Advances in multi-stage planning and implementing managed aquifer recharge for integrated water management

Managed aquifer recharge (MAR) is the umbrella term for a range of technologies that enable the integrated use and management of surface water and groundwater to achieve a wide and growing range of social, economic and environmental benefits. The extent and variety of its applications and benefits have mushroomed in recent years as demonstrated in the suite of papers contained within this Special Issue of Sustainable Water Resources Management. This paper introduces the Special Issue and draws together some insights arising from the findings of these papers. Managed aquifer recharge projects normally evolve through a development cycle that covers planning, investigations, pilot scale trials and then implementation of full-scale projects. This Special Issue starts with four papers that synthesize information from a large number of MAR sites, to demonstrate the scope and geographic distribution of international efforts in MAR, factors affecting the economics of MAR projects, and efforts to find metrics to compare their performance among sites and over time. Then there are four papers describing some significant and widely contrasting completed MAR projects in four continents covering their development, what has been learned and some operational issues. Given this context, the next five papers explore the implementation and evaluation of pilot projects in three countries. These papers address issues ranging from hydrogeological characterization, evaluating impacts on groundwater-dependent ecosystems to community participation. All papers to this point give context to the final five papers that show the planning and preliminary studies performed to select MAR sites, to design pilot projects or to explore the feasibility of large-scale MAR programs. Arranging the sequence of papers in this way is intended to yield an understanding of the need for the investigations and modelling to produce viable projects, and to help readers to consider some important practical questions. What steps are needed for any given project to: define objectives; build partnerships; engage with communities; assemble evidence of technical viability, sustainability and safety; secure funding; design and construct efficiently; streamline operations; and finally to monitor the extent to which a completed project met its goals? These papers were developed out of a broader selection of papers presented at the 9th International Symposium on Managed Aquifer Recharge (ISMAR9), Mexico City, June 2016. They are a companion to another Special Issue arising from ISMAR9, published in the journal Water on the complementary theme “Water Quality Considerations for Managed Aquifer Recharge Systems” edited by Prof. Dr. Pieter Stuyfzand and Dr. Niels Hartog (2017). These Issues are a contribution of the International Association of Hydrogeologists Commission on Managing Aquifer Recharge (IAH-MAR) to the advancement and dissemination of knowledge for wise application of MAR.

[1]  Catalin Stefan,et al.  Web-based global inventory of managed aquifer recharge applications , 2018, Sustainable Water Resources Management.

[2]  I. Peters,et al.  Windhoek, Namibia: from conceptualising to operating and expanding a MAR scheme in a fractured quartzite aquifer for the city’s water security , 2018, Sustainable Water Resources Management.

[3]  M. Lluria,et al.  Seasonal water storage and replenishment of a fractured granitic aquifer using ASR wells , 2018, Sustainable Water Resources Management.

[4]  Jana Glass,et al.  Utilizing unsaturated soil zone models for assessing managed aquifer recharge , 2018, Sustainable Water Resources Management.

[5]  Protection of groundwater dependent ecosystems in Canterbury, New Zealand: the Targeted Stream Augmentation Project , 2018, Sustainable Water Resources Management.

[6]  P. Rodríguez‐Escales,et al.  Characterization and benchmarking of seven managed aquifer recharge systems in south-western Europe , 2018, Sustainable Water Resources Management.

[7]  P. Jokela,et al.  Sustainable drinking water quality improvement by managed aquifer recharge in Tuusula region, Finland , 2018, Sustainable Water Resources Management.

[8]  A simple method using farmers’ measurements applied to estimate check dam recharge in Rajasthan, India , 2018, Sustainable Water Resources Management.

[9]  Jason K. Keller,et al.  Modeling the impact of aquifer recharge, in-stream water savings, and canal lining on water resources in the Walla Walla Basin , 2018, Sustainable Water Resources Management.

[10]  Jobst Wurl,et al.  Coupled surface water and groundwater model to design managed aquifer recharge for the valley of Santo Domingo, B.C.S., Mexico , 2018, Sustainable Water Resources Management.

[11]  P. Stuyfzand,et al.  Water Quality Considerations on the Rise as the Use of Managed Aquifer Recharge Systems Widens , 2017 .

[12]  T. Grischek,et al.  Measures to mitigate direct flood risks at riverbank filtration sites with a focus on India , 2018, Sustainable Water Resources Management.

[13]  T. Shah,et al.  The Role of Transdisciplinary Approach and Community Participation in Village Scale Groundwater Management: Insights from Gujarat and Rajasthan, India , 2014 .

[14]  A. Palma Nava,et al.  Inventory of managed aquifer recharge schemes in Latin America and the Caribbean , 2018, Sustainable Water Resources Management.

[15]  P. Chinnasamy,et al.  Modeling the potential for floodwater recharge to offset groundwater depletion: a case study from the Ramganga basin, India , 2018, Sustainable Water Resources Management.

[16]  A. Ross,et al.  Factors affecting the cost of managed aquifer recharge (MAR) schemes , 2018, Sustainable Water Resources Management.