REVIEW OF LITERATURE AND CONCEPTS USED IN THE...
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Chapter II
REVIEW OF LITERATURE AND CONCEPTS USED IN THE STUDY
This chapter provides review of literature and concepts used in
the study. In the first section, review of recent studies on domestic
water, mostly conducted in India, is done. In the subsequent section,
some of the key concepts used in the study are defined for providing
clarity in reading of the report.
I. REVIEW OF LITERATURE
Many authors made different attempts on the study of water
issues all over the world. In this section such recent attempts
exercised mostly in India are reviewed, categorized and presented for
the readers. The review of the recent studies are presented under
different captions as, status of water supply in general, status of water
supply in urban and rural India, water quality problems, water pricing,
household’s investment, role of women in water, policy formation, etc.
Status of Water Supply
Gupta (2002) examined supply-demand status of water for
Gujarat state, which is agrarian but also with a high industrial growth
rate. Due to inequitable distribution of surface water, frequent
droughts and an ever-increasing demand trend, groundwater has been
over-exploited in many parts, leading to water mining with worsening
water quality. With more than 40 per cent of the energy consumed for
extracting groundwater, this has had a serious impact on the energy
balance. The work also examines the water-energy nexus in the state
and its impact on water supply.
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Putaswamaiah (2005) observed that despite of many government
efforts, supply and demand side factors of both surface and
groundwater determine the level of drinking water available for the
people. The supply and demand factors increase along with the natural
and human factors like pollution. This limits drinking water supply
provision and raises the delivery cost. Decline in groundwater table and
availability of surface water, particularly in summer months, has put
large number of people in risk for drinking water. Poor water quality
problem has also been observed in many of habitations. Inadequate
resource management and institutional system seems to be the major
cause for the present problems.
Status of Rural Water Supply
Nearly two-third of the people lives in rural India. Status of
water supply and collection widely differ across the country. A good
number of studies observed the status of rural water supply. A study
conducted in rural Kerala by Santhanakumar (1998) discussed the
issues of inefficiency in the provision of public water supply. The
analysis identifies two sources of inefficiency in the provision of
drinking water, the merit good. First, it is due to the fact that the state
and its agencies autonomously decide the nature and characteristics of
the merit good. If the nature of good provided is not preferred by the
people, or its consumption requires effort on the part of citizens, these
may lead to the non-consumption of the merit good by a large number
of people. The second source is inefficiency in the provision of merit
good is in the selection of the institutional framework. The acquisition
and free distribution of water by the state agency, is the prevailing
institutional framework in Kerala, and this is inappropriate in
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efficiently solving the drinking water problem of different localities,
taking their specific characteristics into account.
Hoek, et al. (1999) made two case studies from Sri Lanka and
Pakistan. They observe that the people make use of irrigation water for
a range of domestic activities. The study stresses that water resource
policies have to take these uses into account to avoid negative health
implications for poor disadvantaged segments of the population.
Barriers to optimizing benefits of linking the irrigation water supply to
domestic needs seem to be institutional and psychological rather than
medical, technical or economical.
Prokopy (2005) analysed the status of rural water supply in
households belonging to 45 villages of two different drinking water
project areas in Karnataka and Uttar Pradesh states. By using
regression models, the study found that capital cost contribution and
household involvement in decision making are significant predictors of
village level measures of household satisfaction, equal access, and time
savings. The study suggests that projects should continue to encourage
both contributions and household involvement in decision making from
as many households as possible within a village.
A study conducted in Rajasthan assessed whether the Rural
Drinking Water Supply Program (RDWSP) and the Universal
Immunization Program (UIP) have achieved equitable coverage in the
state and explored characteristics that affect equitable coverage of
preventive health interventions. On the basis of total observation of
2460 children and their households, the study found that a higher
access to piped water by wealthier families is compensated by higher
access to hand pumps by poorer families, resulting in equal access to a
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safe source. Immunization coverage was inequitable, favoring the
wealthier children. It concludes that the RDWSP has achieved
equitable coverage, while UIP coverage remains highly inequitable
(Mohan, 2005).
Balasubramaniyam et al. (2009) examined whether different
social divisions help to explain the variation in tap water access across
India. Using data for 436 rural districts from the 2001 Census of India,
it finds that communities that are heterogeneous in terms of Hindu
castes have less access to tap water than correspondingly
homogeneous communities. By contrast, religiously fragmented
communities have more access to tap water than correspondingly
homogeneous communities. Therefore, heterogeneity within and across
religions may work in opposite directions for access to public goods.
