Journal of Global Resources
Volume 6 (01)August 2019-January 2020
Page 183-188
UGC–CARE Listed Journal in Group D
ISSN: 2395-3160 (Print), 2455-2445 (Online)

29
DRINKING WATER AVAILABILITY AND MANAGEMENT: A CASE STUDY OF SAWAIMADHOPUR DISTRICTPrem Sonwal
Assistant Professor, Department of Geography,
SCRS Government College, Sawai Madhopur (Rajasthan), India
Email: premsonwal@gmail.com
Abstract: Drinking water is an essential element for living. Article 47 of the Constitution of India
makes it a top priority for the governments to provide safe and clean drinking water to every
citizen of the country. In India, due to a 3-fold increase in population during 1951-2010, the percapita availability of water in the country as a whole decreased from 5,177 m3/year in 1951 to
1,588 m3/year in 2010. Supply of good quality water in sufficient quantities and safe sanitation
practices in urban and rural areas are interconnected with the health and economic well-beingof the people. Water used for the drinking purpose is known as potable water, which must be
sparklingly clear, odourless, neither hard nor too soft and free from bacteria and impurities. In
Rajasthan, 91 percent of the Domestic Water requirements of Rural / Urban Sector are being
catered from Groundwater Sources and only 9 percent Water requirement is being met fromsurface water sources. In spite of poor quality and meager quantity, the groundwater resourcesin the state are the only most reliable and dependable source for sustenance of life. As a resultof increasing population, urbanization, expansion of irrigated agriculture and other activities, theground water level in Sawai Madhopur district has come under the category of 'over
exploitation' category and the quality of water has also come down. This paper highlights thesources of drinking water, quality of ground water and efficient management of drinking water in
Sawai Madhopur district.
Key words: Ground Water, Over Exploited, Potable Water, Water requirement, NRDWP.
Introduction
Drinking water comes from surface water and ground water. Surface water includes river,Lakes and reservoirs. Ground water is siphoned from wells that are bored into aquifers. Accessto reliable, safe water reduces exposure to pollution, disease, and harmful contaminants,
thereby promoting health and wellbeing. The decline in groundwater levels, contamination ofwater sources and increases consumption are some problems related to water resources. In
such a scenario, availability of safe, clean and affordable water is a big challenge. The
Sustainable Development Goals 2015-2030 include Goal 6 for clean water and sanitation for
ensuring their availability and sustainable management. Objective 6.1 says that by 2030,
nations including India should ‘achieve universal and equitable access to safe and affordable
drinking water for all’. According to global reports released by the United Nations, 2.1 billion
people live without safe drinking water at home and 80 per cent of those who have to use
unsafe and unprotected water sources reside in rural areas. In our country, groundwater is the
major source of water and around 85 percent of the population is dependent on it. Remaining
15 per cent of the rural water supply comes from surface water sources. Ground water in mostcities and around 19000 villages contains fluorides, nitrate, pesticides, etc. beyond thepermissible limits. Drinking water quality stays an issue and this reflects the fact that roughly 21
per cent of communicable diseases are waterborne and 75 per cent of water-related deaths areof infants under five years.
India is among the world’s most water-stressed countries. According to the National
Sample Survey Office (NSSO) (2011-12), 46.1 per cent of the rural households do not havedrinking water facilities within their premises. A person in rural India has to spend, on anaverage, 20 minutes to bring drinking water. India loses 73 million working days because ofwater-borne diseases. Post 2012, under restructured NRDWP, the focus shifted to improving
the quality of water supplied to targeted habitations. The NRDWP (National Rural Drinking
water Programme) aims at providing every person on rural India with adequate safe water for
drinking, cooking and other domestic basic needs on sustainable basis. For urban settings, the183water availability of 150-200 lpcd is considered adequate to meet all domestic purposes. In
rural India, a norm of 40 lpcd is a set target. The quality of water supplied is also a major issue.
Rajasthan has been a water deficit area. The rainfall is erratic and there is a large variation in
the rainfall pattern in the state. Average annual rainfall of the state is 531mm. Rajasthan is thelargest state of the country, the status of water in the state is most critical. Rajasthan with morethan 10.4 percent of the country’s geographical area, supporting more than 5.67 percent of thehuman population and 18.70 percent of the livestock has only 1.16 percent of the total surface
water and 1.70 percent of ground water available in the country. The groundwater condition isquite alarming. Total Annual Ground water Recharge of the State has been assessed as
13.21bcm and Annual Extractable Ground Water Resource as 11.99bcm. The Annual Ground
Water extractionis16.77bcm and the Stage of ground water extraction in the state is 140
percent. Out of the 295 assessed blocks, 185 blocks have been categorized as ‘Over
Exploited’, 33 as ‘Critical’, 29 as ‘Semi-Critical’,45 blocks as ‘Safe’ and 3 as ‘Saline’( March,2017).
Study Area
Sawai Madhopur district is administratively divided into six blocks Bamanwas, Bonli, Sawai
Madhopur, Khandar, Gangapur City and Chauth ka Barwada. According to the 2011 census,
the population of district under the urban area Sawai Madhopur is 1.21 lakh and Gangapur Cityis 1.19 lakh and the population of 758 habitable villages of 6 Panchayat Samities/Blocks of therural area is 1069084. Total population of the district is 1335551 (Census 2011).
Physiographically the area is characterized by partly planes and partly hilly terrain with
Vindhyan plateau in the South and Southeast and occasional sand dunes towards South ofvillage Wazirpur. The most of the rainfall is received (93.5 percent) during the monsoon
months. Average annual rainfall of the district is 664 mm. The climate of the District is semiarid
to sub humid type and is subject to extremes of cold and hot at different places. The minimum
and maximum temperatures recorded in Sawai Madhopur District are below 10°C in the monthof January and above 40°C in the month of May respectively. The Banas, Moral, Jivad andChambal are the main rivers in the district. The Banas is the largest among them. The overall
stage of ground water development of the district is 134.55 percent (March, 2017) and the
district as a whole is categorised as ‘Over Exploited’.
RESULT AND DISCUSSION
Drinking Water Availability in Sawai Madhopur
The main sources of drinking water in the urban and rural areas of Sawai Madhopur district are
the tubed well, open well, single phase and hand pumps. The highest number of hand pumps isin the urban area Sawai Madhopur and Gangapur. The highest hand pump in rural areas is 452
in Bonli block. The maximum number of Tube Well in the entire district is 106, which is in Sawai
Madhopur city.
Table 01: Drinking Water Sources in Rural/Urban Areas of Sawai Madhopur District#

