Climate Resilient Technologies Market

Executive Summary

The Global Climate Resilient Technologies Market is undergoing a massive structural acceleration, transitioning from a niche public sector focus to a critical pillar of enterprise risk management. The market size is valued at USD 17.5 billion in the base year of 2025. Driven by the escalating frequency of extreme weather events and tightening regulatory mandates, the market is projected to reach USD 90.5 billion by 2035, expanding at a robust Compound Annual Growth Rate (CAGR) of 17.8% during the forecast period of 2026 to 2035. This growth trajectory highlights a fundamental shift in capital allocation, where defensive infrastructure spending is now viewed as a prerequisite for business continuity and supply chain survivability.

The primary growth driver propelling this market is the undeniable economic toll of climate-induced disruptions on global logistics, energy grids, and critical civic infrastructure. Corporations and municipalities are no longer relying solely on historical weather data; they are actively integrating forward-looking climate risk models into their operational frameworks. A key opportunity lies in the digitization of physical assets, specifically the deployment of artificial intelligence and Internet of Things sensors for predictive asset hardening. By anticipating environmental stressors through high-fidelity data, organizations can trigger automated defensive protocols, thereby mitigating damage before a physical impact ever occurs.

Regionally, North America dominates the global landscape in 2025, heavily supported by substantial federal allocations such as the U.S. Infrastructure Investment and Jobs Act. However, the Asia Pacific region exhibits the most aggressive growth outlook. Rapid urbanization coupled with acute vulnerability to coastal flooding and typhoons is forcing governments in the Asia Pacific to leapfrog legacy systems and adopt advanced, climate-adapted urban planning. The most significant strategic industry shift currently underway is the convergence of software analytics with heavy civil engineering. Vendors that can bridge the gap between predictive climate data and physical infrastructure reinforcement are capturing the highest profit margins and locking in long-term municipal and enterprise contracts.

Real-World Operational Overview

In real-world applications, climate resilient technologies function as the foundational defense mechanisms that keep modern economies operational during severe environmental shocks. The implementation of these technologies spans a diverse array of physical and digital interventions designed to preemptively counter environmental volatility. For example, in coastal industrial zones, utility companies deploy advanced hydrodynamic modeling software integrated with automated, mechanical seawalls and floodgates. When predictive algorithms detect an impending storm surge anomaly, these physical barriers automatically deploy. This specific integration of predictive software and responsive hardware prevents catastrophic saltwater intrusion into sensitive power substations and manufacturing hubs.

Quantitatively, the deployment of such integrated early warning and response systems reduces unplanned operational downtime by an estimated 35% to 50% during tier-one weather events. For a mid-sized coastal manufacturing facility, avoiding a multi-day shutdown translates to millions of dollars in protected revenue, preserved raw material inventory, and avoided contractual penalties. Furthermore, precision agriculture operations utilize satellite-guided soil moisture sensors combined with drought-resistant, bioengineered crop varieties. By optimizing water distribution at a granular level during prolonged dry spells, agribusinesses can maintain crop yields up to 20% higher than farms relying on traditional, reactive irrigation methods.

The business implication of these operational realities is profound. Asset managers and enterprise decision-makers are increasingly factoring climate resilience into their core valuation models and capital expenditure planning. Facilities equipped with advanced predictive sensors, reinforced structural materials, and redundant grid architectures command higher market valuations and secure significantly lower insurance premiums from risk-averse underwriters. The forward view indicates that climate resilience will transition from a specialized engineering upgrade to a standard operational baseline. Supply chains will be optimized not just for cost and speed, but for environmental survivability, creating a persistent, non-cyclical demand for technologies that guarantee operational continuity regardless of external climatic volatility.

Market Definition, Scope and Boundaries

The climate resilient technologies market encompasses the hardware, software, materials, and integrated services specifically designed to help physical assets, human populations, and economic systems adapt to and withstand the adverse impacts of climate change. The core scope of this market includes early warning systems, climate-resilient construction materials, advanced water management and desalination technologies, grid hardening solutions, and climate-smart agricultural systems. These solutions share a unified objective: to absorb environmental shocks, maintain critical functions during extreme weather events, and accelerate post-disaster recovery times.

