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Lentic waters in Haryana:Water Quality Status and
Recommendations for Future Activities
Anita BhatnagarDepartment of ZoologyKurukshetra University
●• Every day, millions of tons of inadequately treated sewage and industrial and
agricultural wastes are poured into the world’s waters.
●• Every year lakes, rivers, and deltas take in the equivalent of the weight of the entire
human population.
●• Every year, more people die from the consequences of unsafe water than from all
forms of violence, including war.
• These most polluted freshwater ends up in the oceans, causing serious damage to • These most polluted freshwater ends up in the oceans, causing serious damage to many coastal areas and fisheries and worsening our ocean and coastal resource
• And, every year, water contamination of natural ecosystems affects humans directly by destroying fisheries or causing other impacts on biodiversity that affect food production.
• Water forms the most indispensable, precious and the prime necessity of life
• Pure water is now a scarce commodity -rapid increase in agricultural irrigation needs, -dwindling water resources - lowering of water table -the increasing water pollution on
account of rapid indusralization
Department of Zoology, Kurukshetra University ,Kurukshetra
account of rapid indusralization • About 80% of the earth is covered by water• Inland fresh water availability - less than 1% • Total water resources - are 1123 Km3
To match the increasing water demand
Requires adoption of better management practices.
Research and investigations for sustainable utilization of more and more available water
Pressure on availability and utilization of natural water resources for various anthropogenic needs
Anthropogenic needs includes
• Drinking Water• water in beverages,• water in food.• For Irrigation• For Irrigation• Water for ensuring food security (Fish
production)• For Bathing/Swimming/Mass Bathing• Water bodies for religious/ ritual activities
Mewat
21 Districts106 Towns
6955 Villages
The River Yamuna Flows along its eastern boundary
The Rivers Saraswati is said to have flowed from Yamunanagar but it has now disappeared
The River Ghaggar is Haryana's main seasonal river. It rises in the outer Himalyas between the Yamuna and the Sutlej and enters Haryana near Pinjore, in Panchkula. Passing through Ambala and near Sirsa it reaches Rajasthan.
Rivers Flowing Through Haryana
The Markanda river is also a seasonal stream. Its ancient name was Aruna. It originates from the lower Shivalik hills and enters Haryana west of Ambala.
The Sahibi river originates in the Mewat Hills , On reaching Jhajhar it branches off into two smaller streams, finally reaching the outskirts of Delhi and flowing into Najafgarh lake that flows into the Yamuna through the Najafgarh drain
There are three other rivulets in and around the Mewat hills – Indori, Dohan and Kasavati and they all flow northwards from the south
Major Lakes/ Wetlands
Badkhal
(Faridabad)
TilyarSultanpur
(Gurgaon)
SurajKund(Faridabad)
Brahmsrovar
Damdama
(Sohna, Gurgaon)
Hathni Kund
(Yamunanagar)
KarnaTilyar
(Rohtak)(Gurgaon)Brahmsrovar
(Kurukshetra)Karna
(Karnal)
Sannihit Sarovar
(Kurukshetra)
Bhindwas
(Jhajjar)
• Used for Domestic Purpose
• or Fish Culture
Artificial Ponds/Small Natural Ponds
(Especially Village Ponds)
• Which makes an interesting Bio type
Temporary Water Bodies of large or
Small typeSmall type
• Which have religious importance
Man made or Natural Tanks/ Ponds /Temple
ponds
Water Resources in HaryanaType Area
Perennial Village ponds 14000 hectare
Seasonal Village Ponds 2500 hectare
Reservoirs/Lakes 900 hectareReservoirs/Lakes 900 hectare
Water Harvesting Dams 1000 hectare
Water Logged area 2000 hectare
Saline soil 20000 hectare
Rivers and Tributaries 50000 Km
Canals 22000 m
Drains 2000 Km
Brackish Ground water is in more than 55% of area
STRENGTHS
• Availability of water Resources
• Scope for diversification of crops
• Good tropical Agroclimatic conditions
• Suitable Conditions for the Application for
WEAKNESSES
• Flood system of irrigation in canal command area
• Brackish ground water in 54 % area
• Cultivation of Water guzzling crop of paddy
the Application for resourse conserving technology
guzzling crop of paddy
• Seepage losses along wide network of canals in western part
• Depletion of groundwater in fresh water zone
•WORK FOR SUSTAINABILITY OF WATER BODIES
Monitoring and Surveillance to assess reasons for degradation
To disseminate/apply newer technology
It is time to Take action?
To disseminate/apply newer technology for conservation of water bodies
Rural Fish Culture Ponds of Haryana
(Managed and Unmanaged)
Ponds of fish farms of progressive farmers with the
application of technologyapplication of technology
Water Bodies of Haryana with religious activities
12
3Hisar
Mewat4
UNMANAGED PONDS MANAGED PONDS
•No Fertilizer
•No control on cattle entry
•No control on sewage inputs
•No Regular netting
•No monitoring
•Use of Manure
or inorganic fertilizer
•Check on cattle entry
•Regular netting to assess growth
District Pond site Type Areahectare
Source of water
Kurukshetra Barwa Unmanaged 0.48 Canal
Durala Unmanaged 3.2 Canal / Natural
Adhon Managed 0.6 Tube well / canal
Bohar sadan Managed 0.6 Tubewell /Bohar sadan Managed 0.6 Tubewell /Canal
Hisar Mugalpura Unmanaged 2.0 Natural
Jajanwala Unmanaged 2.0 Canal /Natural
Dabra Managed 0.6 Tubewell
Satrod Managed 1.2 Tubewell
Nuh Mewat Kira Unmanaged 2 .0 Canal / Natural
