nadu
recorded a very low growth rate during the period 1991-2001
whereas the growth rate in Chhattisgarh and Manipur was more
than 2 percent per year. It appears that rapid population growth
situation has continued in these states during the period 2001-2011
also.
The situation is however not so encouraging when the
population growth estimated on the basis of provisional figures of
2011 population census is compared with the projected population
growth based on the projected population for the year 2011. This
comparison suggests that in 20 states and Union Territories of the
country, the actual population growth has been faster than the
projected population growth rate with the difference being the largest
in Tamil Nadu followed by Bihar among the major states of the
country. In these states and Union Territories, actual population
transition during the period 2001-2011 has been slower than the
projected one. At the same time, in 9 out the 12 small states, the
actual population growth rate based on the provisional figures of
18
2011 population census has been faster than the project one.
However, in all Union Territories of the country, the actual population
growth during 2001-2011 has been slower than the project one. This
comparison suggests that the pace of population transition in the
country during the period 2001-2011 has been slower than what was
projected or expected. Obviously, the population transition scenario
in the country and in most of the states, as revealed through the
provisional figures of the 2011 population census, does not appear
to be very encouraging. It is obvious from table 3 that the country
has missed the projected target of average annual population
growth rate for the period 2001-2011, set on the basis of the results
of the 2001 population census. This means that the country will take
more time to achieve the goal of population stabilization as
stipulated in the National Population Policy 2000.
There has been considerable variation in regional changes in
the growth rate over time with acceleration in population growth in
some states and Union Territories during 2001-2011 as compared to
1991-2001 and slowdown in other states and Union Territories. Most
of the states fall very close to the 45 degree line. The deviation from
the line is marked in Andaman and Nikobar, Sikkim, Chandigarh,
Delhi and Nagaland and in Tamil Nadu, Chhattisgarh, Manipur and
Puducherry. In the first group of states and Union Territories,
average annual population growth rate has slowed down during the
period 2001-2011 as compared to the average annual growth rate
during 1991-2001 with the change in the average annual population
growth rate being the most typical in Nagaland. In the second group
of states and Union Territories, it has accelerated. In other states,
19
the average annual population growth rate registered during 2001-
2011 is what that could have been predicted on the basis of the
average annual population growth rate recorded during the period
1991-2001. This suggest that, although, the population growth rate
in the states and Union Territories of the country have shown a
decline on the basis of the provisional results of 2011 population
census, this decline appears to be, at best, a normal pattern in most
of the states and Union Territories. There are only a few marked
deviations.
Rate of Population GrowthAmong the major states, Bihar with 25.1 percent growth rate during
2001-2011is the fastest growing state. Decadal Growth rates have
exceeded 20 percent in all the core north India states Bihar, Uttar
Pradesh, Rajasthan, Madhya Pradesh including Jharkhand and
Chattisgarh. Keralas growth rate during 2001-2011 of 4.9 percent is
indicative of the state reaching stationary population in the next 10-
20 years. Growth rate around 11-13 percent is reported by Punjab,
Andhra Pradesh, and West Bengal and around 15-16 percent by
Karnataka, Maharashtra and Tamil Nadu. Southern states are the
harbinger of population stabilization.
Geographic DistributionOne implication of population growth pattern observed on the basis
of the results of 2011 population census is a change in the
distribution of the population across the states and Union Territories
of the country. An understanding of population distribution over
administrative areas can be achieved through a consideration of the
components of population distribution. Population distribution,
20
essentially, has two components - extensiveness and intensiveness.
Extensiveness is nothing but the size of the population of an
administrative unit relative to the size of other administrative units.
Intensiveness, on the other hand, implies the denseness of the
population within the administrative unit. In any analysis of the
change in population distribution, it is important to take both into
consideration.
The state of Uttar Pradesh with 199.6 million people is Indias
most populous state accounting for 16.5 percent of countrys
population. Bihar (103.8) and Maharashtra (112.4) are other two
states with more than 100 million people. Other large states are
West Bengal with 91, Andhra Pradesh with 85, Madhya Pradesh
with 73, and Tamil Nadu with 72 million people. Nearly 42.4 percent
of Indians now live in formerly undivided Bihar, Uttar Pradesh,
Madhya Pradesh and Rajasthan; a proportion that has increased
from 40 percent in 1991. Conversely, the proportion of Indians living
in the four southern states of Kerala, Tamil Nadu, Karnataka and
Andhra Pradesh has decreased from 22.5 percent in 1991 to 20.8
percent in 2011, causing concerns about their representation in
parliamentary democracy.
Sex Ratio of PopulationThe good news is that female to male sex ratio of population has
began to improve from 927 in 1991 to 933 in 2001 to 940 in 2011.
Yet, compared to what is observed elsewhere in most countries in
the world, Indias sex ratio is anomalous. The British Census
commissioners also noted it and were quite puzzled. Quite
systematically, they examined a number of factors to understand
21
why there were fewer women in India compared to men in the total
population. The possible reasons dwelt upon by them and by other
noted population scientists were: under enumeration of women,
more masculine sex ratio at birth compared to observed in other
populations, higher mortality experienced by women compared to
men due to epidemics (such as plague, malaria and influenza) or
deficiency diseases, or due to neglect, premature cohabitation and
unskillful midwifery. Except for the persistent survival disadvantage
that women experienced from early infancy well into the
reproductive period, evidence did not support any of the other
factors. The female to male sex ratio of population historically noted
in the contiguous area of Punjab, Haryana, Chandigarh and Delhi,
has improved between 2001 and 2011, but it is still below 900
women per 1000 men. On the other hand, sex ratio close to unity is
recorded in the southern states of Kerala, Tamil Nadu and Andhra
Pradesh. This phenomenon observed since the beginning of the
20th Century has persisted even now.
