Tuesday, May 6, 2025

The Mirage of Infrastructure – When Big Projects Fail the Poor

 

Author : AM Tris Hardyanto


The Mirage of Infrastructure – When Big Projects Fail the Poor

Despite billions invested in large-scale water infrastructure projects across underserved communities worldwide, many fail to deliver their promised outcomes. This article critically examines the recurring imbalance between capital expenditure (CapEx) and operational expenditure (OpEx), revealing how an overemphasis on construction without sustained funding for maintenance, staffing, and governance often leads to system failures. Drawing from global case studies in India, Mozambique, Tanzania, and Lesotho, the analysis explores how inadequate OpEx planning exacerbates inequality, weakens community resilience, and undermines water access efforts. The paper highlights how political incentives, donor metrics, and financing norms entrench a CapEx bias, often prioritising short-term visibility over long-term functionality. It concludes by advocating for a shift toward lifecycle-based infrastructure models that embed community participation, performance monitoring, and financial transparency. By realigning infrastructure design with sustainability and local empowerment, this article offers a roadmap to ensure that future water projects fulfil their social and environmental mandates, not merely their engineering blueprints.

 

1.1 Introduction

The issue of large-scale water infrastructure projects in underserved communities has become increasingly critical as many of these initiatives, while initially promising, often fail to deliver sustainable benefits to the populations they aim to serve. Various case studies indicate that capital expenditure (CapEx) alone does not suffice to ensure the long-term efficacy and maintenance of these projects. Without a complementary approach that includes operational expenditure (OpEx) – which encompasses the costs of staffing, maintenance, and management – many projects experience deterioration soon after completion, leading to increased hardships for impoverished communities who initially sought improved access to clean water.

A detailed analysis of infrastructure projects reveals that while initial investments can trigger increased water accessibility and consumption, the absence of dedicated operational funding undermines the expected health and socio-economic benefits (Sargentis et al., 2019). Furthermore, studies have identified significant patterns in the relationship between infrastructure investment and the social dynamics it engenders within local communities, affirming that infrastructure can significantly influence public welfare, especially when adequately maintained and operationalised (Carrión-Barco et al., 2024). However, regardless of the sheer scale and ambition of these water projects, they risk becoming ineffective if not supported by adequate operational frameworks that ensure sustainability over their life cycles (Reidy, 2019).

The discourse surrounding infrastructure investment must shift towards embracing sustainable development principles that recognise the intricate interplay between initial capital outlay and ongoing operational needs. For example, guidelines from recent studies suggest that infrastructure should not only be constructed but continuously supported; a lifecycle approach is necessary to assess the ongoing costs associated with infrastructure projects (Alaloul et al., 2021; Li et al., 2024). involves comprehensive planning that integrates both CapEx and OpEx into the fiscal profiles of new projects, thereby enhancing the resilience and effectiveness of these initiatives.

Notably, models assessing the implications of infrastructure investment on regional economic growth highlight a troubling trend: when infrastructure development neglects local operational needs, the resultant economic benefits can be limited (Ansar et al., 2016). is echoed in analyses questioning the long-term economic viability of projects that do not encompass ongoing operational budgeting alongside their initial capital investments (Gb & Ajuwon, 2017). For operational success, stakeholders must consider not just the return on initial investment but the sustainable impact across various socio-economic dimensions, including public health, environmental effects, and community resilience (Poff et al., 2015).

Moreover, evaluating the sustainability of such infrastructure cannot ignore the potential for exacerbating existing inequalities among underserved populations. Evidence suggests that while urban areas may benefit from upgraded infrastructure, rural or poorer communities often remain distanced from these improvements, as operational capacities to maintain these structures regularly remain underfunded or mismanaged (Lateef & Abbas, 2023; Hussain et al., 2022). Consequently, a failure to incorporate effective operational mechanisms for infrastructure maintenance can hinder even the most ambitious capital projects intended to alleviate water scarcity in local regions.

The current literature thus calls for a more nuanced understanding of the dynamics governing infrastructure development and maintenance. Effective project management practices must exceed mere construction efforts and establish comprehensive frameworks, including community engagement and participatory governance mechanisms aimed at ensuring sustained access to necessary resources (Zhang et al., 2010; Brunet & Aubry, 2018). Such an approach could significantly enhance local ownership of infrastructure and heighten adaptability to changing economic and environmental conditions, ultimately increasing the structural resilience of water systems (Gorman, 2023).

Factors influencing the operational success of water projects are manifold. Political, economic, and technological dimensions must converge to align on a clear vision for both investment and sustainability (Lv et al., 2023; Nguri et al., 2025). For instance, secondary research highlights the pivotal role that socio-political frameworks play in determining the success or failure of infrastructure projects, particularly in developing economies where governance can be disparate and unpredictable (Dietler et al., 2021; Lokshin, 2005; Fedulova et al., 2020). Thus, reviewing active precedents suggests that merely focusing on initial infrastructure deployment is insufficient; perpetual stakeholder collaboration and adaptive management strategies are imperative for long-term viability.

Additionally, environmental sustainability becomes increasingly important when considering the implications of infrastructure projects on local ecosystems (Kalu et al., 2020; Khalid et al., 2023). Failing to incorporate sustainability into water project planning can trigger ecological imbalances that undermine the original purpose of such projects. Studies emphasise the need for ongoing ecological assessments as part of infrastructure maintenance protocols to preserve local biodiversity and ecosystem services (Kattel et al., 2019). integrative approach ensures that projects remain in harmony with the broader ecological landscapes they inhabit.

