I Bought an Old Home in a High-Risk Wildfire Zone. Here’s How I’m Protecting It.

The author recounts her personal experience with flash flooding during Hurricane Ida in New York City in September 2021, detailing how her old house in Queens was severely damaged. Despite having stored items off the ground, the basement was inundated with 10 inches of water due to sewer and stormwater backup, highlighting the city's aging and overwhelmed infrastructure. This event, which caused widespread damage and fatalities, underscored the increasing threat of heavy downpours due to climate change, with the Northeast experiencing a 71% rise in heavy precipitation over 54 years. Following this devastating experience, the author, alongside her husband, embarked on a comprehensive journey to flood-proof their home. This article details the various DIY and professional solutions they implemented, emphasizing both prevention and protection. The initial steps focused on exterior modifications. She installed flexible downspout extensions to divert water at least 5 to 10 feet away from the foundation, and flattened the soil in their backyard to correct dips that collected water. Rain barrels were also integrated to collect rainwater for garden reuse, which helps reduce the load on the city’s sewer system. The author highlights the importance of regular gutter cleaning, especially in wooded areas, to prevent clogs and overflow. Addressing the foundation, the author used hydraulic cement to seal cracks and holes where the foundation met the garden's perimeter. This quick-drying cement is effective for small leaks, though severe issues require professional intervention. After the cement dried, Drylok Extreme Basement & Masonry Waterproofer was applied to the basement floors and walls to combat modest hydraulic pressure. For aesthetic purposes and additional protection, a topcoat of water-based Behr Premium Porch & Patio Floor Paint was used, followed by Kilz oil-based primer and an oil-based white topcoat to address mineral stains and brighten the space. For immediate water intrusion, the author implemented several solutions. She replaced a flimsy door sweep with an under-door threshold and added weatherstripping to their basement door to create a tighter, more waterproof seal. A critical upgrade was the adoption of a Green Expert 1/3HP Submersible Sump Pump, chosen for its low suction level (1/25 inch) and high pumping capacity (up to 33 gallons per minute), which automatically activates upon contact with water. The article also discusses water-activated Quick Dam Flood Bags and traditional sandbags as temporary barriers, advising on their appropriate use and disposal. Considering more extensive measures, the author details the installation of a backflow valve to prevent sewage and stormwater from backing up into the basement. This device, installed with minimal excavation, seals off drains when water flows in the wrong direction. While it means appliances cannot be used during major storms, it offers significant protection. They also replaced old cleanout plugs with extra-tight expansion plugs for better sealing. The article culminates with the decision to install a French drain to manage hydrostatic pressure and prevent water accumulation, a significant investment that proved worthwhile compared to the losses incurred during Hurricane Ida. The author also mentions other upgrades like raising basement wall outlets, placing the furnace on cinder blocks, installing cellar doors, getting sewer lines snaked regularly, and purchasing backup insurance and smart water-leak detectors. Additionally, the benefits of a dehumidifier and creating a rain garden with absorbent plants are discussed, emphasizing self-sustaining solutions for managing rainwater. The author concludes by advocating for community action and governmental support for improved infrastructure to combat climate change-induced flooding. #FloodProofing #HomeMaintenance #HurricaneIda #ClimateChange #DIYHomeImprovement #BasementFlooding #WaterDamagePrevention #UrbanFlooding #RainGarden #SumpPump

