Can road design boost water security in rural regions?

Posted on by RWSN Secretariat

re-posted from GRIPP

Roads for Water is integrating road construction and small water infrastructure to harvest rainwater from small catchments for productive use, while reducing road damage and simplifying road maintenance. Improving road drainage design is reducing soil erosion and increasing groundwater recharge. Furthermore, using roads for resource capture can prevent dangerous and inconvenient flooding, and in some cases pave the way for sand harvest and dune management, tree planting and protection of other natural resources.

Starting as an UPGro Catalyst Project, Roads for Water is now scaling up across Ethiopia, Kenya, Bangladesh, Malawi, Uganda and elsewhere with support from the Global Resilience Partnership (USAID, Rockefeller Foundation, SIDA and the Zurich Foundation) and the World Bank. The Roads for Water Learning Alliance was established to bring researchers, implementers, policy makers, trainers, donors and other stakeholders together to share knowledge and to support roadwork for natural resource management and climate resilience. The initiative recently received the second-place prize in the Zilient 2017 Resilience Awards.

MetaMeta and Mekelle University encourage those interested to become part of the learning alliance to contact MetaMeta at marta@metameta.nl

In partnership with: MetaMeta Research / Mekelle University- UPGro / Global Resilience Partnership) USAID SIDA Rockefeller Foundation World Bank

Photo: Local communities in Ethiopia diverting water from a culvert to a percolation pond for groundwater recharge. Photo: Kifle Woldearegay/Mekelle University.

The Smart Handpump comes to Oxford

Posted on by RWSN Secretariat

from: http://www.geog.ox.ac.uk/news/articles/160526-smart-handpump.html

The ‘Smart Handpump’ was developed in 2011 by a team at Oxford University with a field-ready prototype starting operational trials in Kenya in 2012. These trials demonstrated proof-of-concept for remote monitoring of handpumps using simple microprocessor, accelerometer and global system for mobile communications (GSM) components. Smart Handpumps provide hourly data related to pump usage, providing information on functionality as well as insights into daily and seasonal water use patterns.

In 2014, a preliminary analysis of the high frequency accelerometer data to show that the “noise” generated by pumping also contains useful information. High-rate waveforms from the data can be processed using robust machine learning methods that are sensitive not only to the dynamics of the whole system but also the subtle interaction between the user and the pump. The small changes in pump dynamics and the subtle reactions of the user become a prominent signal in determining the deterioration of pump mechanics and imminent failure. This same signal can also be used to for shallow aquifer monitoring at the pump and user phenotyping.

The SoGE borehole is drilled to 7m and will have a Samrat handpump installed. This suction pump is commonly used at shallow wells in Bangladesh. The different dynamics of this pump, compared to current studies on deep well Afridev pumps in Kenya, will enable researchers to build a more robust predictive algorithm that is able to distinguish across multiple pump types, user characteristics, and aquifer variabilities.

These data will be used to produce a low-cost predictive maintenance system that is scalable across large rural regions. This work is being supported by UNICEF, funded through a competitive tender process, as part of their Product Innovation portfolio. Field testing will be conducted in partnership with UNICEF country programmes in Eastern and Southern Africa.

By retrofitting a simple and inexpensive device to a standard pump handle the smart handpumps are able to pro-actively monitor the condition of handpumps and ensure that millions of people can have access to a reliable water source.

Take a look at the video to see our work in Kwale County in Kenya in action.

This project is a collaboration between Oxford University’s Engineering Department and Smith School of Enterprise and the Environment at the School of Geography and the Environment. In addition to UNICEF, the Smart Handpumps work is supported through REACH – Improving Water Security for the Poor and Gro for GooD – Groundwater Risk Management for Growth and Development, both major research initiatives funded by DFID and the UK Research Councils.