The financial aspects associated with infrastructure projects further exemplify the challenges of balancing CapEx and OpEx. Detailed examinations reveal frequent discrepancies between projected costs and actual expenditures, particularly in operational phases where initial budgets do not account for unexpected maintenance requirements or operational failures (Žerjav, 2015; Shrestha et al., 2022). Such discrepancies amplify the urgency for a shift towards investment paradigms focusing on lifecycle costing methods that emphasise long-term resource management strategies rather than short-term financial metrics.

As climate change exerts increasing pressures on existing water infrastructures, the vulnerability of poorly maintained systems becomes more apparent. Research highlights that climate-related disruptions underscore the need for robust infrastructure and necessitate that operational elements are agile enough to adapt to emerging environmental stresses (Orebiyi et al., 2024; Brown et al., 2023). Therefore, water infrastructure sustainability cannot be disentangled from operational strategies that consider the variability and risks associated with climate predictions.

In summary, while large-scale water infrastructure projects promise significant advancements in public health and quality of life, their efficacy is heavily reliant upon a dual focus on both capital and operational expenditures. The prevailing landscape of water infrastructure finance necessitates transformative frameworks that account for substantial initial investments and establish sustainable operational support. Practitioners and policymakers must collaborate to create holistic models that encompass the complete lifecycle of water infrastructure, ensuring that underprivileged communities genuinely benefit rather than face the consequences of intermittent access to vital resources.

 

1.2  The Allure of the Grand Project

The allure of large-scale infrastructure projects, such as monumental dams and extensive urban water supply systems, reflects a complex interplay of economic signalling, political ambition, and developmental ideology. Governments and donors are often captivated by the transformative potential these grand projects promise, as they represent progress, state capacity, and a pathway toward economic growth. However,  enthusiastic pursuit can obscure critical considerations related to the operational realities essential for sustained service delivery. The focus on monumental structures often acts as a distraction from the underlying necessities of effective water management systems, including skilled human resources, reliable energy supplies, adequate spare parts, and ongoing maintenance efforts.

As articulated in various studies, the financing of large water infrastructure projects often emphasises capital expenditure (CapEx) disproportionately compared to operational expenditure (OpEx) (Ruiters, 2013; Trebilcock & Rosenstock, 2015). imbalance can lead to significant inefficiencies once the initial euphoria over project completion dissipates. For instance, Mollel and Slawe highlight that while development aid can enhance water supply systems, it may broadly support CapEx without developing the accompanying operational capacity necessary for sustainable management (Mollel & Slawe, 2024). points to a troubling trend where, once completed, these infrastructural assets fall into disrepair due to insufficient operational support, leaving communities in need of water services without effective management solutions in place.

The importance of a public-private partnership (PPP) model in infrastructure delivery cannot be overstated. Studies have identified that partnerships can promote better financing options and operational efficiencies that might be lacking in traditionally government-led projects. Ruiters and Amadi-Echendu illustrate how PPPS can enhance the value chain within water services, allowing for improved infrastructure management and efficiency (Ruiters & Amadi-Echendu, 2022). However, despite viability, the emphasis on the construction of new infrastructure often takes precedence over ensuring that these systems can be effectively operated and maintained. Thus, while the intent is positive, the outcomes frequently underscore a need for a more holistic approach that harmonises both CapEx and OpEx from the outset.

Furthermore, rapid infrastructure projects must consider regional contexts and the unique challenges presented by local governance structures. The complexity of managing water supply has been illustrated in various studies that show decentralised governance can lead to uneven service distribution (Dithebe et al., 2019; Barnes, 2016). For instance, lessons from South Africa highlight systemic issues where local municipalities often lack the engineering expertise necessary for effective infrastructure management. Results in an overreliance on the private sector, which can lead to inefficiencies and failures due to a lack of accountability in service delivery (Ruiters, 2013). Such constraints underscore the necessity of aligning operational strategies with comprehensive capacity-building initiatives aimed at empowering local governments.

Evaluations of projects across different contexts consistently reveal that robust technical support and workforce training are crucial components often overlooked during planning and execution phases (Aiyetan & Das, 2021). The need for ongoing training for operational staff and reliable supply chains for maintenance parts must come to the forefront during the project conceptualisation stage; without these integral systems, even the most impressive infrastructure risks becoming moribund. A study exemplifying this is provided by Trebilcock and Rosenstock, who discuss how interdependencies between public and private sectors can facilitate the maintenance of capability throughout all phases of a project's lifecycle (Trebilcock & Rosenstock, 2015).

The impact of focusing disproportionately on CapEx is starkly visible in regions with intermittent water supply systems, where the expectation of significant infrastructure development does not translate into consistent access to safe drinking water. Research indicates that high levels of investment often do not correlate with improved service delivery if operational infrastructures are neglected (Klassert, 2023). Additionally,  operational neglect may transform healthy funding into long-term liabilities when maintenance costs spiral out of control, further straining public finances and undermining water accessibility goals.

The need for integrated approaches to infrastructure development and management has been widely recognised. Going beyond traditional perceptions of CapEx and OpEx requires a paradigm shift toward considering the lifecycle of projects, encompassing maintenance, community engagement, and economic sustainability as core principles of project design. Evidence from cases such as those discussed in community-managed water systems emphasises that local engagement not only fosters accountability but also ensures the sustainability of such projects by making local communities stakeholders in their success (Shah et al., 2022).

