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Three Horizons Framework

for Water collection, treatment and supply (ISIC 3600)

Industry Fit
9/10

The water utility sector is inherently long-term oriented, with asset lifecycles spanning decades and planning horizons extending 20-50 years for water security. It is highly capital-intensive and faces significant pressures from aging infrastructure, climate change, regulatory evolution, and...

Strategy Package · Portfolio Planning

Apply together to allocate resources, sequence investments, and plan multiple horizons.

Why This Strategy Applies

A framework for managing growth and innovation across short-term (H1: Defend/Extend), mid-term (H2: Build), and long-term (H3: Future) timeframes.

GTIAS pillars this strategy draws on — and this industry's average score per pillar

IN Innovation & Development Potential
FR Finance & Risk
MD Market & Trade Dynamics

These pillar scores reflect Water collection, treatment and supply's structural characteristics. Higher scores indicate greater complexity or risk — see the full scorecard for all 81 attributes.

Short, medium, and long-term strategic priorities

H1
Defend & Extend 0–18 months

Optimize the performance and reliability of existing water collection, treatment, and distribution infrastructure to ensure consistent service delivery and operational efficiency, while proactively managing aging assets and stakeholder expectations amidst 'Underinvestment & Infrastructure Gap' (MD03).

  • Implementation of advanced leak detection technologies (e.g., acoustic sensors, satellite imagery) for proactive repair programs, reducing non-revenue water loss.
  • Deployment of AI-driven predictive maintenance platforms for pumps, pipes, and treatment plant equipment to minimize unplanned outages and extend asset lifecycles.
  • Upgrade of SCADA systems with enhanced cybersecurity measures and real-time operational dashboards for centralized monitoring and rapid incident response.
  • Optimization of energy consumption at pumping stations and treatment facilities through variable frequency drives (VFDs) and process adjustments.
Non-Revenue Water (NRW) percentage reduction target (e.g., 2% reduction year-over-year).Number of unplanned service interruptions per 100 km of network.Energy consumption (kWh) per cubic meter of water treated and supplied.
H2
Build 18m–3 years

Develop and integrate new capabilities to enhance system resilience against climate change impacts and increasing demand, explore diversified water sources, and improve resource management efficiency, shifting traditional 'future' concepts into actionable growth initiatives, despite 'High R&D Investment & Long Adoption Cycles' (IN03).

  • Pilot and scale up advanced water reuse technologies (e.g., Indirect Potable Reuse (IPR) or Direct Potable Reuse (DPR)) to supplement existing water supplies.
  • Implementation of smart metering infrastructure across key service areas to enable real-time demand management, leakage alerts, and customer engagement.
  • Development of integrated stormwater management and groundwater recharge projects to enhance local water resilience and mitigate flood risks.
  • Rollout of network pressure management zones with intelligent valve controls to reduce pipe stress, conserve water, and optimize energy use.
Percentage of total water supply derived from reclaimed or alternative sources.Coverage rate of smart water meters across the service population.Reduction in peak water demand variability through demand-side management programs.
H3
Future 3–7 years

Invest in disruptive technologies and novel business models to fundamentally transform the water sector, ensuring long-term sustainability, resource independence, and new value creation, while navigating significant 'Regulatory Hurdles for New Technologies' (IN03) and 'Funding Gaps & Political Volatility' (IN04).

  • Research and development of next-generation desalination technologies (e.g., membrane distillation, forward osmosis) with lower energy consumption and advanced brine management.
  • Establishment of urban decentralized water treatment and recycling hubs for specific districts or large commercial facilities, reducing reliance on centralized systems.
  • Development of 'Water-as-a-Service' (WaaS) business models for industrial clients, offering tailored water management, treatment, and reuse solutions.
  • Exploration and piloting of atmospheric water harvesting technologies for localized, emergency, or remote water supply applications.
Number of pilot projects for novel water supply or treatment technologies initiated and evaluated.Percentage of operational budget allocated to H3 R&D and innovation initiatives.New revenue streams generated from non-traditional water services or resource recovery (e.g., nutrient sales).

Strategic Overview

The 'Water collection, treatment and supply' industry faces complex, long-term challenges including aging infrastructure, climate change impacts, increasing regulatory demands, and the need for sustainable resource management. The Three Horizons Framework offers a structured approach to manage these concurrent demands, allowing utilities to optimize current operations (H1), build new capabilities and technologies (H2), and explore disruptive, long-term solutions (H3) without sacrificing immediate stability. This is crucial for navigating 'Underinvestment & Infrastructure Gap' (MD03), 'Capacity Planning & Climate Risk' (MD04), and 'Financing Infrastructure Replacement' (MD08) while ensuring future water security.

Applying this framework allows water utilities to strategically allocate resources, foster innovation, and build resilience across different timeframes. It helps balance the immediate need to maintain and optimize existing systems with the imperative to adapt to future environmental, technological, and societal shifts. By explicitly planning for each horizon, utilities can proactively address funding gaps, integrate new technologies, and engage stakeholders in a coherent, forward-looking manner, thereby mitigating risks and securing long-term viability in a capital-intensive and publicly scrutinised sector.

5 strategic insights for this industry

1

Balancing Long-Term Investment with Short-Term Affordability

The industry's long asset lifecycles and high capital expenditure demands mean H1 (maintenance), H2 (upgrades), and H3 (R&D) investments must be carefully balanced against 'Ratepayer Affordability & Acceptance' (IN05) and 'Limited Revenue Flexibility' (FR01). Strategic horizon planning helps justify long-term investments by showing their contribution to future resilience and cost-efficiency.

