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Your House Remembers Your Dog: Notes from the 2026 Housing Resilience Roundtable

  • 1.  Your House Remembers Your Dog: Notes from the 2026 Housing Resilience Roundtable

    Posted 04-08-2026 04:21 PM

    Preamble: On March 2nd and 3rd 2026, researchers and practitioners gathered at the Housing Resilience Roundtable, an event produced by the University of Florida (UF), Florida Institute for Built Environment Resilience (FIBER) and Florida Agricultural and Mechanical University (FAMU) School of Architecture and Engineering Technology (SAET) in partnership with the Center of Excellence for Housing and Community Development Policy and Research (HCDPR), and the University of Texas at Austin. The event was part of the U.S. Department of Housing and Urban Development (HUD) grant #H-21737 CA. What follows are my notes as the organizer and do not necessarily reflect the views or policies of the HUD or the USA Government.

    What memories are imprinted in your home in the process of pouring a concrete foundation, nailing SYP[1] studs, filling the gaps with insulation, and closing it with gypsum board? The dream house being manifested is filtered through multiple layers of complex regulatory systems, market pressures, material availability (or reliability), and labor skills. We want a house that acts as the keeper of our health, safety, and welfare. And yet, our reality is chronic disease[2].

    Your house remembers your dog[3]. As someone who just lost a cat, I was moved. The context for this sentence was not poetic. It was meant as a digestible illustration of what happens to toxins inside buildings. We are constantly co-creating the invisible (to us) microbiome of the places we inhabit[4]. By the materials we choose (and produce). By the products we use. By how we interact (and prescribe interactions) with fire, water, earth, and air.

    Lisa Platt opened the first session by tracing this dynamic to before the Industrial Revolution. Silk moths, she reminded the room, build their cocoons with remarkable parsimony: context-specific, regionally tuned, structurally precise. We used to build that way. Then we moved to standardization, and somewhere in that process we lost the thread between material and place. Her research at UF FIBER works to recover it computationally, building models that score material performance against specific climate risks: water intrusion, extreme heat, the slow accumulation of moisture behind a sealed wall[5]. Technology can be a connector, but smart home technology is useless if the materials are already failing.

    Corbett Lunsford carried that argument into the house itself. His discipline is home diagnostics. What the blower door, the infrared camera, and the pressure gauge reveal is that most building failures are not one thing going wrong, but several systems falling out of tune at the same time. The air inside our homes is not inert. It holds what you cooked last night, what you cleaned with this morning, the compounds from your deodorant spray can. Researchers are still mapping how these compounds interact, react, and accumulate in the enclosed spaces where we spend most of our lives[6]. What compounds are we making inside building walls? Nobody fully knows.

    Our institutional memory wavers. Is it by design? Who has the construction document set? Please mail it in. Our building codes were shaped by fire. FIRES. In a little over a century we were able to formalize standards that can be implemented across the globe, reducing dramatically the number of fires and fire-related deaths in the USA[7]. The same drive toward standardization that made our buildings safer from fire made them less equipped to handle what came next: moisture, heat, the slow chemistry of a sealed envelope in a climate the code was never written for.

    Jeana Ripple named this precisely. Building codes, she observed, have no feedback loops. They were never designed to ask: what is the cumulative urban-scale impact of this decision across a century? Type V wood-frame construction was adopted in the early 1900s to advance political and economic goals. It was optimized for fire. It became the default everywhere, including low-lying areas it was never designed to inhabit. The tight envelope that saves energy traps moisture. The code that solved one hazard produced another: enters, mold candy[8]. That is not what I want inside my walls.