Moreover, public officials should actively engage in performance evaluations and maintain transparency about both the successes and shortcomings of infrastructure projects. As emphasised in several studies, such transparency is essential for fostering trust among project stakeholders and communities that depend on these services to meet their basic needs (Jeuland et al., 2022). Through robust monitoring frameworks and inclusive stakeholder engagement processes, infrastructure delivery can better respond to the needs and realities of the populations it aims to serve, creating truly sustainable outcomes.

In summary, while the grandiose visions of infrastructure projects carry considerable allure, real progress hinges on a steadfast commitment to developing the operational capabilities required for their ongoing success. Governments and international donors must pivot from merely pursuing landmark projects to creating integrated frameworks that balance capital expenditures with necessary operational investments and community engagement. Only through  holistic lens can infrastructure become a valid driver of development, enhancing life quality and access to essential services for all, particularly in underserved communities (Reidy, 2019; Potts et al., 2016).

 

1.3  When Infrastructure Becomes a Mirage

The phenomenon of large-scale infrastructure projects failing to deliver sustainable benefits to local communities underscores a pressing issue in development discourse, particularly in nations where maintenance and operational frameworks are neglected. In Malawi, research indicates that a significant proportion of rural boreholes and wells become non-functional within a short period of installation due to inadequate budget allocations for maintenance and repair services (Zaman, 2020). Statistics highlight a critical oversight in project planning: the failure to secure funding for operational expenses that ensure the longevity and functionality of these water sources. Similarly, in India, many piped water systems often lie underutilised because communities lack affordable electricity to operate pumps and qualified technicians to address technical issues such as leaks and outages (Ahmed et al., 2023).

The term "white elephant" is frequently invoked to describe infrastructure projects, which, despite substantial investments, fail to create the anticipated benefits, leaving communities with abandoned or non-operational facilities (Chineka et al., 2019). These failures can often be traced to systemic issues, including the exclusion of local beneficiaries in the planning processes, leading to infrastructure that does not meet actual community needs and thus lacks the necessary support for maintenance and operation (Zaman, 2020). When disconnect exists, funds allocated for capital expenditures do not translate into effective project performance, resulting in wasted resources and frustrated stakeholders (Díaz, 2020).

Examining why myriad infrastructure projects falter reveals that political and bureaucratic dynamics play a pivotal role. Political interference and favouritism often inflate costs or introduce unnecessary complexities in project implementation, dramatically impacting sustainability outcomes (Appel, 2012). For instance, favouritism in contractor selection can lead to increased procurement costs, delays in project delivery, and ultimately, projects that do not align with community needs (Ahmed et al., 2023). the politicisation of project planning and implementation not only fosters inefficiencies but can also alienate local communities from feeling ownership or responsibility for the infrastructure, further exacerbating sustainability challenges.

Moreover, the lack of proper training and resources to maintain new infrastructure is another element exacerbating project failures. Inadequate maintenance mechanisms, such as the absence of certified technicians who can repair and sustain equipment, result in productive assets becoming idle (Li & Wang, 2023). Infrastructure projects must not only invest in initial construction but also in ongoing capacity-building of local entities and individuals to ensure operational effectiveness. A critical component is frequently overlooked, contributing to failures in delivering promised benefits.

Furthermore, the systemic neglect of operational expenditures often results in infrastructure that serves as a mere illusion of progress, leading to the metaphorical concept of "mirages." Projects may be celebrated at inauguration ceremonies, but the absence of a follow-up plan to ensure ongoing maintenance and operational support leads to community disappointment when they find themselves without the promised services. The disconnect between project initiation and actual community functionality can manifest as abandonment and disenfranchisement (Mugejo et al., 2022).

Research into global public-private partnership (PPP) projects has indicated that misaligned risk strategies and project contract conditions can pave the way for outcomes wherein public interests are sidelined for private profit (Arezki et al., 2017). structural issue often leads to a focus on initial construction costs without considering the total cost of ownership over the project's life, resulting in adverse social outcomes where infrastructure fails to meet its intended purpose (RodríguezPose et al., 2018). It becomes increasingly clear that infrastructure projects require sustained oversight, involving thorough risk assessments that take into account financial, social, cultural, and environmental implications.

The environmental context of these infrastructure projects also significantly affects their successful implementation and longevity. Efforts to address water scarcity and resource management should be grounded in a clear understanding of local ecological dynamics and how infrastructure interacts with these systems (Mlambo, 2022). Studies have shown that infrastructure planning and operational management must include adaptive strategies that consider fluctuating environmental variables, community input, and ongoing educational initiatives to equip local populations with necessary skills for sustainable management practices (Kok et al., 2023).

In conclusion, the stark reality of infrastructure development in rural and underserved communities reveals an urgent need for a paradigm shift in how projects are planned, funded, and managed. Stakeholder engagement must be embedded in the early planning stages to ensure that projects meet real local needs and have the necessary resources allocated for long-term viability. Moving beyond a focus on capital investment alone, comprehensive planning that includes operational expenses is essential for ensuring these projects do not become mere mirages, reflecting the ambitions of external actors while leaving local populations without the essential services they were intended to provide.