Ghasara Tali Unmanaged 3.2 Canal /Natural
Ghasara Managed 1.2 Canal / Tubewell
Hirmuthala Managed 1.6 Canal / Tubewell
Y. Nagar Sasoli Unmanaged 1.32 NaturalY. Nagar Sasoli Unmanaged 1.32 Natural
Chaneti Unmanaged 1.0 Natural
Fatehgarh Managed 0.44 Tubewell
Fatehgarh Managed 0.24 Tubewell
1
2
3
4
SG
R (%
BW
D-1
)
Wild Managed
8000
10000
Fis
h Y
ield
(K
g/Y
ear/
Hec
tare
)
8235 kg/ha/year
0
2000
4000
6000
1 2 3 4 5 6 7 8
Fis
h Y
ield
(K
g/Y
ear/
Hec
tare
)
Wild Managed
Physicochemical characteristics of water(APHA, 1998)
• Temperature °C Digital thermometer • pH Electronic pH meter • Turbidity NTU Turbidity meter• Conductivity mm/Cm Conductivity meter • Dissolved oxygen mg L-1 Modified winkler’s method • Free Co2 mg L-1 Titrimetric method • Alkalinity mg L-1 Titrimetric method• Chloride mg L-1 Titrimetric method• Chloride mg L-1 Titrimetric method• Sulphates mg L-1 Spectrophotometric• Phosphates mg L-1 Spectrophotometric• BOD mg L-1 Incubation method• Hardness mg L-1 Titrimetric method• Calcium mg L-1 Titrimetric method• Magnesium mg L-1 Titrimetric method • Ammonia mg L-1 Spectrophotometric method
BIOLOGICAL CHARACTERISTICS OF POND WATERS
Parameters Methods Formula used References
Phyto-and zooplankton density (nos. L-1)
Sedgwick rafter cell method
L-1= (P × C ×100)L
APHA, 1998
Species diversity (d )
Shannon and weaver index
d = -∑ (ni/N) log2 ni/N Washington, 1984
Net primaryproductivity
Light anddark bottlemethod
NPP = NOP × 0.375t
Golterman
et al.,1978
Fish Growth/ Productivity studiesFish were bulk weighed by repeated netting and specific growth rate was calculated:
Growth parameter Formula
Specific Growth rateIn W2– In W1
________________ χ 100 t
Growth per cent gain in
• Fish yield was recorded at the time of harvesting•• Coefficient of Correlation & Duncan’s Multiple range testCoefficient of Correlation & Duncan’s Multiple range test•• --SPSS packagesSPSS packages• Species diversity was determined using Shannon and weaver’s diversity
index
Growth per cent gain in body weight
W2- W1
---------- χ 100W1
Parameter K-1 K-2 K-3 K-4
Water Temp. 0C 22.09±1.09B 22.46±1.24B 22.43±1.20A 21.07±1.60B
p H 9.22±.07A 8.91±.17B 8.51±.15C 8.52±.10C
Conductivity µ S cm-1 838.88±9.01B 1016.49±9.12A 487.77±57.27D 625.55±47.43C
Dissolved oxygen mg L-1
5.92±.37B 5.39±.20B 7.58±.09A 7.68±.19A
Free CO2 mg L-1 12.49±2.43B 1.38±1.27C Absent 14.27±3.12A
Carbonate Alkalinity mg L-1 3.44±3.15C 17.61±1.90B 23.05±.85A nil
BiocarbonateAlkalinity mg L-1
274.94±18.67C 461.05±14.68A 295.05±5.89B 268.99±12.74C
Total alkalinity mg L-1 295.60±19.05A 478.66±20.09A 318.05±6.12B 268.99±12.74A
Physico-chemical and Biological Characteristics of pond water in District Kurukshetra
Total alkalinity mg L-1 295.60±19.05A 478.66±20.09A 318.05±6.12B 268.99±12.74A
Total Hardness mg L-1 237.35±4.60B 276.27±17.72A 198.71±5.39D 217.89±3.09C
Calcium mg L-1 44.61±2.87A 40.62±4.96A 17.72±1.19B 41.49±1.60A
Magnesium mg L-1 30.68±1.58 42.65±1.51A 37.51±1.88C 27.82±1.41D
Chloride mg L-1 64.68±6.78B 89.31±1.94A 24.59±1.72D 33.15±7.45C
o-phosphate mg L-1 1.66±.28A 1.41±.41A 0.69±.14B 0.60±.06B
Total phosphate mg L-1 2.52±.25B 2.80±.44A 1.17±.22C 1.01±.11C
Total ammonia mg L-1 1.88±.28A 1.51±.03A 0.29±.o2B 0.399±.05B
BOD mg L-1 3.04±.08A 2.87±.12B 2.05±.05C 2.03±.06C
Plankton Population L-1 4596.66±253.7A 4470.00±158.78A 3906.66±229.63B 3926.66±174.88B
Phytoplankton L-1 2506.66±156.5A 2460.00±90.65AB 2320.00±167.71B 2420.00±104.00AB
Zooplankton L-1 2090±138.76B 2010±96.02A 1586.66±85.00BC 1506.66±95.43C
CosmariumVolvox
MicrosporaCladophora
ZygnemaOedogonium
oscillatoriaPhormidium
Nostoc
Phyto
lankto
n taxa Cosmarium
VolvoxMicrosporaCladophora
ZygnemaOedogonium
oscillatoriaPhormidium
Nostoc
Volvox√
1314 14 14
0 100 200 300 400
K-1
DiatomaCyclotella
NaviculaSynedra
ClosteriumSpirogyra
UlothrixCosmarium
Phyto
lankto
n taxa
0 100 200 300 400
K-2
0 100 200 300 400
K-3
DiatomaCyclotella
NaviculaSynedra
ClosteriumSpirogyra
UlothrixCosmarium
0 100 200 300 400 500
K-4
√
√
DaphaniaMoina
NaupliusBosmina
CyprisChironomid
Zoop
lankto
n tax
a Moina
Nauplius
Bosmina
Cypris
Chironomid
*0 200 400 600
K-1
BranchionusKeretellaCyclops
DiaptomusDaphania
Zoop
lankto
n tax
a
0 100 200 300 400 500
K-2
Branchionus
Keretella
Cyclops
Diaptomus
Daphania
0 100 200 300 400
K-3
0 200 400
K-4
**
1
2
3
4
Spe
cific
gro
wth
rat
e
0
0.1
0.2
0.3
0.4
0.5
0.6
0.7
0.8
NP
P m
g C
cm
3 d
ay-1
0
0.5
1
1.5
2
2.5
Am
mo
nia
(mg
L-1
)
0
0.5
1
1.5
2
2.5
3
3.5
BO
D (
mg
L-1
)
0100020003000400050006000700080009000
K-1 K-2 K-3 K-4
Selected ponds
Fis
h y
ield
(K
g/Y
ear)
Physicochemical and Biological Characteristics of pond (Y-1-Y-3) Waters in District Yamuna Nagar
Parameter Y-1 Y-2 Y-3
Water Temp. 0C 22.64±1.81A 22.84±1.75A 23.03±1.85A
pH 8.65±.20A 8.40±.23B 7.65±.13C
Conductivity µ S cm-1 943.22±31.32A 681.62±37.95B 592.38±46.47C
Salinity ppt 0.0 0.0 0.0
Dissolved oxygen , mg L-1 4.35±.49C 7.30±.89B 9.38±.90A
Free CO2 mg L-1 11.99±4.97B 28.10±3.99B 13.16±5.89B
CarbonateAlkalinity mg L-1 7.00±3.41A nil 6.72±3.29A
BiocarbonateAlkalinity mgL-1
301.66±23.84A 264.33±12.42B 260.72±12.89B
L
Total alkalinity, mg L-1 308.66±24.29A 264.33±12.42B 267.44±12.89B
Total Hardness mg L-1 218.66±13.76A 185.83±2.67B 231.27±16.37A
Calcium mg L-1 19.18±1.29B 23.18±1.94B 52.38±8.77A
Magnesium mg L-1 42.43±3.50A 33.48±1.49B 26.90±2.45C
Chloride mg L-1 71.15±17.03A 59.3±2.72A 38.04±14.78B
o-phosphate mg L-1 0.874±.16B 1.08±.09A 0.780±.16B
Total phosphate mg L-1 1.39±.25B 2.04±.31A 1.21±.14B