The boundaries of this market are strictly defined to separate adaptation technologies from general mitigation technologies. For clarity, this market scope excludes renewable energy generation systems, standard solar panels, wind turbines, and carbon capture technologies, as their primary function is to reduce greenhouse gas emissions rather than physically adapt an asset to a changing climate. Furthermore, generalized sustainability software, such as corporate carbon accounting platforms or basic ESG reporting dashboards, are excluded from this analysis unless they feature specific modules dedicated to physical climate risk modeling, hydrodynamic forecasting, or asset vulnerability assessments.

By defining the market through the lens of physical adaptation and asset protection, the scope captures the direct economic investments made to secure infrastructure against heatwaves, floods, droughts, and severe storms. This includes the heavy engineering services required to retrofit legacy buildings, the deployment of industrial IoT meteorological sensor networks, and the integration of artificial intelligence platforms that simulate localized climate impacts. Enterprise decision-makers must understand these boundaries to accurately assess capital expenditure requirements. The market represents the commercialization of survival and business continuity strategies, offering a highly focused sector distinct from the broader, more generalized green energy ecosystem.

Value Chain and Profit Pool

The value chain of the climate resilient technologies market is highly complex, bridging traditional heavy industrial manufacturing with advanced digital analytics and enterprise software. The process begins with raw material sourcing, focusing on highly specialized inputs such as corrosion-resistant alloys, advanced polymers, and hyper-durable composites necessary for resilient infrastructure. Manufacturing economics in this early stage are capital-intensive and heavily subject to global commodity pricing volatility. Components such as meteorological sensors, hydrodynamic valves, and reinforced structural supports are manufactured and then passed downstream to system integrators. These integrators play a pivotal role, combining physical hardware with predictive software platforms to create functional, site-specific resilience solutions.

Margin concentration within this value chain is heavily skewed toward the downstream segments, specifically system integration, software analytics, and aftermarket maintenance services. Hardware components, while critically necessary for physical protection, are increasingly commoditized, yielding standard industrial operating margins of 10% to 15%. In stark contrast, the software platforms that ingest weather data, run predictive AI models, and automate physical infrastructure responses command software-as-a-service margins often exceeding 70%. Furthermore, the aftermarket revenue structure is highly lucrative. Climate technologies require continuous sensor calibration, software updates, and rigorous mechanical maintenance to ensure absolute readiness during zero-hour disaster scenarios, creating long-term, high-margin service contracts that lock in enterprise clients.

The business implication of this profit pool distribution is a massive strategic pivot among legacy industrial conglomerates. Hardware manufacturers are aggressively acquiring niche predictive software startups to bundle digital analytics with their physical products, thereby capturing a larger share of the recurring aftermarket revenue. The forward view suggests that the value chain will become increasingly dominated by data providers and AI integrators. As the physical installation of resilient infrastructure scales globally, the dominant profit centers will be the corporate entities that control the predictive intelligence and command systems governing those physical assets, effectively dictating long-term municipal and enterprise spending patterns.

Market Dynamics

The structural growth of the climate resilient technologies market is primarily driven by the escalating frequency of billion-dollar weather disasters and the subsequent aggressive reaction of the global commercial insurance industry. As climate volatility increases, insurers are systematically raising premiums or entirely withdrawing physical damage coverage from high-risk geographic zones. This immense financial pressure forces enterprises and municipalities to self-insure through direct physical asset hardening. Additionally, regulatory mandates serve as a massive structural growth catalyst. Governments worldwide are rewriting municipal building codes and civil infrastructure standards, mandating the inclusion of climate-resilient designs in all new public works projects, which guarantees a sustained, multi-decade pipeline of commercial demand.

Despite these robust growth drivers, the market faces significant structural barriers, most notably the high initial capital expenditure required for comprehensive implementation. Retrofitting legacy urban infrastructure or deploying comprehensive, satellite-linked early warning systems across a sprawling supply chain requires hundreds of millions of dollars in upfront investment. Furthermore, a critical restraint is the technical challenge of legacy interoperability. Integrating cutting-edge IoT climate sensors with decades-old municipal water grids or analog power substations requires highly specialized engineering. This integration friction often delays project timelines and significantly inflates localized deployment costs, particularly in resource-constrained developing nations where base infrastructure is already fragile.