So, this study suggests that the social fragmentation should be
considered in framing policies and argues in favour of differential
policies for better water management
Mokgobe and Butterworth (2001) analysed the status of rural
water supply in Sand River Catchment of South Africa. The study
found that water from the domestic supply services is not only used for
basic needs such as drinking, health and hygiene, but for a wide range
of productive uses. These uses form essential components of the
livelihood strategies of poor people in the Sand River Catchment. There
are complex water supply systems in all villages. People depend upon
different sources and there are often multiple uses associated with each
source. Payment for water does take place in all villages. It occurs in
various forms, including buying water from water vendors and
individuals to fetch water, and monthly contributions towards
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operation and maintenance of water supply system infrastructure.
Women mostly are involved in fetching water for almost all productive
activities. Women are engaged in productive activities that are related
to traditional women’s work, such as beer brewing and making ice
blocks. Management of water supplies at the village level is mainly
focused on piped water supply systems, and not on traditional sources
of water such as wells, or springs. Water committees exist in all but one
of the eleven study villages.
Status of Urban Water Supply
A number of attempts have been made on status of urban water
supply. Some of the recent efforts are reviewed and presented here.
Dutta et al. (2005) examined water supply status in unplanned
settlements of the Delhi city, the capital of India. It has an enormous
backlog in the provision of reliable water supply to its population,
which is further worsened by the growing number of informal urban
settlements. The study has applied contingent valuation method which
is applied to evaluate a policy of providing better water supply with
improved quality and reliability in unplanned settlements of Delhi.
Willingness to pay (WTP) questions are used to value a specific outcome
of a policy intended to assure a reliable water supply that has no health
risk of contamination. The estimation from linear utility models assert
that the proposed changes would provide positive net benefits to
customers who are otherwise incurring considerable amounts of coping
cost in the absence of a reliable water supply. The findings have
important policy implications for gauging public support for water
supply improvements in infrastructurally disadvantaged households.
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Whiteman (2006) observed that the provision of clean drinking
water, sanitation and storm water disposal has become a major
challenge for the urban centers of the developing world. The number of
cities with a population of more than 10 million has increased from one
in 1950, to 16 in 2000, and is expected to increase to 21 by 2015. In
2000, 47.2 per cent of the global population was urban, and this
percentage is increasing steadily. The rapid rate of urbanization has far
exceeded the management and financial capacities of all the levels of
governments of all developing countries from about 1960. While more
and more people have received access to water and sanitation in recent
years, much more remains to be done. At the present rate, it is unlikely
that the Millennium Development Goal of reducing by half the
proportion of people without sustainable access to drinking water by
2015, can be achieved universally.
Janakarajan, et al. (2007) made an attempt on drinking water
issues in peri-urban areas of Chennai city. According to them for a
long time, social-science or hydrology-related research has focused
mainly on either urban or rural issues. However, peri-urban problems
have surfaced as a major issue, which policymakers no longer can
ignore during the last couple of decades, as is clear from the way that
many urban expansion plans have stalled due to stiff resistance shown
by peri-urban farmers. Most approaches towards solving urban
problems and water stress have so far failed because rural, peri-urban
and urban issues were treated in isolation. There is now an urgent
need to view urban, peri-urban and rural segments of a region as a part
of a single but integrated livelihood and ecosystem. In other words, all
three segments are very much a part of an integrated socio-economic
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developmental process of an economy. A fragmented approach would
only bring about rural/urban and peri-urban/urban divide, besides
contributing to the destruction of ecology, environment and livelihood
options in the rural and peri-urban areas.
Shaban (2007) exhaustively observed the status of urban water
supply in major cities of India. He observed that water consumption in
Indian cities is far lower than the norms laid down by Bureau of Indian
Standards. In comparison to other major cities in the world, the
consumption in Indian cities is also far deficient. The lower
consumption results mainly because the water supply is not keeping
pace with population growth and increasing needs of users; It is
observed that though a majority of households consume water below
the specified norms, they, by and large, show satisfaction with the
available supply. This is mainly because they have delimited their
aspiration and requirements of water in relation to available supply
from the concerned municipalities or water authorities; some
household activities, like washing clothes, bathing, use in toilets, and
washing dishes and utensils are the most water consuming activities in
the cities under focus.
It has also found that in these cities, a majority of the households
perceive the above activities as most water wasting activities. City-wise
variations in the supply and quality of water are very much visible.