Total ammonia mg L-1 1.81±.62A 1.28±.07B 0.74±.19C
BOD mg L-1 3.0±.13A 2.58±.06B 1.66±.09C
Plankton Population L-1 5030±122.24A 4543.33±341.66B 4566.66±147.66B
Phytoplankton L-1 2680±68.90B 2460±183.95B 2926.66±117.69A
Zooplankton L-1 2350±120.44A 2083.33±197.54B 1640±59.10C
UlothrixCosmarium
VolvoxMicrosporeCladophore
ZygnemaOedogonium
OcillatoriaPhormidium
Spirulina
Phyt
opla
nkto
n ta
xa
0 100 200 300 400
Y-1
DiatomaCyclotella
NaviculaSynedra
ClosteriumSpirogyra
100 200 300 400
Y-2
100 200 300 400 500
Y-3
Phyt
opla
nkto
n ta
xa
Daphania
Moina
Nauplius
Bosmina
Cypris
Chironomid
Hydrophilide
Zopl
ankt
on ta
xa
0 200 400 600
Y-1
Branchionus
Keretella
Cyclops
Diaptomus
Daphania
Zopl
ankt
on ta
xa
0 200 400 600
Y-2
0 200 400 600
Y-3
0
0.5
1
1.5
2
2.5
3
3.5
Sp
ecif
ic g
row
th r
ate
0
0.2
0.4
0.6
0.8
1
0
0.2
0.4
0.6
0.8
1
1.2
1.4
1.6
1.8
2
Am
mo
nia
(m
g L-1
)
0.5
1
1.5
2
2.5
3
3.5
BO
D (
mg
L-1
)
0
1000
2000
3000
4000
5000
6000
7000
8000
9000
Y-1 Y-2 Y-3
Selected Ponds
Fis
h y
ield
(K
g/y
ear)
Parameter N-1* N-2 N-3 N-4
Water Temp. 0C 19.36±.02 22.9±.86A 22.45±1.28A 22.93±1.02A
p H 8.72±.003 9.2±.03A 8.17±.09C 8.83±.14B
Conductivity µ S cm-1 5298±3.40 5289.6±71.01A 2688.66±36.28C 3576.59±39.61B
Salinity ppt 0.0 2.0 1.0 1.0
Dissolved oxygen mg L-1 5.93±.03 4.94±.64A 8.36±.64A 8.11±.48A
Free CO2 mg L-1 19.5±.38 Absent Absent Absent
Carbonate Alkalinity mg L-1 nil 25.53±1.39A 14.06±1.74B 13.86±.37B
BiocarbonateAlkalinity mg L-1 295.00±.78 347.46±11.33B 173.33±5.51C 378.46±28.29A
Physicochemical and Biological Characteristics of pond (N-1-N-4)watersin District Nuh Mewat
Total alkalinity mg L-1 295.00±.78 372.19±11.60B 187.39±4.14C 392.32±28.09A
Total Hardness mg L-1 513.66±2.33 466.13±14.59A 312.73±10.99C 349.43±8.65B
Calcium mg L-1 33.21±2.00 69.80±1.18A 76.93±43.05C 61.65±1.94B
Magnesium mg L-1 105.07±.92 71.15±3.38A 58.65±2.40B 47.65±1.51C
Chloride mg L-1 133.35±.64 103.75±1.80A 90.57±2.01B 82.82±1.38
o-phosphate mg L-1 2.26±.02 1.71±.12A 0.96±.18C 1.49±.05B
Total phosphate mg L-1 2.95±.04 3.51±.19A 1.62±.14C 2.69±.24B
Total ammonia mg L-1 - 3.53±.67A 1.29±.05B 1.12±0.64
BOD - 3.01±.08A 2.31±.09C 2.70±.09
Plankton Population L-1 4400 4456±176.33A 3992±170.31B 3968±232.32B
Phytoplankton L-1 2400 2456±56.26A 2496±106.78A 2392±150.67A
Zooplankton L-1 2000 2000±135.66A 1512.0±92.44B 1576±95.32B
CosmariumVolvox
MicrosporaCladophora
ZygnemaOedogonium
OscillatoriaPhormidium
Nostoc SpirulinaTabellaria
Phyto
plankt
on tax
a
0 100 200 300 400
N-30 100 200 300 400
N-4
0 100 200 300 400
N-1
DiatomaCyclotella
NaviculaSynedra
ClosteriumSpirogyra
UlothrixCosmarium
Phyto
plankt
on tax
a
0 50 100 150 200 250 300 350 400
N-2
Moina
Nauplius
Bosmina
Cypris
Chironomid
Hydrophilide
Eubranchus
Zoopl
ankton
taxa
MoinaNaupliusBosmina
CyprisChironomid
HydrophilideEubranchus
0 100 200 300 400
Branchionus
Keretella
Cyclops
Diaptomus
Daphania
Moina
Zoopl
ankton
taxa
0 100 200 300 400
N-2100 200 300 0 50 100 150 200 250 300
N-4
BranchionusKeretellaCyclops
DiaptomusDaphania
Moina
0
0.5
1
1.5
2
2.5
3
Sp
ecif
ic g
row
th r
ate
0
1
2
3
4
Am
mon
ia m
g L
-1
0
0.5
1
1.5
2
2.5
3
3.5
BO
D m
g L
-1
0
1000
2000
3000
4000
5000
6000
7000
N-1 N-2 N-3 N-4
Fis
h y
ield
(K
g/y
ear
)
Selected ponds
Physico-chemical and Biological Characteristics of ponds (H-1-H- 4) waters in District Hisar
Parameter H-1 H-2 H-3 H-4
Water Temp. 0C 22.12±1.40A 22.24± 1.36AB 23.57± 1.06A 23.92±.90A
p H 9.08± .09A 8.19± .02B 8.17±.08B 8.12±.13B
Conductivity µ S cm-1 4201.94± 56.60A 1618.33± 10.45B 1023.44± 84.40C 427.66±15.97D
Salinity ppt 2.0 0.0 0.0 0.0
Dissolved oxygen mg L-1 3.93± .08D 6.26± .03C 7.21±.05B 7.51±.06A
Free CO2 mg L-1 Absent 22.55±1.42A 11.50±.95C 13.10±1.55B
Carbonate Alkalinity mg L-1 57.21± 4.25A nil nil Nil
Biocarbonate Alkalinity mg L-1 429.77± 25.64A 382.83±14.67B 240.55±9.16C 168.16±2.34D
Total alkalinity mg L-1 486.98± 22.82A 382.83±14.67B 240.55±9.16C 168.16±2.34D
Total Hardness mg L-1 543.72± 14.60A 206.33± 6.6C 234.83±28.21B 172.11±3.24D
Calcium mg L-1 73.26± 10.65A 41.57± 1.69B 43.54±11.76B 26.45±4.06C
Magnesium mg L-1 87.96± 8.88A 25.04± 2.40B 30.75±1.05B 25.87±2.79B
Chloride mg L-1 221.26± 11.16A 193.18± 13.04B 115.65±22.55C 9.42±.38D
o-phosphate mg L-1 2.3± .06A 1.93± .04B 0.74±.02C 0.46±.02D
Total phosphate mg L-1 2.87± .10A 2.54±.03B 1.15±.05C 0.63±.05D
Total ammonia mg L-1 2.05± .56A 1.36±.35B 0.52±.04C 0.59±.11C
BOD mg L-1 2.70± .13B 3.04± .10A 2.45±.05C 2.38±.10C
Plankton Population L-1 3780±193.21A 3893.33±238.62A 3520±208.65B 3333.33±156.86B
Phytoplankton L-1 2153.33±143.35A 2076.66±172.74A 2206.66±157.73A 2083.33±113.02A
Zooplankton L-1 1626.66±83.94B 1816.66±151.17A 1313.33±98.55C 1037.33±183.00C
UlothrixCosmarium
VolvoxMicrosporaCladophora
ZygnemaOedogonium
OscillatoriaPhormidium
Nostoc
Phyt
opan
kton
taxa
0 200 400
H-1
DiatomaCyclotella
NaviculaSynedra
ClosteriumSpirogyra
Ulothrix
Phyt
opan
kton
taxa
0 100 200 300
H-2
0 100 200 300
H-3
0 100 200 300 400
H-4
MoinaNaupliusBosmina
CyprisChironomid
HydrophilideEubranchus
Zoop
lank
ton
taxa
0 100 200 300 400
H-1
BranchionusKeretellaCyclops
DiaptomusDaphania
Moina
Zoop
lank
ton
taxa
0 100 200 300 400
H-2
0 100 200 300
H-3
0 100 200 300
H-4
0
0.5
1
1.5
2
2.5
3
Sp
ecif
ic g
row
th r
ate
0
0.5
1
1.5
2
2.5
Am
monia
(m
g L
-1)
0
0.5
1
1.5
2
2.5
3
3.5
BO
D m
g L
-1
0
1000
2000
3000
4000
5000
6000
7000
8000
H-1 H-2 H-3 H-4
Fis
h Y
ield
(kg
/yea
r)
Selected ponds
√√
DENDROGRAM
SALIENT FINDINGSØ Mortality in the ponds during the study period was
invariably due to low dissolved oxygen content and high ammonia values.