Infrastructure projects intended to alleviate water scarcity in rural areas often suffer from a fundamental misalignment of priorities that undermines their intended outcomes. Evidence shows that procurement practices predominantly focus on capital expenditures (CapEx), the costs associated with the construction and implementation of these projects, rather than considering operational expenditures (OpEx), which encompass ongoing maintenance, repairs, and the operational sustainability required to keep such systems functioning effectively (Chumbula & Massawe, 2018). As a result, once these projects are completed, they often fall into disarray due to insufficient funds allocated for their upkeep, leading to a scenario where communities remain underserved and may be forced to rely on unsafe water sources (Cruz-Ayala & Megdal, 2020).

Research has highlighted the negligence in tracking the total costs necessary to sustain water projects over time. Many donor frameworks emphasise the completion of infrastructure, which is celebrated through ribbon-cutting ceremonies, yet these frameworks lack robust metrics to evaluate the functionality of these systems in the long term (Chumbula & Massawe, 2018). Oversight means that once the initial excitement surrounding project completion fades, it becomes evident that without consistent resources for repairs or replacements, these systems cannot serve their intended purpose. Ultimately, it leads to prolonged hardships for community members who were promised improved access to potable water.

In several instances, the absence of operational planning has resulted in communities experiencing significant downtime following the installation of water infrastructure. Reports indicate that many systems experience periods of inactivity due to broken pumps, lack of trained personnel to conduct repairs, or insufficient electrical supply for operations (Dukhovny et al., 2015). For example, in rural India, numerous piped networks stand dormant because residents cannot bear the costs of electricity needed to power water pumps, nor do they possess the skilled labour required to address infrastructural failures (Grépin et al., 2014).

Moreover, the operational challenges plaguing many water projects are further exacerbated by local governance issues and funding models that do not prioritise long-term maintenance. In regions like Iringa District in Tanzania, a study found that the sustainability of water supply projects heavily depends on local institutions and their ability to manage and fund operational costs (Chumbula & Massawe, 2018). Without engagement from local governance structures, projects can become ineffective, with significant amounts of investment leading to little in terms of functional outcomes for the communities they were designed to assist (Khan et al., 2019).

 Systemic misalignment reflects a broader issue within international aid prioritisation that often overlooks the nuanced realities of rural water management, where communities are left with unmet promises instead of usable infrastructure. Donors tend to pursue rapid outcomes and visible milestones, which align with their operational targets, but neglect to ensure that funded projects are equipped to handle the realities of ongoing water supply management (Ibrahim & Wan-Puteh, 2018). Consequently, many well-meaning interventions end up failing, with communities experiencing increased distance to water sources and enduring the dangers associated with using unsafe water.

Furthermore, critical success factors such as stakeholder engagement in the water management process are often inadequately addressed. Effective water project implementation requires the active involvement of community members who use and maintain the systems. When local input is disregarded, the chances of operational sustainability diminish (Anita et al., 2019). Thus, establishing a feedback loop where user feedback informs ongoing water management and infrastructure decisions is essential for creating resilient systems that genuinely respond to community needs.

An analysis of adverse outcomes in donor-funded water initiatives reveals that often these failures stem from a lack of strategic prioritisation regarding maintenance and operational capacity-building within the governing frameworks of the projects (Rasmussen et al., 2020). Such insights show that performance metrics for water projects should not solely focus on construction outputs but must also include functionality measures post-implementation, acknowledging aspects like repair times, availability of training for local technicians, and the financial viability of operational expenditures over the project lifecycle.

There is an urgent need for a paradigm shift that reconsiders how water projects are designed, funded, and evaluated. Moving away from a simplistic focus on infrastructure completion to a more integrated view that encompasses both CapEx and OpEx can lead to improved outcomes. Essential to shift is promoting accountability mechanisms that keep all stakeholders, including government entities, local communities, and donors, aligned with the goals of long-term sustainability and operational efficiency (Yang et al., 2024).

In conclusion, to address the misalignment seen in many rural water infrastructure projects, stakeholders must adopt a more comprehensive framework that not only facilitates the construction of systems but also supports their operation and maintenance. strategic alignment ensures that communities are not left abandoned after the initial excitement of a project launch but are empowered to manage their water resources effectively over the long term (Pitt et al., 2017).

 

1.4  Why CapEx Bias Persists

The persistence of a capital expenditure (CapEx) bias in infrastructure investment, particularly in the water supply sector, can be attributed to several interrelated factors driven by political incentives, donor reporting practices, financing norms, and a lack of comprehensive data tracking regarding service levels over time. Each of these elements compounds to create an environment where the focus on initial construction overshadows the necessity for ongoing operational support, ultimately perpetuating a cycle of underinvestment in essential maintenance activities.

Political Incentives: One of the primary drivers of the CapEx bias is the nature of political incentives that incentivise elected officials to pursue projects that yield palpable results within their terms. Completing a large infrastructure project, such as a dam or a pipeline, serves as a clear, visible win that can sway public opinion and garner votes. Conversely, the routine tasks associated with maintenance and operational support, while critical for ongoing service delivery, do not capture the public's attention in the same way and therefore receive less political urgency. Leads politicians to prioritise spectacular projects over the long-term sustainability needs of existing infrastructure.

