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Securing Jamaica’s Water Future: The Role of Geospatial Intelligence, the Challenges and Suggested Solutions to Building Water Resilience

Water: The Foundation of Human Development

Water is a fundamental natural resource supporting human well-being, economic development, public health, food and energy security, and environmental sustainability. Water resources and the services they provide underpin poverty reduction, economic growth, livelihoods, and ecosystem health. Reliable access to safe and affordable water is therefore essential to human development and social well-being (UNESCO World Water Assessment Programme, 2015).

Globally, water security is becoming an increasingly urgent challenge. Population growth, climate change, urban expansion, pollution, and pressures on water infrastructure are placing increasing demands on freshwater resources (UN-Water, n.d.). Small Island Developing States (SIDS), including Jamaica, are particularly vulnerable because of their limited land area, exposure to climate-related hazards, dependence on variable rainfall, and limited capacity to develop resilient infrastructure. Climate change is expected to further exacerbate existing pressures on freshwater resources in small islands (Intergovernmental Panel on Climate Change [IPCC], 2022; World Bank, 2021).

For Jamaica, water security is no longer simply an issue of water supply. It is a complex national development challenge involving climate variability and change, infrastructure management, spatial planning, technology, governance, financing, and the capacity to make timely decisions based on accurate information (Government of Jamaica, 2019; Ministry of Water, Environment and Climate Change, 2026).

From the perspective of the Mona GeoInformatics Institute (MGI), addressing Jamaica’s water challenges requires a shift toward a data-driven and spatially enabled approach, where Geographic Information Systems (GIS), Artificial Intelligence (AI), remote sensing, Internet of Things (IoT) and real-time monitoring technologies become central tools in managing one of the country’s most valuable resources.

Understanding Jamaica’s Water Security Challenges

Jamaica’s water challenge is defined by a combination of climate pressures, infrastructure limitations, geographic inequalities, poor planning, and operational inefficiencies.

Jamaica experiences significant seasonal and spatial variation in rainfall, which is critical to the country’s surface and groundwater resources, including rivers, springs, wells, and aquifers. While the island receives substantial annual rainfall, its distribution varies considerably across seasons and locations. Climate change is expected to increase rainfall variability and alter the timing and spatial distribution of precipitation, alongside more frequent drought conditions and intense rainfall events, creating additional challenges for water security. (Government of Jamaica, 2020, 2021; Townsend et al., 2020).

Periods of below-average rainfall have resulted in widespread meteorological drought conditions across several parishes. During these periods, water supply systems experience reduced yields, forcing the National Water Commission (NWC) and other providers to implement emergency measures such as water trucking, reduced supply schedules, and restrictions on non-essential water use. The NWC is Jamaica’s primary government-owned provider of potable water and sewerage services across the island.

Jamaica is experiencing another climate-related challenge: increasingly intense rainfall events. Heavy rainfall associated with tropical storms and hurricanes can cause rivers and springs to become highly turbid, carry sediment and debris into water intakes, damage pipelines and other water infrastructure through flooding and landslides, and disrupt treatment operations. High turbidity can make water treatment difficult or, in some cases, require treatment plants to temporarily shut down (National Water Commission [NWC], n.d.; Government of Jamaica, 2019).

Jamaica therefore faces a dual water-management challenge: prolonged dry periods can result in water shortages, while intense rainfall events can produce excess runoff, flooding, and limited opportunities for water capture. The challenge is therefore not simply the availability of water, but the capacity to effectively capture, store, distribute, and manage water resources. Achieving a balance between water supply, storage, and demand is consequently critical to strengthening Jamaica’s water security.

What is Drought and Why Does It Matter to Jamaica?

Drought is a prolonged period of below-average rainfall that results in reduced water availability. Unlike hurricanes or floods, drought develops gradually, often making its impacts less visible until water systems begin to fail.

