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Clay Pot Irrigation System


The Potter’s Method



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You can make your own ollas by hand with wet clay using several methods. However, no matter which one you use, the pots will need to be fired in a kiln, which can usually be found at a clay store, pottery studio, and at a college or university. The pots are made from a mixture of clay and sand at a ratio of 4:1, which will give it an effective porosity ranging from 10-15%. Depending on the clay, you can add, rice hulls, or sawdust at a ratio of up to 1:4 to increase the porosity of the pots. You could also simply add more sand, although using a more crude, impure clay

(which has a varied mix of particulate sizes) will result in larger pores during the firing process. Or, you can mix 20% sand with 20% quality clays, or the same percent of sifted rice hulls or sawdust. After mixing the clay, use a potter’s wheel to mold it into different shapes, typically with a spherical or round body and a flat bottom. The pots are then tempered by baking them at high temperatures.

Firing the ollas makes the clay hard and strong, while still allowing water to pass through. The temperatures required can vary, depending on the quality and mixtures of your clay, the type of oven used when baking, and your desired porosity, and could range anywhere from 200° to over 1,000° C. Small-scale, earthen-ware manufacturers generally temper their ceramic pots at 1200° C. A course, red clay with sand impurities and a mixture with 20% or less of straw should be fired at around 800° F, or around 430° C. Closed-oven firing at temperatures exceeding 450° C are ideal.

Generally, the pots should not be fired much above 1,000° C, or their porosity will be limited. Adding more grog (ground old ceramic) will increase porosity by burning out the filler, leaving uniform pores and a high-quality pot. It is important to find the optimum temperature for your pots. If you make it too hot, the clay will become water-tight, making the ollas useless for our purposes. However, if the pots are not heated enough, then they may breakdown in the soil, causing leakages.



The Coil-Method

This method builds the pot piece-by-piece, in layers from the bottom up, by laying long, rolled coils on top of each other around the sides of a bowl or plate to build the pot. Begin by pinching a ball of wet clay to create a bowl-shape. Use this as the base of your olla, and build up around it from there. Or, you can take the bottom of an old, terra-cotta plate (puki), and lay down a tortilla-shaped piece of clay on top of it.

Then, roll a lump of clay between your palms, creating a long clay rope of uniform thickness, and form the base of the olla by pinching and pressing this coil onto the sides of the clay tortilla with one hand, while turning the bowl or puki with your other hand. Add successive layers of coils until the vessel is completed.


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The Casting Method

You can also make the jars out of a mold-casting. This is an excellent way to mass-produce ollas if you can successfully cast them. To make the urns, create plaster of Paris molds from pumpkins, squash, or gourds of various sizes. Then pour liquid clay into the molds to shape the urns, and fire them in the kiln to solidify the clay.


Using Milk Jugs as Ollas

You can also repurpose some used 1-gallon milk jugs to turn them into artificial ollas. Take your empty milk jugs, fill them with water, and freeze them overnight. Poke multiple small holes into the sides of the jug with a nail or ice pick and hammer. When planting near a wall or walkway, you may want to poke holes on only two sides of the jug, so that the water flows to your plants and not on your pathway. Bury the milk jugs, plant, and water in the same manner as the ollas.


Burying and Watering The Ollas

Start by digging a planting hole about three times as wide and twice as deep as the clay pot. If you encounter clay in your topsoil, discard and replace it with finer, higher-quality soils, as it makes it hard for the water to penetrate. In very heavy soil, you may wish to add sand or gypsum to improve its characteristics. In either case, you will want to fertilize the soil to add more nutrients for the plants. Simply take half of the soil you just removed, break it up using a spade or fork, and add it back into the bottom of the pit. Take the other half of the soil and mix in 1/3 of compost, aged manure, fertilizer, or potting mix with dolomite.

Before burying the ollas completely, it’s best to first fill them and check for leaks. Once that’s done, place the pot in the pit on top of the loose soil, and fill the pit around it with the fertilizer-soil mix. Then bury it up to its neck so that the top is about 2 cm above the surface of the surrounding soil. The top of the clay pot should remain exposed above ground so it can be refilled. To make the top of the pots easier to see, and to reduce evaporation, paint the top rims with white paint. The upper body of the buried clay pot can also be partially painted to reduce water use, but be sure your paints do not include any harmful materials, such as lead or cadmium.