Block/City

Total Drinking Water Sources
Working Drinking Water Sources
TW
OW
SP
HP
TW
O/W
SP
HP
1. UWSS Sawai Madhopur
106
4
150
464
106
4
150
367
2. UWSS Gangapur
48
2
45
288
48
2
45
260
3. Sawai Madhopur
60
0
587
1150
45
0
540
616
4. Khandar
67
1
437
1064
63
1
437
657
5. Bonli
73
10
60
2931
40
9
54
2646
6. Chauth Ka Barwada
60
8
300
1101
56
8
270
502
7. Gangapur
83
13
155
2017
83
13
143
1481
8. Bamanwas
76
2
80
1853
76
2
78
1730
Total
573
40
1814
10868
517
39
1717
8259
Source: PHED, Sawai Madhopur
TW-Tube Well O/W –Open well SP-Single Phase HP-hand pump

Groundwater availability in Sawai Madhopur is highly variable, depending on hydrologicalconditions. The limited ground water resources in Sawai Madhopur are increasingly being
exploited for irrigation and domestic uses. The District is heavily dependent on groundwater for
drinking water and irrigation. Total Annual Ground water Recharge of the district has beenassessed as 490.04MCM and Annual Extractable Ground Water Resource as 449.82MCM.
The Annual Ground Water extraction is 605.25MCM and the Stage of ground water extraction184