Water supply in cities like Kolkata and Hyderabad is far better, while
Kanpur and Delhi perform the worst. Though it is also true that water
supply in Hyderabad is a mix of adequacies and inadequacies, where
multiple agencies pitch in to meet the needs. The municipal corporation
supplies water to majority of households once in two days. Water
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tankers and bore-wells compensate the deficiency of municipal water in
this city; twenty four hour water supply on municipal taps is a dream
for a majority of households in the large cities in the country. The study
reveals that only about 18 per cent of the total households in these
cities get 24 hours municipal water supply. The erratic and limited
duration of supply of water has become a common phenomenon in
these cities. This has forced the households, in majority of the cities, to
depend on groundwater and other sources of water, like the private
vendors who supply water through tankers and drums. These, in turn,
are leading to depletion of groundwater due to over withdrawal by the
growing population and emerging water markets.
Spencer (2008) made an attempt on water supply conditions in
Can Tho, a peri-urban area of Vietnam. In this study he assessed the
comparative advantages regarding costs, uses, and perceived
advantages and challenges of each source of domestic water supply.
The author found that the household demand for piped water exists,
but not on a sufficient scale to prevent more traditional sources, even
though it is surprisingly affordable when compared to what residents
pay for natural sources; further the main perceived advantage of the
piped system is not for its hygienic quality, but for aesthetic
characteristics such as taste, smell, and colour.
Aijaz (2010) made some general observations on the status of
urban water supply. This case study states that the demand for basic
infrastructure and services in Indian cities has increased phenomenally
due to rapidly growing populations. Such unmet demands often
adversely affect the quality of urban life, the economic productivity, as
well as the process of sustainable development.
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Rural-Urban Comparative Study
Jigar and Lalani (2011) observed the status of urban water
supply and compared it with rural supply. The water supply in most
Indian cities is only available for a few hours per day, pressure is
irregular, and the water is of questionable quality. No major Indian city
has a 24 hour supply of water, with 4 to 5 hours of supply per day
being the norm. This is very low when compared to the Asian-Pacific
average of 19 hours per day supply. These averages conceal a great
deal of heterogeneity within cities. Eighty-eight percent households
have access to an improved source of drinking water, with greater
access in urban areas. The most common improved source of drinking
water for urban dwellers is piped water; 71 percent either have water
piped into their living area or use a public tap. By contrast, only 28
percent of households in rural areas have access to piped water. Most
people (53 percent) in rural areas obtain their drinking water from a
tube well or bore well.
High rates of mortality and morbidity due to water-borne
diseases are well known in India. Serious degradation of water quality
in urban India has often been attributed to indiscriminate disposal of
sewage and industrial effluents into surface water bodies. Although
some degree of intervention in terms of chlorination and monitoring of
water quality exists in major cities and towns, rural India, which
constitutes the bulk of the population, is usually deprived of such
interventions. The population in rural India is mainly dependent on the
groundwater as a source of drinking water. As a quality concern the
groundwater is often found to be contaminated with fluoride, arsenic,
iron and salts. In recent years, fluorosis has emerged as major public
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health issue in rural India. At the technical level, some progress has
been made in the development and use of field-level diagnostic kits.
Decentralization of health-related monitoring at the villages needs to be
institutionalized and this requires capacity development at all levels.
This study suggested that redesigning of data management programme
at village, district and at national level, upgradation of district-level
laboratories and addressing technical, legal and institutional
components should become the first steps in achieving effective water-
quality management and providing better health to millions of people
living in rural India (Srikanth, 2009).
Planning Commission (2007) has also observed the status of
India’s water supply during the recent period on the basis of Census
data. The status of provision of water and sanitation has improved
slowly. In 1991 Census, 55.54 per cent of the rural population had
access to an improved water source. As on April 1st 2007, a total of
15,07,349 rural habitations in the country, 74.39 per cent (11,21,366
habitations) are fully covered, and 14.64 per cent (2,20,165
habitations) are partially covered. Further, present estimates shows
that out of the 2.17 lakh water quality affected habitation as on April
1st 2005, about 70,000 habitations have since been addressed for
providing safe drinking water. Also, from the reported coverage, there
are slippages in the prescribed supply level, reducing the per capita
availability due to a variety of reasons. Water supply in urban areas is
also far from satisfactory. As on March 31st 2004, about 91 per cent of
the urban population has got access to water supply facilities. However,
this access does not ensure adequacy, equitable distribution and the
per capita availability is not as per norms in many areas. Average
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access to drinking water is highest in class I towns (73 per cent),
followed by class II towns (63 per cent), class III towns (61 per cent) and
other towns (58 per cent). Poor people in slums and squatter
settlements are generally deprived of these basic amenities. The
quantity of urban water supply is also poor. Water is supplied only for
few hours of the day which leads to lot of waste as taps are kept open
and water is stored not all of which is used. This is so, despite the fact
that per capita availability of water in cities like New Delhi exceeds that
in Paris, where water is supplied round the clock.