There are several types of drought:

Meteorological Drought

This occurs when rainfall levels are significantly below historical averages. Jamaica has experienced several periods where rainfall deficits have affected multiple parishes simultaneously. For example, the National Water Sector Policy (2019) provides an excellent example. It reports that in June 2015, Jamaica’s average rainfall was 40 mm, approximately 72% below the 30-year (1971–2000) mean. More importantly, all parishes recorded below-normal rainfall in 2015. In June specifically, St. Mary and St. Thomas received only about 8% of their respective 30-year normals, while Clarendon received 9%.

Hydrological Drought

This occurs when reduced rainfall affects rivers, reservoirs, groundwater supplies, and other water sources. Hydrological drought directly affects water supply systems because less water is available for extraction.

Agricultural Drought

This affects soil moisture and crop production, creating challenges for farmers and food security.

Socioeconomic Drought

This occurs when water shortages begin affecting communities, businesses, tourism, and economic activities.

For Jamaica, effective drought monitoring must extend beyond rainfall measurements alone. A comprehensive understanding of drought conditions requires the integration of rainfall data with information on watershed conditions, groundwater levels, land-use changes, population and water demand, infrastructure capacity, water storage and distribution systems, and climate projections. This integrated approach provides a more complete assessment of water availability, vulnerability, and drought risk.

This is where geospatial technologies become essential.

The Water Management Landscape in Jamaica

Water security is a shared responsibility involving multiple stakeholders.

National Water Commission (NWC)

The NWC is Jamaica’s largest water provider and plays a central role in the development, operation, and maintenance of public water supply systems. NWC’s responsibilities include water abstraction, treatment, distribution, infrastructure management, and customer service.

However, like many water utilities globally, the NWC faces significant operational and financial challenges. A major concern is the high level of Non-Revenue Water (NRW), with more than 74% of treated water reportedly lost through leakage, illegal connections, and aging infrastructure, some of which is over 70 years old. These losses increase operating and energy costs while placing additional pressure on the utility’s financial position, which is further affected by customer arrears and project funding shortfalls.

These structural challenges are compounded by increasing water demand and the impacts of climate variability and change. Severe droughts can reduce inflows to major reservoirs, contributing to water restrictions and placing additional pressure on already constrained water supplies. At the same time, aging infrastructure remains vulnerable to damage from extreme weather events. Together, these factors highlight the need for improved infrastructure investment, NRW reduction, efficient water management, and greater resilience within Jamaica’s water supply system.

Water Resources Authority (WRA)

The Water Resources Authority regulates and monitors Jamaica’s water resources. It is responsible for assessing water availability, managing abstraction permits, monitoring groundwater and surface water resources, and supporting sustainable water resource planning.

Government Ministries and Agencies

Government plays a critical role in:

  • Policy development
  • Infrastructure investment
  • Climate adaptation planning
  • Regulation
  • Emergency response
  • National development planning

Water security must also be integrated into national policies related to housing, agriculture, tourism, energy, and urban development.

Private Sector, Communities and NGOs

Private companies, industries, farmers, households, community organizations, and non-governmental organizations all influence water demand and conservation.

Large commercial users, particularly in tourism, manufacturing, and agriculture, must increasingly adopt water efficiency measures and contribute to sustainable water management.

International Development Partners

Organizations such as the World Bank, Inter-American Development Bank (IDB), United Nations agencies, and other development partners have historically supported Jamaica through financing, technical assistance, climate adaptation initiatives, and infrastructure development. However, long-term water security requires sustainable domestic investment combined with innovative financing mechanisms.

Key Challenges Affecting Water Security in Jamaica

1. Aging Infrastructure and Water Loss

One of Jamaica’s largest water challenges is the condition of existing infrastructure.

