MAS worked with a private investment group with significant exposure to coastal real estate assets in South Florida to examine how climate-linked physical risks could affect portfolio vulnerability over time.
The client sought a more rigorous and actionable understanding of risk than could be obtained from static flood-zone designations or conventional property screening. We designed and executed an analytical program combining geospatial hazard data, asset-level characteristics, infrastructure exposure, and local resilience indicators to evaluate how flooding, hurricane impacts, construction standards, and local adaptation capacity could shape comparative asset vulnerability across the client's portfolio.
The client sought advice on a strategic question:
How can long-term vulnerability in coastal real estate be assessed when asset risk depends not only on direct hazard exposure, but also on construction resilience, infrastructure fragility, and uneven local adaptation capacity?
In South Florida, physical climate risk is highly spatially variable and difficult to evaluate through any single metric. Two assets with similar market characteristics may face very different long-term risk profiles depending on drainage conditions, construction era, code standards of the municipality in which they are located, and the surrounding infrastructure's resilience.
The project involved several complexities:
Moving beyond binary flood-zone classifications toward a multi-factor vulnerability framework
Integrating parcel, building, hazard, infrastructure, and municipal-level datasets from heterogeneous sources
Constructing defensible proxies for building resilience and climate adaptation capacity
Distinguishing between direct hazard exposure and second-order vulnerability driven by utilities, transport access, and drainage systems
Designing an analytical framework suitable for portfolio comparison, scenario analysis, and investment decision support
The goal was not just to map exposure, but to develop a structured view of relative downside vulnerability across assets and locations.
We designed and implemented an analytical framework combining geospatial climate risk analysis, infrastructure dependency modeling, and asset-level resilience assessment.
Key elements included:
Integrating property-level data with flood, storm surge, wind, elevation, and rainfall-related hazard datasets
Building asset-level resilience indicators based on observable characteristics such as construction period, elevation profile, and likely code regime
Mapping infrastructure dependencies including drainage, transport connectivity, and utility exposure
Developing comparative vulnerability scores to distinguish direct hazard exposure from broader system-level fragility
Performing scenario-based analysis to test how different combinations of hazard severity, infrastructure disruption, and local adaptation effectiveness could affect portfolio risk
The resulting framework allowed the client to examine vulnerability not as a single static condition, but as a layered interaction between climate hazards, built-asset resilience, and place-based infrastructure systems. This produced a more fine-grained and decision-relevant basis for comparing assets, identifying concentrations of risk, and prioritizing further diligence.
The project delivered:
A harmonized analytical dataset linking property characteristics with geospatial hazard and infrastructure vulnerability variables
A comparative framework for evaluating climate-linked vulnerability across coastal and near-coastal real estate assets
Scenario-based insight into how portfolio risk could evolve under different hazard and adaptation conditions
A practical decision-support tool for screening assets, prioritizing diligence, and informing longer-term portfolio strategy
Beyond the immediate outputs, the engagement demonstrated our ability to:
Structure ambiguous real-world decision problems into tractable analytical systems
Integrate heterogeneous environmental, geospatial, and asset-level data at scale
Design interpretable vulnerability models for investment and strategic planning contexts
Translate complex climate and infrastructure risk dynamics into operationally useful guidance
This work illustrates how advanced analytical methods can support more rigorous decision-making in markets where physical climate risks and infrastructure dependence are increasingly intertwined with long-term asset performance expectations.