Water Quality Problems
Water quality is a major and challenging problem in developing
countries. Population pressure, unregulated water consumption and
urbanization along with other factors make stress on fresh water
quality. Impacts are very severe. Gadgil (1998) analyses the status of
water quality of developing countries and constraints in make it to
better state. Safe drinking water remains inaccessible for about 1.1
billion people in the world, and the hourly toll from biological
contamination of drinking water is 400 deaths of children, who are in
under-5 age group. He finds that financing problems that deter
extending access to safe drinking water to the unserved population.
The study stresses the urgency of identifying the feasible policy for
enhancing availability of drinking water in these countries.
Sobsey (2002) stated that improving the microbiological quality of
household water by on-site or point-of-use treatment and safe storage
in improved vessels reduces diarrheal and other waterborne diseases in
communities and households of developing as well as developed
countries. The extent to which improving drinking water quality at the
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household level reduces diarrheal disease probably depends on a
variety of technology-related as well as site-specific environmental and
demographic factors. Reductions in household diarrheal diseases of 6
to 90 per cent have been observed, depending on the technology and
the exposed population and local conditions.
Another study examined the inter connection between water
resources management and quality of it in the developing countries,
particularly in India. Serious problem areas in India are identified,
such as water logging, urban sewage disposal, and recurrence of
malaria and silting‐up of reservoirs. Many of these problems occur due
to lack of administrative coordination and fragmentation of large
interactive systems into functional areas. By using systems theory a
number of action imperatives are identified. Improvement in linkages,
better coordination of interactive functions, stimulation of multiple
uses of water, improved water management practices and education
aimed at water conservation are the important actions to be initiated
(Bowonder, 2012).
Suthar et al. (2009) examined the bacterial contaminations of
drinking water in rural habitations of northern Rajasthan. The study
found a total number of ten bacterial species: escherichia coli,
pseudomonas aeruginosa, enterobacter aerogenes, klebsiella sp,
proteus vulgaris, alcaligenes faecalis, bacillus cereus, staphylococcus
aureus, streptococcus lactis and Micrococcus luteum were identified
form drinking water samples. The bacteria belonging to the family
enterobacteriaceae (coliforms) showed the maximum occurrences in
water samples. The total coliforms count, i.e. TTCm in drinking water
samples was in the range of 25 TTCm to 41 TTCm in different
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locations. The study further found that the drinking water quality
deterioration in rural habitations of this region was due to poor
sanitation and unawareness on personal hygienic practices. The
occurrences of some pathogenic bacteria in drinking water may
increase the risks of water-related diseases and health problems among
local residents.
Ayoob and Gupta (2008) observed the fluoride presence in the
drinking water. According to them, India and China, the two most
populous countries of the world, are the worst affected by fluoride
contamination. India is plagued with numerous water quality problems
due to prolific contaminants mainly of geogenic origin and fluoride
stands first among them. The weathering of primary rocks and leaching
of fluoride-containing minerals in soils yield fluoride rich groundwater
in India which is generally associated with low calcium content and
high bicarbonate ions. The unregulated ground water tapping aggravate
the failure of drinking water sources and accelerates the entry of
fluoride into groundwater. Most of the scientific literature substantiates
the benefits of low fluoride concentrations in preventing dental decay.
However, as a surprising paradox, incidence of dental, skeletal and
crippling skeletal fluorosis was reported in India with average fluoride
concentrations as low as 0.5, 0.7 and 2.8 ppm respectively. Fluorosis,
turns out to be the most widespread geochemical disease in India,
affecting more than 66 million people including 6 million children
under 14 years age. Though fluoride has spread its tentacles in 36,988
habitations and the number of people falling prey to fluoride poisoning
have been steadily increasing.
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Vedhachalam (2012) examined the possibility and problems in
desalination projects in order to provide adequate water supply for
Chennai city. Desalination can be an additional source of supply, but
it is also the most expensive one. Reliance on such expensive
technology does not augur well for a city that already does not collect
revenues that match its expenses.
The International Benchmarking Network for Water and
Sanitation Utilities (IBNET) report for Chennai in 2005 claimed that
only 21 per cent of the water supplied was metered. The report also
mentioned that the operating cost for both water and wastewater
services was $0.41 per meter cubed (Rs 20.5/kl), while the average
revenue from the services was only $0.30 per meter cubed (or Rs
15/kl), a shortfall of 27 per cent. The high cost of desalination
highlights another problem. New or alternative sources of water are
likely to be more expensive than existing sources of water, a theme
highlighted throughout the book. Increasing supply only gets at one
part of the problem. Demand management through infrastructure
upgrades, full-cost pricing and effective metering is equally important
to ensure reliable supply to the city’s residents. Finally, let us not forget
the water that leaves our homes. Treating wastewater and returning it
to the environment in its natural state will not only protect the
ecosystem but can also serve as an additional source of water.
