​The Problem: Past Storms Keep Repeating the Same Building Failures

General Patton was speaking about strategy, not rooftops or building envelopes. But the principle applies directly to the way we prepare structures for extreme weather: study what failed before, identify the weak points, and act before the next event tests them again.

Hurricane Andrew in 1992 and Superstorm Sandy in 2012 remain powerful examples. Andrew made U.S. landfall in South Florida as a Category 5 hurricane. NOAA reports that in Dade County alone, the storm damaged or destroyed roughly 125,000 homes and left at least 160,000 people homeless. Sandy later demonstrated a different kind of vulnerability: an enormous storm driving damaging wind, waves, and storm surge into densely developed coastal communities.

The lesson is not that every building can be made invulnerable. It is that extreme events repeatedly expose the same categories of weakness: discontinuous roof and wall systems, vulnerable edges and penetrations, deteriorated coatings, failed joints, water pathways, aging substrates, and deferred maintenance that appeared manageable until the weather found it.

What looks like a small maintenance issue in calm conditions can become the entry point for a much larger loss under wind, water, heat, or impact.

1992 — Hurricane Andrew damaged or destroyed about 125,000 homes in Dade County, Florida, according to NOAA.

2012 — Sandy drove destructive wind, waves, and storm surge into the New York–New Jersey–Connecticut region; NOAA estimated U.S. damage near $50 billion.

Today — The Fifth National Climate Assessment reports that infrastructure and services are increasingly damaged and disrupted by extreme weather and sea level rise.

Preparation matters because the storm usually exploits conditions that were already present before landfall.

The Escalation: The Storm Is Only the First Event

The most expensive damage often does not end when the wind drops or the floodwater recedes. Once the building envelope is compromised, the second phase begins.

Water intrusion can move into insulation, wall cavities, decking, finishes, and mechanical spaces. Repeated wetting can support mold growth and accelerate material deterioration. Open joints and failed surfaces can turn into recurring leak paths. Heat exposure can compound stress on roofing and exterior surfaces. And when older buildings contain asbestos, lead-based paint, or other legacy materials, storm damage can turn a maintenance problem into a hazardous-material management problem as well.

That is why the real enemy is not simply the hurricane, wildfire, flood, hailstorm, or heat event. The larger risk is a building that enters the event with a fragmented, aging, or poorly maintained protective envelope.

The source article makes the strategic point clearly: the dangerous choice is to keep repeating the same short-term solutions and expect them to perform differently under more demanding conditions.

The problem is never just the storm. The problem is the building that was never truly prepared to face it.

What the Climate Record Adds to the Lesson

The historical examples are not isolated museum pieces. NOAA reports that U.S. one-day precipitation extremes have been increasing, while rising sea level raises the starting point for coastal flooding and storm surge. The Fifth National Climate Assessment also notes that many infrastructure systems were not designed for the additional stresses associated with a changing climate.

That does not mean every storm will be stronger than the last one, or that every location faces the same hazard. It does mean building owners should stop treating historical weather assumptions as a guarantee of future performance.

A resilience strategy starts with the current building: its roof, walls, transitions, penetrations, drainage, coatings, substrate condition, and the maintenance decisions already made.

Learn more: Green ENCASEMENT Coatings Three-Dimensional Methodology Reference Guide — https://doi.org/10.5281/zenodo.20417601

Learn more: What Makes a Coating Green Reference Guide — https://doi.org/10.5281/zenodo.20386765

The Solution — Green ENCASEMENT Coatings: Engineering Tomorrow’s Resilience Today

Green ENCASEMENT Coatings are presented by GEI as a three-dimensional protection methodology — Green, ENCASEMENT, and Coatings — intended to preserve and strengthen serviceable building surfaces rather than automatically defaulting to removal and replacement.

The central idea is continuity. Conventional paint is often treated as a finish. ENCASEMENT is designed as a protective membrane strategy: prepare the substrate, correct defects that must be corrected, then create a fully adhered protective layer across compatible surfaces and details.

