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International Journal of Innovative Technology and Creative Engineering (ISSN:2045-8711) Vol.3 Issue. 9TRANSCRIPT
INTERNATIONAL JOURNAL OF INNOVATIVE TECHNOLOGY AND CREATIVE ENGINEERING (ISSN:2045-8711) VOL.3 NO.9 SEPTEMBER 2013
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INTERNATIONAL JOURNAL OF INNOVATIVE TECHNOLOGY AND CREATIVE ENGINEERING (ISSN:2045-8711) VOL.3 NO.9 SEPTEMBER 2013
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UK: Managing Editor
International Journal of Innovative Technology and Creative Engineering 1a park lane, Cranford London TW59WA UK E-Mail: [email protected] Phone: +44-773-043-0249
USA: Editor
International Journal of Innovative Technology and Creative Engineering Dr. Arumugam Department of Chemistry University of Georgia GA-30602, USA. Phone: 001-706-206-0812 Fax:001-706-542-2626
India: Editor
International Journal of Innovative Technology & Creative Engineering Dr. Arthanariee. A. M Finance Tracking Center India 17/14 Ganapathy Nagar 2nd Street Ekkattuthangal Chennai -600032 Mobile: 91-7598208700
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INTERNATIONAL JOURNAL OF INNOVATIVE TECHNOLOGY AND CREATIVE ENGINEERING (ISSN:2045-8711) VOL.3 NO.9 SEPTEMBER 2013
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IJITCE PUBLICATION
International Journal of Innovative Technology & Creative Engineering
Vol.3 No.9
September 2013
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INTERNATIONAL JOURNAL OF INNOVATIVE TECHNOLOGY AND CREATIVE ENGINEERING (ISSN:2045-8711) VOL.3 NO.9 SEPTEMBER 2013
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From Editor's Desk
Dear Researcher, Greetings! Research article in this issue discusses about Assessment of Public Water Distribution. Let us review research around the world this month; Future factories let workers build a car from home. The
factories of the future will look very different from those today, with not a person in sight. Instead, workers will log
into robot-assisted manufacturing "cells" to make what they want from the comfort of their own home. You won't
even need to be employed by the factory: people on online social networks will be able to log in and set laser cutters
and 3D printers to work, bashing out gadgets to order.
That's the vision of Goran Putnik, an engineer at the University of Minho in Guimarães, Portugal. The "cloud
manufacturing" notion he is pioneering aims to extend telecommuting to those with jobs in factories. It will also take
the "maker" movement, in which people band together to tinker with electronics, and make it professional.
Touchscreen phones know it's you from taps and swipes. The fingerprint recognition feature on the upcoming
iPhone 5s, Touch ID, might be eye-catching, but you still have to log into your device. Identifying someone by the
way they tap and swipe on a touchscreen might be the more natural, unobtrusive future of smartphone
biometrics.Developed by Cheng Bo at the Illinois Institute of Technology and his colleagues, SilentSense does just
that. Using the phone's built-in sensors, it records the unique patterns of pressure, duration and fingertip size and
position each user exhibits when interacting with their phone or tablet.
3D-printed objects outgrow their printers.3D printing may be set to change the world by letting us make all sorts of
bespoke objects, but there's one little problem: the printers can only print items smaller than themselves. Until now,
that is.The approach, called Hyperform, converts the object to be printed into a single long chain made from
interlocking links. An algorithm works out how that chain can be packed together into the smallest cube possible
using a Hilbert curve – a fractal-based pattern that is the most efficient way of squeezing a single line into a small as
space as possible. The resulting cube is small enough to be printed inside a standard printer. Skylar Tibbits at the
Massachusetts Institute of Technology's Self-Assembly Lab and colleague Marcelo Coelho have come up with a
way for standard 3D printers to print out large-scale objects.