When finished burying the pots, put mulch around the exposed neck at the surface to reduce water evaporation. Then, fill them with water and put a cover over the opening. Keeping the mouth of the jar fully covered prevents insects, animals, and debris from getting inside, in addition to reducing water loss through evaporation. If there are no fitted lids for the jars, you can use corks, plastic lids, cups, metal dishes, flat rocks, clay plates, shells, ceramic tiles, or even pot holders, depending on the size of the hole.

Water takes between 24 and 72 hours to flow through an olla. Depending on factors such as the plant’s water needs, pot size, soil type, time of year, and environment, the ollas may need re-filling every 2 to 3 days for small pots, or once or twice per week for larger ones. To keep the system working optimally, add more water to the pots as needed, and avoid letting them get completely dry. In order to avoid build up of salt residues along the inside surface of the olla that may prevent desired seepage, add water whenever the water level in the olla falls below 50%.

Domestic water effluent, or greywater from kitchens, can be used to refill the pots. Although, it should be filtered first, or otherwise it will clog the pours. You may also supply the olla with water mixed with liquid fertilizer. Simply mix the fertilizer or compost seed in the water, and use it as normal. The liquid fertilizer is more expensive than the granular kind, although, with the liquid variety, you’ll only need about 1/4 to 1/2 of the amount (per unit area of land) compared to granular fertilizers. This is due to the tremendous efficiency of the delivery of nutrients directly to the plant’s roots. Do not add this too often, however, as particles could build up and clog the pours in the clay.

Planting With Ollas

The system is useful for annual and perennial plants, woodlots, and horticultural, orchard or plantation crops. Tests and research conducted around the world — including China, Pakistan, India, Mexico, Brazil, Iran, California, Arizona, and New Mexico – have found that the following plants are suitable to use with clay pot irrigation:
  • Asparagus
  • Basil
  • Beans
  • Bee Balm
  • Broccoli
  • Cabbage
  • Celery
  • Cilantro
  • Collard Greens
  • Corn
  • Chiles
  • Chiltepines
  • Chives
  • Cucumbers
  • Eggplant
  • Garlic
  • Leeks
  • Marigolds
  • Melons
  • Mints
  • Onions
  • Parsley
  • Peppers
  • Peas
  • Poppies
  • Potatoes
  • Purslane
  • Rosemary
  • Rhubarb
  • Scallions
  • Shallots
  • Strawberries
  • Squash
  • Sunflowers
  • Tarragon
  • Thyme
  • Tomatoes
  • Tomatillos
  • Yarrow
No research seems to be available on the consequences of using ollas in a dense polyculture. However, many other intercrops should work well with buried clay pots. The Fan Sheng-chih Shu, an ancient Chinese text describing clay pot irrigation, recommends planting 10 scallions around the pot, interspersed with four melon seeds, and to harvest them in the 5th month as the melons begin to ripen. Lesser beans can also be planted in with the melons and scallions. If growing root vegetables, like potatoes, then bury the ollas a bit deeper in the soil.

You can plant from cuttings or transplants, or you can raise seedlings in situ instead of transporting them from nurseries. However, ollas are not very good for seed germination, as there won’t be enough surface moisture to water them. A small amount of water should be added to the seed spot or transplant to help wet the soil and establish capillary action from the buried clay pot. If starting with plants that already have roots, water the surface until their roots grow low enough to establish themselves. If planting with cuttings, try setting up a double clay pot to propagate them. Take a sealed pot and set it inside a larger one with an open drain. Fill the space between them with sandy potting mix, and put the cuttings in there. This way, they will be kept moist but still get oxygen.

It has been noted that plants with thick roots, and those with woody perennial plant root growth, will likely grow right through the pots and break them. This makes the pots less useful for long-term tree irrigation, but they can still be used for system establishment. Trials in Pakistan using 8-inch clay pots, refilled every two to four weeks, showed that tree seedlings irrigated with buried clay pots had a survival-rate of 96.5%, compared to 62% for hand watering.

The seedlings grown with buried clay pots were also 20% taller. After eight months, all tree seedlings grown around the pots were alive and well, while all of the trees irrigated with the same amount of water using basin irrigation had died. Examination of the root distributions showed that several roots had wrapped themselves around the pot, while two dominant tap roots went straight down to considerable depth. This shows that buried clay pot irrigation can help develop a sufficient root system for long term survival and permanent installation of fruit, nut, and desert trees like pistachio, mesquite, acacia, or eucalyptus. The pot only needs to be filled regularly during the first year and can then be removed.

