A comment from the recently concluded Hand Pump Mechanics Association Learning Visit to Rwenzori region indicated the need for the Technology Applicability Framework (TAF) to be tested on existing technologies in the region like the Manual drilling rig. This was raised after a presentation made by NETWAS Uganda at the learning journey about the progress of the TAF. The suggestion was later lauded by HEWASA, a local NGO promoting manual drilling in Rwenzori who indicated that in order to scale up their technology, there was need for recommendations from the TAF.
The HPMA learning visit was organized to provide learning for the social, economic and technical transformation of the HPMAs functionality in Northern Uganda. And to be able to use the knowledge acquired to improve sustainability of water supply systems in the region. This gathering attracted 40 participants from regions of North, West and Central.
I suspect that some of you, readers of this blog, are equal water nerds as I am, and that you also take your professional interest along on holiday. At least, I cannot resist visiting the odd water works or taking photographs of the local water and sanitation facilities during my holidays. This summer holiday I not only had the opportunity to take photos, but to live for a week the type of rural water situation, that I write about so much, but rarely experience in reality. As I spent my vacation on a family visit to my brother, who is managing a farm in the Moldovan rural village of Cuhureştii de Jos, I got some first-hand experience of the common problems around rural water supply and realized that some of the myths around it, are myths indeed.
In Uganda the water and sanitation sector is not short of new and emerging technologies, however, there is no clear process of technology Introduction, adoption and upscale. Noticeable is Minimal contribution to the Millennium Development Goals. A key constraint to reaching the sector targets therefore appears to be the lack of systems to assess the potential of a technology and take it to scale effectively.
The Water Sanitation and Hygiene Technologies (WASHtech) project seeks to address the problem through research to assess the potential and sustainability of a wide range of technologies and design strategies for scaling up.
WASHtech has in the past 2 years conducted a stakeholder Knowledge Attitude and Practice (KAP) study aimed at assessing WASH technology introduction and approval process in Uganda, conducted a review of WASH technologies on their appropriateness and suitability.
Last year the project finalized the process of developing a robust Technology Assessment Framework…
In his blog post, Henk Holtslag highlighted that muitple use of water is very critical in ending poverty. I have already shown in my earlier discussions that provision of safe drinking water is not enough. In the developing countries where agriculture employs the bulk of the poor people, availability of water for families, their animals and crops is very essential. When we talk of “provision” the quick question is by who? Self supply then becomes the ideal solution. But how many of our governments, Communities and development agencies are promoting this concept? Do they know much about it? Do they know it exist and it is very feasible?
With two presentations and a pre-launch side event, WASHTech was well represented at the IRC Monitoring Sustainable WASH Service Delivery symposium. The symposium and side events took place from 9-12 April 2013 in Addis Ababa, Ethiopia.
Introducing the TAF
André Olschewski (Skat) and Benedict Tuffuor (TREND Ghana) gave a general introduction to the Technology Applicability Framework (TAF) in a special session on the enabling environment. The session included a presentation on another tool, the Sustainability Monitoring Framework developed by the Dutch WASH Alliance.
Both presentations prompted a discussion about the number and variability of sustainability and how all these tools fit together. The presenters stressed that both tools fit in wider thinking around sustainability in the sector. Even though the tools are being developed in parallel, they both attempt to simplify the analysis of complex, variable data.
“Let’s invite WASHTECH to apply the TAF tool on this Household Water Treatment and Storage (HWTS) technology, the communities choices system, to determine whether it needs to be scaled up”. This came up at the 26th edition of the National Learning Alliance Platform meeting, which recently took place in Accra on theme, Household Water Treatment and Storage Strategy in Ghana.
Members of the WASHTech learning alliance at the meeting had to respond by further explaining and updating stakeholders on the project and the TAF. Abu Wumbei of the WASHTech Ghana team explained that the TAF was indeed a tool that could be used to assess the said HWTS technology, but that the tool was currently being tested on some selected technologies; and that these will enable the fine-tuning of the tool to suit the local situation and context. Thereafter, according to him, the tool will be in full operation; owned…
In Kanungu district of south western Uganda, the Technology Applicability Framework (TAF) work was used to assess the potential of solar powered water pumping in the country.The exercise involved representatives from the Ministry of Water and Environment, Technical Support Units (TSUs),Kanungu district local governments, local NGOs, research institutions, private sector enterprises and beneficially communities. The assessment was based on the following dimension: social acceptance of the technology in the community, environmental dimension, and affordability of the technology by community members, skills and knowhow.
