|
|
|
|
 |
|
The modern Hydram
uses a very old principle of physics in a simple but effective way
to move water from a stream or river to places where it is
most needed. Where there is suitable clean water available, it can
provide supplies to remote houses or communities, allow irrigation
of inaccessible areas and maintain feed water for stock in areas at
a distance from water sources. From the survey a lot of
water potential in Lebong district, a survey by the river that will
be developed Hydram Pumps, will be used to distribute water is
potentially for irrigation agriculture, plantation or housing .
The advantage of
this pump does not use electric power environmentally friendly and
has the install kind of stuff easily.
The performance of a Hydram is
determined by the working fall down which the driving water has to
travel and by the vertical height to which the pumped water must be
raised. This diagram shows these distances. The horizontal distance
over which the pumped water travels is taken |
|
into account by
selecting suitable pipe sizes. The tables below show the performance
figures for the Hydrams. The first table lists the amount of water
pumped in 24 hours for a litre of water flowing down the drive pipe
in a. minute. Therefore by knowing the working fall (m) and the
vertical height (m) the output for 24 hours can be determined |
| |
|
|
 |
|
Hydram Installation – Basic
Requirements The
use of a Hydram requires the availability of a suitable supply
of continuously flowing water. The site needs to be suitably
prepared to provide water input to the Hydram and also output
side pipes for waste and delivery. Installation of the Hydram
couldn’t be easier -
- Create a feed well to
collect the source water
- Lay a concrete slab on
which to bolt the Hydram
- Fix a drive pipe
between the two
- Install a delivery pipe from
the Hydram to where the water needs to go!
The diagram below illustrates
the information which is needed to allow for quotations to be
made and advice to be given. We are willing to do this for you
however if you want to work |
|
|
out the size
yourself the following pages give the necessary technical
information. In work operation for every litre per minute of water
flowing into the Hydram, the amount delivered will be this
factor in litres per day. Therefore, if 10 litres per minute flows
into the Hydram then (10 x 282) 2820 litres per day will be
delivered.if the total daily requirement of water is known per day,
then divide this quantity by the factor, to find the amount of water
in litres per minute that must be supplied to the Hydram. For
example if 20,000 litres per day was required, then 20,000 ÷ 282 =
70 litres per day would have to be delivered to the Hydram. |
|
|
|
| |
|
|
|