Be careful when producing fast-growing and spreading plants, like squash and melon vines with big leaves, as they may not be able to get enough water in some situations. Some sensitive species of plants could also be prone to pest or disease because of the constant levels of moisture in the soil. Heavy rains could exacerbate these problems when too much extra moisture is added to the garden. Beware of plants with invasive root systems, as they can grow out horizontally to steal water from the ollas.


When planting with ollas, there is the potential for breakage if left in the ground in areas with a winter freeze. In temperate climates, dig the pots up at the end of the growing season to prevent breakage. Burying the pot further underground, about 4-inches or so under the surface, may help protect it from freezing. The longevity of most ollas (without frost) is unknown, but estimated to be 2- to 5-years, depending on the quality of the clay, the mineral content in the water, and soil temperature swings. Prolonged use is likely to decrease porosity and clog up the pots over time. If this happens, soak the pots in water and scrub them clean, or re-fire to clear out the pores.


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Spacing

The correct spacing of your plants will depend on the shape and size of the ollas, and of the crops you’re growing. Not much research is available as to the optimal spacing of plants around the ollas, but some women in the developing world used clay pots with a capacity of 5-liters each, and buried them at 0.5 m intervals in prepared seed beds. Ancient practices buried many pots on large swaths of land, using 530 pits per hectare (210 pits per acre), with each pit being 70 cm (24-inches) across and 12 cm (5-inches) deep. To each pit was added 18 kilograms (38 lbs.) of manure, and mixed well with an equal amount of dirt. An earthen jar of 6-liters (1.5-gallons) was buried in the center of the pit and filled with water to the brink.

Pots of about 1.5-gallons will seep water out to about 18-inches. The general rule of thumb is that each olla will water outwards at a distance about the same length as its radius. For optimal water utilization, arrange the pots in clusters, separated from each other at a distance equal to the width of their diameter or more, and plant in circles around them within about 18-inches around the base of the pot.

In general, place your pots about 3 m (9-feet) apart for vine crops, and 1-1.5 m (3- to 5-feet) apart for corn and other tall-growing plants. The seeds or plants should be placed no less than about 1/2 of the radius away from the edge of the pot, and no more than the length equal to the diameter away from the edge, to maximize water absorption. It is helpful to leave a space between plants on one side of the pot to make it easier to lift the lid and refill it as the plants grow larger. You can also use pots in raised beds and containers. Simply use the 1-radius rule to find out how large your containers and beds need to be.
 
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A farmer in Punjab is rejuvenating sand dunes though drip irrigation



Zofeen T. Ebrahim
June 1, 2019



Reducing water use in agriculture is key for Pakistan, a country facing severe water shortages.  — Photo by Hasan Abdullah




Reducing water use in agriculture is key for Pakistan, a country facing severe water shortages. — Photo by Hasan Abdullah


Hassan Abdullah has pioneered the use of drip irrigation on dunes in Punjab, Pakistan. — Photo courtesy Third Pole



Hassan Abdullah has pioneered the use of drip irrigation on dunes in Punjab, Pakistan. — Photo courtesy Third Pole



Drip irrigation is only possible with solar energy, far cheaper than diesel pumps used by so many farmers. — Photo by Hasan Abdullah



Drip irrigation is only possible with solar energy, far cheaper than diesel pumps used by so many farmers. — Photo by Hasan Abdullah



For as long as Hasan Abdullah can remember the 50-acre sandy dune on his 400-acre farmland in Sadiqabad, Pakistan’s Punjab province, was an irritant – nothing grew on it.

His farmland lies beside the vast Cholistan desert in a canal irrigated area east of the Indus River in Rahim Yar Khan district. Abdullah inherited it in 2005, when his father passed away. Until then he had been working in information technology.

In 2015, after much research, Abdullah took a “calculated risk” of cultivating the “barren” dune using the drip irrigation system. The government’s announcement of a 60% subsidy on drip irrigation was “a big incentive,” he said. Agriculture, through wasteful flood irrigation, accounts for over 80% water usage in a country facing severe water shortages.

Today, Abdullah’s dune is a sight to behold: fruit orchards have flourished in the sand. He admitted that without drip irrigation the “dune would never have produced anything.”

Water mixed with fertiliser is carried out through pipes with heads known as drippers, explained Abdullah, which release a certain amount of water per minute directly to the roots of each plant across the orchard.
And because watering is precise, there is no evaporation, no run off, and no wastage.