Donor Reporting Practices: The political dynamic is further compounded by the reporting frameworks of international donors, which frequently tie the disbursement of funds to construction milestones rather than to the actual functionality and sustainability of the projects. Aid agencies often celebrate metrics such as "miles of pipe laid" but neglect to monitor how long the new infrastructure remains operational after completion. Consequently,  emphasis on short-term outputs rather than long-term outcomes reinforces the CapEx bias. If the criteria for success centre exclusively around initial constructions rather than ongoing service provision, planners may inadvertently devalue the critical maintenance and operational tasks that ensure the delivery of clean water.

Financing Norms: Furthermore, the capital markets tend to favour financing for large capital projects over lines of credit for ongoing operational expenditures. International banks and bond markets often underwrite significant infrastructure investments, viewing them as more tangible and less risky from a financial perspective than funding operational support. Mismatch in financing preferences leads to projects that may be successfully built but are insufficiently funded to sustain ongoing maintenance, creating a disconnect between the capability to construct and the ability to maintain.

Neglected Data and Performance Tracking: A significant obstacle to addressing the CapEx bias is the lack of rigorous tracking of service-level performance over time. Few countries consistently record critical metrics on infrastructure functionality, and when they do gather data, the findings often reveal alarming drop-off rates in service reliability shortly after project completion. These statistics, however, rarely inform future funding decisions, leading to a systemic neglect of operational needs in favour of future capital investment initiatives. The absence of historical data on service failures or operational capabilities exacerbates the issue; as long as construction success is defined narrowly in terms of visible achievements, the essential operational tasks that sustain water systems will remain undervalued and underfunded.

When combined, these systemic factors create a vicious cycle that prioritises CapEx at the expense of OpEx. To break the cycle, there is an urgent need for a paradigm shift in how infrastructure investments are approached. Policymakers must recognise the importance of budgeting not only for the initial costs of construction but also for the lifetime operational expenses necessary to ensure the sustainability and efficiency of water systems. Shift would require comprehensive assessment frameworks that integrate both CapEx and OpEx into project evaluations, incentivising long-term planning and resource allocation that favour the ongoing health of critical infrastructure.

In conclusion, the persistence of CapEx bias can be attributed to an interplay of political motives, donor practices, financing norms, and gaps in data. Recognising these challenges presents an opportunity to realign priorities in infrastructure planning, ensuring that projects not only reach completion but remain functional and serve their communities effectively over time. Without recognition and subsequent adaptation in strategies, the cycle of misaligned infrastructure investment and maintenance undermines the long-term sustainability of water systems and continues to adversely affect underserved communities globally.

1.5  A Call for Lifecycle Thinking


Shifting the paradigm in water infrastructure planning and funding necessitates a streamlined approach to lifecycle thinking, emphasising the importance of operational expenditures (OpEx) alongside capital expenditures (CapEx). The proposed framework for achieving transformation includes embedding lifecycle costing into project budgets, adopting relevant performance metrics, empowering local utility operators, and fostering transparency in resource allocation and service outcomes.

Embed Lifecycle Costing: A fundamental aspect of the new framework is the requirement that a significant portion of the total project budget be earmarked for OpEx over the first five to ten years of operation. Allocation is crucial for ensuring that infrastructure is not just built but also maintained and operated effectively. Research indicates that projects that incorporate lifecycle costing from inception tend to demonstrate improved performance and sustainability outcomes (Koop & Leeuwen, 2015). Implementing such measures can also lead to better financial planning, ensuring that essential services are not compromised due to unforeseen operational costs (Ward et al., 2014).

Adopt Performance Metrics: To further ensure the effectiveness of water systems, the adoption of performance metrics has become imperative. Metrics such as uptime, repair response times, and per capita service levels must be tracked systematically to assess the operational efficacy of water supply systems. Linking future funding to demonstrated service continuity creates a robust accountability framework, incentivising operators to prioritise maintenance and ensuring that service delivery meets community needs. Practice is supported by studies where performance metrics have been shown to correlate with enhanced service delivery and customer satisfaction (Vásquez, 2012).

Empower Utilities: Granting local utility operators autonomy over tariff structures and maintenance planning is another critical change. By allowing these entities to determine pricing and manage their operations, they can better align services with local economic realities and user needs. Research has highlighted that decentralising responsibilities fosters a sense of ownership and accountability among utility managers, leading to more responsive service delivery (Gupta et al., 2012). Technical backstopping—not micromanagement—ensures that local operators receive the necessary support while maintaining the agency's ability to make operational decisions. Collaborating with local authorities and stakeholders is crucial to adapting services to their operational environments, ultimately fostering resilience in service provision (Rubin, 2011).

Foster Transparency: Lastly, fostering transparency by publishing budgets, expenditures, and service outcomes is vital in building trust with communities and oversight bodies. Transparency allows stakeholders to engage meaningfully in the governance process, thus promoting civic accountability and empowering communities to demand quality services. Encouraging participatory governance models in service delivery enhances accountability and improves overall community satisfaction with water systems (Suryani et al., 2022). Evidence indicates that when communities have access to information about operational expenditures and service performances, they are more likely to support and sustain initiatives (Scott, 2019).

In conclusion, transforming water access from a one-time event into a continuous public good depends significantly on rethinking how success is defined and funded. By embedding lifecycle costing into project budgets, adopting meaningful performance metrics, empowering local utilities, and fostering transparency, planners and stakeholders can ensure that infrastructure projects deliver enduring benefits to communities. Transition not only enhances the sustainability of water systems but also empowers communities to actively participate in their governance and management, leading to better, more equitable access to critical resources.