Household Investment on Domestic Water
In many urban centers domestic water is supplied for the limited
hours in a day. In rural areas, this supply is not certain. Generally
water supplied in alternative days in these areas. In some places water
is supplied once in two days or after that. At the same, quality of the
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water supplied is generally not good and it requires further treatment.
Thus, households make additional investment on the domestic water
supplied in order to use water regularly and make the quality of water
better.
Sobsey (2002) stated that some of the key factors influencing the
impact of storage vessels and conditions on household water quality
are portability and ease of use, based on capacity, size, shape, weight,
presence of handles; durability, weight and other properties related to
resistance and longevity; presence of a coverable opening for filling and
cleaning access but small enough to reduce the potential for
introducing contaminants by contaminated hands, dipping utensils
and other vehicles, vectors, or other sources; ability to withdraw water
in a sanitary manner, such as via a tap, spigot, spout or other narrow
orifice, and; presence and accessibility of documentation describing
how to properly use the container for water treatment and sanitary
storage.
A study by Pushpangadan (2003) analysed the efficiency of water
use among the different states of India. It examined the Data
Envelopment Analysis (DEA) for the estimation of the well being from
drinking water using commodities and capabilities approach. DEA uses
the general purpose linear programme version of the input oriented
multi-input multi-output model for the estimation taking state as the
decision-making unit. The transformation efficiency of the water
characteristics into achieved capabilities (free from morbidity rates of
water borne diseases) shows that Punjab has the least efficiency while
Kerala and Orissa are Pareto-efficient states. The major reason for the
input use efficiency in Kerala may be due to the cultural practice of
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boiling drinking water before consumption. In the case of Orissa, it can
be attributed to better hygienic water handling practices. One such
indicator, taking water from the storage containers using vessels with
handles, is very high among the households in Orissa.
World Health Organization (2007) observed the purification
techniques at household level and their health impacts. Water
treatment also needs to be accompanied by safe storage. This can be
accomplished by using containers with narrow openings and a
dispensing device such as a tap or spigot to protect collected water
against recontamination. These measures are particularly important
because the microbial quality of drinking water frequently declines after
collection. Reaching the vulnerable, however, implies much more than
developing affordable household water treatment and safe storage
(HWTS) products. These interventions are most effective in preventing
disease only if they are used correctly and consistently. Identifying and
implementing successful approaches to increase uptake HWTS
products on a sustainable basis is essential for this intervention to
achieve widespread and long-term success. Important considerations in
home treatment are taste and other aesthetic properties of the water,
convenience of use, price and cultural attitudes. Further the study
observed that educational and promotional messages should target
positive ideas, such as clarity, taste, good health, affordability, and
ease of use. Many households would be willing to pay for home
treatment at an acceptable price (e.g. less than US$ 10 for water filters
in Southern Africa). Payment by instalments may be one method of
enabling the poor to deal with the relatively high up-front costs of
certain technologies.
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According to the U.S. Centre for Disease Control and Prevention
(CDC), 10-25 US cents worth can last a family an entire month to treat.
Simple ceramic pot filters moulded by local artisans can be used to
filter household drinking water in the house for approximately US$3
per year, making them sustainable and economical (quoted in WHO,
2007).
Boiling is by far the most commonly used approach to disinfect
water at household level. At the global level, a recent World Health
Organization report suggests that household water interventions can
lead to a benefit of up to US$60 for every US$1 invested (quoted in
WHO, 2007).
Self-reported household water quality opinions and avoidance
measures used by households in Kampala, Uganda, to manage health
risks are analyzed by Bukenya (2006). The study is based on survey
data collected from four divisions in Kampala district and analyzed
using binary logit model. Survey results indicate that the majority of
the respondents boil water to manage potential health risks. On the
other hand, logit results confirmed the existence of strong relationship
between household characteristics, opinions on water quality, and the
use of avoidance measures.
Consumers without 24-hour supply tend to use more water than
those with continuous supply because consumers store water, put it
away to replace with fresh supplies each day. Intermittent water
supply, insufficient pressure and unpredictable service impose both
financial and health costs on Indian households. Many households
with house-service connections were found to have undertaken long-
term investments in the form of water tanks, hand pumps or tube
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wells. Households with water tanks install booster pumps on the main
water line itself and pump water directly to water tanks. This increases
the risks of contamination of the general water supply and reduces the
pressure in the network for other users, leading them also to install
motors on the main line. (Jigar and Lalani, 2011).