Child Sex RatioSince 1981 Indian Censuses have made available data on
population in the age group 0-6 by sex, as a byproduct of
information on literacy rates which are calculated for 7+ population,
enabling calculation of sex ratio of children in the age group 0-6.
(Typically, age data are generated in five year age groups and thus
most populations would provide data on children in the age group 0-
4 and not 0-6.) The Census Commissioners office has calculated
sex ratio of children aged 0-6 from the previous Censuses of 1961
and 1971 also showing the trend over 50 years. The child sex ratio
22
has steadily declined from 976 in 1961 to 927 in 2001 and further to
914 in 2011. This phenomenon has drawn worldwide attention and
is largely attributed to the increasing practice of sex detection and
selectively aborting female foetuses. Between 2001 and 2011, child
sex ratio fell in practically the whole country, giving credence to a
belief that the practice of female selective abortion is spreading to
parts of the country, where it was not noted earlier. Child sex ratio
improved in 2011 from the level in 2001 in Himachal Pradesh,
Haryana, Punjab and marginally in Gujarat; the states where it was
below 850. In 2011 in these states, there are still less than 900 girls
for 1000 boys.
23
Table 2: Sex Ratio, 1991-2011
Literacy Trends in IndiaThe pace of progress in literacy rates as revealed by decennial
census is very slow in India. In the span of fifty years i.e. from1951
24
(18.33) to 2001(64.83), there has been only marginal increase of
46.5 percent in literacy rate. Between 1951 to 2001, female literacy
shows a mere 44.7 percent increase which is only five times for the
whole point. According to census 2011, out of 74.04 percent of
literacy rate, the corresponding figures for male and female are
82.14 and 65.46 percent respectively which means four out of every
five males and two out of every three females of the age seven and
above are literate in the country. Though the target set by Planning
Commission to reduce the gender gap by 10 percent in 2011-12 has
not been achieved yet the reduction by 5 percent (4.99 percent) has
been achieved which is a positive stride towards decreasing
illiteracy. A significant milestone of Census 2011 is that the total
number of illiterates has come down from 30.4 crores in 2001 to
27.2 crores showing a decline of 3.1 crore. Out of total 21.7 crores
literates, female (11.0 crores) outnumber males (10.7 crores).
Another striking feature is that, out of total decrease of 3.1 crore of
illiterates, the females (1.7 crores) top male (1.4 crore) in the list.
This trend of rising female literacy will have far reaching
consequences which may lead to development of the society. When
we portray the literacy picture of India we find that the ordering of
the states are almost same as it was in 2001 as Kerela still
continues to top the list with 93.91 percent literacy rate whereas
Bihar remains at the bottom of the ladder with 63.82 percent.
Although Bihar has performed well in 2011census compared to
literacy rate in 2001 (47.00 percent) still it lies in the lowest rank.
States like Punjab (76.68 percent), Haryana ( 76.64 percent),
Madhya Pradesh ( 70.63 percent), Andhra Pradesh (75.60 percent),
Karnataka (67.66 percent) and Tamil Nadu ( 80.33 percent) and UTs
25
like Andaman & Nicobar Islands (86.27 percent), Chandigarh (86.43
percent) were downgraded from their previous rank whereas Tripura
(87.75 percent), Sikkim (82.20 percent), Manipur (79.85 percent),
Nagaland (80.11 percent) and UTs like Dadra & Nagar Haveli (77.65
percent), NCT of Delhi (86.34 percent), Puducherry (86.55 percent)
and Lakshadweep (92.28 percent) have shown higher rankings than
before.
Table 3: Literacy Rate in India, 2011
Source: Census of India, 2011
26
27
Demographic Dividend Demographic dividend refers to a change in the age distribution of
population from child ages to adult ages. It leads to larger proportion
of population in the working age group compared to younger and old
age groups. Apparently, given the diversity in the fertility transition in
India, the demographic dividend is likely to continue as it shifts from
one state to another based on the pace of demographic changes in
the respective states. It is generally argued that the demographic
change in India is opening up new economic opportunities (James
2008). There is generally high optimism both based on the
experience of many other countries and from India that demographic
changes will take the country to newer economic heights (Bloom
and Williamson, 1998; Aiyer and Modi 2011; James 2008).
Along with high optimism, there are also larger concerns on
the ability of the nation to take full advantage of the demographic
dividend. It is often argued that demographic dividend might turn into
a nightmare given the composition of the Indian population in terms
of educational level and skill levels (Altbach and Jayaram, 2010;
Chandrasekhar, Ghosh and Roychwdhury, 2006). It is argued that
large segments of adult population in the country are illiterate and do
not have the capacity to contribute substantially to the modern
economy. Perhaps, demographic dividend needs to be understood
more critically and in a proper perspective. Many of the good
empirical studies estimating the impact of age structure changes on
the economic progress have indicated very high impact of age
structure change and positive demographic dividend in the country
(Aiyer and Modi 2011; Bloom et al, 2006; James 2008). In other
28
words, these studies bring out clearly that those states moving faster
in demographic and age structure change are also experiencing
rapid economic growth. The best examples come from southern and
western states in India where the demographic changes are also
leading to sustained economic changes both in the aggregate
economy and in the lives of people.