However, these challenges create distinct, highly profitable opportunity pockets, particularly in the realm of public-private partnerships and resilient-infrastructure-as-a-service financial models. Private capital firms and specialized infrastructure funds are increasingly financing municipal resilience upgrades in exchange for long-term utility revenue sharing or tax incentives. Operational risks remain centered around technological obsolescence and the inherent uncertainty of long-term climate modeling parameters. The interaction between these forces dictates that while adoption may face short-term financial friction, the overarching necessity of operational survival makes the long-term growth trajectory inevitable. Organizations that proactively navigate the high initial CapEx will secure a formidable competitive advantage through uninterrupted operations while competitors suffer weather-induced downtime.

Market Size Forecast Table (2023-2035)

The growth trajectory of the climate resilient technologies market reflects a steepening S-curve of adoption, driven by overlapping cycles of infrastructure replacement and accelerated digital technology integration. Between 2026 and 2030, market growth is heavily supported by the execution phase of massive sovereign wealth initiatives and federal infrastructure packages initiated in the early 2020s. These legislative funds require local governments to replace end-of-life civil infrastructure with climate-adapted alternatives. As these physical assets are deployed across coastal borders and energy grids, they act as a foundational layer, subsequently pulling through demand for the necessary digital command systems and sensor networks required to operate them efficiently.

From 2031 to 2035, the primary growth driver transitions from government-led civil infrastructure spending to massive private sector enterprise adoption. As climate risk disclosure regulations become legally mandatory across global financial markets, publicly traded corporations will be forced to rigorously audit and subsequently upgrade their physical supply chains to appease institutional investors. The replacement cycles for industrial HVAC systems, commercial roofing materials, and regional distribution centers will be entirely dictated by physical climate resilience standards rather than simple aesthetic or cost-saving upgrades. This strict regulatory enforcement, combined with drastically decreasing unit costs for IoT sensor deployment, ensures that the market maintains a sustained CAGR of 17.8%, ultimately reaching a valuation of USD 90.5 billion by the end of the forecast period.

Segmental Analysis

The market is structurally segmented by technology type, application, and end-user, with distinct categories dominating capital allocation based on immediate risk mitigation priorities. By technology type, Climate-Resilient Infrastructure commands the largest historical and current market share. This segment encompasses the physical materials and heavy engineering methodologies required to harden buildings, transport corridors, and bridges against extreme heat, flooding, and cyclonic wind. The physical infrastructure segment leads structurally because physical assets hold the highest immediate capital risk for both governments and corporations. If a manufacturing facility collapses or a critical supply road washes away, all digital overlays and predictive software models become irrelevant. However, Early Warning Systems and predictive AI analytics represent the fastest-growing technology segment, as the financial cost-to-benefit ratio of rapid software deployment heavily outperforms the slow process of traditional concrete pouring.

By application, Disaster Risk Reduction and Grid Resilience are the primary focus areas driving vendor revenue. The modernization and physical protection of national energy grids generate massive commercial demand due to the cascading, multi-billion-dollar economic failures that occur during a widespread power blackout. Utility companies are actively deploying automated islanding technologies, decentralized solar microgrids, and heat-resistant high-voltage transmission lines to ensure stability during peak climate stress and extreme temperature anomalies. Water Management applications, including advanced modular desalination plants and AI-driven flood-routing software, also capture significant market share, particularly as freshwater scarcity becomes an acute, existential operational risk for heavy manufacturing and industrial agriculture operations globally.

The government and public sector segment historically dominates the end-user landscape, driven by municipal mandates to protect civilian populations and maintain critical public works. However, the enterprise and industrial end-user segment is rapidly gaining ground and disrupting traditional market dynamics. Corporations operating in global logistics, semiconductor manufacturing, and agribusiness are realizing that municipal infrastructure cannot always be relied upon during severe weather events. Consequently, these private entities are investing heavily in localized, captive resilience technologies to guarantee their own supply chain continuity independent of government aid. The forward view indicates that the enterprise segment will eventually match, and potentially surpass, public sector spending as operational self-reliance becomes a mandatory strategic imperative for survival.

Regional Analysis

North America holds the dominant position in the global climate resilient technologies market in the base year. This geographic leadership is sustained by a combination of highly sophisticated technological infrastructure, severe economic exposure to coastal hurricanes and inland wildfires, and massive federal funding mechanisms. The United States has established dedicated resilience frameworks that channel billions of dollars into upgrading municipal water systems and physically hardening the national power grid against extreme weather. The region’s industrial base is characterized by advanced civil engineering firms and the world’s leading artificial intelligence developers, enabling the rapid deployment of integrated, smart-resilience solutions across both public infrastructure and private corporate networks.