 

1.6  Case Example: Rural Mozambique

 The case study from rural Mozambique provides a compelling illustration of how integrated planning can yield significant improvements in water service delivery. Conducted as part of a World Bank-supported project, the initiative emphasises the importance of treating infrastructure as a system that requires not only construction but also ongoing support and maintenance. The approach taken in Mozambique has demonstrated key strategies leading to enhanced service reliability. Example offers critical insights into how effective infrastructure management can be achieved through careful consideration of operational needs alongside capital investments.

First and foremost, the establishment of preventive maintenance teams was crucial in ensuring the sustainability of the newly built community water points. By training local mechanics and providing them with toolkits, the project empowered community members to perform scheduled pump inspections. A proactive maintenance strategy has been shown to significantly decrease downtime, as local repairs can be conducted swiftly, thus enhancing overall reliability. Effective monitoring and regular maintenance are essential for preventing breakdowns and ensuring that water systems remain functional.

Additionally, implementing a cost recovery tariff system was an innovative element that demonstrated financial sustainability and community ownership. Villagers paid modest fees that were aligned with local income levels, allowing them to collectively finance essential components such as spare parts and energy costs. Strategy not only ensures that funds are available for ongoing maintenance, but it also fosters a sense of ownership among community members, making them more likely to engage in the management and sustainability of their water resources. Research shows that when communities are involved financially in service delivery, there is often a corresponding increase in satisfaction and stewardship of local infrastructure.

Another important aspect of the integrated approach was the establishment of institutional linkages between local water offices and the communities they served. By providing technical support and conducting performance audits, district water offices ensured that community operators received the ongoing assistance necessary for effective management. Systematic approach aligns with best practices in the field, reinforcing how an integrated governance framework that emphasises collaboration between community-based organisations and government entities can enhance service delivery outcomes.

The positive changes observed in Mozambique—such as reduced breakdowns, faster repair times, and increased trust among community members—underscore the argument that the value of infrastructure lies not merely in the physical structures created, but also in the services they provide. Realisation highlights the necessity of adopting a lifecycle perspective in infrastructure planning, which prioritises not just the initial investment but also the long-term operational success and maintenance of water systems.

Moreover, moving towards integrated planning requires the alignment of various stakeholders' interests and contributions throughout the project lifecycle. As the case shows, project success is contingent upon collaborative relationships among community members, local operators, and governing bodies. Future policies and funding models should consider these collaborative efforts as central to water service sustainability. Addressing the interconnectedness of technical skills, financial models, and governance frameworks broadens the conversation around infrastructure planning, sustainability, and community engagement in water management.

In summary, the case example from rural Mozambique illustrates how integrated planning and comprehensive operational strategies can dramatically enhance the functionality and reliability of water supply systems. Through preventive maintenance initiatives, cost recovery mechanisms, and robust institutional support, it is evident that a lifecycle thinking approach is essential for transforming infrastructure into a sustainable public good. By prioritising not just the construction of water points but the systems designed to maintain and support them, stakeholders can ensure the enduring success of water infrastructure projects, resulting in improved access to clean water for communities.

 

1.7  Case Study 1: Decentralised Water Systems in Rural India

The case study highlighting the decentralised water systems in rural Rajasthan, India, serves as an exemplary model for demonstrating how integrated, community-led approaches can effectively overcome the challenges typically associated with large, capital-intensive infrastructure projects. The rainwater harvesting program initiated by local non-governmental organisations (NGOS) and state agencies emphasises the value of local solutions that prioritise sustainability and community engagement over expensive centralised systems.

Sustainable Funding: One of the core successes of the initiative was the establishment of sustainable funding mechanisms. By leveraging a combination of government subsidies and microfinance loans, the project ensured that it had adequate resources not only for the initial installation of rooftop catchment tanks but also for ongoing maintenance. The dual-funding approach allowed the community to build a resilient water supply system while mitigating reliance on external funding sources, thereby creating a model that can be adapted to other regions facing similar challenges.

Low-Cost Maintenance: Training villagers to manage and maintain the systems represented another critical factor in the project's success. By educating local community members on how to clean filters and repair valves using available materials, the initiative reduced dependency on outside experts for maintenance. Studies illustrate that when communities are equipped with the necessary skills to maintain their infrastructure, it significantly enhances the sustainability and operational efficiency of water systems. Empowerment of local stakeholders facilitates a quicker response to issues and fosters a sense of ownership over the water supply systems.

Community Ownership: The establishment of village water committees to manage tariff collection and schedule filter replacements further solidified community ownership of the system. Engaging the community in the management process not only ensures accountability but also cultivates a greater commitment to the sustainability of the program. When local populations actively participate in decision-making processes regarding tariffs and maintenance schedules, they are more likely to take pride in their infrastructure, ensuring its operational longevity and robustness.

Prioritising Affordability and Local Involvement: By emphasising locally appropriate solutions such as rooftop catchment tanks and simple sand filters rather than large pumps and extensive pipelines, the project was able to maintain functionality during dry seasons and leadership transitions. Resilience demonstrates how adaptations that prioritise affordability and local involvement can successfully contribute to sustainable water supply systems. The ease of managing these decentralised systems ensures that they remain operational even amid changing political landscapes, which is often a weakness of more significant centralised systems.