Ø Unmanaged ponds invariably had High BOD and Ammonia indicating that water quality of ponds need management and control on the entry of sewage and cattle.and control on the entry of sewage and cattle.
Ø Production of Fish food organisms i.e. planktons were in good number from unmanaged as well as managed ponds indicating that if properly managed, these ponds can be used for fish production contributing to food security
Ø If managed they can be used as water resource for domestic and Agricultural needs.
Ø There is a need to standardize management practice.
Impact of religious activities on prominent water bodies of Haryana
Ø India is a religious countryØ Religious activities
– • Idol immersion•Floral Offering•Mass bathing•Rubbibg Filth•Use of detergents during mass bathing•Use of detergents during mass bathing•Frolicking•Offering Lamp with oil and coins•Offering Ash•Offering dead bodies•Offering Coconut shell etc.
DETERIORATE WATER
QUALITY
Sr.No
Name of waterbody
District Latitude,Longitude
Activity
1. Brahmsarovar Kurukshetra 29.961N,76.827E
Mass Bathing on everyNew Moon day(Amavasya) and Solareclipse day
2. Saraswati tirth Pehowa,Kurukshetra
29.978N76.596E
Pind-dan and bathingduring Sharad, Sloar eclipse& Kartik amavasya
3. Kapalmochan Yamunanagar 30.326N,77.317 E
Mass Bathing and Floral+oil lamp offering on FullMoon Day of Kartik ( Kartikmass ki purnima(Oct./Nov),Gurunanak jayanti alsoFalls on same day
4. Phalgu tirth Faral Village,Kaithal
29.835N,76.587 E
Pilgrim Dip and rituals, likefloral offerings on Newmoon day (Amavasya) ofSharadh (Sept-Oct)Sharadh (Sept-Oct)
Sr.No
Name ofwater body
District Latitude,longitude
Activity
5. Ban Gangatirth
Dayalpur,Kurukshetra
29.937 N,76.813 E
Vaishakhi (April)
6. Pandu-Pindaratirth
Jind 29.309 N,76.322 E
Somvati amvasya,Solar eclipse, Sharad
7. Jyotisar Kurukshetra 29.956 N,76.778 E
Amavasya, Solar eclipse
8. Kirmach Kurukshetra 29.922 N,76.806 E
Kultarn titrth, Fair at Septmonth
Impact of religious activity on physico-chemical characteristics and nutrient status of water of Brahmsarovar before and after “Amavasya”
Parameter Before Activity After Activity Before Activity After Activity
Water Temp. 25.42±0.15 26±0.29 27.58±3.36 27.5±0.18
pH 7.15±0 6.36±0.83 7.15±0.16 7.03±0.11
Conductivity 168.04±2.37* 175.74±1.44* 146.04±1.06* 159.2±1.07*
TDS 210±1.04* 228±1.56* 189.22±2.31* 203.67±1.24*
Turbidity 4.3±0.72* 10.02±1.06* 11.03±0.2* 12.38±0.1*
Free CO2 0.89±0.48* 8.89±2.31* 2.22±0.62* 25.33±2.19*
DO 8.27±0.0.19* 3.16± 0.11* 8.54±0.11* 1.6±0.12*
BOD 5.07±0.13* 11.6±.44* 8.13±0.27* 10±0.23*BOD 5.07±0.13* 11.6±.44* 8.13±0.27* 10±0.23*
COD 27.62±2.52* 51.43±0.82* 54.29±0.82* 115.71±0.82*
T. alkalinity 34.67±2.54* 38.22±1.31* 36.22±2.09 39.56±1.82
Chloride 6.85±0.26* 8.39±0.5* 5.19±0.22* 6.52±0.34*
Hardness 74.22±0.7* 78±0.47* 76.22±.62* 80.89±1.11*
Calcium 15.05±0.17* 15.98±0.34* 18.6±.22* 21.59±0.2*
Magnesium 17.67±0.17* 18.57±0.11* 18.06±0.15* 19.11±0.27*
phosphate 0.52±0.08 0.9±0.12 0.31±0.02* 0.6±0.07*
Sulphate 46.84±0.63 45.76±0.29 58.39±6.07 49.08±2.14
Ammonia 0.17±0.03 0.42±0.12 0.07±0.01* 0.45±0.05*
Nitrite .05±0 0.13±0.04 1.09±0.03 0.72±0.22
Nitrate 0.06±0 0.15±0.05 0.09±0.01 0.13±0.04
Sr. No.
Parameter Before Activity After Activity Before Activity After Activity
1. Water Temp. 25.42±0.15 25.42±0.15 28.42±0.15 28.17±0.28
2. pH 7.18±0.01 7.19±0 7.1±0.27 6.4±0.17
3 Conductivity 273.67±1.42* 394.22±2.63* 585.78±2.43* 610±1.29*
4. TDS 377.78±13.92* 444.44±9.3* 753±0.89* 814±0.7*5. Turbidity 5.9±0.37* 12.1±1.28* 9.88±0.18* 55.77±3. 07*
6. Free CO2 6.44±0.44* 61.56±0.56* 30.89±6.59* 558.44±75.93*
7 DO 8.72±0.18* 3.92±0.13* 8.8±0.1* 0.8±0.1*
8 BOD 16.4±.23* 21.33±0.53* 10.53±.27* 25.07±0.13*
Pehowa (Saraswati Tirth) Chautra Chaudas Mela and Shradh
8 BOD 16.4±.23* 21.33±0.53* 10.53±.27* 25.07±0.13*
9 COD 61.9±1. 26* 85.71±0.82* 62.86±2.97* 131.9±2.08
10 T. alkalinity 90.22±2.59* 128.89±0.82* 160±0.67* 228±1.25*
11 Chloride 15.35±1.23* 30.15±0.33* 65.49±0.26* 75.99±2.06*12 Hardness 128.67±2.26* 177.33±0.88* 288.89±1.92* 312.33±1.78*
13 Calcium 35.98±0.74* 41.12±0.36* 57.38±0.19* 62.7±0.15*
14 Magnesium 30.35±0.54* 42.08±0.22* 68.82±0.46* 74.36±0.43*
15 phosphate 0.55±0.07* 1.56±0.06* 1.1±0.06 1.81±0.37
16 Sulphate 25.41±1.38* 32.84±0.49* 34.82±1.36 30.1±317 Ammonia 0.18±0.04* 1.84±0.35* 0.61±0.38* 2.31±.23*
18 Nitrite 0.09±0.01* 0.06±0* 0 0.04±0.02
19 Nitrate 0.06±0 0.4±0.17 0.31±0.03 1.07±0.48
Pandu-Pindara Tirtha (Solar Eclipse and Somvati Amavasya)
Sr. No.