Many pipelines were installed decades ago and require significant rehabilitation. Aging pipes contribute to:

  • Leakage
  • Reduced pressure
  • Service interruptions
  • Increased maintenance costs

A major concern is non-revenue water (NRW), which refers to water that is produced but does not generate revenue due to physical losses such as leaks and overflows, as well as commercial losses associated with unauthorized connections, inaccurate meters, and other factors. Reducing NRW can increase the amount of water available to customers without requiring immediate development of new water sources (National Water Commission, n.d.; World Bank, 2016).

GIS, IoT, and AI can strengthen NRW management by integrating infrastructure and customer data, supporting real-time monitoring and leak detection, identifying areas of high water loss, enabling predictive maintenance, and informing the prioritization of infrastructure rehabilitation. These digital approaches can help utilities move from reactive maintenance toward more data-driven and proactive water-network management (World Bank, 2024).

2. Geographic Mismatch Between Supply and Demand

Water challenges in Jamaica are strongly connected to geography. Many population centres, including major urban and commercial areas, are not located directly beside reliable freshwater sources. Kingston, for example, requires complex systems to transfer and manage water from surrounding watersheds.

This creates challenges involving:

  • Long-distance transmission networks
  • High energy costs
  • Vulnerability ton infrastructure failure
  • Unequal access between communities
  • Increased risks to water infrastructure

A geospatial approach allows planners to understand the relationship between:

  • Water resources
  • Population distribution
  • Housing growth
  • Industrial demand
  • Climate risk
  • Infrastructure capacity
  • Temporal realities

3. Limited Water Storage Capacity

Jamaica receives significant rainfall in general, but the country has limited capacity in some areas to capture and store sufficient water during wet periods for use during prolonged dry conditions. The National Water Sector Policy identifies inadequate storage capacity as a key challenge, noting that additional storage is required in many parishes to improve the reliability of water supplies during the dry season. This limitation becomes particularly important during droughts, when reduced rainfall and declining reservoir levels can quickly translate into water shortages and supply restrictions. Strengthening storage capacity, alongside improved water capture and distribution systems, is therefore an important component of Jamaica’s long-term water security.

Increasing resilience requires investment in:

  • Reservoir development and rehabilitation
  • Rainwater harvesting and decentralized storage
  • Groundwater management and managed aquifer recharge
  • Watershed protection and restoration
  • Water-supply infrastructure rehabilitation and NRW reduction
  • Community and local-scale water storage
  • Wastewater treatment, reuse, and recycling
  • Climate-resilient monitoring, planning, and early-warning systems
  • Investment in human resources

Spatial modelling can help identify suitable locations for additional storage infrastructure by analysing:

  • Watershed characteristics
  • Terrain
  • Geology
  • Land ownership
  • Environmental sensitivity
  • Climate projections

4. Climate Change and Increasing Weather Extremes

Climate change is increasing uncertainty in Jamaica’s water systems.

Future planning must account for:

  • Longer dry periods
  • Increased evaporation
  • More intense rainfall events
  • Watershed degradation
  • Rising demand from population growth
  • Modernization and implementation of climate resilient water infrastructure

Traditional historical planning approaches are no longer sufficient. Jamaica needs predictive systems that combine climate data, satellite observations, and artificial intelligence to anticipate future risks.

5. Financing and Investment Challenges

Building resilient water systems requires significant investment.

Challenges include:

  • Limited public financing
  • High infrastructure costs
  • Competing national priorities
  • Maintenance funding gaps

Water security should be viewed as a long-term national investment rather than simply an operational expense. Failure to invest increases future costs associated with emergency trucking, economic disruption, health impacts, and infrastructure failure.

6. Energy and Water Security Are Connected

Water and energy are closely linked.

Water treatment, pumping, and distribution are inherently energy-intensive. In regions where water must be transported over long distances or elevated terrain, energy expenses account for a major portion of operational costs.

For Jamaica, accelerating the transition to renewable energy directly enhances national water security by lowering utility operating costs and bolstering infrastructure resilience against energy market volatility. However, battery storage integration remains a critical bottleneck due to high capital expenditure per kilowatt-hour, requiring strategic balance between grid integration and storage capacity.