in the district is 134.55 percent (March, 2017).Being a predominantly fresh ground water area
coupled with good population and availability of agriculture land, the ground water exploitationis also very high and the ground water resource assessment studies reveal that all the blocks ofthe district have already exhausted the dynamic ground water resource and all the blocks fallwithin ‘Over Exploited’ category on the basis of stage of development exceeding more than 100
percent. Data regarding coverage of safe drinking water in rural areas is estimated in terms of
Fully Covered Habitations (i.e. More than 40 lpcd or more safe drinking water), Partially
Covered Habitations (i.e. Less than 40 lpcd) and Quality Affected Habitations (i.e. water withchemical contaminant). District data indicate that 73.29 percent of rural habitations have been
provided with 40 lpcd or more, 23.9 percent of rural habitations get less than 40 lpcd and 2.79
percent of rural habitations affected with contaminant water.
Table 02: Status of Rural Habitation with Respect to Drinking Water Supply, 2018-19
Category

Total
2179
1597

Total Population(in lacks)
10.90
6.73

HavingPWS
Population
4.01
2.65

Not Having PWS
Population
6.89
4.08

Total No of Habitations
No of Fully Covered
Habitations
No of Partially Covered
Habitations
No of Quality Affected
Habitations
Source: NRDWR

521

3.53

0.91

2.63

61

0.63

0.45

0.18

PWS – Public Water System

lpcd – litre per capita per day

Groundwater Quality
The quality of water depends on its physical and chemical properties. Physical properties
include colour, odour & turbidity which can be determined by our senses. The chemical
properties depend on the nature & quantity of various chemical constituents individually or
jointly. The presence of various chemical constituents in excess quantity in water affects thehuman health adversely. Contaminated water and poor sanitation are linked to transmission of
diseases such as Cholera, Diarrhoea, Dysentery, Hepatitis A, Hepatitis E and Typhoid. In ourcountry Bureau of Indian Standard has prescribed standard limits for drinking purpose (IS10500: 2012). The Acceptable limit and permissible limits for major constituents and theirprobable effects on human body have been shown in the following table.
Table 03: Drinking Water Standard of BIS, 10500:2012#
Parameters
1
pH
2
Chloride3
Total alkalinity
4
Total Dissolved solid
5
Total Hardness
6
Fluoride
7
Iron
8
Calcium
9Magnesium
10Sulphate
11
NitrateSource: BIS

Desirable Limit
6.5-8.5
250
200
500
200
1.0
0.3
75
30
200
45

Permissible Limit
1000
600
2000
600
1.5
No relaxation
200
100
400
No relaxation

Unit
mg/l
mg/l
mg/l
mg/l
mg/l
mg/l
mg/l
mg/l
mg/l
mg/l

Dissolved nitrogen in the form of Nitrate is the most common contaminant of groundwater in rural areas. Higher concentration of nitrate causes mathaemoglobinaemia or "bluebaby" disease in bottle fed infants. The Bureau of Indian standard prescribed desirable limit 45
mg/l for nitrate in drinking water and no upper limit relaxation for nitrate concentration in
drinking water. Fluoride is a mineral that is found naturally in all water sources, including fresh
water and sea water. It is well known that small amount of fluoride (less than 1.0 mg/l) have
proven to be beneficial in reducing tooth decay. High concentration of fluoride has an adverse
effect on tooth enamel and may give rise to mild dental fluorosis The Bureau of Indian standard
prescribed desirable limit 1.0 mg/l and permissible limit 1.5 mg/l for fluoride in drinking water.
TDS stands for total dissolved solids, and represents the total concentration of dissolved
185substances in water. It is the sum of the cation and anion present in water. Total dissolved solid
is refers to carbonates, bicarbonates, chloride, phosphate, nitrates, sulphates of calcium,magnesium, potassium and sodium are dissolved in water. The High concentration of TDS in
drinking water may result as corrosion, incidence of cancer, coronary heart diseases,
arteriosclerotic heart diseases and cardiovascular diseases. Bureau of Indian Standard
prescribed the desirable limit 500 mg/l and permissible limit 2000 mg/l for total dissolved solidin water.
According to the Table-4, the district is affected by poor quality of drinking water, with
142 Habitations in Gangapur, 103 in Boni and 75 in Bamanwas. The blocks most affected byfluoride in water are Bonli, Gangapur, Bamanwas and Chauth Ka Barwada .Blocks affected bynitrate in ground water are Bonli, Gangapur and Chauth Ka Barwada. Blocks affected by TDS
are Bonli, Bamanwas and Gangapur. It is clear from Table- 4 that the quantity of fluoride andiron is not found in the underground water of all the 6 blocks of Sawai Madhopur district.
Table 04: Water Quality Testing Block wise in Sawai Madhopur# BlockNo. ofNo. of public
No. of Sources found contaminatedSources taps as on(above IS - 10500 Permissible limit)(25/10/2019) (25/10/2019) Arsenic Fluoride Nitrate Salinity Iron Bacterio(As)(Fl)(NO3) (TDS) (Fe)logicalChauth Ka
3179
Barwada2 Bamanwas
4568
3 Gangapur
3627
4 Bonli
5192
Sawai
5
3182
Madhopur6 Khandar
2273
Total
22021
Source: NRDWR
1