These new water saving techniques will be key to the future survival of Pakistan’s farmers, who face growing water shortages. Pakistan’s per capita water availability is very low, yet the agricultural sector is deeply inefficient in its water use and its productivity is low. Farmers in Punjab, Pakistan’s largest province, grow water intensive crops such as cotton and wheat using flood irrigation. Their challenges will only grow with climate change. The water flow of the Indus River – which the farmers rely on for their water supply – is predicted with the rapid retreat of the Himalayan glaciers.



The power of the drip

Using drip irrigation, farmers can save up to 95% of water and reduce fertiliser use, compared to surface irrigation, according to Malik Mohammad Akram, director general of the On Farm Water Management (OFWM) wing in the Punjab government’s agriculture department. In flood irrigation – the traditional method of agriculture in the region – a farmer uses 412,000 litres per acre, while using drip irrigation the same land can be irrigated with just 232,000 litres of water, he explained.

The water on Abdullah’s dune is pumped from a canal – which is part of the Indus Basin irrigation system – into a reservoir built on the land. “Being at the tail end [of the canal system], we needed to be assured the availability of water at all times and thus we had to construct a reservoir,” said Abdullah. For years now, farmers at the head of the canals have been “stealing” water causing much misery for farmers downstream.



Costly savings

But drip irrigation is expensive. Out of Abdullah’s 40 acres of orchards on drip irrigation, 30 acres are on sand dunes and ten acres are on land adjacent to the dune, locally known as “tibba” – a small sand dune surrounded by agricultural land. On the 30 acre-dune patch, Abdullah grows oranges on 18, feutral (another variety of orange) on another six acres, lemons on five acres and on one acre he has experimented with growing olives, which bore fruit this year.

In took three years of “micromanaging the orchards” before the orange and olive trees began fruiting last year. “We hope to break even this year and next year we should be in profit,” he said. It will take another four years to recoup all his investment, he calculated.

Abdullah was the first farmer to experiment with this new approach. Among many challenges that came his way was to get his farmhands to understand the new way of watering.

Akram has had a similar experience, “It is difficult for a traditional farmer to come to terms with it. Unless he sees the soaked soil with his eyes, he cannot believe the plant has been well watered.”



Solar provides respite


While Abdullah was saving water, the cost of diesel for running water pump was proving astronomical. Abdullah may not have been able to carry on farming with drip irrigation had the government not announced an 80% subsidy on solar power plants for farmers in 2018. He promptly took it up.

“Solar has been a life saver for us,” he said. Not only did the running costs decrease considerably, the solar system paid for itself in just one year, leaving only the costs of labour, fertilisers and chemicals.

Cultivating using drip irrigation is also not labour intensive. Abdullah’s 40-acres are tended to by just four labourers, who not only look after the orchards and watering system, but manage the solar plant too. “If we were doing traditional farming, our costs would have been much higher. We would need a tractor, six to eight labourers and a lot more water,” he said

For his orchards, the drip irrigation runs for about seven hours every day. “If it were running on diesel, we would be consuming 35 litres of diesel a day at the cost of PKR 4,270 (USD 30) per day,” Abdullah estimated.

Furthermore because it is precision watering to the roots, weed growth is minimal.



Trendsetting

Since he set up his drip system, Abdullah has received a trail of visitors. A young farmer from neighbouring Bahawalpur who visited the dune in 2015 was so impressed he set up the drip irrigation over 700 acres of land he was looking after for an ex-army officer.

“Ours is the only farm in Pakistan that has set up a drip irrigation system over such a huge tract – and in the desert too,” said Asif Riaz Taj, who manages Infiniti Agro and Livestock Farm. Now in their fourth year, the orchards have started fruiting over 70 acres. But it will not be before its sixth year, Taj said, that they will “break even”. The drip irrigation and solar plant was installed at a cost of PKR 25 million (USD 174,000), and the monthly running cost of this farm is almost PKR 4 million (USD 28,000).

Infiniti’s orchards get water from both groundwater using turbines as well as from the canal. “We have installed a 150 kilowatts solar plant for extracting water,” said Taj. The area is not completely sandy, such as the dune on Abdullah’s land, but it is still arid, and benefits hugely from drip irrigation.

Abdullah acknowledged that the drip system required a huge initial investment and warned that “unless one had strong financial backing”, it would be difficult.

“Our upfront cost was PKR 3.5 million (USD 25,000), but our running costs [of farming on the dune and tibba] went up to PKR 10 million (USD 70,621),” he explained. He was fortunate he had income coming from his other nearly 400 acres of land where he grows sugar cane, cotton and wheat.