In an era where extreme weather events are becoming more frequent and widespread, homeowners face increasing risks from flooding, storms, and fires. Historically confined to specific regions, these threats now impact areas previously considered safe, making it essential for homeowners to proactively safeguard their properties. This guide outlines six crucial steps to future-proof a home against the impacts of climate change, drawing on insights from home construction and assessment experts. The first step involves understanding the specific risks a home faces. While residents in areas like Miami or California are often aware of their vulnerability to floods, tropical storms, or forest fires, homeowners in newly affected regions may need to assess emerging threats. Online tools such as ClimateCheck and research from First Street can provide detailed, localized risk assessments, projecting potential extreme weather events over the next 30 years based on zip code or street address. This information helps homeowners prioritize necessary improvements. Once risks are identified, the next step is to evaluate the home's structural integrity. Hafsa Burt, Lead Architect at hb+a Architects, recommends engaging a structural engineer to assess the seismic tolerance and resistance to lateral loads, such as wind. If the home’s current structure is found lacking, engineers can suggest improvements like adding a shear wall or strengthening existing walls, which are generally feasible fixes. Addressing flood risks is paramount due to their widespread and catastrophic potential. An inch of floodwater can cause up to $25,000 in damages. The article distinguishes between wet and dry floodproofing. Dry floodproofing involves creating physical barriers, from sandbags to more advanced flood barrier products. Wet floodproofing, suitable for elevated homes or new constructions, allows a designated empty space beneath the home to flood, protecting the main structure. Elevating an existing home is a costly and extensive project, prompting a consideration of relocation for homes in high-risk, slab-on-grade areas. Protecting against fire damage involves two main strategies: creating buffer zones between buildings to prevent fire spread and upgrading structural materials. For single-family homes, upgrading to fire-retardant-treated wood framing, Type X (Fire Resistant) Gypsum Board for drywall, and noncombustible exterior materials are recommended for long-term protection. Mike Powell, a professional engineer, also advises installing modern sprinkler systems indoors for an additional layer of safety. Fortifying a home against strong winds requires focusing on the roofing system and openings. Powell emphasizes securing roofs with hurricane ties and high-wind-rated materials, alongside reinforcing windows and doors against airborne debris. Metal roofing is highlighted as a superior, though more expensive, option for hurricane-proofing. Finally, the dangers of extreme heat, increasingly affecting diverse regions, must be addressed. While air conditioning is a common solution, Hafsa Burt points out its environmental impact and unreliability. Alternatives include upgrading to windows with a lower Solar Heat Gain Coefficient (SHGC) to keep interiors cooler, installing heat pumps for both cooling and heating, or using cost-effective ceiling fans. Mike Powell suggests high-grade insulation, reflective roofing, energy-efficient windows, and strategic landscaping (like shade-providing trees) to reduce heat absorption. However, caution is advised when planting mature trees near properties also at risk of fire damage. Home insurance coverage for extreme weather varies, with most standard policies not covering floods or earthquakes, necessitating separate policies. Fire damage coverage can be complex, often with exclusions or separate deductibles in prone areas. Wind and storm damage are generally covered, but homeowners must understand their deductibles. The cost of future-proofing ranges from a few hundred dollars for sandbags to tens or hundreds of thousands for major structural changes like home elevation or seismic retrofitting. While expensive, these investments are crucial to prevent even greater financial losses and damage in the face of increasingly severe weather events. #HomeProtection #ExtremeWeather #ClimateChangeAdaptation #Floodproofing #FireSafety #WindResistance #HomeMaintenance #StructuralIntegrity #EnergyEfficiency

A modern house located in Nuns Canyon, Sonoma County, California, successfully survived a significant wildfire in October 2017 due to its intentional, eco-smart design. The fire, which began late on October 8th, rapidly spread, engulfing the surrounding area and threatening numerous homes. Kyle Pinjuv, a representative from the Sonoma Land Trust, who was residing in a 1950s-era wooden cottage on the same property, experienced the immediate danger, witnessing the access road consumed by flames. He was advised by firefighters to remain in place until an all-clear, eventually evacuating on foot through a vineyard as the wind shifted, believing his cottage would be lost. The modern house, designed by architect Glenda Flaim of Butler Armsden, was left unoccupied by its owners who had evacuated hours before. Despite the failure of its sprinkler system due to a power shut-off by the utility company, and widespread damage in the region, the house remained standing. Several key design elements contributed to its survival. The home had achieved