Future water systems should explore:

  • Solar-powered pumping
  • Energy-efficient treatment systems
  • Smart water networks
  • Renewable-powered desalination technologies

The Role of GIS in Jamaica’s Water Security Future

At MGI, we believe solving Jamaica’s water challenges hinges on integrating geospatial intelligence into policy and planning. GIS spatially connects infrastructure, environmental conditions, and human settlement to optimize water allocation. The fusion of spatial frameworks and IoT network architecture transforms static mapping into dynamic, real-time monitoring systems capable of proactive water resource control (Aiello et al., 2022).

Key applications include:

1. Water Infrastructure Mapping and Management

By generating comprehensive digital inventories of pipelines, treatment plants, reservoirs, pumps, valves, catchments, and customer locations, GIS establishes the spatial foundation needed to streamline maintenance, optimize long-term planning, and guide strategic capital investments.

2. Drought Monitoring and Early Warning Systems

By evaluating satellite imagery, rainfall data, and key environmental indicators, GIS drives robust drought monitoring through vegetation stress analysis, watershed tracking, surface water assessments, and soil moisture modeling, capabilities that are further amplified by artificial intelligence to uncover hidden environmental patterns and accurately forecast future water stress.

3. AI-Powered Leak Detection and Predictive Maintenance

Combining GIS, real-time sensor data, and artificial intelligence enables utilities to transition from reactive repairs to predictive management. By analyzing complex datasets, including pipe age, material composition, historical failure rates, pressure dynamics, customer complaint logs, and surrounding terrain characteristics, AI models can pinpoint high-risk infrastructure segments and accurately predict where future pipe breaks are most likely to occur.

4. Climate-Resilient Water Planning

GIS supports scenario modeling by anticipating future population growth, identifying communities most vulnerable to drought, assessing infrastructure exposed to climate hazards, and optimizing the placement of new storage facilities.

5. Supporting Equitable Water Access

As water security is fundamentally a social issue, geospatial analysis highlights underserved communities struggling with frequent outages, inadequate infrastructure, high transportation costs, and unreliable supply to ensure investments are targeted precisely toward the areas of greatest need.

A Data-Driven Roadmap for Solving Jamaica’s Water Challenge

Addressing Jamaica’s water security challenge requires a coordinated national strategy rooted in four key actions. First, establishing a National Water Data Platform would integrate infrastructure data from the National Water Commission (NWC), water resource metrics from the Water Resources Authority (WRA), climate models, satellite imagery, population demographics, and land-use information into a unified dashboard, delivering real-time insights on supply, demand, risks, and asset performance.

Second, modernizing infrastructure through smart technologies, including smart meters, IoT sensors, automated monitoring, digital asset management, and AI-driven maintenance tools, will optimize operational efficiency across the network.

Third, Jamaica must expand alternative water sources such as rainwater harvesting, managed groundwater, water reuse, desalination, and improved storage systems, relying on spatial analysis to evaluate their environmental, economic, and social suitability.

Finally, climate adaptation planning must directly incorporate future projections and disaster risk assessments, shifting the fundamental policy question from how much water is available today to how Jamaica will secure reliable water access under evolving future climate conditions.

Conclusion: Building a Water-Secure Jamaica Through Intelligence and Innovation

Water security is one of Jamaica’s defining development challenges for the 21st century. The combination of climate change, aging infrastructure, increasing demand, and geographic constraints requires a new approach.

The solution will not come from infrastructure investment alone. Jamaica needs smarter decision-making supported by accurate data, advanced technology, and coordinated planning.

GIS, artificial intelligence, satellite technology, IoT and real-time data analytics provide the tools needed to understand our water systems better, predict future challenges, and design targeted solutions.

At the Mona GeoInformatics Institute, we believe that the future of water security in Jamaica must be built on geospatial intelligence. By transforming water data into actionable knowledge, Jamaica can move from responding to water crises toward proactively managing its most important natural resource.