It has been an absolute pleasure to present you articles that you wish to read. We look forward to many more new technologies related research articles from you and your friends. We are anxiously awaiting the rich and thorough research papers that have been prepared by our authors for the next issue. Thanks, Editorial Team IJITCE
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Editorial Members
Dr. Chee Kyun Ng Ph.D Department of Computer and Communication Systems, Faculty of Engineering, Universiti Putra Malaysia,UPM Serdang, 43400 Selangor,Malaysia. Dr. Simon SEE Ph.D Chief Technologist and Technical Director at Oracle Corporation, Associate Professor (Adjunct) at Nanyang Technological University Professor (Adjunct) at Shangai Jiaotong University, 27 West Coast Rise #08-12,Singapore 127470 Dr. sc.agr. Horst Juergen SCHWARTZ Ph.D, Humboldt-University of Berlin, Faculty of Agriculture and Horticulture, Asternplatz 2a, D-12203 Berlin, Germany Dr. Marco L. Bianchini Ph.D Italian National Research Council; IBAF-CNR, Via Salaria km 29.300, 00015 Monterotondo Scalo (RM), Italy Dr. Nijad Kabbara Ph.D Marine Research Centre / Remote Sensing Centre/ National Council for Scientific Research, P. O. Box: 189 Jounieh, Lebanon Dr. Aaron Solomon Ph.D Department of Computer Science, National Chi Nan University, No. 303, University Road, Puli Town, Nantou County 54561, Taiwan Dr. Arthanariee. A. M M.Sc.,M.Phil.,M.S.,Ph.D Director - Bharathidasan School of Computer Applications, Ellispettai, Erode, Tamil Nadu,India Dr. Takaharu KAMEOKA, Ph.D Professor, Laboratory of Food, Environmental & Cultural Informatics Division of Sustainable Resource Sciences, Graduate School of Bioresources, Mie University, 1577 Kurimamachiya-cho, Tsu, Mie, 514-8507, Japan Mr. M. Sivakumar M.C.A.,ITIL.,PRINCE2.,ISTQB.,OCP.,ICP Project Manager - Software, Applied Materials, 1a park lane, cranford, UK Dr. Bulent Acma Ph.D Anadolu University, Department of Economics, Unit of Southeastern Anatolia Project(GAP), 26470 Eskisehir, TURKEY Dr. Selvanathan Arumugam Ph.D Research Scientist, Department of Chemistry, University of Georgia, GA-30602, USA.
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Dr.Sumeer Gul
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Contents
Assessment of Public Water Distribution System of Indore City, India by Kartikey Tiwari, Aman Jatale, Sahil Khandelwal…....................................................................................................................[122]
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Assessment of Public Water Distribution System of Indore City, India
Kartikey Tiwari#1, Aman Jatale*2, Sahil Khandelwal#3 # Department of Civil Engineering, Sanghvi Institute of Management & Science Behind IIM-Indore, Pigdambar,
453331, Indore, India 1
aman [email protected]
Abstract - A water distribution system is an
interconnected collection of sources, pipes, and hydraulic
control elements delivering consumers prescribed water
quantities at desired pressures and water qualities. The
present paper deals with the study of Average water
demand in specified areas of Indore City, India, and this is
based on water demand calculations per capita demand.
The observation of the water supply system for three
colonies; Bank colony, Vishwakarma Nagar, and Usha
Nagar from Annapurna tank Indore were studied. Suitable
data were acquired to identify whether the Average water
demand for a single person (which is about 135 L/day) is
fulfilled or not. The subtleties of overall analysis and
conclusion was carried out in imperturbable aspects
design system, supplying velocity, losses in different
forms etc. On evaluation of all the results of deep study
we incurred the conclusion with a measure to enhance the
quality which we have discussed ahead in our paper.
Keywords: Average Water Demand, Design System,
Pressure, Supplying Velocity.
I. INTRODUCTION
After complete treatment of water, it becomes necessary to distribute it to a number of houses, estates, industries and public places by means of a network of distribution system. The distribution system consists of pipes of various sizes, values, meters, pumps etc. The following are the requirements of a good distribution system.
1. It should convey the treated water up to the
consumers with the same degree of purity. 2. The water should reach to every consumer with
the repaired pressure head. 3. Sufficient quantity of treated water should reach
for the domestic and industrial use. 4. It should be economical and easy to maintain
and use. 5. It should be able to transport sufficient quantity
of water during emergency such as firefighting etc. 6. During repair work, it should cause obstruction
to the traffic. 7. It should be safe against any future pollution.
8. The quantity of pipes laid should be good and it should not trust. 9. It should be watertight and the water losses due
to leakage should be minimum as far as possible
II. TYPES OF DISTRIBUTION SYSTEM
For efficient distribution it is required that water should
reach to every consumer with repaired rate of flow.
Depending upon the methods of distribution, the
distribution system is classified as follows:
1. Gravity System
2. Pumping System
3. Dual System on Combined Gravity and
Pumping System.
II.I Gravity System
When some ground sufficiently high above the city area
is available, this can best utilized for the distribution
system in maintaining pressure in water pipes. The
water flows in the mains due to gravitational force. As no
pumping is required, therefore it is the most reliable
system for the distribution of water. The water head
available at the consumer door is just minimum required
and the remaining head is consumed in frictional and
other losses.
Fig.1.Gravity System of Distribution
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II.II Pumping System
In this system water is directly pumped in the mains
.The maintenance cost is high. High lift pumps are
required and the operations are continuously watched. If
the power fails, the whole supply of the town will best
popped. Therefore standby diesel pumps should be
kept.
Fig.2.Pumping System of Distribution.
II.III Dual System
This is also known as combined gravity and pumping
system. In the beginning when demand is small the
water is stored in the elevated reservoir, but when
demand increases the rate of pumping, the flow in the
distribution system comes both from the pumping station
as well as elevated reservoir. As in this system water
comes from two sources one, from reservoir and second
from pumping station, it is closed dual system.