2

Climate Risk Accelerates H2/H3 Importance

Increasing 'Capacity Planning & Climate Risk' (MD04) means that traditional H3 'future' concepts like desalination, advanced water reuse, or atmospheric water harvesting are rapidly shifting into H2 'growth' initiatives, requiring accelerated investment and development despite 'High R&D Investment & Long Adoption Cycles' (IN03).

3

Digital Transformation Spans All Horizons

Digital tools and data analytics are not confined to a single horizon. They improve H1 operational efficiency (e.g., predictive maintenance), enable H2 smart infrastructure (e.g., smart meters, intelligent networks), and are foundational for H3 innovations (e.g., AI-driven resource modeling). Addressing 'High Cost & Complexity of Digital Transformation' (IN02) requires a phased, horizon-aligned approach.

4

Regulatory & Funding Constraints for H2/H3 Innovations

New technologies and bold H3 visions often face significant 'Regulatory Hurdles for New Technologies' (IN03) and 'Funding Gaps & Political Volatility' (IN04). A Three Horizons approach helps articulate the value proposition of H2/H3 projects to regulators and funders, demonstrating strategic foresight beyond immediate compliance.

5

Talent Development for Future Challenges

H2 and H3 initiatives require new skill sets (e.g., data scientists, climate modelers, advanced engineering). Addressing 'Operational Continuity and Expertise Loss' (CS08) and attracting 'Talent Attraction and Retention Deficit' necessitates strategic workforce planning aligned with future technological horizons.

Prioritized actions for this industry

high Priority

Allocate Dedicated Budgets and Teams per Horizon

To prevent H2/H3 initiatives from being continuously deprioritized by H1 demands, explicitly ring-fence budgets and assign dedicated teams for each horizon. This directly combats 'Funding Gaps' (IN04) and ensures 'Innovation Option Value' (IN03) is realized.

Addresses Challenges
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high Priority

Develop a Holistic Technology and Resilience Roadmap

Map specific technologies (e.g., smart meters, advanced purification, AI for network management) and climate adaptation strategies to each horizon, demonstrating how they build on each other to achieve long-term 'Water Security and Stress' (FR04) and resilience against 'Climate Risk' (MD04).

Addresses Challenges
medium Priority

Foster Cross-Sector Partnerships for H2/H3

Collaborate with research institutions, tech firms, and other utilities to share 'R&D Burden' (IN05) and accelerate the adoption of H2/H3 technologies. This mitigates 'High R&D Investment' (IN03) and leverages external expertise for 'Development Program & Policy Dependency' (IN04).

Addresses Challenges
high Priority

Proactively Engage Regulators and Public on H2/H3 Value

Communicate the long-term benefits and necessity of H2/H3 investments (e.g., climate resilience, water security) to secure 'Ratepayer Affordability & Acceptance' (IN05) and navigate 'Regulatory Hurdles' (IN03) and 'Political Weaponization of Water Pricing' (MD01).

Addresses Challenges
medium Priority

Implement Agile Experimentation for H3 Concepts

For H3 initiatives, adopt a 'fail-fast' approach with small-scale pilot projects and proof-of-concepts. This minimizes 'Investment Uncertainty' (DT04) and 'Risk Insurability' (FR06) associated with highly novel solutions, allowing for learning and adaptation before significant capital commitments.

Addresses Challenges

From quick wins to long-term transformation

Quick Wins (0-3 months)
  • Formally categorize current projects and initiatives into H1, H2, and H3 to gain immediate visibility into resource allocation.
  • Establish an 'Innovation Council' with cross-functional leadership to review and prioritize horizon-spanning projects.
  • Begin a talent gap analysis to identify future skill needs for H2/H3 initiatives.
Medium Term (3-12 months)
  • Develop specific KPIs and funding mechanisms for H2 projects, including pilot programs for smart infrastructure or advanced analytics.
  • Launch public engagement campaigns explaining the need for long-term investments and new technologies (H2/H3) to manage 'Political Weaponization of Water Pricing' (MD01).
  • Formalize partnerships with academic institutions or technology providers for joint H2/H3 research and development.
Long Term (1-3 years)
  • Integrate climate change scenarios and future demand projections into a dynamic H3 strategic planning process, reviewing annually.
  • Establish an 'innovation sandbox' or dedicated R&D facility for testing highly novel H3 technologies without disrupting H1 operations.
  • Implement a 'digital twin' strategy to model and optimize H1, H2, and H3 infrastructure scenarios comprehensively.
Common Pitfalls
  • Underfunding or deprioritizing H2 and H3 in favor of immediate H1 operational needs.
  • Lack of clear differentiation between horizons, leading to 'innovation theater' without tangible outcomes.
  • Failure to secure regulatory and public buy-in for future-focused investments.
  • Organizational resistance to adopting new technologies or methods, hindering progress in H2/H3.
  • Lack of strong governance and portfolio management across horizons, leading to fragmented efforts.

Measuring strategic progress

Metric Description Target Benchmark
R&D Spending as % of Revenue Tracks investment in future-oriented research and development initiatives. Increase R&D spending by 0.5-1% annually, targeting 2-3% of operational revenue for H2/H3.
Innovation Project Pipeline Value Measures the number and potential impact of projects categorized into H2 and H3. Maintain a pipeline of at least 10 active H2 projects and 5 active H3 exploratory initiatives.
Water Security Index (e.g., drought resilience score) Holistic measure of a utility's capacity to provide water under various stress conditions, reflecting H2/H3 success. Improve resilience score by 5-10% every 5 years through horizon investments.
New Technology Adoption Rate Percentage of relevant new technologies successfully piloted and integrated into operations (H2). Achieve 75% adoption rate for successfully piloted H2 technologies within 3 years post-pilot.
Ratepayer Acceptance for Infrastructure Projects Measures public support for rate adjustments or bond measures funding H2/H3 initiatives. Maintain >60% public support for key capital investment proposals linked to future water security.