That distinction matters because storms do not attack the building in neat, isolated categories. Wind pushes against walls and roof edges. Water searches for openings. Heat expands and contracts materials. Debris and hail strike exposed surfaces. Resilience improves when the protection system is designed around the building envelope as a whole.

Dimension 1 — GREEN: Protect the Building Without Creating a New Burden

GEI describes Green ENCASEMENT Coatings as water-based, low-to-zero VOC depending on the product, and designed to reduce the need for repeated removal and replacement when existing surfaces remain suitable for restoration. The environmental objective is straightforward: extend useful service life, reduce unnecessary material disposal, and lower the recurring resource demand created by short maintenance cycles.

Reflective exterior surfaces can also contribute to heat management. U.S. EPA guidance explains that cool roofs reflect more solar energy and can reduce roof temperatures and cooling demand in appropriate climates. Actual savings depend on the building, roof assembly, insulation, HVAC system, climate, color, reflectance, and operation.

Dimension 2 — ENCASEMENT: Create the Continuous Defensive Layer

The ENCASEMENT dimension focuses on adhesion and continuity. A liquid-applied coating can conform to irregular geometry, move across compatible transitions, bridge prepared surface imperfections, and form a continuous membrane without introducing another field of overlapping panels or mechanical fasteners.

That does not eliminate the need for sound construction, proper flashing, drainage, structural repair, or code-required work. It changes the maintenance question from “What should we tear off next?” to “What remains structurally serviceable, what must be repaired, and what can be preserved and protected?”

For older buildings, that approach can be especially important when the substrate contains hazardous legacy materials. Where regulations and project conditions permit in-place management, a properly designed coating or encasement strategy may help avoid unnecessary disturbance while extending the useful life of the assembly.

Dimension 3 — COATINGS: A Practical System Local Crews Can Apply

One of the practical strengths emphasized in the source article is deployment. Green ENCASEMENT Coatings can be applied with familiar painting equipment such as brushes, rollers, and airless sprayers. That can make large-scale protective work more accessible than solutions that depend entirely on specialized replacement systems, heavy demolition, or extended building shutdowns.

The sophistication is in the specification, preparation, detailing, chemistry, and required film build — not in making the application unnecessarily complicated.

20+ year renewable protection is the long-term service-life approach GEI identifies for suitable Green ENCASEMENT coating systems and projects.

Cool-roof strategies can reduce heat transfer into buildings and lower cooling demand; actual savings vary by climate and building conditions.

A continuous liquid-applied membrane can reduce the number of exposed seams and transitions that must be maintained across compatible surfaces.

Preserving serviceable building materials can reduce demolition, disposal, replacement logistics, and disruption when restoration is technically appropriate.
​

The Results: What Studying Past Storms Can Change Before the Next One

The value of history is not the story itself. It is what the story changes about the next decision.

For a building owner, facility manager, school, municipality, housing organization, or property portfolio, that can mean:

• Inspecting roofs, walls, flashings, penetrations, joints, drainage, and exterior coatings before severe weather exposes hidden weaknesses.

• Repairing structural or substrate defects first rather than asking a coating to perform work that belongs to an engineer, roofer, or restoration contractor.

• Using continuous protective membranes where the existing assembly is suitable, reducing avoidable seams and vulnerable transition points.

• Managing water as the primary post-storm enemy by protecting the paths through which moisture would otherwise move into the building.

• Reducing unnecessary tear-off and replacement when sound materials can be responsibly preserved and restored.

• Using reflective surfaces where appropriate to reduce solar heat gain and support lower cooling demand.

• Planning for hazardous legacy materials before a storm disturbs them, rather than discovering them during emergency cleanup.

• Creating a renewable maintenance strategy built around decades of service instead of a short repaint-and-repeat cycle.

Before the Next Major Storm: Inspect, Repair, Preserve, ENCASE

The next storm should not be the first time an owner learns where the building envelope is weak.