Parameter Before Activity After Activity Before Activity After Activity
1. Water Temp. 26.5±0.71 25.83±0.69 26.17±0.8 026.17±0.92. pH 7.22±0 7.21±0 6.78±0.03* 4.68±0.03*3 Conductivity 2094.44±54.24* 4491±7.72* 202.44±0.5* 452.67±0.53*4. TDS 3146±35.6* 5858±17.74* 282.67±0.71* 600.11±0.48*5. Turbidity 12.13±0.79* 46.35±1.85* 12.27±0.24* 65.52±0.59*6. Free CO2 39.78±1.08* 308±10.81* 0* 717.78±3.64*7 DO 8.8±0.1 2.14±0.14* 8.4±0.1 0.72±0.09*8 BOD 7.07±0.35* 18.13±0.13* 8.27±0.27* 13.8±1.11*8 BOD 7.07±0.35* 18.13±0.13* 8.27±0.27* 13.8±1.11*9 COD 46.19±2.08* 93.33±0.48* 32.38±2.08* 58.57±0.82*10 T. alkalinity 387.33±5.57* 489.11±5.76* 82.22±0.52* 139.33±0.47*11 Chloride 5.96±0.23 6.41±0.34 17.56±0.23* 8.61±0.17*12 Hardness 484.89±2.54* 614.44±1.19* 86.67±0.47* 175.33±0.47*13 Calcium 41.12±0.41* 60.28±1.51* 21.59±0.14* 23.92±0.15*14 Magnesium 60.28±1.51* 148.18±0.27* 20.52±0.11* 42.09±0.11*15 phosphate 1.57±0.07* 4.13±0.27* 0.7±0.01* 9.63±0.01*16 Sulphate 315.0.72±0.72* 171.99±7.12* 26.31±0.07* 21.15±0.17*17 Ammonia 0.87±0.03* 28.68±0.72* 0.46±0* 6.57±0.02*18 Nitrite 0.08±0* 0.72±0.02* 0* 0.21±0*19 Nitrate 0.3±0* 1.3±0.03* 0.22±0* 1.9±0*
Phalgu Tirth (Somvati Amavasya)Sr.No Parameter Before Activity After Activity
1. Water Temp. 27.42±0.15 27.42±0.152. pH 7.08±0.05 7.17±0.133 Conductivity 588±1.63* 672.33±1.56*4. TDS 742.89±2.06* 854.56±2.54*5. Turbidity 10.25±0.65* 19± 0.49*6. Free CO2 9.56±0.44* 90.22±3.36*7 DO 8.63±0.16* 1.83±0.12*8 BOD 13.73±0.27* 20.93±0.58*9 COD 21.43±0.82* 74.29±2.97*9 COD 21.43±0.82* 74.29±2.97*10 T. alkalinity 204±1.37* 265.56±2.66*11 Chloride 36.89±0.51* 41.97±0.22*12 Hardness 266±2.38* 300.44±6.13*
13 Calcium 47.01±0.17* 58.13±0.22*14 Magnesium 63.54±0.58* 71.62±1.5*15 phosphate 0.17±0.02* 1.46±0.09*16 Sulphate 25.95±1.24 27.04±1.4617 Ammonia 0.6±0.09* 1.7±0.1*18 Nitrite 0 019 Nitrate 0. 18±0.02* 0.11±0.01*
Kulotaran tirtha (Badhrapad’s full moon day-30.9.12)
Sr. No. Parameter Before Activity After Activity1. Water Temp. 28.92±0.24 28.5±0.182. pH 7.43±0.1 7.25±0.043 Conductivity 689±2.49* 704.33±0.88*4. TDS 874.67±7.37* 921.33±0.33*5. Turbidity 39.45±2.46* 61.78±0.42*6. Free CO2 53.11±2.31* 71.78±3.15*7 DO 5.56 ±0.17* 0.85±0.11*8 BOD 6.13±.35* 9.47±0.35*9 COD 66.19±1.26* 98.57±2.97*9 COD 66.19±1.26* 98.57±2.97*10 T. alkalinity 209.78±0.529 208.22±0.5211 Chloride 69.69±0.42 69.8±0.2212 Hardness 184.44±0.8* 188.67±0.75*13 Calcium 31.31±0.19* 34.67±0.19*14 Magnesium 44.1±0.29* 45.03±0.18*15 phosphate 4.08±0.15 4.3±0.0616 Sulphate 23.79±0.35 23.6±1.7717 Ammonia 0.67±0.09 0.96±0.0318 Nitrite 0.01±0 019 Nitrate 0.41±0.03* 0.33±0.01*
Kapalmochan (Kartik's full moon Day )Sr. No. Parameter Before Activity After Activity
1. Water Temp. 17.92±0.24 17.83±0.172. pH 7.28±0.08 7.22±0.033 Conductivity 495.78±1.32* 504.67±1.8*4. TDS 630.78±2.26* 649.22±1.45*5. Turbidity 10.17±0.28* 12.55±0.2*6. Free CO2 20.89±0.59* 28.87±0.67*7 DO 8.36±0.1* 4.27±0.1*8 BOD 10.13±0.35* 14.67±0.13*8 BOD 10.13±0.35* 14.67±0.13*9 COD 72.38±4.23* 77.14±0.82*10 T. alkalinity 181.56±0.56* 210.89±0.59*11 Chloride 27.94±0.26* 30.15±0.29*12 Hardness 238.67±0.47* 243.56±0.65*13 Calcium 48.03±0.6* 55.04±0.42*14 Magnesium 56.84±0.12* 57.83±0.17*15 phosphate 0.09±0.03* 0.2±0.05*16 Sulphate 35.2±1.18* 30.65±1.61*17 Ammonia 0.9±0.07* 1.22±0.03*18 Nitrite 0.19±0* 0.27±0.02*19 Nitrate 0.23±0.02 0.26±0.01
Jyotisar (Solar eclipse and Amavasya)Sr. No.
Parameter Before Activity After Activity Before Activity After Activity
1. Water Temp. 26.08±0.15 26.08±0.15 27.25±0.11 27.58±0.152. pH 7.17±0 7.18±0 8.25±0.07 8.42±0.093 Conductivity 353.33±0.89* 358.5±0.89* 218.33±1.29* 232.17±0.75*4. TDS 456.17±0.88* 470.5±2.39* 294.17±0.6* 312±0.58*5. Turbidity 8.42±0.22* 9.95±0.24* 8.07±0.07 8.2±0.066. Free CO2 12.33±0.62 12.67±0.99 0 07 DO 7.47±0.17* 5.14±0.23* 8.4±0.17* 4.8±0.12*8 BOD 7.47±0.13* 10.93±0.13* 6.27±0.13* 8.27±0.13*8 BOD 7.47±0.13* 10.93±0.13* 6.27±0.13* 8.27±0.13*9 COD 42.86±0.82* 65.71±0.82* 61.9±1.26 120±0.82*
10 T. alkalinity 124.67±0.67* 128±1.27* 81.33±1.34 82±0.7311 Chloride 10.93±0.26 11.1±0.31 9.44±0.22* 10.44±0.22*12 Hardness 162±0.73* 164.33±.62* 114.33±.62* 125.67±0.62*13 Calcium 26.07±0.22 25.79±.28 15.28±.26* 17.24±.19*14 Magnesium 38.77±0.18* 39.35±.15* 27.45±0.15* 30.16±0.15*
15 phosphate 0.46±0.04 0.47±0.02 0.42±0.05* 0.19±0.02*16 Sulphate 47.81±2.6* 28.9±0.46* 28.5±0.25* 27.16±0.29*17 Ammonia 0.35±.07* 1.39±0.5* 0.17±0* 0.25±0.01*18 Nitrite 0.06±0 0.05±0 0.85±0.03* 0.55±0.03*19 Nitrate 0.04±0* 0.1±0.02* 0.16±0* 0.23±0.01*
BanGanga (Vaishakh’s full moon day) )Sr. No.