The future of water security is not only about finding more water. It is about managing the water we have, intelligently, sustainably, and strategically.

By Luke Buchanan
Executive Director, Mona GeoInformatics Institute (MGI), UWI Mona

References:

Aiello, P., Giugni, M., & Perillo, G. (2022). Internet of Things for Smart Management of Water Networks. Environmental Sciences Proceedings, 21(1), Article 57. https://doi.org/10.3390/environsciproc2022021057

Government of Jamaica. (2019). National water sector policy and implementation plan. Ministry of Economic Growth and Job Creation.

Government of Jamaica. (2021). Climate change policy framework for Jamaica. Forestry Department.

Intergovernmental Panel on Climate Change. (2022). Small islands. In H.-O. Pörtner et al. (Eds.), Climate change 2022: Impacts, adaptation and vulnerability: Contribution of Working Group II to the Sixth Assessment Report of the Intergovernmental Panel on Climate Change. Cambridge University Press. https://doi.org/10.1017/9781009325844.017

Ministry of Water, Environment and Climate Change. (2026). Water Compact 2030: National commitments for water security reform in Jamaica by 2030. Government of Jamaica.

National Water Commission. (n.d.). NRW programme. Government of Jamaica.

Townsend, F., Sušnik, J., & van der Zaag, P. (2020). Domestic water supply vulnerability to climate change and the role of alternative water sources in Kingston, Jamaica. Atmosphere, 11(12), Article 1314. https://doi.org/10.3390/atmos11121314

UNESCO World Water Assessment Programme. (2015). The United Nations world water development report 2015: Water for a sustainable world. UNESCO.

World Bank. (2021). Jamaica’s long-term climate change strategy: Recommendations. World Bank.

World Bank. (2024). Global Water Security & Sanitation Partnership annual report 2024. World Bank.

Contact us for more information:
Email: info@monagis.com
Web: www.monagis.com
Phone: (876) 671-7001 / (876) 816-8791
Socials: @mgimona
Send us a quick message: https://main.monagis.com/contact-us/

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Securing Jamaica’s Water Future: The Role of Geospatial Intelligence, the Challenges and Suggested Solutions to Building Water Resilience