Start with condition. Is the roof structurally sound? Are there active leaks? Is water trapped in the assembly? Are flashings and penetrations intact? Are wall joints open? Are coatings chalking, peeling, or losing adhesion? Are there legacy materials that require regulated handling?

Then separate repair from protection. Structural damage, failed decking, severe corrosion, active substrate deterioration, code deficiencies, and unsafe assemblies must be addressed by qualified professionals. Coatings are not a substitute for structural engineering or required replacement.

Once the building is a suitable candidate, the protective strategy can focus on continuity, adhesion, water management, flexibility, long service life, and maintainability.

That is the Patton principle applied to buildings: study what past events revealed, remove known weaknesses where possible, and refuse to enter the next event with the same vulnerabilities.

​The next major storm is not a question of if. The practical question is what condition your building will be in when it arrives.

Prepare Before the Weather Makes the Decision

Evaluate the building envelope now. Repair what must be repaired. Preserve what remains serviceable. Then build the most continuous, renewable protection strategy the structure can support.

Call Global ENCASEMENT, Inc.: 800-266-3982 | encasementguy.com | service@encasement.com​

Study what the past has shown. Prepare for what is coming. Protect the building before the storm decides for you.

Cited Sources

• NOAA National Centers for Environmental Information — Hurricane Andrew (1992) — https://www.ncei.noaa.gov/news/hurricane-andrew-1992

• NOAA National Ocean Service — After Sandy: Rebuilding & Recovery — https://oceanservice.noaa.gov/hazards/sandy/

• U.S. Fifth National Climate Assessment — Overview: Understanding Risks, Impacts, and Responses — https://toolkit.climate.gov/NCA5_Ch1_Overview

• NOAA National Centers for Environmental Information — A Warming Earth Is Also a Wetter Earth — https://www.ncei.noaa.gov/news/warming-earth-also-wetter-earth

• NOAA National Ocean Service — Is Sea Level Rising? — https://oceanservice.noaa.gov/facts/sealevel.html

• U.S. EPA — Using Cool Roofs to Reduce Heat Islands — https://www.epa.gov/heatislands/using-cool-roofs-reduce-heat-islands

• Global ENCASEMENT, Inc. — Green ENCASEMENT Coatings Three-Dimensional Methodology Reference Guide — https://doi.org/10.5281/zenodo.20417601

• Global ENCASEMENT, Inc. — What Makes a Coating Green Reference Guide — https://doi.org/10.5281/zenodo.20386765

Source: Global ENCASEMENT, Inc. | Est. Reading Time: 7 min

© 2026 Global ENCASEMENT, Inc. / ENCASEMENT.com | Educational/SEO resource. Citations link to supporting sources.

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Recommended Citation (APA):
Keefe, G. C. (2026). You Know What Past Storms Reveal Could Save Building & Homes [Technical reference article]. Global ENCASEMENT, Inc. / ENCASEMENTguy.com.

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DISCLAIMER: This article reflects the professional perspective of George C. Keefe and the framing in the supplied source article, together with supporting public information cited above. Historical storms illustrate real failure modes, but no coating or building-envelope treatment can guarantee survival of every extreme-weather event.

Green ENCASEMENT Coatings are surface-protection and restoration systems — not structural repair products. Buildings with structural concerns, active substrate failure, code deficiencies, trapped moisture, unsafe roofing assemblies, or other serious defects should be evaluated by qualified architects, engineers, roofing professionals, or other licensed specialists as appropriate.

Weather performance depends on hazard intensity, building design, substrate, preparation, detailing, coating selection, film thickness, drainage, workmanship, maintenance, exposure, and other project-specific conditions. Energy and temperature benefits vary by climate, building geometry, roof color and reflectance, insulation, HVAC efficiency, occupancy, and operation.

Hazardous-material management must comply with applicable laws, regulations, project specifications, and professional guidance. In-place management is not appropriate for every condition or jurisdiction.

© 2026 Global ENCASEMENT, Inc. | encasement.com | 800-266-3982 | service@encasement.com