Drip irrigation fails to fly

Despite such a resounding success at Abdullah’s farm, saving on water and the attractive government subsidies, few farmers are taking to drip irrigation, said OFWM’s Akram. Nevertheless since 2012, his department has installed 50,000 systems on 5,000 sites (with an average size of 10 acres). It should have been much more.

“The mindset change from the farmers has been slow and despite all out efforts we have been unable to push this water-saving technology,” he admitted.

The installation costs are prohibitively high despite the 60% subsidy, Akram said. Farmers also say drip irrigation is not appropriate for all kinds of irrigation, particularly not for row farming like wheat, maize and rice.


Farmers complain that the agricultural department and the company don’t provide proper after sales services. The untrained and uneducated farmers have to find solutions themselves or are left to the mercy of the drip system vendor. Corroborating this, Abdullah said: “That is one of the biggest causes of failures.”

Akram vehemently denied this, saying that the both company selling the drip irrigation system and the agriculture department handhold farmers, training them to resolve glitches coming their way.

Abdullah, however, is among the converts. He plans to expand the drip irrigation further for olives and mango orchards once profits are up.
 
.
Hi,

My father had made two suggestions to powers to be in the 70's---small dams and multiple smaller sized steels mills---oh well.
i always thought the suggestion came from germans to setup smaller mills but bhutto went ahead with russian inefficient mill
before that ayyub sahb bought 2000 german automobiles rather then setting up a skoda plant in 60,s
 
. .
A farmer in Punjab is rejuvenating sand dunes though drip irrigation


Zofeen T. Ebrahim
June 1, 2019



Reducing water use in agriculture is key for Pakistan, a country facing severe water shortages.  — Photo by Hasan Abdullah




Reducing water use in agriculture is key for Pakistan, a country facing severe water shortages. — Photo by Hasan Abdullah


Hassan Abdullah has pioneered the use of drip irrigation on dunes in Punjab, Pakistan. — Photo courtesy Third Pole



Hassan Abdullah has pioneered the use of drip irrigation on dunes in Punjab, Pakistan. — Photo courtesy Third Pole



Drip irrigation is only possible with solar energy, far cheaper than diesel pumps used by so many farmers. — Photo by Hasan Abdullah



Drip irrigation is only possible with solar energy, far cheaper than diesel pumps used by so many farmers. — Photo by Hasan Abdullah



For as long as Hasan Abdullah can remember the 50-acre sandy dune on his 400-acre farmland in Sadiqabad, Pakistan’s Punjab province, was an irritant – nothing grew on it.

His farmland lies beside the vast Cholistan desert in a canal irrigated area east of the Indus River in Rahim Yar Khan district. Abdullah inherited it in 2005, when his father passed away. Until then he had been working in information technology.

In 2015, after much research, Abdullah took a “calculated risk” of cultivating the “barren” dune using the drip irrigation system. The government’s announcement of a 60% subsidy on drip irrigation was “a big incentive,” he said. Agriculture, through wasteful flood irrigation, accounts for over 80% water usage in a country facing severe water shortages.

Today, Abdullah’s dune is a sight to behold: fruit orchards have flourished in the sand. He admitted that without drip irrigation the “dune would never have produced anything.”

Water mixed with fertiliser is carried out through pipes with heads known as drippers, explained Abdullah, which release a certain amount of water per minute directly to the roots of each plant across the orchard.
And because watering is precise, there is no evaporation, no run off, and no wastage.

These new water saving techniques will be key to the future survival of Pakistan’s farmers, who face growing water shortages. Pakistan’s per capita water availability is very low, yet the agricultural sector is deeply inefficient in its water use and its productivity is low. Farmers in Punjab, Pakistan’s largest province, grow water intensive crops such as cotton and wheat using flood irrigation. Their challenges will only grow with climate change. The water flow of the Indus River – which the farmers rely on for their water supply – is predicted with the rapid retreat of the Himalayan glaciers.



The power of the drip

Using drip irrigation, farmers can save up to 95% of water and reduce fertiliser use, compared to surface irrigation, according to Malik Mohammad Akram, director general of the On Farm Water Management (OFWM) wing in the Punjab government’s agriculture department. In flood irrigation – the traditional method of agriculture in the region – a farmer uses 412,000 litres per acre, while using drip irrigation the same land can be irrigated with just 232,000 litres of water, he explained.

The water on Abdullah’s dune is pumped from a canal – which is part of the Indus Basin irrigation system – into a reservoir built on the land. “Being at the tail end [of the canal system], we needed to be assured the availability of water at all times and thus we had to construct a reservoir,” said Abdullah. For years now, farmers at the head of the canals have been “stealing” water causing much misery for farmers downstream.