The 2011 census results show that there has been significant
inflow of migration to many southern states in India. Tamil Nadu,
Karnataka and Andhra Pradesh are attracting huge inflow of
migrants from other states. In these states, the enumerated
population has been far higher than the projected population.
Perhaps, it points towards a replacement migration taking place into
these states. The replacement migration refers to migration
occurring as a result of age structure changes. With the
demographic and age structure changes, there will be scarcity of
labour particularly in the unskilled sector. This labour has to be
replaced from other places with abundance of labour due to lack of
any significant demographic changes. In the context of Western
countries, the replacement migration mainly came from poor
developing countries. On the contrary, India is able to take care of
the replacement migration from within due to large diversity in the
nature of demographic transition. The replacement migration into
Kerala is well known and many studies have pointed out large inflow
of such migrants from other parts of the country (Zachariah and
Rajan 2004).
29
Thus it is clear that the demographic changes create
demographic opportunities and dividend and the concern that India
may not be able to experience demographic dividend is perhaps not
empirically validated. There is also ample evidence to suggest that
demographic changes enhance economic changes. Micro level
evidence also suggests that age structure changes lead to
substantial investment in children both in terms of education and
health (Bhat, 2002). Thus the demographic dividend emanates from
rapid changes in fertility which has several positive impacts both at
macro and at household level.
Urbanization and Economic GrowthOnly 30 percent of India's population lives in urban areas. This is
much lower than in China, Indonesia, South Korea, Mexico, and
Brazil. Some of this may be due to much lower per capita incomes in
India. The Committee's projections suggest that India's urban
population as presently defined will be close to 600 million by 2031,
more than double that in 2001. Already the number of metropolitan
cities with population of 1 million and above has increased from 35
in 2001 to 50 in 2011 and is expected to increase further to 87 by
2031. The expanding size of Indian cities will happen in many cases
through a process of peripheral expansion, with smaller
municipalities and large villages surrounding the core city becoming
part of the large metropolitan area, placing increasing strain on the
country's urban infrastructure. Future growth is likely to concentrate
in and around 60 to 70 large cities having a population of one million
or more. Decentralization of municipal governance and greater
reliance on institutional financing and capital markets for resource
30
mobilization are likely to increase the disparity between the larger
and smaller urban centers. A satisfying outcome will depend on the
formulation of effective public policies to accelerate all-round
development of smaller urban centers and to refashion the role of
the state as an effective facilitator to compensate for the deficiencies
of market mechanisms in the delivery of public goods. Three
decades of rapid economic growth would normally have propelled
migration from rural areas but growth in India has not had this effect
thus far. This is because industrialization has been capital intensive
and the services boom fuelled by the knowledge economy has also
been skill intensive. A few cities of India have acted as centers of
knowledge and innovation. As more cities provide economies of
agglomeration and scale for clusters of industries and other non-
agricultural economic activity, the urban sector will become the
principal engine for stimulating national economic growth.
Industrialization will absorb more people as India advances further in
its integration with the world economy. At the present juncture, India
faces the challenge of continuing on its high growth trajectory while
making growth more broad-based and labour intensive. The fortunes
of the agricultural sector are crucially linked to the manner in which
growth in the industry and services sectors unfolds. People living in
rural areas typically tap the opportunities that cities provide for
employment, entrepreneurial avenues, learning, and monetary
repatriation. As urbanization grows, demand for food items other
than food grains, i.e. vegetables, lentils, milk, eggs, etc., also grows.
This leads to investments in infrastructure, logistics, processing,
packaging, and organized retailing. These investments and other
economic inter-linkages connect and build synergy between rural
31
and urban centers. Of course, government policy should also focus
on enhancing the productive potential of the rural economy. From
the report, that India's urban future promises to be an inclusive one,
with the benefits extending to rural areas as well. Already, there is
evidence to suggest that rising standards of living in India's urban
areas in the post-reform period have had significant distributional
effects favoring the country's rural poor.
ConclusionThere are unmistakable signs that population transition in India has
progressed and the average rate of population growth in the country
has declined substantially during 2001-2011. However, the actual
growth of population between 2001 and 2011 has been faster than
the population growth projected by the Government of India on the
basis of the results of the 2001 population census and observed
trends in fertility, mortality and migration (Government of India,
2006). Obviously, efforts to moderate the growth of the population
during 2001-2011 appear to have fallen short of the projected, most
likely, path. Results of the 2011 population census also indicate that
there is little possibility of realizing the expectations laid down in the
National Population Policy 2000 and there is little probability that the
country will be able to reach stable population by the year 2045.
These results do not provide any indication that the country will be
able to achieve the cherished goal of population stabilization during
the current century until and unless a serious effort is made to
reinvigorate population stabilization efforts. It is in this context that
there is a need of revisiting the goals and objectives of the National
Population Policy and reviewing ongoing population stabilization
32
efforts after taking into consideration the results of the 2011
population census.
In the brief, demographic changes are inevitable and generally
contribute positively to the nation. The demographic changes are
also accompanied by considerable social and economic changes. It
is important that the nation is prepared to take care of such rapid
changes. In the future, the success of a nation will critically depend
upon its ability to address such sweeping demographic changes
effectively though policies and programs. India is on the course of
rapid demographic changes.
ReferencesCarl Haub and O.P. Sharma, "Examining Literacy Using India'sCensus" October 2008.
Census of India, www.censusindia.gov.in/.
Chaurasia Alok Ranjan, Gulati SC (2008) India: The State of Population 2007. National Population Commission, OxfordUniversity Press, New Delhi.
Government of India (2000) National Population Policy 2000. Ministry of Health and Family Welfare, New Delhi.
