Hail, Wind, and Storm Damage Structural Inspections
Severe weather events produce structural damage that is frequently mischaracterized, underestimated, or disputed. Hail, high winds, and falling trees each impact a structure differently - and the methods used to assess that damage determine whether the full extent of what occurred gets documented or not.
A Step in Time Structural Engineering provides independent forensic structural inspections for hail, wind, and storm damage. Every inspection is conducted by or under the direct supervision of Mr. Ray Gessner, PE, who holds a HAAG Certification in Residential Roof Inspection. Every report is PE-stamped and documents the full structural impact of the storm event.
How Severe Weather Impacts a Home Structurally
Hail Damage
Hail impacts cause damage to roofing materials, flashings, gutters, siding, and in significant hail events, to structural elements beneath the surface materials. On a roof, hail damage is identified through a combination of granule loss patterns, bruising of asphalt shingles, denting of metal components, and impact evidence on soft metals such as ridge vents, flashing, and HVAC equipment.
Identifying genuine hail damage requires a systematic approach. We use a test square methodology – defining a measured area of the roof surface and counting impact points within it – to establish whether the pattern of damage is consistent with a hail event and to document density and distribution of impacts. This methodology is recognized in insurance and legal contexts as the appropriate basis for hail damage claims.
Not every mark on a roof is hail damage. Mechanical damage, foot traffic, debris, and weathering produce marks that can resemble hail impacts. A HAAG-certified inspector distinguishes between hail-caused damage and damage from other sources as part of the assessment.
Wind Damage
Wind produces structural damage through direct pressure on surfaces, uplift on roof planes, and the differential pressure that develops between windward and leeward sides of a structure during high-wind events. Damage ranges from lifted or missing shingles to structural failures at connections – primarily roof-to-wall connections and sheathing fastening.
Our wind damage assessments examine visible surface damage, structural connection adequacy at the roof perimeter, fastening patterns in accessible framing, and evidence of uplift or movement in roof and wall systems. We reference local weather data, NOAA records, and storm reports to establish what wind conditions the property was exposed to at the time of the event.
Tree and Falling Object Damage
Our Forensic Process
Meteorological Documentation
Field Inspection
White Paper and Industry Standard Reference
PE-Stamped Report
Why Independent Engineering Matters in Storm Damage Claims
Storm damage assessments by insurance adjusters reflect the carrier's process and the adjuster's training. An independent PE-stamped engineering assessment reflects the findings of a licensed professional engineer with no financial relationship to the carrier and no interest in any particular claim outcome.
Where the assessments agree, the independent report confirms the findings. Where they differ, the PE-stamped report provides a professional counterpart with the authority to support a formal dispute. Mr. Ray Gessner, PE is available to provide expert witness testimony in storm damage insurance disputes, appraisal proceedings, and litigation.
Frequently Asked Questions
How do I know if my roof has hail damage?
What is a test square and why does it matter?
Can a storm damage inspection help if my claim was denied?
How soon after a storm should I schedule an inspection?
What storms does your inspection cover?
Schedule a Storm Damage Inspection
Hail, wind, and storm damage assessments from A Step in Time Structural Engineering document the full structural impact of the event - not just what is visible on the surface - using a forensic methodology recognized in insurance and legal contexts.
Ray Gessner, P.E. is licensed in Massachusetts, New York, Maryland, Washington D.C., Virginia, North Carolina, Tennessee, Georgia, Florida, Texas, Oregon, and Washington, Tennessee, Ohio, South Carolina, Louisiana, Iowa, Nevada, Nebraska, Mississippi, Arkansas, Colorado, Oklahoma, Kentucky, and South Dakota. The firm holds DPOR licenses as a Class A contractor, professional engineer, and engineering business entity, with offices in Virginia Beach, Sarasota (FL), and Panama City (FL).