Costly savings

But drip irrigation is expensive. Out of Abdullah’s 40 acres of orchards on drip irrigation, 30 acres are on sand dunes and ten acres are on land adjacent to the dune, locally known as “tibba” – a small sand dune surrounded by agricultural land. On the 30 acre-dune patch, Abdullah grows oranges on 18, feutral (another variety of orange) on another six acres, lemons on five acres and on one acre he has experimented with growing olives, which bore fruit this year.

In took three years of “micromanaging the orchards” before the orange and olive trees began fruiting last year. “We hope to break even this year and next year we should be in profit,” he said. It will take another four years to recoup all his investment, he calculated.

Abdullah was the first farmer to experiment with this new approach. Among many challenges that came his way was to get his farmhands to understand the new way of watering.

Akram has had a similar experience, “It is difficult for a traditional farmer to come to terms with it. Unless he sees the soaked soil with his eyes, he cannot believe the plant has been well watered.”



Solar provides respite


While Abdullah was saving water, the cost of diesel for running water pump was proving astronomical. Abdullah may not have been able to carry on farming with drip irrigation had the government not announced an 80% subsidy on solar power plants for farmers in 2018. He promptly took it up.

“Solar has been a life saver for us,” he said. Not only did the running costs decrease considerably, the solar system paid for itself in just one year, leaving only the costs of labour, fertilisers and chemicals.

Cultivating using drip irrigation is also not labour intensive. Abdullah’s 40-acres are tended to by just four labourers, who not only look after the orchards and watering system, but manage the solar plant too. “If we were doing traditional farming, our costs would have been much higher. We would need a tractor, six to eight labourers and a lot more water,” he said

For his orchards, the drip irrigation runs for about seven hours every day. “If it were running on diesel, we would be consuming 35 litres of diesel a day at the cost of PKR 4,270 (USD 30) per day,” Abdullah estimated.

Furthermore because it is precision watering to the roots, weed growth is minimal.



Trendsetting

Since he set up his drip system, Abdullah has received a trail of visitors. A young farmer from neighbouring Bahawalpur who visited the dune in 2015 was so impressed he set up the drip irrigation over 700 acres of land he was looking after for an ex-army officer.

“Ours is the only farm in Pakistan that has set up a drip irrigation system over such a huge tract – and in the desert too,” said Asif Riaz Taj, who manages Infiniti Agro and Livestock Farm. Now in their fourth year, the orchards have started fruiting over 70 acres. But it will not be before its sixth year, Taj said, that they will “break even”. The drip irrigation and solar plant was installed at a cost of PKR 25 million (USD 174,000), and the monthly running cost of this farm is almost PKR 4 million (USD 28,000).

Infiniti’s orchards get water from both groundwater using turbines as well as from the canal. “We have installed a 150 kilowatts solar plant for extracting water,” said Taj. The area is not completely sandy, such as the dune on Abdullah’s land, but it is still arid, and benefits hugely from drip irrigation.

Abdullah acknowledged that the drip system required a huge initial investment and warned that “unless one had strong financial backing”, it would be difficult.

“Our upfront cost was PKR 3.5 million (USD 25,000), but our running costs [of farming on the dune and tibba] went up to PKR 10 million (USD 70,621),” he explained. He was fortunate he had income coming from his other nearly 400 acres of land where he grows sugar cane, cotton and wheat.


Drip irrigation fails to fly

Despite such a resounding success at Abdullah’s farm, saving on water and the attractive government subsidies, few farmers are taking to drip irrigation, said OFWM’s Akram. Nevertheless since 2012, his department has installed 50,000 systems on 5,000 sites (with an average size of 10 acres). It should have been much more.

“The mindset change from the farmers has been slow and despite all out efforts we have been unable to push this water-saving technology,” he admitted.

The installation costs are prohibitively high despite the 60% subsidy, Akram said. Farmers also say drip irrigation is not appropriate for all kinds of irrigation, particularly not for row farming like wheat, maize and rice.


Farmers complain that the agricultural department and the company don’t provide proper after sales services. The untrained and uneducated farmers have to find solutions themselves or are left to the mercy of the drip system vendor. Corroborating this, Abdullah said: “That is one of the biggest causes of failures.”

Akram vehemently denied this, saying that the both company selling the drip irrigation system and the agriculture department handhold farmers, training them to resolve glitches coming their way.

Abdullah, however, is among the converts. He plans to expand the drip irrigation further for olives and mango orchards once profits are up.

Great post.
 
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