Parameter Before Activity After Activity Before Activity After Activity
1. Water Temp. 26±0.13 25.33±0.17 27.42±0.15 26.92±0.24
2. pH 7.17±0 7.16±0 7.33±0.05 7.38±0.063 Conductivity 530.33±1.34* 541±0.97* 424±1.27* 433.83±0.71*
4. TDS 601±0.97* 681.17±7.05* 563±0.58* 665.17±3.68*
5. Turbidity 7.9±0.11* 9.7±0.09* 13.35±0.4* 16.42±1.04*
6. Free CO2 16.33±1.14* 23±0.86* 8±0.52* 19.67±2.28*
7 DO 8.0±0.11* 4.2±0.14* 8.45±0.13* 4.67±0.14*
8 BOD 8.27±0.13* 10.8±0.23* 7.07±0.35* 9.33±0.13*8 BOD 8.27±0.13* 10.8±0.23* 7.07±0.35* 9.33±0.13*9 COD 35.24±1.26* 91.9±4.23* 61.43±1.65* 108.1±0.48*
10 T. alkalinity 183.33±0.67 184±0.73 175±1.13* 179±1.13*
11 Chloride 39.59±0.6 40.42±0.33 31.48±0.49 31.31±0.22
12 Hardness 207.67±0.62 209±0.86 171±0.86* 180±0.73*
13 Calcium 38.13±0.42* 39.53±0.22* 27.05±0.26* 29.86±0.19*
14 Magnesium 49.56±0.15 49.85±0.21 40.94±0.2* 43.05±0.17*
15 phosphate 0.44±0.02* 0.65±0.05* 0.25±0.03* 0.36±0.02*
16 Sulphate 16.43±0.21* 19.35±0.32* 14.88±2.15 20.79±0.42*
17 Ammonia 0.54±0.01* 0.76±0.08* 0.5±0.01* 0.63±0.01*18 Nitrite 0.06±0* 0.14±0.08* 0.43±0.21 019 Nitrate 0.09±0* 0.15±0* 0.16±0.01* 0.17±0.01*
Table: Depicting the Mean± Standard error values of all the selected water bodies
Parameter
Brahmsarovar Pehowa Pindara Phalgu Kirmach Kapalmochan Jyotisar Banganga
Water Temp.
24.9±0.9 26.04±0.98 24.24±0.82 25.95±1.37 30.32±0.38 21.77±1.59 24.87±1.03 24.64±1.03
pH 7.12±0.05 6.98 ±0.07 6.75 ±0.14 7.04±0.06 7.23±0.05 7.16±0.04 7.59±0.11 7.2±0.04Conduct. 164.48±1.73 557.54±19.3 1202.84±188.
07631±5.72 869.64±24.97 431.73±13.27 291.95±10.1
1495.36±7.41
TDS 195.66±3.76 720.34±26.17 1586.99±253.38
812.83±9.28
1136.23±40.6 598.32±8.98 380.26±12.39
629.95±8.16
Turbidity 8.63±0.67 16.05±2.64 22.94±3.42 20.15±2.49 47.77±4.5 10.91±1.18 6.45±0.56 9.39±0.82Free CO2 6.8±1.15 106.48±25.9 169.37±31.16 21.25±5.35 45.73±4.71 12.32±1.67 6.16±1.11 13.44±1.21DO 6.31±0.39 5.73±0.48 6.25±0.53 6.94±0.34 5.42±0.36 7.54±0.23 7.18±0.27 6.83±0.27DO 6.31±0.39 5.73±0.48 6.25±0.53 6.94±0.34 5.42±0.36 7.54±0.23 7.18±0.27 6.83±0.27BOD 6.82±0.49 11.41±1.44 9.78±0.74 11.22±1.27 6.94±0.47 9.24±0.76 6.64±0.53 8.59±0.28COD 71.11±10.51 99.28±8.09 76.66±10.47 73.09±7.85 89.64±4.35 58.33±5.52 76.95±8.1 73.9±6.16T. alkalinity
37.59±0.8 166.39±5.43 190.48±20.54 216.85±3.9 250.45±7.38 174.8±3.21 102.72±3.27 178.47±1
Chloride 7.5±0.29 60.21±3.25 16.98±1.77 42.22±0.79 90.74±3.63 31.15±0.36 10.4±0.15 36.86±0.66Hardness 77.02±1.09 240.7±8.08 239.69±25.62 208.27±11.
65152.62±9.02 210.43±6.09 134.26±4.36 186.06±3.63
Calcium 19.42±1 46.78±1.25 33.21±1.78 30.51±3.13 31.54±0.48 34.94±2.21 22.5±0.96 30.82±1.22Magnesiu 18.23±0.25 57.38±1.95 49.4±5.42 48.85±2.92 36.33±2.21 48.14±1.43 32.11±1.05 44.51±0.85phosphat 0.49±0.05 1.01±0.09 2.54±0.5 2.79±0.3 3.22±0.32 0.24±0.03 0.28±0.04 0.4±0.03Sulphate 44.17±1.74 28.67±1.1 88.67±16.49 24.03±3 20.79±1.81 24.64±2.32 31.9±2 17.44±0.65Ammonia 0.31±0.04 1.07±0.14 5.41±1.53 1.89±0.28 1.1±0.11 0.8±0.07 1.05±0.24 0.79±0.09Nitrite 0.31±0.07 0.51±0.18 0.16±0.04 0.15±0.03 0.27±0.13 0.12±0.02 0.26±0.06 0.6±0.18Nitrate 0.09±0.02 0.33±0.09 0.57±0.11 0.28±0.03 0.29±0.03 0.19±0.02 0.16±0.03 0.13±0.01
Mean± Standard error values of all the selected water bodies
Parameter
Brahmsarovar Pehowa Pindara Phalgu Kirmach Kapalmochan
Jyotisar Banganga
Water Temp.
24.9±0.9 26.04±0.98 24.24±0.82 25.95±1.37 30.32±0.38 21.77±1.59 24.87±1.03 24.64±1.03
pH 7.12±0.05 6.98±0.07 6.75±0.14 7.04±0.06 7.23±0.05 7.16±0.04 7.59±0.11 7.2±0.04 Conduct. 164.48±1.73 557.54±19.3 1202.84±188.07 631±5.72 869.64±24.97 431.73±13.27 291.95±10.11 495.36±7.41 TDS 195.66±3.76 720.34±26.17 1586.99±253.38 812.83±9.28 1136.23±40.6 598.32±8.98 380.26±12.39 629.95±8.16
Turbidity 8.63±0.67 16.05±2.64 22.94±3.42 20.15±2.49 47.77±4.5 10.91±1.18 6.45±0.56 9.39±0.82 Free CO2 6.8±1.15 106.48±25.9 169.37±31.16 21.25±5.35 45.73±4.71 12.32±1.67 6.16±1.11 13.44±1.21
DO 6.62±0.41 7.49±0.68 6.72±0.51 9.03±0.48 5.56±0.36 8.47±0.23 8.15±0.31 9.46±0.51 DO 6.62±0.41 7.49±0.68 6.72±0.51 9.03±0.48 5.56±0.36 8.47±0.23 8.15±0.31 9.46±0.51 BOD 6.82±0.49 11.41±1.44 9.78±0.74 11.22±1.27 6.94±0.47 9.24±0.76 6.64±0.53 8.59±0.28 COD 71.11±10.51 99.28±8.09 76.66±10.47 73.09±7.85 89.64±4.35 58.33±5.52 76.95±8.1 73.90±6.16 T. alkalinity
37.59±0.8 166.39±5.43 190.48±20.54 216.85±3.9 250.45±7.38 174.8±3.21 102.72±3.27 178.47±1
Chloride 7.5±0.29 60.21±3.25 16.98±1.77 42.22±0.79 90.74±3.63 31.15±0.36 10.4±0.15 36.86±0.66
Hardness 77.02±1.09 240.7±8.08 239.69±25.62 208.27±11.65 152.62±9.02 210.43±6.09 134.26±4.36 186.06±3.63 Calcium 19.42±1 46.78±1.25 33.21±1.78 30.51±3.13 31.54±0.48 34.94±2.21 22.5±0.96 30.82±1.22 Mg 18.23±0.25 57.38±1.95 49.4±5.42 48.85±2.92 36.33±2.21 48.14±1.43 32.11±1.05 44.51±0.85
phosphat 0.49±0.05 1.01±0.09 2.54±0.5 2.79±0.3 3.22±0.32 0.24±0.03 0.28±0.04 0.4±0.03 Sulphate 44.17±1.74 28.67±1.1 88.67±16.49 24.03±3 20.79±1.81 24.64±2.32 31.9±2 17.44±0.65 Ammonia 0.31±0.04 1.07±0.14 5.41±1.53 1.89±0.28 1.1±0.11 0.8±0.07 1.05±0.24 0.79±0.09
Nitrite 0.31±0.07 0.51±0.18 0.16±0.04 0.15±0.03 0.27±0.13 0.12±0.02 0.26±0.06 0.6±0.18 Nitrate 0.09±0.02 0.33±0.09 0.57±0.11 0.28±0.03 0.29±0.03 0.19±0.02 0.16±0.03 0.13±0.01
Objective: 2 Impact of religious activities on phytoplankton and zooplankton population.