gold-level LEED certification, indicating its energy-conscious construction also enhanced its fire resistance. A metal, noncombustible roof was a crucial defense, preventing flying embers from igniting the structure from above, a common cause of home destruction in wildfires. In contrast, older homes in the canyon with shingled or more combustible roofing materials were lost. Further protective measures included thoroughly sealed windows and vents, which prevented sparks from entering the attic and minimized smoke infiltration into the interiors. The house featured flame-resistant Alaskan cedar siding backed by fire-rated gypsum board, adding an extra layer of protection. Crucially, the foundation and hardscaping, particularly a large concrete wall surrounding a pool situated downslope from the home, played a vital role. This concrete barrier, a LEED-friendly material often made with local, sustainable, or recycled components, acted as a physical obstacle. As the fire approached, it burned the bocce court and pump house, then encountered the concrete retaining wall around the pool, causing the flames to split and bypass the main residence. The minimal and streamlined interiors of the house sustained only smoke damage, which was remediable through deep cleaning. The pump house and wells required a year to rebuild, but the homeowners and builders opted to preserve some fire scars on the exterior, viewing them as a testament to the home's experience and resilience. Pinjuv, continuing his work with the Sonoma Land Trust, noted a shift in conservation focus towards climate change and its impact, leading to more frequent and intense fire seasons. He emphasized the importance of considering location and construction methods for homes in urban-wildland interface areas to mitigate risks to property and lives, and stressed the critical need to heed evacuation orders from authorities. #Wildfire #FireResistantDesign #SustainableArchitecture #LEEDCertification #HomeSafety #SonomaCounty #ClimateChangeAdaptation #ArchitecturalResilience

As climate change continues to impact environments globally, homeowners are increasingly seeking strategies to protect their properties from adverse weather events. This article provides practical guidance on how to fortify a home against potential damage from phenomena such as rising sea levels, intense storms, and wildfires. It details various innovative upgrades designed to enhance a home's resilience and longevity. One critical area of focus is flood-proofing basements and foundations. Recommendations include installing sump pumps to efficiently remove excess water during heavy rainfall, preventing accumulation. Waterproofing foundations with specialized sealants or membranes is also advised to create barriers against moisture seepage. Furthermore, elevating crucial appliances like furnaces and hot water heaters above anticipated flood levels can significantly reduce damage in the event of water intrusion. For enhanced protection against strong winds, the article suggests specific roofing material upgrades. Metal roofs are highlighted for their durability, high wind resistance ratings, and ability to shed debris effectively. Impact-resistant asphalt shingles are presented as an alternative, engineered to endure severe weather conditions while offering aesthetic appeal, potentially leading to insurance premium savings. Clay or concrete tiles are also mentioned for their inherent strength and weight, which make them less susceptible to uplift during gales. Wildfire defense landscaping is another key strategy discussed for minimizing fire risks around a property. This involves creating a defensible space by selecting fire-resistant plants, particularly native species that are less flammable due to their adaptation to local conditions. Incorporating succulents, which retain moisture, is also recommended. Maintaining a buffer zone by clearing dead vegetation and keeping bushes and trees well-trimmed within at least 30 feet of the home is crucial to prevent fire spread. Hardscaping elements like gravel paths or stone walls are proposed as effective physical barriers against advancing flames, while the use of non-flammable mulching materials instead of wood chips can further reduce fire hazards. Finally, the article addresses the importance of reliable backup power systems to mitigate the impact of unexpected power outages. Various options are explored, including portable generators for flexibility, and standby generators for automatic activation. Eco-friendly alternatives such as solar energy systems, paired with battery storage, are presented for an uninterrupted power supply. Battery backup systems are noted for their increasing popularity, offering quiet and emission-free energy access during outages. These proactive measures not only safeguard a significant investment but also provide a secure environment for residents, ultimately contributing to peace of mind and resilience against future environmental challenges. #ClimateChange #HomeUpgrades #FloodProofing #WindResistantRoofing #WildfireDefense #BackupPower #HomeResilience #SustainableLiving