Europe follows closely, characterized by the most stringent regulatory environment globally regarding climate adaptation, sustainable finance, and corporate ESG reporting. The European Union’s Green Deal and associated structural funds mandate that member states allocate significant portions of their sovereign budgets specifically to physical climate adaptation and disaster risk reduction. The adoption maturity in Europe is exceptionally high, particularly concerning urban water management, automated flood defenses, and the mandatory integration of climate risk software into financial sector evaluations. This intense regulatory pressure ensures a stable, highly predictable, and legally mandated revenue stream for technology vendors operating within the European bloc.

The Asia Pacific region is the structural growth engine of the future, definitively forecast to expand at the highest regional CAGR through 2035. The region contains the world’s most vulnerable coastal mega-cities and faces acute, escalating risks from intensifying typhoons, extreme heatwaves, and rising sea levels that threaten critical supply chain hubs. Furthermore, the massive scale of ongoing, net-new infrastructure development across India, Southeast Asia, and China allows these nations to bypass the costly process of legacy retrofitting. Instead, they can build advanced climate-resilient technologies and IoT sensor networks directly into the foundation of new smart cities. Latin America and the Middle East & Africa represent critical emerging markets, where adoption is currently localized around highly specialized applications like industrial water desalination in the Middle East and drought-resistant agricultural resilience in Latin America, largely supported by international climate finance and multilateral development banks.

Competitive Landscape

• Siemens AG
• General Electric
• IBM Corporation
• Cisco Systems
• Xylem Inc
• AECOM
• Jacobs Solutions
• Fugro
• Gro Intelligence
• The Climate Corporation

The competitive landscape of the climate resilient technologies market is moderately concentrated at the highest tier of engineering but highly fragmented at the localized software integration level. A clear competitive positioning divide exists between heavy industrial conglomerates and specialized digital analytics firms. Companies like AECOM and Jacobs Solutions dominate the large-scale civil engineering and physical infrastructure design space, securing massive multi-year government contracts to physically rebuild coastlines and transit grids. Conversely, technology leaders like IBM and Cisco Systems position themselves as the digital nervous system of environmental resilience, providing the IoT architecture, secure cloud environments, and AI predictive modeling required to make those physical assets intelligent and responsive to real-time weather data.

Technological differentiation is primarily achieved through the granular accuracy of predictive algorithms and the physical speed of automated hardware response systems. Vendors are intensely focused on developing hyper-local, high-resolution climate models that can predict severe weather impacts down to a specific city block or individual industrial facility. Pricing strategies are evolving rapidly within the sector. While traditional infrastructure components are sold on a standard capital expenditure model, the critical predictive software layers are strictly shifting to recurring operational expenditure subscriptions, creating high financial barriers to entry for new startups lacking the capital to sustain long enterprise sales cycles. Regional dominance is heavily influenced by local government relationships and compliance standards, making strategic joint ventures and localized acquisitions the primary focus areas for global players looking to expand into the rapid-growth Asian and European adaptation markets.

Recent Developments (2024-2026)

In 2026: Siemens AG launched an integrated, AI-driven grid hardening platform specifically designed for decentralized enterprise microgrids. This platform automatically models predictive storm paths and isolates critical manufacturing power loads before physical weather impacts occur. This product launch directly addresses the enterprise sector’s immediate need for supply chain self-reliance, significantly expanding Siemens’ commercial footprint beyond traditional public utility contracts and moving them deeper into corporate risk management architecture.

In 2026: Xylem Inc expanded its advanced hydrodynamic monitoring manufacturing capacity in the Asia Pacific region by opening a new, high-tech production facility in Singapore. This strategic capacity expansion allows Xylem to bypass regional supply chain bottlenecks and directly serve the massive, localized demand for urban flood mitigation and predictive wastewater management technologies across Southeast Asian coastal mega-cities facing imminent sea-level threats.

In 2025: General Electric acquired a specialized European IoT sensor startup focused on ultra-durable, extreme-temperature meteorological hardware. This targeted acquisition allowed GE to vertically integrate critical sensor manufacturing into their broader grid-resilience portfolio, substantially improving their profit margins by bringing third-party component sourcing in-house and enhancing the proprietary, real-time data streams feeding their localized grid analytics platforms.