Government of India (2005) National Rural Health Mission. Ministryof Health and Family Welfare, New Delhi.
Government of India (2006) Census of India 2001. PopulationProjections for India and States 2001-2026. Report of the TechnicalGroup of Population Projections. National Commission onPopulation, Ministry of Health and Family Welfare. New Delhi.
Government of India Ministry of Home Affairs, SampleRegistration System Report 2008, Ministry of Home Affairs, NewDehli.
33
Human Development in India 2010, Oxford University Press, NewDelhi.
International Institute for Population Sciences (IIPS) and MacroInternational, National Family Health Survey (NFHS-3), 2005-2006 (Mumbai: IIPS, 2007).
Mari Bhat PN (1999) Population projections for Delhi: Dynamiclogistic model versus cohort component method. Demography India28(2).
Nehru, Jawaharlal (1946). The Discovery of India. Oxford UniversityPress. New Delhi.
PRB's Discuss Online in 2009 with Leela Visaria, researcher andpresident of the Asian Population Association.
Reports, United Nations Population Fund, New York, USA
United Nations (2008) World Population Prospects. 2008 Revision. Department of Economic and Social Affairs. Population Division, New York.
United Nations Development Programme. 2010. HumanDevelopment Report 2010. Human Development Report Office, NewYork.
United Nations. 2011. The Millennium Development Goals Report 2011. Department of Economic and Social Affairs, New York.
World Bank (2010). World Development Indicators, 2010.
Yojna, July 2011. GoI, New Delhi.
34
Chapter-2
Detecting Fallow Agricultural Land and Correlation withDemographic Indicators in the Branicevo and Pomoravlje
Districts, Serbia
Darko Jaramaz and Veljko PerovicInstitute of Soil Science, Teodora Drajzera 7, Belgrade, Serbia
IntroductionAgricultural land is a non-renewable natural resource whose
development strategy is of the highest importance to each country.
The Republic of Serbia has great potential in the sector of
agricultural production due to favorable climatic conditions, good
natural characteristics of the land and available water resources, but
this potential is not fully utilized, partly because there is a lot of area
with fallow agricultural land. The fallow agricultural land can be
defined as plowed and left unseeded agricultural land for one or
more seasons.
Branicevo district is located in the northeastern part of
Republic of Serbia. District area is approximately 3,862 km2, and
according to the Census 2011 district have 185,165 inhabitants. The
relief of district is divided into two parts: lowland on the western part
and highlands on the eastern half of district. District are consists of
the following eight municipalities: Zagubica, Kucevo, Petrovac,
Pozarevac, Blace, Veliko Gradiste, Malo Crnice and Zabari.
Pomoravlje districts is located in the central part of Republic of
Serbia. Covering a area of approximately 2,613 km2, and have a
total of 212,304 inhabitants by Census 2011 data. District includes
35
the following six municipalities: Despotovac, Paracin, Cuprija,
Rekovac, Svilajnac and Jagodina.
The research aims to within Branicevo and Pomoravlje
districts identify fallow agricultural land based on the analysis of
aerophoto images, and also to evaluate demographic characteristics
for specified area base on Census 2011 data, by performing
Multivariate analyses (Principal Components Analysis and Cluster
Analysis) and Descriptive statistics methods. With the intention that
the ultimate result gave the response on the question, which
demographic indicators can be correlated with the appearance of
fallow agricultural land.
Literature ReviewThe case for linking statistical data analysis techniques to
Geographic information system (GIS) is grounded in the idea that
additional explanation, understanding, and insight can be gleaned
when data is viewed and examined from both a spatial and
statistical perspective [1]. The integration of these two perspectives
in an environment that supports flexible methods for data retrieval,
manipulation, and display, is argued to yield more than the sum of
the component parts [2]. A number of researchers have explored
different approaches to integrating statistical analysis within GIS [3,
4, 5].
1. The Geographic Information Systems (GIS)The Geographic Information Systems (GIS) are a powerful set
of tools that are intended to store, visualize, process and analyze
digital spatial data, with the most common application for information
36
visualizations. In the recent past many science disciplines adopted
GIS as a tool for solving various spatial problems. Furthermore,
should be noted that currently there is a little consensus about which
criteria define a one geographic information system. The core GIS
idea that the world can be understood as a series of layers of
different types of information, that can be added together
meaningfully through overlay analysis to arrive at conclusions [6].
2. Statistics AnalysisIn our research, will be evaluated characteristics of Branicevo and
Pomoravlje districts using the Multivariate analyses and Descriptive
statistics methods.
2.1. Multivariate Analyses As the name implies, multivariate statistics refers to an assortment
of descriptive and inferential techniques that have been developed
to handle situations in which sets of variables are involved either as
predictors or as measures of performance [7]. Multivariate analysis
deals with issues related to the observations of many (usually
correlated) variables on units of a selected random sample [8].
Multivariate analysis also may be defined as the branch of statistics
which is concerned with the relationships among sets of dependent
variables and the individuals which bear them [9]. Conventional
multivariate analysis analyzed a numerical multivariate data set. On
the other hand, in functional data analysis, each data is not a
numerical data set but a set of functions, and in this case functions
are directly analyzed [10].
37
In this research, inside the multivariate analyzes is employed
Principal Components Analysis (PCA) and Cluster Analysis
techniques.
2.1.1. Principal Components Analysis (PCA)The classical procedures of statistics are principal components
analysis, which reduce dimensionality by forming linear
combinations of the features. The PCA is a technique that can be
used to supply to a statistic analysis of the data set, being used as
pre-processing stage to the prediction [11]. The PCA is indicated for
the analysis of variables that have linear relations. Each principal
component brings statistic information different from the others.