In areas increasingly prone to wildfires, such as Austin, Texas, building fire-resistant homes is crucial for protecting lives, structures, and wildlands. The International Wildland-Urban Interface Code (IWUIC) provides guidelines for constructing structures in Wildland-Urban Interface (WUI) zones to mitigate fire risks. This code is regularly updated and applies to new builds, additions, relocations, and repairs. The article focuses on wood-framed homes and highlights key aspects of the 2024 IWUIC, acknowledging that local building departments have the final say on acceptable fire-resistant designs. The IWUIC categorizes fire-hazard severity into extreme, high, and moderate, based on factors like fuel type, terrain slope, critical fire weather days, water supply for firefighting, and the quality of defensible space. Defensible space, which can be natural or designed, aims to slow wildfire progression and create areas for fire suppression. The code also assigns levels of ignition-resistant construction (Class 1 IR, Class 2 IR, Class 3 IR), with Class 1 IR offering the highest protection. For example, homes in extreme fire-hazard zones with conforming water supplies must meet Class 1 IR requirements, while those in moderate zones with conforming water supplies may follow Class 2 or Class 3 IR provisions depending on defensible space. A critical component of fire-resistant design is the roof and its assembly. Class A-rated roof assemblies, which perform well under severe fire exposure, are mandatory for Class 1 IR structures. Class 2 IR zones require Class A assemblies or approved noncombustible roof coverings, while Class 3 IR zones allow Class B assemblies or noncombustible coverings. Examples of Class A-rated coverings include asphalt shingles, composite shakes, and TPO membranes. Metal roofing, though noncombustible, needs ignition-resistant underlayments to achieve a Class A rating. Underlayments like Owens Corning's Titanium FR and GAF's VersaShield are commonly used. Noncombustible materials like clay, concrete, and slate roofs offer superior protection but require meticulous installation to prevent ember intrusion, especially at eaves, ridges, and valleys. For roofs with gaps where embers can lodge, the roof deck must be protected, often with a 72-lb. mineral-surfaced cap sheet or Class A-rated deck protection products like Type X gypsum sheathing. Eaves, vents, and gutters also require specific fire-resistant treatments. In Class 1 IR and Class 2 IR zones, the underside of eaves must be protected by ignition-resistant materials, fire-resistant treated wood, or materials with a 1-hour fire resistance rating. Open rafter tails are generally prohibited, or only allowed if constructed of heavy timber. Attic vents, gable-end vents, and dormer vents in Class 1 IR and 2 IR zones must be strategically located, covered with noncombustible, corrosion-resistant mesh with small openings (not exceeding 1/8 inch), and designed to prevent flame or ember penetration. Gutters and downspouts must be noncombustible and designed to prevent debris accumulation. For walls and wall assemblies, noncombustible cladding such as brick, stone, stucco, ceramic tile, metal, and fiber-cement provides superior protection. Certain dense tropical hardwoods and fire-retardant-treated wood (FRTW) sidings are also ignition-resistant options. In some cases, a 1-hour fire-rated wall assembly is required, often incorporating 5/8-inch-thick Type X exterior gypsum board or specialized sheathing like Georgia-Pacific’s DensGlass. In extreme fire-hazard zones, the bottom 6 inches of a Class 1 IR wall must be noncombustible or protected with metal flashing where it meets the ground, a deck, or a roof. The article also advises careful consideration for rainscreens and open-joint cladding to prevent ember entry. Windows and doors in Class 1 IR and Class 2 IR constructions must use specific glazing types, including tempered glass, multilayered glazed panels, glass block, or glass with a minimum 20-minute fire rating. While window-frame material is not restricted, many jurisdictions require at least one tempered glass layer. Exterior doors must be noncombustible (e.g., hollow-core steel, fiberglass) or solid-core wood with a minimum thickness of 1 3/4 inches, with glazing requirements mirroring those for windows. Vehicular access doors like garage doors are exempt from IWUIC but may have local sealing stipulations. Porch ceilings