In 2025: Jacobs Solutions entered into a strategic, multi-year partnership with a leading global reinsurance firm to co-develop a proprietary infrastructure risk-scoring algorithm. This digital integration initiative enables Jacobs to offer municipal and enterprise clients not only the physical engineering designs for resilient public works but also mathematically guaranteed pathways to lower corporate insurance premiums based on validated, verifiable resilience upgrades.

In 2024: IBM Corporation introduced a significant update to its enterprise environmental intelligence suite, incorporating advanced, localized flood routing and global supply chain disruption simulators. This major technology innovation provided corporate decision-makers with the ability to digitally stress-test their physical logistics networks against simulated, decade-level climate extremes, establishing IBM as a dominant, early-mover player in the climate-risk software space during the market’s initial acceleration phase.

Strategic Outlook

The climate resilient technologies market has permanently evolved from a niche environmental initiative into a foundational requirement for global economic stability. The transition from reactive post-disaster recovery to proactive, digitized asset hardening is absolute. For enterprise decision-makers and municipal planners, the strategic outlook is clear: organizations must immediately audit their physical vulnerabilities and integrate predictive resilience technologies, or face uninsurable operational risks and severe, terminal supply chain fractures. Technology vendors who successfully bridge the complex gap between heavy physical infrastructure engineering and real-time AI analytics will command the highest market margins and definitively dominate the industrial landscape over the next decade.

FAQs.

1. What is the market size of the climate resilient technologies industry?
2. Which region dominates the climate resilient technologies market?
3. How does predictive AI improve civil infrastructure resilience?
4. What are the key growth drivers for climate adaptation solutions?
5. How do extreme weather events impact corporate supply chains?
6. What is the forecast CAGR for the climate resilient technologies market?
7. Which companies are leading the market for climate-resilient infrastructure?
8. How are smart cities utilizing IoT early warning systems?

Top Key Players

• Siemens AG
• General Electric
• IBM Corporation
• Cisco Systems
• Xylem Inc
• AECOM
• Jacobs Solutions
• Fugro
• Gro Intelligence
• The Climate Corporation