However, the first principal components are such more relevant that
we can even disdain the others [12].
This multivariate technique has a the central aim to reduce the
dimensionality of a multivariate data set while accounting for as
much of the original variation as a possible present in the data set,
this aim is achieved by transforming to a new set of variables (the
principal components) those represent linear combinations of the
original variables. The principal components are uncorrelated and
are ordered so that the first few of them account for most of the
variation in all the original variables. The object of principal
components analysis is to find a lower-dimensional representation
that accounts for the variance of the features. The result of a
principal components analysis would be the creation of a small
number of new variables that can be used as surrogates for the
originally large number of variables and consequently provide a
38
simpler basis for graphing or summarizing of the data, and also
perhaps when undertaking further multivariate analyses of the data
[13].
If we think of the problem as one of removing or combining
(i.e., grouping) highly correlated features, then it becomes clear that
the techniques of clustering are applicable to this problem. In terms
of the data matrix, whose n rows are the d- data dimensional
samples, ordinary clustering can be thought of as a grouping of the
rows, matrix with a smaller number of cluster centers being used to
represent the data, whereas dimensionality reduction can be thought
of as a grouping of the columns, with combined features being used
to represent the data. Roughly speaking, the most interesting
features are the ones for which the difference in the class means is
large relative to the standard deviations, not the ones for which
merely the standard deviations are large.
This analysis is concerned with the extraction of the factors
that better represent the structure of interdependence between
variables of large dimensions. Therefore, all the variables are
analyzed simultaneously, each one in relation to all the others,
aiming at determining factors (principal components) that maximize
the explanation of variability existing in the data [14].
2.1.2 Hierarchical Cluster Analysis Cluster analysis is a technique to classify an original data set
into some subsets (called clusters) by using some distance or
similarity/dissimilarity criterion. Cluster analysis can be roughly
divided into hierarchical clustering and non-hierarchical clustering:
39
Hierarchical clustering makes an original data set a hierarchy
of clusters which may be represented in a tree structure
(called dendrogram) based on some linkage criterion (single
linkage, complete linkage, median method, centroid method.
Ward's method, Mcquitty's method, group average method,
etc.).
On the other hand, non-hierarchical (or partitional) clustering
assigns each data to the cluster whose center is nearest. Af-
means algorithm is a typical technique of non-hierarchical
clustering.
When clusters have subclusters, these have sub-subclusters, and
so on. In fact, this kind of hierarchical clustering permeates
classifactory activities in the sciences. The most natural
representation of hierarchical clustering is a corresponding tree,
called a dendrogram, which shows how the samples are grouped. If
it is possible to measure the similarity between clusters, then the
dendrogram is usually drawn to scale to show the similarity between
the clusters that are grouped. Because of their conceptual simplicity,
hierarchical clustering procedures are among the best-known of
unsupervised methods.
2.2 Descriptive Statistics In essence, descriptive statistical procedures enable you to turn a
large pile of numbers that cannot be comprehended at a glance into
a very small set of numbers that can be more easily understood [15].
Roughly can be said that, descriptive statistics condense data sets
to allow for easier interpretation [16]. Mann [17] defines descriptive
40
statistics like a discipline of quantitatively that describe the main
features of a collection of data. The descriptive statistics, unlike
inferential statistics, are not developed on the basis of probability
theory [18].
There are also many different ways of obtaining descriptive
statistics. There is not a right way or a wrong way; it simply comes
down to personal preference on procedure and the way the statistics
are formatted in the output [19].
Materials and Methods1. The Geographic Information Systems (GIS)Analysing aerophoto images to determine the fallow agricultural land
are started by field research when the samples were taken for each
researched municipality. Preliminary work also included the
purchase of vector and raster data covering researched area, but
the basic layer was aerophoto images of the national territory of the
Republic of Serbia in the resolution of 2.5 meters per pixel, from
2005th - 2008th years.
Softwares that are used for interpretation of aerophoto images
have implemented algorithms for raw data processing, and also
enables that the results can be stored for each pixel individually. The
purpose of the aerophoto images classification were categorization
of all image pixels in a classes. It should be noted that the
classification can be done using two main groups of computer
operations: supervised (semi-automated) classification and
unattended (automated) classification. Unsupervised classification is
determined by the research area, this method compare pixels and
categorize them into class base on color similarity. Unattended
41
classification do not use fixed classes, but algorithms that
interpreting the unknown pixels and collects them in classes.
In this research, supervised classification is applied to obtain
map of land use. Supervised classification can be performed at
aerophoto images, when the resolution is less than 5 meters per
pixel. Given that, in this research, images have the resolution of 2.5
meters per pixel, the obtained result of supervised classification will
be with an accuracy of over 70 percent.
Set of classes need to be identified before entering the
supervised classification process. Set of classes integrate values of
research area as much as possible (arable agricultural land, fallow
agricultural land, forests, pastures and meadows, water surface,
urban areas), during which are created a sample grid for each class.
Represented samples were the ones which are taken from the field,
at the beginning of the research, by GPS devices. Each created
sample must be relatively homogeneous, and as such it represents
his class. With the supervised classification process, each sample
area need to be analyzed for the determination of the statistical
characteristics of the class for the selected raster object, afterwards
these class characteristic need to be applied for the classification of
aerophoto images, that are used as input.
After the classification, the quality of the obtained results is
estimate, and repairs are made if the results were not acceptable.
Repairs includes a precise determination of the class by new
classification of pixel.