No. ofHabs
Affected

39

0

101

140

58

0

0

56

25
155
90

0
0
0

171
181
252

115
196
216

136
110
147

0
0
0

0
0
0

75
142
103

118

0

13

81

6

0

0

40

52
479

0
0

22
740

71
819

5
462

0
0

0
0

43
459

According to the study of some drinking water sources in the district (Table-4), it has beenfound that a total of 459 habitations have been affected due to poor water quality in the district,out of which 142 habitations is in Gangapur block and lowest 40 habitation is in Sawai
Madhopur, 43 habitation Khandar block.
Government Initiatives
A water secure nation will not only provide clean and safe drinking water to its citizens but also
would ensure a healthy and economically productive society. Supply of potable drinking water
has been a top priority of Central and State Government. In the same context, various schemes
are run by the Central and State Governments for providing clean drinking water in urban andrural areas in the state. The details of the major schemes providing drinking water facility to thestate are as follows: According to the Niti Aayog CWMI (Composition Water Management
Index) report (July, 2018), only 44 per cent of Rajasthan's rural areas have clean drinking watersupply. The state has been applauded for its efforts in surface water restoration andparticipatory irrigation. Apart from this, Rajasthan has undergone improvement on the irrigation
front by restoring 80 per cent of the irrigation potential largely through community managed
ponds and tanks. The restoration of surface water bodies and other works done under
Mukhyamantri Jal Swavlamban Abhiyan (MJSA) for the improved showing of the state. The
state launched Mukhya Mantri Jal Swawlamban Yojana to short out the problems of water
scarcity by restructuring the water bodies. After the execution of the Mukhya Mantri Jal
Swavlambhan Abhiyan (MJSA) phase-I in the state, The Impact Assessment report shows anaverage rise of 4.66 feet in water table in 21 non-desert districts, 56.13 percent reduction inwater supply through tankers and 63.64 percent rejuvenation of defunct hand-pumps and anincrease of 44409 hectare of cropping area among other achievements.
Rajasthan government’s Isarda Dam project, which would ensure supply of water toaround 3.35 million people in Sawai Madhopur and Dausa districts. Dam will resolve drinking
water problems of Dausa, Sawai Madhopur. The dam which will be built on 7,129 hectares ofland in Isarda in Sawai Madhopur district and have a capacity of 10,770 million cubic feet ofwater. The Eastern Rajasthan Canal Project (ERCP) is to provide safe drinking water andirrigation water to targeted population of 13 districts of eastern Rajasthan and en-route towns,
186

