28UNIVERSITIES COUNCIL ON WATER RESOURCESJOURNAL OF CONTEMPORARY WATER RESEARCH & EDUCATIONISSUE 135, PAGES 28-35, DECEMBER 2006Exploring the Government, Society, <strong>and</strong> Science Interfacesin Integrated <strong>Water</strong> Resource Management in South AfricaPeter J. Ashton, Anthony R. Turton, <strong>and</strong> Dirk J. RouxCouncil for Scientifi c <strong>and</strong> Industrial <strong>Research</strong>, Natural Resources <strong>and</strong> the Environment, Pretoria, South AfricaMost modern approaches to water resourcemanagement acknowledge that theentire river basin or catchment shouldform the basic management unit if water resourcesare to be managed effectively <strong>and</strong> efficiently. Inaddition, since surface <strong>and</strong> ground water areinextricably linked via the hydrological cycle, it isalso logical for water resource managers to seekto manage all forms <strong>of</strong> water as a single resourcewithin the management unit. These two technicalprinciples form the foundation for integrated waterresource management (IWRM), <strong>and</strong> it is widelyaccepted that if they are implemented effectively,the outcome should be prudent water resourcemanagement within the river basin (Biswas et al.2005).Another important component <strong>of</strong> the IWRMphilosophy is the need to engage all stakeholdersin decision-making processes (Global <strong>Water</strong>Partnership 2000). Indeed, while effective <strong>and</strong>efficient water management institutions areusually regarded as “technocratic,” they rely ongood governance processes to ensure that allgovernment <strong>and</strong> civil society stakeholders areengaged effectively 1 . In its ideal form, therefore,the IWRM approach to catchment or river basinmanagement comprises a guiding philosophy, apractical <strong>and</strong> agreed framework for action, <strong>and</strong> aset <strong>of</strong> desired outcomes. These three characteristicsare inclusive rather than exclusive, therebyreinforcing <strong>and</strong> extending the suite <strong>of</strong> advantagesto be gained from the practical implementation <strong>of</strong>IWRM (Ashton in press).Importantly, very few <strong>of</strong> the stakeholdersor roleplayers that are engaged in technical,social or economic activities within a river basinacknowledge that IWRM decision-making is apolitical process (Allan 2005). In addition, much<strong>of</strong> the IWRM decision-making tends to ignore thesocial, cultural <strong>and</strong> political context, as well as thehistorical aspects within which these are embedded(Ashton in press). Taken together, these processes<strong>and</strong> contexts shape the dimensions <strong>of</strong> governance<strong>and</strong> determine the success or failure <strong>of</strong> IWRMinitiatives. This paper reviews the evidence thatnew <strong>and</strong> more supportive government, society,<strong>and</strong> science interfaces <strong>and</strong> processes are helping toensure the effective allocation <strong>and</strong> management <strong>of</strong>water resources in South Africa.Drivers <strong>of</strong> ChangeIn 1994, the South African government starteda comprehensive process <strong>of</strong> reform throughoutthe water sector; this process will still continuefor several years. The focus for the South Africanwater sector reform is driven by the need to redressthe inequities <strong>of</strong> previous political dispensations,coupled with the urgent need to ensure thatsufficient supplies <strong>of</strong> wholesome water continueto be made available to meet the rapidly growingneeds <strong>of</strong> communities that are fueled by increasedrates <strong>of</strong> urbanization <strong>and</strong> industrialization. Thearid to semi-arid nature <strong>of</strong> much <strong>of</strong> South Africa<strong>and</strong> the growing scarcity <strong>of</strong> water resources makethe resolution <strong>of</strong> these problems particularly acute(Basson et al. 1997).Despite these challenges, South Africa’sNational <strong>Water</strong> Act (Republic <strong>of</strong> South Africa 1998)is widely regarded as one <strong>of</strong> the most progressivepieces <strong>of</strong> environmental legislation in the worldUCOWRJOURNAL OF CONTEMPORARY WATER RESEARCH & EDUCATION
Government, Society, <strong>and</strong> Science in IWRM In South Africa29(Postel <strong>and</strong> Richter 2003). The new <strong>and</strong> enablinglegislative framework presents stakeholders <strong>and</strong>authorities with a clear vision <strong>of</strong> equity, efficiency,<strong>and</strong> sustainability in the allocation <strong>and</strong> use <strong>of</strong>water, as well as the goods <strong>and</strong> services that arederived from or linked to such water use (VanWyk et al. 2006). The focus on greater equitywithin South Africa’s new water policy requiresstakeholders to shift away from rights-based waterallocations to a system where water allocationdecisions are interest-based (Dent 2001). Thismove towards a negotiation-driven process <strong>of</strong>water allocation represents a dramatic change fromprevious procedures, requiring a fundamental shiftin both mindset <strong>and</strong> practice, based on a mutualunderst<strong>and</strong>ing <strong>of</strong> each group’s resource needs <strong>and</strong>preferences, <strong>and</strong> acceptance that these needs aredynamic over space <strong>and</strong> time (Van Wilgen et al.2003).These objectives are ambitious <strong>and</strong> unprecedented<strong>and</strong> it should not come as a surprise that,at this early stage <strong>of</strong> the process, the objectives <strong>of</strong>equity, efficiency, <strong>and</strong> sustainability in the allocation<strong>and</strong> use <strong>of</strong> the country’s water resources remainelusive (Van Wyk et al. 2006). Part <strong>of</strong> the reason forthis lies in the varied interpretations among differentstakeholders as to what constitutes IWRM <strong>and</strong>how its goals <strong>and</strong> objectives can best be achieved.Another, perhaps even more important, reason islinked to the different levels <strong>of</strong> underst<strong>and</strong>ing <strong>of</strong><strong>and</strong> familiarity with the governance processes thatare needed in different situations, <strong>and</strong> how thesecan be best achieved. In South Africa, the shift inmanagement approaches to embrace the principles<strong>of</strong> IWRM has been accompanied by processes <strong>of</strong>institutional decentralization <strong>and</strong> democratizationdesigned to facilitate <strong>and</strong> strengthen localstakeholder participation in decision-making forwater resources management (Pegram et al. 2005).These institutional changes are most easily visiblein the emergence <strong>of</strong> Catchment Councils, <strong>Water</strong>User Associations <strong>and</strong> Catchment ManagementAgencies.Conceptually, the degree to which waterDevelopinginfrastructure(First order focus)Centralized management<strong>Water</strong> is not anEconomic ResourceASupply-sideoptions<strong>Water</strong> is an EconomicResourceBDem<strong>and</strong>-sideoptionsDecentralized management<strong>Water</strong> is a Social <strong>and</strong> anEconomic ResourceCDevelopinginstitutions(Second orderfocus)Figure 1. Conceptual model illustrating the general trend <strong>of</strong> change as the focus <strong>of</strong> water resource managementbroadens to include increasingly decentralized approaches (A), (B) <strong>and</strong> (C), while management options exp<strong>and</strong>from purely supply-side options to include more dem<strong>and</strong>-side options (redrawn from Turton et al., in press).JOURNAL OF CONTEMPORARY WATER RESEARCH & EDUCATIONUCOWR
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