42
2. Statistics AnalysisIn our research, SPSS software is used in order to perform
multivariate analyses (Principal Components Analysis and Cluster
Analysis) and Descriptive statistics methods. The SPSS is software
designed to enable: data mining, customer relationship
management, business intelligence and data analysis. Demographic
data are obtained from Republic of Serbia Census 2011 [20]. For
this research, the following 18 demographic factors are employed:
1. Population aged 0-4, 2. Population aged 5-14, 3. Population aged 15-24, 4. Population aged 25-44, 5. Population aged 45-64, 6. Population aged over 65, 7. Employed, 8. Unemployed, 9. Employed - Women, 10. Employed - Man, 11. Unemployed - Women, 12. Unemployed - Man, 13. Unemployed - Without qualification, 14. Unemployed - With qualification, 15. Unemployed - Without work experience, 16. Unemployed - With work experience, 17. Employed in the legal entities (companies, enterprises,
institutions, co-operatives and other organizations), and18. Employed in private entrepreneurs (people self-employed and
their employees).
Before beginning the statistical analysis each of these factors
will obtain a numeric value, which will be later transformed to
percentages to be suitable for analysis inside SPPS.
43
2.1. Multivariate AnalysesAs in the previous part of the paper indicated, inside the
multivariate analyzes are employed Principal Components Analysis
(PCA) and Cluster Analysis techniques.
2.1.1. The Principal Components AnalysisThe Principal components analysis (PCA) is Factor Analysis,
and its represents a method of data reduction. When data set
contains numerous variables that are correlated, researchers use
principal components analysis to reduce measures to a small
number of principal components. The PCA analyzes the total
variance, assuming that each original measure is retrieved without
measurement error. By obtaining the component scores, we are
able to perceive the dimensionality of the data. PCA method can be
used the correlation matrix and covariance matrix. The correlation
matrix standardized the variables and the total variance will
equivalent the amount of variables used in the analysis (because
each standardized variable has a variance equal to 1). On the other
hand, in the covariance matrix, the variables will stay in their original
metric. In our research is applied Correlation matrix technique.
Performing the PCA inside SPSS software, the obtained
results have the following forms:
The Communalities table; represents the proportion of every
variable's variance that can be explained by the principal
components analysis, and contains the Initial values and
Extraction values.
The total variance explained table; display the Initial Eigen
values (represents the variances of the factors) and the
44
Extraction Sums of Squared Loadings (precisely replicate the
values given on the same row on the left side of the table
inside SPSS).
The scree plot graphs; display the eigenvalue in opposition to
the component number. Performing the PCA, researchers are
interested only for saving principal components, which
eigenvalues are greater than 1.
The Component Matrix table; contains component loadings,
which represents the correlations between the components
and the variables, in values range from -1 to +1.
The factor score variables are obtained on the end of Principal
components analysis, this variables will be used like an input for the
Hierarchical cluster analysis. The factor score is equal to the
summation of the standardized value of each variable multiplied by
its factor loading [21].
2.1.2 Hierarchical Cluster AnalysisThe classification aims to capture the important socio-
economic dimensions of, and differences between, areas. The goal
of classification is to arrange N units into M clusters such that the
inter-M variation in attributes is maximise, and the intra-M variation
in attributes is minimized [22].
The Hierarchical cluster analysis is the major statistical
method, that use measured characteristics, for discovering relatively
standardized clusters, that are based on cases. The analysis starts
with each case as a separate cluster, and then combines the
clusters sequentially by further reducing the number of clusters. This
45
method calculates the distances and dissimilarities among research
items when forming the clusters.
Performing the Hierarchical cluster analysis, inside SPSS
software, obtained results have a following forms:
The agglomeration schedule table; display cases information
about all stages of a hierarchical clustering process.
The Cluster membership table; specified cases belongs to the
clusters.
The dendrogram (hierarchical tree diagram); is a graphical tool
for displaying clustering results, where the clusters that are
joined together are connected with lines.
2.2. The Descriptive StatisticsBased on previously obtained Clusters results inside the
Hierarchical cluster analysis, the Descriptive statistics analysis are
performed to describe each cluster based on his model significant
variables mean values. The descriptive statistics give us
informations about the variables distribution, by presenting the
maximum, minimum, mean and standard deviation values for each
cluster variable.
Inside Descriptive statistics table, obtained results produce
following columns:
The N value; represents a number of clusters.
The Maximum value; represents the largest value in the
distribution.
The Minimum value; represents the smallest value in the
distribution.
46
The Mean value; represents the average value of the
distribution.
The standard deviation value; represents a measure of
variability.
Evaluation of the clusters are performed based on the
obtained results, mentioned evaluation represents description of
demographic characteristics for Branicevo and Pomoravlje districts.
ResultsAnalysing aerophoto images are obtained results (represented
at Map 1) that displays Branicevo and Pomoravlje districts area,
divided into following six classes:
Forests,
Water surface,
Urban areas,
Pastures and meadows,
Fallow agricultural land, and
Arable agricultural land.
47
Map 1. Branicevo and Pomoravlje districts area, divided into sixclasses
The same results are represented on the Map 2, where are
(using the charts) displayed the ratio inside each municipality of:
Arable agricultural land, Fallow agricultural land and other four
classes.
48
Map 2. Ratio inside each municipality of Arable and Fallowagricultural land
The all six classes area (Arable agricultural land, Fallow
agricultural land, Pastures and meadows, Forests, Urban areas and
Water surface) of Branicevo and Pomoravlje districts municipalities,
are represented inside Table 1 (expressed in hectares).