Solar powered pumping for domestic supply has great potential in Uganda if the following issues are adequately addressed:
Scheme operators and beneficially communities should provide adequate security measures to protect solar panels from theft. In addition, communities using solar water powered pumps and bore holes should be able to access loans from banks or financial institutions for replacement of highly expensive scheme components in the event of…
Of the 780 million people worldwide without an improved water source some 80% live in rural areas. In sub-Saharan countries some 35% of the rural water points are not functioning. A country with a remarkable and sustainable increase in rural water supply is Nicaragua. This country has 6 million people of which some 43% live in rural areas. With development aid an innovative low cost hand pump was introduced in 1987. By 1995 this pump became an integral part of rural water programmes of NGOs and government agencies. Rural water supply coverage between 1987 and 1995 doubled from approximately 27.5% to 54.8%. Of this 27.3%, rope pumps account for 23.6% (85% of the total increase). *
Now, 25 years later the situation is:
Over 70.000 rope pumps on boreholes and hand dug wells. Cost /pump 70-150 US$
Besides handpowered also pedal, horse, engine and wind powered models developed
Some 10 workshops produce the pumps and another 8 outlets sell the pump
10 to 20% of the pumps are used for communal supply, the rest for self supply
Even pumps that are given away in general remain working
The scaling up is also thanks to the government who made it a national standard pump
Most pumps are funded by Government or NGOs, some 30% is paid by private families
Over 90% of the all pumps are working (Evaluation of IRC) ** This high % is explained by its repairability. (Simplicity, Low cost, decentralised production, spares available )
The maintenance consist of replacement of the rope and pistons and oiling bushings
The shift from imported piston pumps like Indian Mark 2 to locally produced rope pumps increased the rural water supply 3 x faster than countries without the ropepump
The number of imported piston pumps has reduced to less than 2% of all hand pumps
The rope pump is now by far the most used technology for rural water supply
In some areas families now get piped systems or get electricity and buy an electric pump but most families will still use the rope pump for cattle watering or irrigation
A market for 200.000 more handpumps (study Water & Sanitation Program, Worldbank)
Even 8.000 $ boreholes of 70 meters deep are equipped with 140 $ rope pumps!
All this goes on since 1998 without any NGO or external advisors involved
A study of effects of water for rural families (5015 families studied) concluded
– a well increases incomes of small farmers with 30%
– a rope pump on that well increases again average incomes with $220/year **
The total investment in these pumps was USD1 million in training etc and some USD8million in pumps. The result is an increase of the GNP of USD100 million since 1990 due to family rope pumps. There is much to improve on both pump quality and installation and some workshops make bad pumps but the pumps work and generate income for producers and users. The development in the rural area is notable and rope pumps are a step on the water ladder.
Nicaragua is an example that, where water levels are less than 50 meters and low cost wells can be made, the rural water supply can increase drastically at investment costs of 5 to 15US$/capita. What is possible in Nicaragua seems possible in many other countries.
Rope pump for Self supply used for domestic use, cattle watering and garden irrigation
Ropepump for Communal supply on 60 mtr deep borehole of 8000US$. Used by 20 families
This rope pump for communal supply was installed near San Isidro in 1998.
It is repaired with basic tools and materials like rubber strips but after 15 years of communal use it still works fine.
A pole model rope pump installed in 1998. This family now has piped water but still uses the rope pump for cattle watering
Taller Modesto in Somotillo. One of the 10 workshops in Nicaragua. He sold 600 pumps Workshops EM and AMEC sold some 20.000 pumps and the workshop Bomesa some 40.000
There is much difference in quality. Pumps with black steel pipes are corroded within 10 years. Models with galvanised pipes last 20 years or more
Where water quality is a problem people use a ceramic pot filter called Filtron. The Filtron factory in Nicaragua has produced over 100.000 filters
References
* Alberts, H. 2004 The rope pump: An example of technology transfer. Waterlines 22(3), 22–25.
* Alberts. H.,Zee. J van der (No date). A multi sectoral approach to sustainable rural water supply in Nicaragua: The role of the rope handpump. Available on www.ropepump.com. www.ropepumps.org
Sustainable WASH services can only be achieved if the technology used to provide services is sound enough for the specific context. Too often, however, water and sanitation services stop because the WASH technology no longer functions or is too complicated for the context which it’s in. New WASH technologies are promising successful solutions but are often not considered.
WASHTech, an action-research project, is developing and testing processes and tools to perform context-specific validations of potential WASH technologies. WASHTech also aims to successfully introduce the validated technologies into certain contexts such as countries, districts, or sub-districts.
Come and be part of this pre-launch on Friday 12 April 2013 from 09:30 – 11:00 hrs and learn how the “Technology Applicability Framework” and the “Technology Introduction Process” can help you achieve sustainable WASH services.
Le secteur de l’eau et l’assainissement n’est pas à court de technologies nouvelles et émergentes, promues par le secteur privé ou les ONG et les bailleurs de fonds. Avant même d’être adoptées dans les stratégies nationales, ces technologies sont largement reprises par le secteur privé et intègrent nos villes et villages.
Conséquence : La contribution des nouvelles technologies pour l’atteinte des Objectifs du millénaire pour le développement (OMD) est insignifiante. Un des obstacles majeurs à la réalisation des objectifs du secteur apparaît être l’absence de systèmes pour évaluer le potentiel d’une technologie et le manque de capacité à mettre de nouvelles technologies appropriées à l’échelle de manière efficace. WashTech propose un outil innovant pour évaluer les technologies dans un contexte spécifique. D’une durée de 36 mois, WAHTech est un Projet de recherche sur un procédé innovant pour évaluer le potentiel et la viabilité d’un large éventail des technologies…