    Barbara Wilson asked the harder question underneath that observation: who gets to revise our regulatory landscape?[9] Her argument begins with Panarchy. When one strategy is consolidated and replicated across many systems at scale, local adaptive capacity dwindles, the same way monoculture makes forests catastrophically vulnerable to a single event. Creative destruction ensues.[10] Standardization is efficient until it isn't. When it fails, the consequences are long-standing for those with the least margin. How do we make space for the commons inside a private-property-entrenched code system? How do we code for collective wellbeing? She pointed toward informal settlements as a learning ground, not out of romanticism, but because there are already adaptive strategies in place that formal systems have not yet learned to value. The answer, she suggested, might already exist at the scale we keep overlooking.

    Data tuned to the neighborhood as the datum can begin to connect user, builder, designer, context, and institution. We don't build on blank canvases. Houses exist in an ever-changing socio-ecological context. Social epidemiology posits that your stance changes your decision-making process. Katherine[11], Heather[12], and Gloria[13] nodded in agreement.

    Adele Houghton offered the empirical evidence for why stance matters[14]. Her architectural epidemiology framework starts from a simple provocation: the property line is the wrong unit of analysis. When she studied cities that had signed climate health pledges, she found that citywide data showed reduced rates of respiratory and chronic disease. The aggregate number looked like progress. But when she stratified the results by social vulnerability, the picture changed. The gains were concentrated in less vulnerable neighborhoods. The more vulnerable communities were not being helped. The city-scale data was masking neighborhood-scale harm. What you measure determines what you see. What you see determines what you build.

    David Perkes has been in Biloxi since Katrina[15]. Twenty years of building houses with and for people who have lost their homes. He told the state, early on: if you want people to stay in these houses long-term, they have to like them. The urgency to house people and the importance of housing people well are not the same thing. He offered a story near the end of the session. A community elsewhere, not in a floodplain, not in any dataset that would flag them for risk. Residents had been placing sandbags at their doors for years. Not because of a river. Because the hillside above them was all concrete, and whenever it rained, the water came straight down into their houses. Local officials had no idea. The data did not show it. The residents knew. They had always known. Nobody had asked.

    The Housing Resilience Roundtable was designed around this convergence. Three sessions, each a different scale: materials, codes, and neighborhoods. Each pair of presenters arriving at the same gap from a different direction. The gap between what a system was designed to remember and what it needs to know now. A forum for discussion might just be what this moment calls for. The Housing Resilience Roundtable is an evolving container meant to hold and nurture conversations that can connect across disciplines and practices so we can imagine (and act on) resilient futures for our homes, our neighbors, and our communities.

    What might we remember? Or better, what memories might we make together?


    [1] Southern Yellow Pine, commonly used for dimensional lumber across the south of the USA.

    [2] Tran et al review a range of indoor pollutant sources, from building materials and combustion to biological contaminants, and map their documented health effects across respiratory, cardiovascular, and neurological disease. Their table of common indoor pollutants and health impacts is a useful inventory of everything the house quietly holds. Tran, Park, and Lee, "Indoor Air Pollution, Related Human Diseases, and Recent Trends," 2927.

    [3] The house accumulates biological memory of its occupants. Lax et al. tracked the microbiomes of seven families over six weeks, including three that moved homes, and found that each home's microbial community was identifiable by family, with new homes converging on the occupants' prior microbial environment within a day of moving in. When an occupant left for several days, their microbial contribution to home surfaces declined and returned when they came back. Pets introduced additional layers: indoor-outdoor animals tracked plant and soil bacteria into the home, expanding the biological record beyond its human authors. That record does not clear quickly. Matt et al. detected nicotine on surfaces in all 220 homes they sampled in San Diego, including every nonsmoker home with a strict indoor smoking ban. Approximately 10 percent of those nonsmoker homes showed nicotine levels higher than the average found in homes of active indoor smokers from previous studies. Individual cases documented surface nicotine persisting at high levels for up to nine years after tobacco use ended. Lax et al., "Longitudinal Analysis of Microbial Interaction between Humans and the Indoor Environment," Science 345, no. 6200 (2014): 1048-1052, https://doi.org/10.1126/science.1254529; G. E. Matt et al., "Persistent Tobacco Smoke Residue in Multiunit Housing," Preventive Medicine Reports 18 (2020): 101088, https://doi.org/10.1016/j.pmedr.2020.101088.