Water: The Foundation of Human Development Water is a fundamental natural resource supporting human well-being, economic development, public health, food and energy security, and environmental sustainability. Water resources and the services they provide underpin poverty reduction, economic growth, livelihoods, and ecosystem health. Reliable access to safe and affordable water is therefore essential to human development and social well-being (UNESCO World Water Assessment Programme, 2015). Globally, water security is becoming an increasingly urgent challenge. Population growth, climate change, urban expansion, pollution, and pressures on water infrastructure are placing increasing demands on freshwater resources (UN-Water, n.d.). Small Island Developing States (SIDS), including Jamaica, are particularly vulnerable because of their limited land area, exposure to climate-related hazards, dependence on variable rainfall, and limited capacity to develop resilient infrastructure. Climate change is expected to further exacerbate existing pressures on freshwater resources in small islands (Intergovernmental Panel on Climate Change [IPCC], 2022; World Bank, 2021). For Jamaica, water security is no longer simply an issue of water supply. It is a complex national development challenge involving climate variability and change, infrastructure management, spatial planning, technology, governance, financing, and the capacity to make timely decisions based on accurate information (Government of Jamaica, 2019; Ministry of Water, Environment and Climate Change, 2026). From the perspective of the Mona GeoInformatics Institute (MGI), addressing Jamaica’s water challenges requires a shift toward a data-driven and spatially enabled approach, where Geographic Information Systems (GIS), Artificial Intelligence (AI), remote sensing, Internet of Things (IoT) and real-time monitoring technologies become central tools in managing one of the country’s most valuable resources. Understanding Jamaica’s Water Security Challenges Jamaica’s water challenge is defined by a combination of climate pressures, infrastructure limitations, geographic inequalities, poor planning, and operational inefficiencies. Jamaica experiences significant seasonal and spatial variation in rainfall, which is critical to the country’s surface and groundwater resources, including rivers, springs, wells, and aquifers. While the island receives substantial annual rainfall, its distribution varies considerably across seasons and locations. Climate change is expected to increase rainfall variability and alter the timing and spatial distribution of precipitation, alongside more frequent drought conditions and intense rainfall events, creating additional challenges for water security. (Government of Jamaica, 2020, 2021; Townsend et al., 2020). Periods of below-average rainfall have resulted in widespread meteorological drought conditions across several parishes. During these periods, water supply systems experience reduced yields, forcing the National Water Commission (NWC) and other providers to implement emergency measures such as water trucking, reduced supply schedules, and restrictions on non-essential water use. The NWC is Jamaica’s primary government-owned provider of potable water and sewerage services across the island. Jamaica is experiencing another climate-related challenge: increasingly intense rainfall events. Heavy rainfall associated with tropical storms and hurricanes can cause rivers and springs to become highly turbid, carry sediment and debris into water intakes, damage pipelines and other water infrastructure through flooding and landslides, and disrupt treatment operations. High turbidity can make water treatment difficult or, in some cases, require treatment plants to temporarily shut down (National Water Commission [NWC], n.d.; Government of Jamaica, 2019). Jamaica therefore faces a dual water-management challenge: prolonged dry periods can result in water shortages, while intense rainfall events can produce excess runoff, flooding, and limited opportunities for water capture. The challenge is therefore not simply the availability of water, but the capacity to effectively capture, store, distribute, and manage water resources. Achieving a balance between water supply, storage, and demand is consequently critical to strengthening Jamaica’s water security. What is Drought and Why Does It Matter to Jamaica? Drought is a prolonged period of below-average rainfall that results in reduced water availability. Unlike hurricanes or floods, drought develops gradually, often making its impacts less visible until water systems begin to fail. There are several types of drought: Meteorological Drought This occurs when rainfall levels are significantly below historical averages. Jamaica has experienced several periods where rainfall deficits have affected multiple parishes simultaneously. For example, the National Water Sector Policy (2019) provides an excellent example. It reports that in June 2015, Jamaica’s average rainfall was 40 mm, approximately 72% below the 30-year (1971–2000) mean. More importantly, all parishes recorded below-normal rainfall in 2015. In June specifically, St. Mary and St. Thomas received only about 8% of their respective 30-year normals, while Clarendon received 9%. Hydrological Drought This occurs when reduced rainfall affects rivers, reservoirs, groundwater supplies, and other water sources. Hydrological drought directly affects water supply systems because less water is available for extraction. Agricultural Drought This affects soil moisture and crop production, creating challenges for farmers and food security. Socioeconomic Drought This occurs when water shortages begin affecting communities, businesses, tourism, and economic activities. For Jamaica, effective drought monitoring must extend beyond rainfall measurements alone. A comprehensive understanding of drought conditions requires the integration of rainfall data with information on watershed conditions, groundwater levels, land-use changes, population and water demand, infrastructure capacity, water storage and distribution systems, and climate projections. This integrated approach provides a more complete assessment of water availability, vulnerability, and drought risk. This is where geospatial technologies become essential. The Water Management Landscape in Jamaica Water security is a shared responsibility involving multiple stakeholders. National Water Commission (NWC) The NWC is Jamaica’s largest water provider and plays a central role in the development, operation, and maintenance of public water supply systems. NWC’s responsibilities include water abstraction, treatment, distribution, infrastructure management, and customer service. However, like many water utilities globally, the NWC faces significant operational and financial challenges. A major concern is the high level of Non-Revenue Water (NRW), with more than 74% of treated water reportedly lost through leakage, illegal connections, and aging infrastructure, some of which is over 70 years old. These losses increase operating and energy costs while placing additional pressure on the utility’s financial position, which is further affected by customer arrears and project funding shortfalls. These structural challenges are compounded by increasing water demand and the impacts of climate variability and change. Severe droughts can reduce inflows to major reservoirs, contributing to water restrictions and placing additional