and underfloor areas also have specific requirements. If a porch has living space above, its underside and supporting elements must be made of heavy timber, FRTW, or 1-hour fire-resistant construction. Crawlspaces and overhanging projections like balconies must also comply with these "underfloor enclosure" provisions. Deck surfaces in Class 1 IR and Class 2 IR areas must be noncombustible or ignition-resistant, including materials like flagstone, concrete, and Class A-rated composite or hardwood decking. Deck framing in these zones must be noncombustible, ignition-resistant, heavy timber, or FRTW. Undersides of decks over steep descending slopes require enclosure with walls meeting house exterior wall standards. Detached accessory structures within 50 feet of a habitable building in Class 1 IR and Class 2 IR zones must have ignition-resistant exterior walls or be constructed with 1-hour fire-rated materials. Automatic sprinkler systems are required in Class 1 IR areas to contain internal fires. The article emphasizes the importance of consulting local building officials due to the complexity and potential for interpretation in building codes, concluding that despite restrictions, resources are available to design and build attractive and safe homes in wildfire-prone regions. #WildfireResilience #FireResistantDesign #WildlandUrbanInterface #BuildingCodes #ConstructionMaterials #HomeSafety #ArchitecturalDesign #SustainableBuilding

The article discusses the importance of building resilient homes to withstand severe weather events, drawing on the author's extensive experience with hurricane damage and the advancements in construction standards. The author, Patrick McCombe, recounts his early career experiences observing the devastation left by hurricanes Andrew and Katrina, highlighting the prolonged and incomplete recovery efforts in their wake. These experiences underscore the critical need for more robust building practices. The focus of the article is the Fortified Home standard, developed by the Institute for Business and Home Safety (IBHS), a nonprofit research organization funded by the insurance industry. The IBHS conducts rigorous testing at its South Carolina research facility, simulating hurricane-force winds, rain, hail, and flying projectiles, to create standards designed to make homes more resilient. The Fortified standard offers three designation levels—Fortified Roof, Fortified Silver, and Fortified Gold—each building on the previous level with additional improvements for increased resilience against natural disasters. These standards apply to both new constructions and retrofits. The Fortified Roof standard, for instance, includes specific measures such as sealed roof sheathing, strengthened edge protection, and additional nails in the sheathing, underlayment, and drip edge. Shingles are installed according to the manufacturer’s high-wind instructions. These measures aim to prevent water intrusion even if shingles are dislodged during a storm. For Fortified Silver and Gold homes, additional enhancements include strengthened gables, sheathed walls with specific nailing patterns for enhanced impact, racking, and blow-off resistance, and a continuous load path (CLP) connecting the roof, walls, floor systems, and foundation. Fortified Gold homes in hurricane zones often require professional engineer designs for the CLP. The article features an interview with Ben Murphy, a roofing contractor and home builder in Foley, Alabama, who has been a Fortified roofer for over a decade. Murphy shares his experiences, noting that his Fortified Roofs sustained zero damage from Hurricane Sally in 2020, a Category 2 storm with 110 mph winds and significant rainfall, except for three instances where trees fell directly onto the roofs. This contrasts sharply with the widespread devastation observed in other homes in the area. Similar testimonials are provided on the fortifiedhome.org website, including a house in Mexico Beach, Florida, that survived the Category 5 Hurricane Michael in 2018. The financial implications of Fortified construction are also addressed. Building a Fortified Home entails higher costs due to additional materials like connectors, impact-rated windows, fully sheathed walls, and more stringent fastening schedules for sheathing and roofing. The work also requires more time than conventional construction, as speed is often prioritized in traditional methods. Third-party inspections by Fortified-trained inspectors, along with extensive photo documentation of nailing patterns and roof-deck sealing, are part of the certification process. Ben Murphy estimates that a Fortified Roof costs 15% to 25% more than a conventional roof, and a Fortified Gold home can cost 10% to 15% more than a standard structure, with substantial