The positive outcomes resulting from the case study indicate that when planners integrate community needs with sustainable funding and maintenance strategies, water access transforms into an enduring public good rather than a one-off event. The Rajasthan model serves as a viable blueprint for other regions grappling with water scarcity, illustrating that grassroots innovations can effectively address local challenges when incorporated into a broader sustainable development framework.

 An integrated approach is supported by relevant literature that underscores the benefits of decentralised water management systems. For instance, one study highlights the potential of rainwater harvesting systems to improve community resilience in water-scarce regions, aligning with global goals for sustainable development. Furthermore, the recent emphasis on local solutions in water management reflects a growing recognition of the need for sustainable practices in mitigating water crises globally.

In conclusion, the case of rural Rajasthan exemplifies the advantages of decentralised, community-driven water systems. The successful implementation of low-cost, locally-managed rainwater harvesting not only addresses immediate water needs but also fosters a sense of community ownership and resilience. Given the increasing pressures on water resources due to climate change and urbanisation, the model can serve as a vital reference point for policymakers and practitioners in their efforts to develop sustainable water supply solutions.

 

 1.8  Case Study 2: The Failure of the Lesotho Highlands Water Project

The Lesotho Highlands Water Project (LHWP), Africa's largest water transfer scheme, presents significant challenges in infrastructure development, notably regarding top-down planning. It was intended to channel water from the mountainous region of Lesotho to South Africa's industrial heartland, but it has faced substantial hurdles throughout its implementation, undermining its original objectives. The key factors leading to its struggles can be categorised as overdependence on foreign loans, neglect of operational expenditures, and social displacement, which collectively burdened marginalised communities.

Overdependence on Foreign Loans: A critical flaw in the LHWP was its significant reliance on foreign loans to finance large infrastructure initiatives for water delivery. The debt servicing necessitated by these loans diverted vital budgetary resources that could have been allocated for maintenance and operational needs. Overdependence on external funding often leads to a cycle where prioritising debt payments results in austerity measures that negatively impact infrastructure sustainability (Uribe, 2018). Ensuring consistent funding is essential for maintaining the functionality of infrastructure assets, especially in water supply projects.

Neglected OpEx: The neglect of operational expenditures manifested through the deterioration of infrastructure, particularly ageing pumps and corroded pipelines. Effective water supply management in similar large projects necessitates a balanced focus on both capital expenditures (CapEx) and operational expenditures (OpEx) (Amiril et al., 2018). In the LHWP's case, ageing equipment led to substantial water loss that far outweighed management's ability to address necessary repairs, compounding issues related to non-revenue water—water produced but unbilled—due to operational neglect (Roumboutsos et al., 2020).

Social Displacement: The project also resulted in the displacement of thousands of rural families who lost their land and livelihoods. Reports suggest many of these individuals received inadequate compensation and support, leaving them vulnerable to economic and social instability (Mbiba, 2022). forced removal from their homes bred resentment among displaced communities and hindered the project's social acceptance. Studies have shown that infrastructure developments often exacerbate existing inequalities and deepen community divisions when social factors are overlooked during planning (Watts et al., 2022; Johnson, 2023).

Ultimately, these factors contributed to rising non-revenue water rates, frequent unscheduled outages, and a profound sense of betrayal among communities that were promised benefits from the project. The ongoing failures illustrated that the LHWP's initial vision faltered, signalling the need for future infrastructure planning to consider both the maintenance resources required for sustained operations and the social impacts of development decisions.

In summary, the LHWP serves as an example of the risks associated with top-down planning that ignores operational management and community engagement. Although designed to deliver water to a neighbouring country, its execution revealed critical deficiencies in financial planning and social responsibility. The lessons learned from the LHWP highlight the necessity for integrated, community-focused approaches in infrastructure planning, emphasising the balance between initial investments, ongoing service delivery, and the welfare of affected populations.

 

1.9 Why Funding & Maintenance Models Matter

The dynamics surrounding funding and maintenance models are paramount to ensuring sustainable service delivery in water supply projects. Three core dynamics—the CapEx trap, the OpEx blind spot, and the balance between community and corporate control—highlight the challenges and opportunities within infrastructure management. Understanding these elements is essential for leveraging resources effectively to provide lasting benefits to communities dependent on water infrastructure.

The CapEx Trap: The CapEx trap refers to the tendency for flashy, high-cost projects to win approval from stakeholders, often overshadowing the requisite follow-through regarding maintenance and sustainable operations. Initiatives that prioritise extravagant construction tend to attract more attention and funding; however, once these projects are completed, they frequently lack the necessary mechanisms to maintain ongoing services. Projects focused primarily on capital investments often experience systemic breakdowns shortly after completion due to inadequate operational support and planning, resulting in increased costs and service interruptions. In essence, while initial investments may yield impressive infrastructure, their long-term success remains contingent on a holistic view that incorporates maintenance considerations from the outset.

The OpEx Blind Spot: Similarly, the OpEx blind spot signifies the crucial oversight of ongoing operational needs. Regardless of how well-constructed water systems may be, they cannot function effectively without trained personnel, spare parts inventories, and assured funding for day-to-day operations. Concern is exacerbated when policymakers and planners neglect to prioritise the allocation of resources for operational expenditures, leading to significant gaps in service delivery. Effective operational management, including routine maintenance and staff training, is critical for preventing infrastructure failures. When the focus solely rests on capital outlays, the long-term viability of water supply systems diminishes, triggering a negative spiral where maintenance becomes an afterthought rather than an integral part of infrastructure planning.