TABLE OF CONTENTS

1.0 Executive Summary

1.1 Market Snapshot

1.2 Key Market Statistics

1.3 Market Size and Forecast Overview

1.4 Key Growth Drivers

1.5 Market Opportunities

1.6 Regional Highlights

1.7 Competitive Landscape Overview

1.8 Strategic Industry Trends

1.9 Analyst Recommendations

2.0 Market Introduction

2.1 Market Definition

2.2 Market Scope and Coverage

2.3 Segmentation Framework

2.4 Industry Classification

2.5 Research Methodology Overview

2.6 Assumptions and Limitations

2.7 Market Structure Overview

3.0 Market Overview / Industry Landscape

3.1 Industry Value Ecosystem

3.2 Role of Integrated Climate Resilience Systems

3.3 Technology Evolution

3.4 Pricing Landscape

3.5 Regulatory Framework

3.6 Industry Trends

4.0 Value Chain Analysis

4.1 Raw Material Supply Landscape

4.2 Manufacturing Economics

4.3 Engineering Design Role

4.4 Distribution Channels

4.5 End-Use Integration

4.6 Aftermarket Ecosystem

4.7 Profit Pool Analysis

5.0 Market Dynamics

5.1 Drivers

5.2 Restraints

5.3 Opportunities

5.4 Challenges

6.0 Market Size & Forecast

6.1 Historical Analysis (2020-2024)

6.2 Base Year Analysis (2025)

6.3 Forecast Analysis (2026-2035)

6.4 CAGR Evaluation

6.5 Growth Impact Factors

7.0 Market Segmentation Analysis

7.1 By Technology Type

7.1.1 Climate-Resilient Infrastructure Systems

7.1.2 Advanced Water Management & Desalination

7.1.3 Early Warning Systems & AI Analytics

7.1.4 Agricultural Resilience & Bio-engineering

7.1.5 Energy & Grid Resilience Solutions

7.2 By Capacity / Scale Class

7.2.1 localized / Facility-Level Solutions

7.2.2 Municipal / Urban-Scale Solutions

7.2.3 Regional / Macro-Grid Solutions

7.3 By Application

7.3.1 Disaster Risk Reduction & Management

7.3.2 Coastal Protection & Marine Defenses

7.3.3 Urban Heat & Flood Mitigation

7.3.4 Supply Chain Asset Hardening

7.4 By End-Use Industry

7.4.1 Government & Public Sector

7.4.2 Energy & Utilities

7.4.3 Agriculture & Forestry

7.4.4 Manufacturing & Industrial Processing

7.4.5 Transportation & Logistics

8.0 Regional Analysis

8.1 North America

8.1.1 United States

8.1.2 Canada

8.1.3 Mexico

8.2 Europe

8.2.1 Germany

8.2.2 United Kingdom

8.2.3 France

8.2.4 Italy

8.2.5 Spain

8.2.6 Rest of Europe

8.3 Asia Pacific

8.3.1 China

8.3.2 India

8.3.3 Japan

8.3.4 South Korea

8.3.5 Australia

8.3.6 Southeast Asia

8.3.7 Rest of Asia Pacific

8.4 Latin America

8.4.1 Brazil

8.4.2 Argentina

8.4.3 Rest of Latin America

8.5 Middle East & Africa

8.5.1 UAE

8.5.2 Saudi Arabia

8.5.3 South Africa

8.5.4 Rest of MEA

9.0 Competitive Landscape

9.1 Market Concentration Analysis

9.2 Competitive Positioning Matrix

9.3 Market Share Overview

9.4 Technology Differentiation

9.5 Pricing Strategy Analysis

9.6 Entry Barriers

9.7 Strategic Initiatives

10.0 Company Profiles

10.1 Siemens AG

10.1.1 Company Overview

10.1.2 Financial Snapshot

10.1.3 Product Portfolio

10.1.4 Strategic Focus

10.1.5 Recent Developments

10.2 General Electric (GE)

10.2.1 Company Overview

10.2.2 Financial Snapshot

10.2.3 Product Portfolio

10.2.4 Strategic Focus

10.2.5 Recent Developments

10.3 IBM Corporation

10.3.1 Company Overview

10.3.2 Financial Snapshot

10.3.3 Product Portfolio

10.3.4 Strategic Focus

10.3.5 Recent Developments

10.4 Cisco Systems

10.4.1 Company Overview

10.4.2 Financial Snapshot

10.4.3 Product Portfolio

10.4.4 Strategic Focus

10.4.5 Recent Developments

10.5 Xylem Inc.

10.5.1 Company Overview

10.5.2 Financial Snapshot

10.5.3 Product Portfolio

10.5.4 Strategic Focus

10.5.5 Recent Developments

10.6 AECOM

10.6.1 Company Overview

10.6.2 Financial Snapshot

10.6.3 Product Portfolio

10.6.4 Strategic Focus

10.6.5 Recent Developments

10.7 Jacobs Solutions

10.7.1 Company Overview

10.7.2 Financial Snapshot

10.7.3 Product Portfolio

10.7.4 Strategic Focus

10.7.5 Recent Developments

10.8 Fugro

10.8.1 Company Overview

10.8.2 Financial Snapshot

10.8.3 Product Portfolio

10.8.4 Strategic Focus

10.8.5 Recent Developments

10.9 Gro Intelligence

10.9.1 Company Overview

10.9.2 Financial Snapshot

10.9.3 Product Portfolio

10.9.4 Strategic Focus

10.9.5 Recent Developments

10.10 The Climate Corporation (Bayer)

10.10.1 Company Overview

10.10.2 Financial Snapshot

10.10.3 Product Portfolio

10.10.4 Strategic Focus

10.10.5 Recent Developments

11.0 Recent Industry Developments

11.1 Product Launches

11.2 Strategic Partnerships

11.3 Technology Innovations

11.4 Capacity Expansion

11.5 Mergers & Acquisitions

12.0 Strategic Outlook and Analyst Perspective

12.1 Future Industry Trends

12.2 Technology Transformation Outlook

12.3 Growth Opportunities

12.4 Competitive Strategy Implications

12.5 Long-Term Market Sustainability

13.0 Appendix

13.1 Research Methodology

13.2 Abbreviations and Terminology

13.3 Data Sources

13.4 Disclaimer

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