Date Total Plankton Total Phytoplankton Total ZooplanktonBrahmsarovar 19512 2853.33± 116.38 * 1786.66±53.33 * 1066.66±70.55 *
21512 4213.33±192.52* 3573.33±186.67 * 640±80.00 *13.10.12 7413.33±237.29 6426.66±296.95 986.66±70.55 16.10.12 6213.33±228.11 5706.66±213.33 506.66±26.66
Kirmach 29.9.12 5093.33±53.39 * 3866.66±148.47 1226.66±96.15*1.10.12 5626.66±96.26 * 3813.33±141.11 1813.33±70.55*
Phalgu 2.10.12 47786.66±3613.25* 44960±3354.69* 2826.66±254.39* 16.10.12 8186.66±485.73* 7600±508.08 * 586.66±26.66*
Pehowa 19.3.12 4613.33±254.68* 3653.33±334.14* 960±80.00*23.3.12 1280±80.09* 586.66±53.33 * 693.33±70.5*5 2.10.12 13066.66±347*.07 10346.66±403.55* 2720±122.20 *
16.10.12 3786.66±96.26 * 2693.33±26.66* 1093.33±70.55* 16.10.12 3786.66±96.26 * 2693.33±26.66* 1093.33±70.55* Kapalmochan 26.11.12 7413.33±70.64 6506.66±70.55 906.66±26.66
29.11.12 7226.66±162.40 6426.66±116.24 800±46.19 Pindara 20.5.12 2880±240.72 1320±40.00 1560±200.03
21.5.12 1400±40.12 680±40.00 720±80.01 6.10.12 3960±40.12 3040±80.01 920±40.00
16.10.12 3000±200.60 2480±160.02 520±40.01 Jyotisar 19.5.12 6440±120.36 6000±80.01 440±40.01
21.5.12 6520±120.36 5880±40.00 640±80.01 13.10.12 9440±641.92 8440±600.09 1000±40.01 16.10.12 7880±120.36 7080±40.01 800±80.01
Banganga 12.4.12 13000±441.31* 10560±240.04* 2440±200.03 14.4.12 8640±80.24 * 8040±120.02 * 600±40.01
13.10.12 11240±40.12 10280±40.01 * 960±0 16.10.12 7800±40.12 6920±40.01 * 880±0
Table: Seasonal dominance of phytoplankton and zooplankton taxa
Summer Monsoon Post-monsoonPhytoplankton Zooplankton Phytoplankton Zooplankton Phytoplankton Zooplankton
Brhm S. Spirogyra, Zygnema
No specific Mougeotia Cyclops cladocerans
Microcystis Lecane
Jyotisar Calothrix, Zygnema, Mougeotia
Nauplius CymbellaMicrosporaPhormidium
No specific Microcystis, Phormidium, Oscillatoria
No specific
MougeotiaRhoplalodiagibba
Phormidium Oscillatoria
Kirmach Phormidium rotifers Euglena, Oscillatoria
Brachionus, B. calyciflorus
Microcystis, Oscillatoria, Melosira
Brachionus
Phalgu Microcystis Brachionus Microcystis Brachionus, Keratella
Pediastrum, Tribonema
Phalodiaptomus, Keratellatestudo
Summer Monsoon Post-monsoonPhytoplankton
Zooplankton Phytoplankton
Zooplankton
Phytoplankton
Zooplankton
Pehowa
Oscillatoria, Pediastrum
Nauplius, Cyclops
Oscillatoria Brachionus forficula,
Oscillatoria B. calyciflorisCladocerans, Cyclops
Pindara
Oscillatoria,
Brachionus,
Microcystis, Pediastrum
Phallodiaptomus
Mougeotia , Cladophora
Diaptomusa ,
Microcystis, B.forficula
Pediastrum tomus Cladophora
Kapal-mochan
Mougeotia, Oscillatoria
crustaceans
Mougeotia, Desmids, Diatoms
phalodiaptomus
Mougeotia Crustaceans (diaptomus), B. calyciflorus
Ban -Ganga
Oscillatoria, Nannochloris
Trichocera capucina
Microcystis, Botryococcus, Oscillatoria
Brachionus forficula, Diaptomus
Docidium(Desmid), Oscillatoria, Microcystis
B. forficula, Monostyla
Site name Date MPN index /100 mlPINDARA Before 220
After 1600PEHOWA Before 79
After 350Before 180After >2400
BRAHMSAROVAR Before 22After 220
BANGANGA Before 11After 540After 540Before 23After 79
JYOTISAR Before 23After 350
FALGU Before 49After 1600
KIRMACH Before 19After 140
KAPALMOCHAN Before 38After 1600
Standard Plate Count before and After ActivitySr. no. Selected site Date of sample
collectionTotal CFU/ml
1 Barhmsarovar Before 2.4*10^10Barhmsarovar After 1.84*10^9Barhmsarovar Before 3.0*10^9Barhmsarovar After 4.24*10^9
2. Pehowa Before 1.6*10^42. Pehowa Before 1.6*10^4Pehowa After 3.2*10^7
3. Jyotisar Before 6.72*10^9
Jyotisar After 1.6*10^124. Falgu Before 3.0*1011
Falgu After 5.6*10^115. Banganga Before 3.88*10^6
Banganga After 2.2*10^10
Physico-Chemical CharacteristicsvConductivity, TDS, Turbidity, Free CO2, BOD, COD, Alkalinity, Chloride,
Hardness, Calcium, Magnesium, Phosphate, Ammonia, NitrateSignificantly increased at most of the sites after the religious activities.
v DO, Sulphate Significantly decreased, at most of the sitesvNitrite showed no specific pattern before and after religious activities.
Biological Characteristicsv Significant Decrease in Total Plankton population, Phytoplankton and Zooplankton
population were found at most of the sites after religious activities.
SALIENT FINDINGS
population were found at most of the sites after religious activities.v Brachionus, Phyllodiaptomus, Keratella testudo, Filinia, Asplanchana, Microcystis,
Pediastrum, Scenedesmus, Nitzschia, Euglena, Navicula, Oscillatoria andChironomous larva, were observed as pollution tolerant taxa.
v Oscillatoria, Spirogyra, Zygnema, Mougeotia, Brachionus, Trichocera were commonin Summer season.
vMougeotia, Cymbella, Microspora, Phormidium, Oscillatoria, Desmids, Diatoma,Microcystis, Brachionus, B. calyciflorus, B. forficula, Diaptomus were commonduring Monsoon Season.
vOscillatoria, Mougeotia , Docidium, Microcystis, Pediastrum, Brachionus,Phallodiaptomus, Keratella testudo, B. calyciflorus, B. forficula, Diaptomus werecommon during Post-Monsoon Season.
RECOMMENDATIONS• Regular Monitoring and Surveillance is
required for village ponds used for domestic purposes as well as for ponds where religious activities are common.
• More laboratories should be available in the • More laboratories should be available in the state at district level to monitor the DO and ammonia levels.
• If the concentration of ammonia is high (> 1.0 mg l-1 ) efforts should be made to control it Checking the entry of cattle
• Much emphasis is required on bio-monitoring programme following indicator species concept.
• Regular disinfection of the water should be • Regular disinfection of the water should be done to reduce the danger of water borne diseases
• Bioremediation programme should be launched to control the effects of organic pollution and eutrophication.