Domestic Water Pricing
Saleth and Dinar (1998) argued that although local level supply
augmentation options cannot solve urban water deficit altogether, their
exhaustion is admittedly a necessary condition for market-based inter-
sectoral water transfers to be free of any damage to the incentive
environment facing urban water sector. To ensure this supply-side
precondition for water transfers, urban water pricing has to be revised
to allow higher water rates and more progressive rate structure.
Majumdar and Gupta (2007) argue in favour of rational water
pricing for prompt supply to the households. In their study they
pointed out that step to rationalize the municipal water pricing system
have raised various debates in Kolkata of India. The primary point of
debate is whether the age-old direct subsidy to a water system
benefiting all users should continue or a volumetric charge on water
usage should be imposed. Apart from this, issues such as a transitional
phase pricing strategy, specific tariff structure, support for the poor
and management options are widely debated by those that favour
rationalization. The authors examine the behaviour of 500 households
of Kolkata, and use the information to resolve the issues of contention.
It is estimated that a uniform volumetric charge of Rs. 4 per kilolitre
can be imposed in the phase of transition.
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Women’s Participation in Household Water Management
Katsha and White (2009) made an attempt to understand the
behavioral patterns of women in rural households regarding water and
sanitation. For the study an interdisciplinary team surveyed 312
households in two Egyptian delta villages, examining 46 of them in
depth, through participant observation method. Main observations of
the study are: their patterns of storing water, and its use for drinking,
cooking, washing, animal rearing and waste disposal are rooted in the
woman's beliefs regarding cleanliness and what enhances the health
and well-being of her family. The local environment of surface and
groundwater availability, quality and available drainage affect her
choices. Other factors include local government institutions, available
technology, information and educational facilities, time and energy
expended on various practices, and social values held by women and
the community. The women suggest practical solutions for their water
and sanitation problems such as carts for collecting waste water, but
feel powerless to influence local governments, or even their husbands,
to institute new practices.
Sijbesma et al. (2009) conducted a study in drought-prone area
of Gujarat emphasised role of women in domestic water supply and
collection. The study accentuated that to realize their potential water
supply projects should be designed and managed not only for welfare
and public health, but also for economic development and gender
sensitivity within households. Economic gains can be realized by
linking water supplies with micro-enterprises, especially in water
scarce and poor areas. Micro-enterprise development should focus
especially on women as they use water and time domestically and
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economically and can gain time and energy from improved water
supplies. Enterprise projects must go beyond credit supply to cover the
whole chain of production, management and sales. For a more reliable
and equitable water distribution, women entrepreneurs must be able to
influence the planning, design and management of traditional and
improved water supplies as a group. Within the groups, more attention
is needed on gender relations among the women themselves. Policy that
is sensitive to these aspects of economic development and gender
relations in villages targeted for improved water supply will have a
greater impact on both poverty alleviation and women-empowerment.
Policy Reforms
Many studies offer policy suggestions in some important domains
of domestic water supply and management. Such important policy
options of few recent studies are reviewed and given below:
Prakash and Thakur (2004) highlighted the need for policy reform
for prompt supply of domestic water. Most water supply entities like
water supply departments, state or city-level water boards, or
municipal governments, run at a loss, and cover the loss – defined as
the gap between revenues from the sale of water and cost of water
provision – from government subsidies and accelerated depreciation of
capital. The result is a low-level equilibrium - low tariff, poor services,
and constraints on access, especially of poor households. Thus the
study emphasised the water pricing, particularly with respect to the
size of the consumer base, multiple instruments of charging, price
discrimination between different water user groups, and price-cost
linkages.
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Nisha (2005) stressed the alternative arrangement for increasing
the efficiency of state sponsored water supply system. Her study on
rural water supply system makes the following observations and
suggestions: among the various institutions to manage water supply,
the government led water authority was the prominent player. The
economic inefficiency of Kerala Water Authority along with
environmental and resource constraints of the state, such as, the
declining water table, loss of forest cover and high rain water run-off
has lead to the failure of state regulated public sector water services.
The state led water supply schemes mainly concentrated on the urban
areas alone and was not able to meet the water demand among the
rural. Relative high implementation cost in rural areas made the
scheme town centered. One of the major deficiencies of the piped rural
water supply systems in Kerala is its inability to meet the full water
requirement and total non-availability of water in the elevated areas.
Along with diminishing water availability, poor financial performance
with high revenue loss played an important role in the emergence of
alternative institutional set up in the drinking water supply system in
Kerala. A new approach entitled to address the general failures of state
lead water supply programmes, in the context of decentralized
planning, has experimented focusing on community based approach to
take up drinking water supply schemes in different parts of the state.