Fig.3.Dual System of Distribution
III. LAYOUT OF DISTRIBUTION SYSTEM
There are four different systems of distribution which are
used. Depending upon their layout and direction of
supply, they are classified as follows:
3.1 Dead End or Tree System
3.2 Grid iron System
3.3 Circular or Ring System
3.4 Radial System
3.1 Dead End System
The below figure show is the layout of this system .It is
suitable for irregular developed towns or cities .In this
system one main starts from require reservoir along the
main road .Sub mains are connected to the main in both
the direction as along the roads which meet the main
road .Sub mains, branches and minor distributors are
connected to sub mains. They are cheap in initial cost.
When the pipe breaks down or is closed for repair the
whole locality beyond the point goes without water.
Fig.4.Layout of dead end system
3.2 Grid iron System
This system is also known as reticulated system and is
most convenient for town shaving rectangular layout of
roads. This system is an improvement of dead end
system. All the dead ends are interconnected and water
circulates freely throughout the system. Main line is laid
along the main road. Sub mains are taken in both the
directions along other minor road sand streets. From
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these sub mains branches are taken out and are
interconnected as shown in figure.
This system removes all the disadvantages of dead
end system
Fig.5.Layout of grid iron system
3.3 Circular or Ring System
System can be adopted only in well planned locality of
cities. In this system each locality is divided into square
or circular block sand the water mains are laid around all
the four sides of the square or round the circle. This
system requires many values and more pipe length. This
system is suitable for towns and cities having well
planned roads.
Fig.6.Layout of Circular System
3.5 Radial System
This system is not adopted in India, because for this
system the roads should be laid out radial from the
center. This system is the reverse of ring system. The
entire district is divided into various zones and one
reservoir is provided for each zone, which is placed in
the center of zone. By considering the advantages and
disadvantages of all these systems, we have found out
that grid iron system is most suitable for our site.
Therefore we have adopted grid iron system.
Fig.7.Layout of radial system
IV. PRESSURE IN THE DISTRIBUTION SYSTEM
When the water enters in the distribution main, the water
head continuously is lost due to friction in pipes, at
entrance of reducers due to valves, bends, meters etc.
till it reaches the consumer's tap. The net available head
at the consumer's tap is the head at the entrance of the
water main minus all the losses in the way. The effective
head available at the service connection to a building is
very important, because the height up to which the water
can rise in the building will depend on this available
head only. The greater the head the more will be the
height up to which it will rise. If adequate head is not
available at the connection to the building, the water will
not reach the upper stores (Le. 2nd
, 3rd
, 4th etc.) to
overcome this difficulty the required effective head is
maintained in the street pipe lines. The water should
reach each and consumer therefore it should reach on
the uppermost stories. The pressure which is required to
be maintained in the distribution system depends upon
the following factors:
4.1. The height of highest building up to which Water
should reach without boosting.
4.2. The distance of the locality from the Distribution
reservoir.
4.3. The supply is to be metered or not. Higher pressure
will be required to compensate for, the high Loss of
head in meters.
4.4 How much pressure will be required for fire-
hydrants.
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The funds available for the project work. Sometimes the
design pressure is determined
from the firefighting requirements. In some cities and
towns the firefighting squads are equipped with pumping
sets fitted on their vehicles for lifting the water at the site
itself. At such places the design pressure may be
determined by the minimum required by the consumers.
But in most of towns in India the people living at 2nd
, 3rd
or 4th stories face lots of difficulties due to non-supply of
water in their stories. At such places small lifting pumps
may be individually used which directly pump the water
in their water lines. In multistoried structures the
following pressures are considered satisfactory.
Up to 3 stories
2.1 Kg/cm2
From 3 to 6 stories
2.1 to 4.2 Kg/cm2
From 6to10 stories
4.2 to5.27 Kg/cm2
Above10 stories
7 Kg/cm2
While designing pipes of distribution systems the
following points should be kept in mind:
1. The main line should be designed to carry 3 times
the average demand of the city.
2. The service pipes should be able to carry twice the
average demand.
3. The water demand at various points in the city
should be noted.
4. The length sand sizes of each pipe should be
clearly marked on the site plan along with hydrants,
valves, meters, etc.
Diameter of pipe
Velocity
10 cm 0.9 m/s
15 cm 1.21 m/s
25 cm 1.52 m/s
40 cm 1.82 /s
V. DESIGN OF DISTRIBUTION SYSTEM
V.I Manual Design
The layout of the city of town, topography etc. will be
greatly affected, the layout and design of the distribution
system. The existing population expected future
population commercial and industrial present and future
water requirements all have to be considered in the
layout and design of the distribution system. The main
work in the distribution system design is to determine
the sizes of the distribution pipes which will be capable
to carry their paired quantity of water at the desired
pressure.