Community vs. Corporate Control: The third dynamic concerns the distinction between community-managed and corporately operated systems. While privatisation and corporate management can introduce efficiency incentives and financial discipline into water service delivery, they can also result in the exclusion of marginalised populations if not properly regulated. Evidence suggests that poorly regulated private operators may deprive poorer households of essential services due to pricing structures that are unaffordable for them. In contrast, public community partnerships tend to foster better accountability through local governance, ensuring that community needs are prioritised alongside professional expertise. Alignment has been shown to enhance user satisfaction as community personnel manage water resources while working closely with formal technical support structures.

In summary, the sustainability of water service delivery requires a comprehensive understanding and strategic planning around funding and maintenance models. Addressing the CapEx trap, recognising the operational needs highlighted by the OpEx blind spot, and balancing community control with corporate efficiency represent crucial steps for developing resilient water supply infrastructures. As demonstrated in successful case studies, effective management models that integrate financial sustainability, community engagement, and ongoing operational support will lead to better outcomes for communities reliant on these vital services.

 

1.10   Lessons for Future Projects

To avoid the pitfalls experienced in past water infrastructure projects and to enhance the sustainability of future initiatives, water planners should adopt several key strategies. These measures are designed to address long-term operational needs while ensuring community engagement and accountability:

  1. Budget for the Long Term: It is recommended that a significant portion of project costs be allocated for ongoing operational expenditures (OpEx) over the first five to ten years, with these funds secured before construction begins. The approach emphasises the importance of planning for both initial capital investments and the resources necessary for maintaining and managing water systems effectively over time. Allocating a substantial portion of the budget to OpEx can improve the longevity of water infrastructure and help prevent neglect due to short-sighted financial planning.
  2. Empower Local Stakeholders: Investing in training programs that equip local community members with the necessary skills for managing basic repairs and financial oversight is essential. By fostering local capabilities, planners can cultivate a sense of ownership among community members and ensure their active involvement in the operation and upkeep of water systems. Enabling communities to manage their resources leads to improved responsiveness to local needs and can enhance the sustainability of water delivery systems.
  3. Choose Transparent Financing: Favouring grant and hybrid financing models over debt-heavy loans can help ensure that water projects remain financially viable. Reliance on loans can lead to significant financial burdens affecting maintenance budgets and long-term sustainability. By seeking transparent funding options, planners can support ongoing service delivery and avoid austerity measures often triggered by accumulating debt obligations. Transparent financing facilitates accountability and ensures effective utilisation of public resources.
  4. Institute Performance-Based Disbursements: Linking future funding tranches to demonstrated service delivery milestones provides a mechanism for accountability and performance monitoring. By employing performance-based disbursement strategies, planners can assess the effectiveness of water system operations relative to community expectations and resource availability. alignment between funding and performance encourages a commitment to improving service quality while offering a tangible way to measure progress over time.

These lessons highlight the integral components for successful and sustainable water infrastructure projects. Collaborative development partners working towards a shared vision focused on service continuity and community engagement can pave the way for communities to achieve reliable access to water.

In synthesising these principles, it is evident that sustainable water management requires a paradigm shift prioritising operational needs and community involvement. Such transformations are critical not only for the efficacy of individual projects but also for the broader goal of equitable water access in underserved communities.

 
1.11  Conclusion

In conclusion, practical water infrastructure projects are evaluated not by monumental constructions but by their ability to deliver consistent and reliable services. As climate change intensifies challenges like drought and urban demand, it becomes imperative for stakeholders to redefine success metrics and funding paradigms. By emphasising the significance of operational sustainability alongside capital investments, planners can address the growing gap between capital expenditures (CapEx) and operational expenditures (OpEx) funding.

To transform water systems from fleeting promises into resilient lifelines, water planners must adopt several critical approaches: budgeting for long-term operational needs, empowering local stakeholders through education and training, prioritising transparent financing models, and instituting performance-based funding mechanisms. These strategies will ensure that communities receive not only the infrastructure they need but also the ongoing support and resources required to maintain it over time.

Reflecting on the potential impacts of these strategies, a local water project in my community serves as an illustrative example. The successful implementation of a community-managed rainwater harvesting system highlights the importance of well-planned and maintained water infrastructure. Unlike larger, centralised systems that often falter due to financial constraints or operational neglect,  project thrived because it incorporated training for community members and established sustainable funding mechanisms, consistent with findings in the literature that underscore the importance of community involvement and capacity building for sustainable water management Thelemaque et al. (2022) (Ogata et al., 2024; Chumbula & Massawe, 2018).

Conversely, a failed project in the area, rooted in top-down planning and an overreliance on foreign loans, demonstrates the consequences of neglecting maintenance and community involvement. As a result, the initiative left affected populations grappling with inadequate water access and diminished trust in local governance. Studies have consistently shown that neglecting local engagement can lead to unsustainable outcomes for community water projects (Hassan et al., 2020).

The lessons drawn from these experiences emphasise that collaborative efforts focused on inclusivity, transparency, and long-term planning can vastly improve the efficacy of water projects and yield tangible benefits for the communities they serve. With a commitment to these principles, we can work together to ensure reliable access to clean water for all, fulfilling the essential human right that it represents.

  

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