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MGI at Spatial ArcGIS User Conference Experience 2026

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Why Housing Reform is Needed in Jamaica: A Social and Geospatial Perspective

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Drawing on the devastating impacts of Hurricane Melissa, she highlighted how existing social and economic inequalities often determine who is most exposed and least able to recover following disasters. A central theme of Professor Archer’s presentation was the relationship between emancipation and land ownership. She emphasized that while emancipation in 1838 ended slavery, it did not guarantee access to land ownership for formerly enslaved Africans. The continued challenges associated with land access and secure tenure have contributed to inequality, informal settlements, and increased vulnerability to environmental hazards. She argued that land reform remains essential to achieving true freedom, resilience, and sustainable development in Jamaica. Professor Archer highlighted: “Legal access to land is limited and has contributed to inequality, informal settlements, and greater vulnerability to disasters, making land reform an important part of achieving true freedom and resilience.” MGI extends sincere appreciation to Professor Hopeton Dunn of The University of the West Indies, Mona, Chairman of the Churches Emancipation Lecture Committee, for inviting MGI to participate in this important national conversation. MGI Showcases the Role of Geospatial Technology in Disaster Resilience As part of the event, MGI showcased how Geographic Information Systems (GIS), Artificial Intelligence (AI), GeoAI, and spatial data support disaster preparedness, mitigation, response, and recovery. Participants engaged with MGI’s work in understanding and managing Jamaica’s natural hazards, including: MGI displayed its Natural Hazards Tracker Web Map, which provides access to historical and spatial information on hazards affecting Jamaica. The exhibition also featured interactive mapping of Hurricane Melissa’s 2025 track and impact, highlighting the value of geospatial technologies in understanding hazard exposure and supporting evidence-based decision-making. Historical hazard information was also presented, including the impacts of the 1907 Kingston Earthquake, demonstrating how lessons from past disasters can inform present-day preparedness and resilience planning. Visitors also received information on earthquake and hurricane preparedness, mitigation strategies, and the importance of using data-driven approaches to reduce disaster risk. MGI highlighted how geospatial technologies can support governments, communities, and organizations through improved hazard mapping, vulnerability assessments, emergency planning, and post-disaster assessments. Building Jamaica’s Capacity Through GIS, Drones, and Digital Innovation MGI also highlighted its capacity-building programmes designed to strengthen Jamaica’s disaster resilience. These include training in: Through these programmes, MGI continues to support institutions and communities in developing the technical capacity needed to better understand risks, prepare for disasters, and make informed decisions. Speaking after the event, MGI Executive Director Mr. Luke Buchanan who attended the lecture emphasized the importance of connecting technology, data, and community resilience: “Disasters are not only natural events; they are shaped by where people live, the resources they have access to, and the systems available to support them. At MGI, we believe that geospatial technology provides the evidence needed to understand vulnerability, target interventions, and build a more resilient Jamaica. By combining GIS, AI, drones, and community-based data, we can help decision-makers move from reacting to disasters toward proactively reducing risk.” MGI remains committed to advancing the use of geospatial intelligence, innovation, and capacity development to support Jamaica’s disaster resilience agenda and contribute to a future where communities are better prepared, informed, and equipped to withstand environmental challenges. #MGI #GIS #GeospatialTechnology #DisasterResilience #ClimateAction #Jamaica #HazardMapping #ResilientJamaica #DigitalInnovation #SustainableDevelopment Contact us for more information:Email: info@monagis.comWeb: www.monagis.comPhone: (876) 671-7001 / (876) 816-8791Socials: @mgimonaSend us a quick message: https://main.monagis.com/contact-us/

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