Janakarajan, et al. (2007) stated that the horizontal urban
expansion encroaches upon natural resources, in particular land and
water, enjoyed hitherto by rural and peri-urban communities. As a
consequence, severe competition and conflicts flare up between urban
and peri-urban areas. While Municipal Corporations, Housing Boards
32
and State Metro Water Agencies collectively negotiate claims over land
and water rights on behalf of urban areas, the peri-urban areas are
represented individually and often are subject to threats. These kinds
of negotiations are often one-sided because of the unequal bargaining
power enjoyed by these Agencies. This is precisely the context in which
collective multi-stakeholder dialogues approach and a participatory
planning process would be useful for a better negotiated democratic
settlement.
On the basis of case studies for three large cities of India, namely
Delhi, Mumbai and Kolkata, Aijaz (2010) argued that there exists an
immediate need to build up the water infrastructure and institutions,
and he pointed out that the challenge for stakeholders lies in speeding
up the reform process and in the replication/implementation of efficient
water governance practices.
The study by World Commission on Dams (1999) illustrated from
the case of Chennai, where efforts are made to augment water supply
through rainwater harvesting, groundwater recharge and wastewater
recycling. Successful case of rainwater harvesting in north Chennai,
supported with Groundwater Regulation Act have enabled overall
improvement of water resources in the city and through roof-top
rainwater harvesting at household level. It also discussed some of the
comprehensive report by development agencies in Delhi to augment
water through rainwater harvesting.
Gleick (2002) observed the global drinking water conditions and
insisted the need for policy reforms. He argued that yet efforts to
provide universal coverage for water and sanitation continue to be
largely rhetorical and piecemeal. The price for this failure will be paid
33
by the poorest populations of the world in sickness, loss of educational
and employment opportunities, and early death. Even if the official
United Nations Millennium Goals set for water are met – which is
unlikely given the current level of commitments by national
governments and international aid agencies – as many as 76 million
people will die by 2020 because of preventable water-related diseases.
This is morally unacceptable in a world that values equity and decency,
but at the present time, it appears to be unavoidable unless we rethink
our approach to provide water and sanitation services and intensify
international efforts to aid those lacking these most basic human
needs.
So far we have reviewed some of the recent studies conducted
mostly in India, and some other countries, on various aspects of
domestic water. In the next section, the study presents key concepts
used in the report.
II. CONCEPTS USED IN THE ANALYSIS
Urban Areas
All municipalities, corporations, cantonment boards or notified
town areas by committee or a place which satisfies the following three
criteria simultaneously: a minimum population of 5,000; at least 75
per cent of male working population engaged in non-agricultural
pursuits; and, a density of population of at least 400 per sq. km.
Rural Areas
All villages which do not satisfy the conditions laid down for
urban areas as mentioned above.
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Urban Local Bodies
Urban local bodies are the constitutionally provided
administrative units that provide basic infrastructure and services in
cities and towns. According to Census of India 1991, there are 3255
ULBs in the country. They are classified as, large urban areas
governed by Corporations; smaller urban areas governed by
Municipalities; semi-urban areas governed by Town Panchayats; and
villages are governed by Village Panchayats.
Municipality
A municipality is an urban administrative division having
corporate status and usually powers of self-government.
Village Panchayat
It refers to the local self-government at the village level. This is
the foundation of the panchayat system. The main source of income is
the property tax and other sources include professional tax, taxes on
pilgrimage, animal trade, grant received from the State Government in
proportion of land revenue and grants received from the district
administration. To establish a Village Panchayat in a village, the
population of the village should be at least 500 people of voting age.
Town Panchayat
Town Panchayats are new urban local bodies. They were first
introduced by State government of Tamilnadu to facilitate governance
at local level. Town Panchayats are “future municipalities”.
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Wet Land
A wetland is a land area having a water table with the support of
surface water and that stands at or near the land surface for a long
enough period each year to support aquatic plants.
Dry Land
Dry land is unirrigated land and the cultivation of the land is
uniquely dependent on natural rainfall.
Padugai Land
Land situated near river delta regions consisting of loamy young
brown soils that are very deep and fine. This type of land is highly
suitable for plantain cultivation.
Coverage of Habitations
A habitation has been defined as a place where people have
settled permanently. Temporary settlements like that of quarry
workers, construction workers, farm workers, nomads etc. are not
classified as habitation. According to the availability of drinking water,
habitations are classified in the Rural Water Supply Programme as, not
covered habitations; partially covered habitations; and fully covered
habitations.