49
Table 1. The all six classes area of Branicevo and Pomoravljedistricts municipalities (ha)
Municip-alities
Arableagric-ultural land (ha)
Fallowagric-ultural land (ha)
Pasturesand mea. (ha)
Forests(ha)
Urbanareas(ha)
Watersurface(ha)
Total area (ha)
Pozarevac 33968.61 3517.62 3074.41 3670.79 2296.42 1831.31 48359.16
VelikoGradiste
20090.04 3020.60 2806.44 6247.66 347.52 1803.93 34316.19
Golubac 6338.29 2338.19 5848.00 20004.85 194.66 2037.58 36761.57
MaloCrnice
18251.81 2033.31 3181.45 3220.82 220.65 4.59 26912.63
Zabari 16310.35 2418.66 2532.84 4577.71 423.82 92.57 26355.95
Petrovac 33459.65 4990.83 9809.54 15713.41 1408.70 55.95 65438.08
Kucevo 10394.03 2419.21 22789.12 36111.08 371.38 8.99 72093.81
Zagubica 11434.49 3892.78 17882.37 42133.89 611.57 11.93 75967.03
Jagodina 26323.87 3008.86 6098.52 10469.51 1339.08 183.00 47422.84
Cuprija 17711.91 1731.89 3027.05 5212.72 939.08 210.95 28833.60
Paracin 20969.15 4281.90 9483.47 16297.85 3040.75 167.48 54240.60
Svilajnac 19082.95 2445.86 4648.38 5550.15 515.79 260.04 32503.17
Despotovac 16325.62 3177.82 13718.54 28573.89 451.44 16.47 62263.78
Rekovac 16747.65 3357.59 6741.26 9450.16 265.29 12.47 36574.42
Total: 267408.42 42635.12 111641.39 207234.49 12426.15 6697.26 648042.83
The relationship between all six classes (Arable agricultural
land, Fallow agricultural land, Pastures and meadows, Forests,
Urban areas and Water surface) inside each total municipality area,
are represented inside Table 2 (expressed in percentage).
50
Table 2. Relationship between all six classes inside eachmunicipality (%)
Municipalities Arableagricultural land (%)
Fallowagricultural land (%)
Pasturesandmea. (%)
Forests(%)
Urbanareas(%)
Watersurface(%)
Total (%)
Pozarevac 70.24 7.27 6.36 7.59 4.75 3.79 100.00VelikoGradiste
58.54 8.80 8.18 18.21 1.01 5.26 100.00
Golubac 17.24 6.36 15.91 54.42 0.53 5.54 100.00Malo Crnice 67.82 7.56 11.82 11.97 0.82 0.02 100.00Zabari 61.88 9.18 9.61 17.37 1.61 0.35 100.00Petrovac 51.13 7.63 14.99 24.01 2.15 0.09 100.00Kucevo 14.42 3.36 31.61 50.09 0.52 0.01 100.00Zagubica 15.05 5.12 23.54 55.46 0.81 0.02 100.00Jagodina 55.51 6.34 12.86 22.08 2.82 0.39 100.00Cuprija 61.43 6.01 10.50 18.08 3.26 0.73 100.00Paracin 38.66 7.89 17.48 30.05 5.61 0.31 100.00Svilajnac 58.71 7.52 14.30 17.08 1.59 0.80 100.00Despotovac 26.22 5.10 22.03 45.89 0.73 0.03 100.00Rekovac 45.79 9.18 18.43 25.84 0.73 0.03 100.00
The relationship between Arable agricultural land and Fallow
agricultural land, base on total Agricultural land inside each
municipality, are represented inside Table 3 (expressed in
percentage).
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Table 3. The relationship between Arable agricultural land andFallow agricultural land inside each municipality (%)
Municipalities Arableagricultural land(%)
Fallowagricultural land(%)
Agricultural land(%)
Pozarevac 90.62 9.38 100.00Veliko Gradiste 86.93 13.07 100.00Golubac 73.05 26.95 100.00Malo Crnice 89.98 10.02 100.00Zabari 87.09 12.91 100.00Petrovac 87.02 12.98 100.00Kucevo 81.12 18.88 100.00Zagubica 74.60 25.40 100.00Jagodina 89.74 10.26 100.00Cuprija 91.09 8.91 100.00Paracin 83.04 16.96 100.00Svilajnac 88.64 11.36 100.00Despotovac 83.71 16.29 100.00Rekovac 83.30 16.70 100.00
The Scree plot graphs (Picture 1) displays the PCA Total
Variance Explained where each successive component accounts
less and less variance, for all 18 demographic variables that are
employed in this research. In our research, five principal
components are obtained with eigenvalues 1 or greater than 1 (first
6.252, second 3.743, third 2.964, fourth 2.305 and fifth 1.148). Also
the PCA inside SPSS provide cumulative value for each component,
for example the fifth component displays a cumulative value of
91.178, which means that the first five components mutually account
for 91.178% of the total variance.
52
Picture 1 Scree plot graphs (PCA)
On the Hierarchical cluster analysis visually presented by
Dendrogram (picture 2) that visually displayed cluster results. The
clusters are linked by the increasing levels of similarity, and the
dendrogram graphically displays these linkage points.
53
Picture 2 - Dendrogram (Hierarchical cluster analysis)
In this research are employed three to five numbers of
solutions, and following solutions with five clusters was selected as
the most suitable (Map 3):
Cluster 1: Pozarevac, Jagodina, Cuprija and Paracin,
Cluster 2: Veliko Gradiste, Malo Crnice and Petrovac,
Cluster 3: Golubac,
Cluster 4: Zabari, Svilajnac, Despotovac and Rekovac , and
Cluster 5: Kucevo and Zagubica.