tanks and villages as well as nearby command area. The ERCP will ensure availability of waterin Jhalawar, Baran, Kota, Bundi, Sawai Madhopur, Ajmer, Tonk, Jaipur, Dausa, Karauli, Alwar,
Bharatpur and Dholpur districts and create an additional command area of 2 lakh hectares for
irrigation.
The Government of Rajasthan through Public Health Engineering Department (PHED),
Jaipur awarded the work of Chambal-Sawai Madhopur-Nadauti (CSN) Water Supply Project toprovide drinking water facility to 926 villages and 4 towns, Sawai Madhopur, Gangapur, Karauli
and Todabhim. These districts are adversely placed as far as availability of potable drinking
water is concerned due to high nitrates, chlorides and dissolved solid contents and is not fit forhuman consumption.‘Swajal’ was originally launched as a pilot scheme in February 2018 in Six
States including Rajasthan to provide sustainable access to drinking water to people in the rural
areas. Later, it was extended to all the 112 aspirational districts identified by NITI Aayog. The
Central Government has also come up with a World Bank-aided Atal Bhujal Yojana (ABHY)
with community participation to ensure sustained groundwater management in overexploitedand ground water-stressed areas in seven states. It has been found that 1034 blocks out of the6584 assessed blocks in the country are overexploited including 164 blocks from Rajasthan.
The Jal Shakti Abhiyan - a campaign for water conservation and water security in 1592 water
stressed blocks in 256 districts, to ensure five important water conservation interventions.
These will be water conservation and rainwater harvesting, renovation of traditional and otherwater bodies/tanks, reuse, bore well recharge structures, watershed development and intensive
afforestation. The movement is a time-bound mission mode water conservation campaign. Jal
Jeevan Mission, a central government initiative under the Ministry of Jal Shakti, aims to ensure
access of piped water for every household in India. The mission’s goal is to provide to all
households in rural India safe and adequate water through individual household tap
connections by 2024.
Suggestions
Water conservation is a key challenge, which requires public participation. Mass awareness on
the need for water conservation and providing common tips to effectively participate in thisimportant mission is need of the time. Rainwater, which is the purest form of water, has beencollected and stored for later use for centuries. If collected properly, it would not only provide
the supply of safe drinking water but also help in combating water borne diseases to a great
extent. The following suggestions need to be adopted for providing clean drinking water
facilities in urban and rural areas of Sawai Madhopur district.
To enable the rural community shoulder the responsibility in management operation andmaintenance of water supply systems at village level, decentralized, demand-driven,community managed approach in the form of Swajal Dhara have been adopted.
There is need for more roles of Panchayati Raj Institutions (PRIs) in making the drinking
water supply schemes functional. Partnership between village communities, NGOs, andThe government as the facilitator and co-financing has worked successfully.
Revival of traditional rainwater harvesting (TRH) structures i.e. kundi, kui/beri, baori/ber,jhalara, nadi, toba, tanka, khadin, johad and anicut etc. for rainwater conservation for use in
day to day life will reduce ground water draft.
Mass awareness programmes should be arranged at local level to make common people
aware of importance of ground water resources, its better practices of use in domestic,
irrigation and industrial sectors, present status of ground water scenario, need and ways of
its conservation etc.

Conclusion
In terms of the critical issues for the drinking water such as source sustainability, water quality
management and better operation and maintenance, it is important that strong grassroots
awareness is generated. More participatory processes need to be adopted to involve all
sections of the community for providing water services. Plans have been envisaged for theconstruction of artificial recharge and rainwater harvesting structure in rural areas. there is needto go for a rigorous convergence drive of Gol’s various rural development programmes, such as
Mahatma Gandhi National Rural Employment Guarantee Act, Pradhan Mantri Krishi Sinchayee
Yojana, other scheme for watershed development and restoration of water bodies, etc., backed
by a need based village-level water planning. An assured supply of safe and adequate drinking
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water can also be seen as one of the basic factors determining the quality of life of people andin the process enhancing their quality of life. Further, the field studies have revealed that agood number of villages in the country are maintaining O & M with the active participation ofcommunities, especially women resulting in 27×7 safe drinking water supply on a sustainable
manner. This is one of the contributing factors for preventing water borne diseases in achieving
health for all. We have to increase water use efficiency in every sphere of life as well. This iseven more so as the burgeoning population and people’s consuming lifestyles have been
putting tremendous strain on the limited natural resources of the country. Situation demands
that the existing water resource be used very judiciously and prudently.
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