VI. DESIGN OF PIPE LINE
Till date no direct method are available for the design of
distribution pipes. While doing the design first of all
Diameter of the pipes are assumed the terminal
pressure heads which could be made available. At the
end of each pipe section after allowing for the loss of
pressure head in the pipe section when full peak flow
discharge is flowing are then determined. The
determination of the friction losses in each pipe section
is done. The total discharge flowing through main pipes
is to be determined in advance.
Hazen William Formula is widely used for determine
the velocity through pipes. It states
v = 0.408709 q / dh2
Where
v = flow velocity (m/s)
f = 0.2083 (100/c) 1.852
q 1.852
/ dh 4.8655
Where
f = friction head loss in feet of water per 100
feet of pipe (fth20/100 ft pipe).
c = Hazen-Williams roughness constant
q = volume flow (gal/min)
dh = inside hydraulic diameter (inches)
The Hazen-Williams equation can be
assumed to be relatively accurate for piping
systems with Reynolds Numbers above 105
(turbulent flow).
1 ft (foot) = 0.3048 m
1 in (inch) = 25.4 mm
INTERNATIONAL JOURNAL OF INNOVATIVE TECHNOLOGY AND CREATIVE ENGINEERING (ISSN:2045-8711) VOL.3 NO.9 SEPTEMBER 2013
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1 gal (US)/min =6.30888x10-5 m3/s = 0.227
m3/h =0.0631 d m
3(litre)/s = 2.228x10
-3 ft
3/s = 0.1337
ft3/min =0.8327 Imperial gal (UK)/min
VII. CALCULATIONS
Single house getting per day about 400 to 450 Lt in
about 20 min,
Calculation of flow MLD (mega litres per day)
In 20 min→ 450 Lt
In 1 min→
In 1 hr→
Mega litres→
═ .432
Pip
e n
o.
Fro
m
no
de
To n
od
e
Flo
w
MLD
Dia
.
(mm
)
Act
ual
he
ad lo
ss
Len
gth
(m)
Ve
loci
ty
(m/s
)
1 1 2 .43 80 .7 250 .27
2 2 3 1.13 100 1.6 300 .32
3 3 4 2.73 150 1.4 356 .36
4 4 5 4.13 200 1.1
2 450 .38
5 5 6 5.25 250 .91 450 .49
6 6 7 6.61 300 .86 550 .58
7 7 8 7.02 400 .62 558 .65
8 8 9 7.64
4 450 .54 615 .72
9 9 10 8.81 500 .43 680 .79
10 10 11 9.24 620 .21 691 .82
11 11 12 9.45 700 .12 710 .85
12 12 13 9.57 750 .01 715 .92
Calculation for Head loss
f = 0.2083 (100/c) 1.852 q 1.852 / dh 4.8655
c=100
q=.432
dh =80mm
f = 0.2083 (100/100) 1.852 .4321.852 / 80 4.865 f = .7
Calculation for velocity (m/s)
v = 0.408709 q / dh2
v = 0.408709 ×
v =.27 m/s
VIII. ANALYSIS OF HEAD LOSS
IX. CONCLUSION
Average water demand for a single person is about 135
L/day this is based on water demand calculations per
capita demand .But from the observation of the water
supply system for three colonies; Bank colony,
Vishwakarma Nagar, and Usha Nagar from Annapurna
tank Indore. We observed that water supply system is
not capable for providing per capita demand of 135
L/day but only fulfilling about 80 to 85 L/day. This is
because of the losses in the pipe and the pressure
losses. Because of the losses, the velocity of the water
also decreases as we have observed the velocity from
the main supply is 0.92 m/s but when it reaches to
home, it reduces to 0.27 m/s.
REFERENCES
[1] Water supply engineering by S.K.Garg
[2] Introduction to general design of Domestic Water-supply
Systems. (Engineering design of
all domestic water systems intended for operations).
[3] IRC (1980). Public stand post water supplies: a design and
construction manual. International Reference Centre for
Community Water Supply and Sanitation. Technical Paper no 14.
The Hague, Netherlands.
[4] DWAF (1997). Minimum standards and guidelines for
groundwater resource development for the community water
supply and sanitation programme. Department of Water Affairs &
Forestry.
[5] DWAF (2000c). Water supply service levels: A guide for Local
authorities. Department of Water Affairs & Forestry
[6] The Hazen–Williams equation which relates the flow of water in
a pipe with the physical properties of the pipe and the pressure
drop.
INTERNATIONAL JOURNAL OF INNOVATIVE TECHNOLOGY AND CREATIVE ENGINEERING (ISSN:2045-8711) VOL.3 NO.9 SEPTEMBER 2013
127 www.ijitce.co.uk