54
Map 3. Clusters
Based on the results obtained inside Descriptive Statistics
table (due to its size, whole table will not be displayed in the paper),
following cluster labels are created:
55
Cluster 1 - Mainly employed population, under 45 years.
Cluster 2 - Employed population, with a large percentage work
as private entrepreneurs.
Cluster 3 - Unemployed population, with large percentage of
unemployed without qualification,
Cluster 4 - Population employed in the legal entities, and
unemployed without work experience.
Cluster 5 - Employed population at age 45-64, and population
over 65 years.
ConclusionInside this study, different methods are used for obtaining the
results for relationship between fallow agricultural land and
demographic indicators inside the Branicevo and Pomoravlje
districts, Serbia. Applying the first the Geographic Information
Systems (GIS) technique for the detecting and mapping fallow
agricultural land. Second applying the multivariate analysis
(Principal Components Analysis and Cluster Analysis) and
Descriptive statistics methods on the Census 2011 attribute data
inside SPSS software. For previously stated, 18 variables are used
for getting the final result in the form of the cluster classifications
with five clusters types that describe the studied areas. Each cluster
type carries its own characteristics, which are described in detail
using the Descriptive statistical analysis. Third applying the
Geographic Information Systems (GIS) technique for the mapping
multivariate analysis and descriptive statistics results by the joining
with the vector data (borders of the municipalities that are inside
Branicevo and Pomoravlje districts) by ArcGIS software.
56
The Cluster 3 (which includes municipality Golubac) are
labeled by descriptive statistics as Unemployed population, with
large percentage of unemployed without qualification, and the
Cluster 5 (which includes municipalities Kucevo and Zagubica) are
labeled by descriptive statistics as Employed population at age 45-
64, and population over 65 years. These three previously
mentioned municipalities have the highest percentage of fallow
agricultural land in regards to entirely agricultural land inside
municipality (Table 3); Golubac 26.95%, Zagubica 25.40% and
Kucevo 18.88%.
The Cluster 1 (which includes municipalities Pozarevac,
Jagodina, Cuprija and Paracin) are labeled by descriptive statistics
as Mainly employed population, under 45 years, and he basically
contains (with the exception of Paracin municipality) municipalities
with lowest percentage of fallow agricultural land in regards to
entirely agricultural land inside municipality (Table 3); Cuprija 8.91%,
Pozarevac 9.38%, Jagodina 10.26% and Paracin 16.96%.
Base on the obtained results we can conclude that percentage
or fallow agricultural land is directly related to the population age
group; the highest percentage of fallow agricultural land is
characteristic for the municipalities that have high percentage of old
population and otherwise. Also, although this is typical for Republic
of Serbia and other countries that are in period of transition
economy, the highest percentage of fallow agricultural land in
combination with the highest percentage of unemployed population
can be related with former Agricultural companies that are currently
in bankruptcy, liquidation process or in restructuring.
57
Research has shown that combining Geographic Information
Systems with the statistical methods can provide good foundation
for understanding the situation in agriculture base on demographic
characteristics of the population.
AcknowledgementThe paper is the result of research carried out within the
scientific projects TR37006 "Impact of soil quality and irrigation
water quality on agricultural production and environmental
protection"; financed by the Ministry of Education, Science and
Technological Development of the Republic of Serbia for the period
2011-2014.
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60
Chapter-3
Population Dynamics in Rajasthan State
M. M. SheikhAssociate Professor
Department of GeographyGovt. Lohia PG College, Churu, Rajasthan, India
Rajasthan is situated in the northern part of India. It is the largest
State in India by area constituting 10.4 percent of the total
geographical area of India and it accounts for 5.67 percent of
population of India. Topographically, deserts in the State constitute a
large chunk of the land mass, where the settlements are scattered
and the density of population is quite low. It is administratively
divided into 7 divisions, 33 districts, 244 Tehsils, 249 Panchayat
Samities, 9,177 Gram Panchayats, inhabited villages and 184 urban
local bodies as of Census 2011. The State has a population of 6.86
crore according to the provisional totals of Census 2011. Compared
to Indian averages, Rajasthan has slightly better proportion of total
cropped area and net shown area. The net irrigated area for
Rajasthan is at par with all India averages. While the countrys forest
area constitutes about 23.6 per cent of total land; in Rajasthan the
corresponding figure is only 9.5 per cent. This indicates Rajasthan
has comparative low forest coverage.
Geographic Profile of RajasthanRajasthan state, initially constituted in 1949 after the merger of 19
princely states and later further consolidated in 1956 with the
incorporation of Ajmer (earlier a central territory), has for long best
61
been known for its colourful history: forts and palaces built in the
yesterera and the valour and sacrifice of its princes andprincesses, which apparently has also been its main tourist rallying
point. It has not been a major contender for heralding
industrialisation or economic growth in the countrybeing
landlocked and having more than 60 per cent of its area coveredby desertdespite that among the major trading communities in the
country, many (e.g. Marwaris) hail from Rajasthan. This state, like
any other in the country, is not a monolith: there are regional
diversities, nuances and issues that need to be put forth at the
outset. Seen from an agroclimatic and social point of view, thereare four loose geographic groupings:
(1) The west (Jaisalmer, Barmer, Bikaner, Jalore, Jodhpur, Nagaur
Pali), which lies in the heart of the Thar Desert, is arid, sparsely
popu