Bio-remediation is an eco-friendly process of removing pollutants/nutrients from an environment (soil, sediment,
water) by using any biological agent based system which is not only an energy saving but also a resource recovering system
PHYTOBIOREMEDIATION MICROBIAL BIOREMEDIATION
only an energy saving but also a resource recovering system
PHYTO-BIOREMEDIATION
vGreen plant based system
EXAMPLEEXAMPLE•Use of Duckweed/Azolla etc for bioremediation
Duckweeds hold immense potential for both nutrient recovery and utilization as fodder or feed for livestock
Divide the village pond into two pondsduckweed culture pond and Domestic use ponds or fish culture pond
Direct the village waste in duck weed pond only
Remediated water from duckweed pond is released periodically into the Second Pond
Prepare floating frames either of bamboo or pvc material
Make a regular duckweed harvesting scheduleUtilize duck weed in dried form also
Get fresh water
Bioremediation through Microbial Technology
• Application of Microbial agents for the clean up of chemical and organic pollution
• Micro-organisms in BioremediationBacteria,Fungi,Cynobacteria,periphytonBacteria,Fungi,Cynobacteria,periphyton
They enhances the timely degradation, transformation, remediation and detoxification of pollutants.
HOW?Microorganisms (usually bacteria and fungi)
↓feed on contaminants
↓derive nutrition and energyderive nutrition and energy
↓use up wastes
↓Convert wastes into less harmful forms.
Biodegradation
Organic Wastes Nutrients Dissolvedin Water
MINERALIZATION
Bacillus,Lactobacillus,
Pseudomonas, Azotobacter
Nitrosomonas, Nitrobacter,
Probiotics as Bioremediation agents
• Optimizing nitrification rates to keep low ammonia concentrations
• Optimizing denitrification rates to eliminate excess nitrogen from the water body as nitrogen gasgas
• Maximizing carbon mineralization to carbondioxide to mimimize sludge accumulation
• Maximising primary productivity that stimulate production
• Maintain a diverse and stable community where undesirable species do not become dominant.
This will result in
• Control of Built up of stress causing chemicals like NH3, NO2 and H2S
• Lower incidence of disease and greater survival.
Biodegradation (Commercial products)
Product Composition
Micropro through
Micro Remedies Hyderabad
Bacillus, cellulomonas, Nitrosomonas. Nitrobacter, Psudomonas, Lactobacillus, Aerobacter ,Rhodococcus
Speed up the Natural Process of sludge degradation.Eliminate harmful gases like Ammonia hydrogensulphide and nitritesEffectively controls harmful vibrio levels by Comptetive eliminationMaintainence of DO levelsMaintains desired and stable planktons
Our in vitro studies reveal thatParameter With Probiotic Without Probiotic
Total ammonia
(mg Kg-1 BW d-1)
1026.23 ± 9.23860.25 ± 10.03
Reactive phosphate (mg Kg-1 BW d-1)*
648.14 ± 8. 23 802.19 ± 10.35
Probiotic used was Bacillus prom Micropro Hyderabad
1.0 g /aquaria (60x30x30cm) every fortnight
Stocking density 5 fish per aquaria.
Excretory patterns of total ammonia and phosphate excretion in the holding
1
1.2
Total a
mmoni
a (mg/1
00g BW
Diet with Probiotic Diet without Probiotic
0.4
0.5
0.6
Ortho-
phosph
ate (m
g/100g
BW of
Diet with Probiotic Diet without Probiotic
0
0.2
0.4
0.6
0.8
2 4 6 8 10 12 14
Time after feeding (Hrs.)
Total a
mmoni
a (mg/1
00g BW
of fish
)
0
0.1
0.2
0.3
0.4
2 4 6 8 10 12 14
Time after feeding (Hrs.)
Ortho-
phosph
ate (m
g/100g
BW of
fish)
(A)(A) (B)(B)
Bioremediation through Periphyton
• Total assemblage of sessile or attachedorganisms on any substrate are Periphyton
• Periphyton has the same functions of oxygenand feed production as phytoplankton, but areconsidered more stable.Periphyton may contain protozoans, bacteria,considered more stable.
• Periphyton may contain protozoans, bacteria,fungi, algae, rotifers, annelids, insect larvaeand crustacenans.
• A periphyton community often consists of athin layer of small diatom cells
• Bacterial/ periphyton microfilm in the water body helps in the
-reduction of ammonia -reduction of turbidity levels -help in the absorption of
particulate organic matter particulate organic matter due to their bio-filter properties
Thus contributing to the bioremediation of water body .
Parameters With Substrate Without substrate
EC (m mhos/ cm) 24.3±0.4 24.5±0.5
pH 8.5±0.1 8.6±0.20
Dissolved oxygen mg L-1 6.1±0.3 6.4±0.3
Carbonates mg L-1 6.1±0.9* 8.6±1.4Bicarbonates mg L-1 200.1±4.5 205.5±7.6
Total alkalinity mg L-1 206.3±5.0 205.5±7.6
BOD mg L-1 1.6±0.3* 3.4±0.6Turbidity (NTU) 28.5±1.2* 35.0±1.9Total K nitrogen mg L-1 9.1±0.5 9.8±0.4
NO3-N mg L-1 1.7±0.1 1.7±0.1
NO2-N mg L-1 1.7±0.1 1.7±0.1
NH4-N mg L-1 1.8±0.1* 2.1±0.1o-PO4 mg L-1 0.04±0.01 0.05±0.01
SO4 mg L-1 140.0±10.6 142.2±11.3
Bioengineering
• Isolation, Identification and characterization of bacterial agents/ptobiotic bacterium from the same aquatic system.
• Mass culture of that selected bioremediation agent and its addition from time to time to clean up aquatic system from organic and chemical pollution.organic and chemical pollution.
• With bioengineering techniques, the stability of the area can be restored naturally with vegetation. Lentic aquatic systems can be stabilized permanently, improving water quality and providing rich biodiversity.
Identification by Biochemical tests16sRNA based Moleculae technique
Percent occurrence of different species of Azotobacter in pond water and Sediment
Name of the Species
Unmanaged Ponds
Managedponds
Canal water
Pond water Pond Sediment
I II I II
*Azotobacter 60.0 55.0 79.00 64.29 67.86 64.28 75.00*Azotobacterchroococcum
60.0 55.0 79.00 64.29 67.86 64.28 75.00
A. beijerinckii 15.0 22.5 - 17.68 10.71 21.43 10.71
A. vinelandii 10.0 7.5 - 3.57 7.14 3.57 7.14
Unidentified 15.0 15.0 21.00 14.28 1.28 10.71 7.14
Future Research is required
towards understanding:• the role of individual indicator species in an aquatic system• linkages between aquatic ecosystem quality and food chain• interrelationship with other abiotic factors involved• life history, prey predator relationship, inter and intra –• life history, prey predator relationship, inter and intra –
specific competition of indicator species• the effect of pollution on them• Isolation of bioengineered agents for bioremediation.
Regular training programmes should be arranged
• Water Quality norms can be achieved through the difficult work of changing social norms and advocating for improved policies
• To disseminate knowledge about water pollution and means to control it.
• To educate the people about harmful effects.• To educate pilgrims to reduce pollution load on tank and prohibit actions • To educate pilgrims to reduce pollution load on tank and prohibit actions
like: Ablutions,defecation, throwing of used floral offerings, use of detergent and body shampoo during mass bathing etc,
• To promote organic farming reducing the use chemical fertilizers• To promote the use of biological agents for pest control reducing the use
of pesticides etc. controlic the entry of toxic chemicals in village ponds• Plans / projects / schemes should be made for regular monitoring and
renovation of village ponds.• Distribution of pamphlets/brochures should be made before any
religious fair etc containing information to educate people on proper lines.