Not Covered Habitation
It means the safe drinking water source/point does not exist
within 1.60 km. of the habitation in the plains or 100 m. elevation in
the hilly areas. The source/point may either be public or private in
nature. Habitations having a source affected with quality problems
such as excess salinity, iron, fluoride, arsenic or other toxic elements or
biologically contaminated and habitations where quantum of
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availability of safe water from any source is not enough to meet
drinking and cooking needs (i.e. below 10 lpcd) are also included in this
group.
Partially Covered Habitation
It means the habitation which has a safe drinking water
source/point (either public or private) within 1.60 km. in plains and
100 m. in hilly areas but the capacity of the system ranges between 10
lpcd to 40 lpcd.
Fully Covered Habitation
It means the entire population of the habitation is provided with
safe drinking water.
Normal Months
Normal months - January, February, July and August -
represent the months in which quantum of drinking water supply is
comfortably available to the households and at the same time demand
is also normal.
Winter Months
Winter months - September to December – are rainy months in
which the quantum of water supply is good enough to meet the
household needs, but the demand is relatively lesser because of lesser
need for consumptive and non-consumptive components of household
water.
Summer Months
Summer months – March to June - represent the period in which
water supply is highly scanty and people face hardship in water access.
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But the demands for both consumptive and non-consumptive
components are high.
Surface Water
Surface water refers to water found on the surface of the earth
like rivers, canals, tanks, and ponds.
Ground Water
Groundwater is water located beneath the earth's surface in soil
pore spaces and in the fractures of rock formations. It is the liquid
water flowing through shallow aquifers. It may be fresh or saline.
Drinking Water
Drinking water or potable water is water safe enough to be
consumed by humans or used with low risk of immediate or long term
harm.
Rain-fed Tank
Rain-fed tanks are those tanks that are either natural or
manmade, which stores rain water that can be used for drinking and
agricultural purposes during non-rainy seasons.
Fluoride
Both organic and inorganic fluorine compounds are called
fluorides which are present in the water.
Salinity
Salinity is the saltiness or dissolved salt content of a body of
water. It is a general term used to describe the levels of different salts
such as sodium chloride, magnesium and calcium sulfates, and
bicarbonates.
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Water Purification
Water purification is the process of removing undesirable
chemicals, biological contaminants, suspended solids and gases from
contaminated water.
RO System
Reverse Osmosis is a membrane-technology filtration method
that removes many types of large molecules and ions from solutions by
applying pressure to the solution when it is on one side of the selective
membrane.
UV Water Purifier
Ultraviolet (UV) disinfection uses a UV light source, which is
enclosed in a transparent protective sleeve. It is mounted so that water
can pass through a flow chamber, and UV rays are admitted and
absorbed into the stream. When ultraviolet energy is absorbed by the
reproductive mechanisms of bacteria and viruses, the genetic material
(DNA/RNA) is rearranged and they can no longer reproduce. They are
therefore considered dead and the risk of disease has been eliminated.
Candle Filter
The Candle Filters operate on a batch cycle and may be seen in
process lines handling titanium dioxide, flue gas, brine clarification, red
mud, china clay, fine chemicals and many other applications that
require efficient low moisture cake filtration or high degree of polishing.
Plastic Pots
Plastic pots are widely used to collect water from the delivery
point to point of consumption. Generally the capacity of a plastic pot is
16 liters. Because of the convenience in use and maintenance and
39
cheaper price, the plastic pots are widely used in many of the
households.
House-Service Connections
Arrangement made by the municipal authorities to supply of
water directly to the houses through pipe lines. For this, households
pay initial deposit, and water charges as either lump sum basis or
metered rates (monthly, half-yearly or annually).
Street Stand-Posts
Provision of drinking water for the public through pipe lines for
every street. Provision made by the municipal bodies to provide
drinking water to the households.
Annual Income
Annual income of the households is the total wage and salary
earned by the members of the household per year. Salary earned
during the financial period April 1st to March 31st is considered as one
year.
Per Capita Income
Per capita income used in the study is the total annual income
earned by the households divided by the number of household
members.
Income Groups
Annual Average Per capita Income for rural households has been
classified on the basis of quartiles. On the basis of rural classification
urban households have also been divided into different income groups.
Households earning annual per capita income less than Rs. 15000 is
classified as Lower income group, households earning Rs.15,000 to
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Rs.25,000 is classified as Middle–Lower income group, households
earning Rs.25,000 to Rs. 50,000 is classified as Middle–Upper income
group, households earning Rs.50,000 to Rs. 75,000 is classified as
Higher–Income group - First Category, households earning Rs.75,000
to Rs. 1,00,000 is classified as Higher–Income group - Second Category
and households earning above Rs.1,00,000 - is classified as Higher–
Income group - Third Category.