investment in components like stainless-steel fasteners and impact-rated windows. Despite the higher initial costs, there are significant long-term benefits and motivations beyond financial considerations. Insurance discounts are often provided for Fortified-certified homes, and in high-risk areas, meeting these standards may be a prerequisite for obtaining insurance at all. More importantly, building stronger homes can prevent deaths and injuries during severe weather, allow residents to shelter in place, and facilitate quicker community recovery. The availability of housing helps retain local workers, contributing to regional economic stability. The construction industry also benefits from reduced volatility and scarcity of building products that often follow major storms. The article argues that while some question building in disaster-prone areas, the appeal of locations like the coast means construction will continue, making resilient building the sensible solution. It also highlights that high winds and hail are widespread issues, affecting much of the country, not just coastal regions, and often cause more damage than hurricanes and tornadoes combined in an average year. The insurance industry's influence on building standards is presented as a historical precedent, drawing parallels to the development of early building codes after major fires in the 19th century. The article suggests that current efforts by the insurance industry to promote resilient construction are a continuation of this tradition, aiming to mitigate future losses and protect communities. Government-funded grant programs for homeowners implementing resiliency measures are seen as crucial for the widespread adoption of Fortified standards. #FortifiedHome #HurricaneResilience #SevereWeatherProtection #BuildingStandards #ConstructionMethods #Roofing #NaturalDisasters #InsuranceIndustry #HomeSafety

This article is the final installment of the "When Rivers Rise Fast" blog series, focusing on practical steps homeowners can take to protect their property and belongings from flash floods. The series previously covered the dangers of flash flooding, the functionality of the new flood warning system, and the San Antonio River Authority's role in flood risk management. The article outlines six key steps for property protection. The first recommendation is to keep drains and gutters clear by ensuring that leaves, grass clippings, and trash do not obstruct storm drains. Clogged drains can lead to water backing up into streets and yards, so regular gutter cleaning is essential to facilitate proper rainwater runoff away from the home. The second step involves directing water away from the home's foundation. This can be achieved through the implementation of rain gardens or by strategically positioning downspouts to guide runoff into the yard, at least 3-5 feet away from the house, garage, or foundation. The article references a resource for building residential rain gardens. Thirdly, the article suggests using resilient materials in flood-prone areas of the home. This means avoiding carpets or other materials that are susceptible to molding or degradation when wet. Instead, homeowners are advised to consider alternatives such as tile, sealed concrete, or other water-resistant flooring options. Protecting important items is the fourth crucial step. This involves storing critical documents, electronics, and valuable equipment on higher shelves or in watertight containers. For those with multi-story homes, the advice is to move valuables to an upstairs level during periods of high flood risk or storm season. The fifth step emphasizes the importance of understanding a home's floodplain. Homeowners are encouraged to check local floodplain maps to determine if their property is located in a high-risk area. Even if a property is not officially in a mapped flood zone, localized flooding due to heavy rainfall is still possible, and the article suggests considering flood insurance as a preventative measure. Finally, the article stresses the importance of staying connected and informed. This includes signing up for flood alerts and weather warnings. Additionally, preparing an emergency kit containing essential items such as flashlights, batteries, water, and basic supplies is recommended. The article concludes by reiterating that while a home cannot be made entirely flood-proof, these small, proactive actions significantly enhance protection, minimize damage, and facilitate a quicker recovery after heavy rainfall events. It also provides links to external checklists from FEMA for flood home preparation and building an emergency supply kit. #FloodSmartLiving #PropertyProtection #FlashFloods #HomeSafety #FloodPreparedness #DrainageManagement #ResilientMaterials #EmergencyKit