    [4] Bosch et al. make the case that contemporary architectural design, by sealing buildings and reducing porosity, has progressively disconnected occupants from the microbial diversity of the natural environment, concentrating human-adapted microbes while cutting off exposure to the broader ecological microbiome humans evolved alongside. They propose the concept of "healthy porosity" as a design principle: the built environment as a system of managed exchanges, not a sealed container. Bosch et al., "The Potential Importance of the Built-Environment Microbiome."

    [5] The Sustainable Adaptive Material Performance Level System (SAMPL) organizes building materials by surface type and occupancy type, rating each material across four output dimensions: resiliency, strength, sustainability, and symbiosis. The system was first deployed tuned to water intrusion risk for the Florida Office of Insurance Regulation, then tested against ICC standard use, with a third iteration in development tuned to heat index risk. For the tool description, see Platt and Zeinali, SAMPL, https://dcp.ufl.edu/fiber/resources/. The live dashboard is publicly accessible at https://public.tableau.com/app/profile/arezoo.zeinali/viz/Programguidedashboard/Dashboard2.

    [6] HOMEChem was a controlled study of a real house over several weeks, instrumenting a home to measure what happens chemically during ordinary domestic activity: cooking, cleaning, occupancy. The findings revealed that indoor chemistry is far more dynamic and reactive than models had assumed, with compounds from routine activities combining to produce new chemical species not present in any individual product or material. Farmer et al., "Overview of HOMEChem," 1280.

    [7] In 2024, local fire departments responded to an estimated 1.38 million fires in the United States, causing 3,920 civilian deaths and $19 billion in property damage. The overall estimate of total fires was 54 percent lower in 2024 than in 1980, and the rate of civilian fire deaths per million population was 60 percent lower. The gains are real. They are also uneven: the death rate per 1,000 reported one- or two-family home fires was 44 percent higher in 2024 than in 1980, even as the total number of such fires fell. The code solved for volume. It has not yet solved for the house. Hall, "Fire Loss in the United States," NFPA, 2025, accessed March 2026.

    [8] Cited in her book, mold candy refers to the end product (plywood) from the process of softening and treating wood, which makes it more susceptible to mold growth. Ripple, The Type V City, 51.

    [9] Resilience for All argues that resilience planning for vulnerable communities requires place-based, inequity-conscious approaches that couple technical and social systems. Wilson presents community design projects in Detroit, Biloxi, and New York where small-scale, resident-led design served as a tool to test urban futures, process trauma, expose inequities, and build collective vision. Her core claim: the burden of shifting power imbalances should not fall on vulnerable communities. Municipalities that want their most exposed residents to benefit from development must invest in those residents' self-determination and adaptive capacity. Wilson, Resilience for All (Washington, DC: Island Press, 2018), 169-175.

    [10] Creative destruction is a cycle in the complex system framework in Panarchy theory. It describes the collapse that follows due to a system so tightly connected and over-accumulated that it has traded resilience for efficiency, until a disturbance releases what has been stored. The collapse is not a malfunction. It is structurally inevitable in any system that consolidates without maintaining adaptive capacity. Holling and Gunderson identify the rigidity trap as the pathological version of this: a system that resists collapse through social control and the ejection of novelty, accumulating potential it can no longer productively release. Gunderson and Holling, Panarchy, 34, 96.

    [11] If, like me, you love footnote gossip, Katherine McKittrick makes the case for extensive use of these to carry, consider, and discuss multiple stances/perspectives in one paragraph. McKittrick, Dear Science and Other Stories.

    [12] Heather McGhee weaves in events through history to show that systemic racism is detrimental to The Sum of Us. McGhee, The Sum of Us.

    [13] In Belonging, bell hooks (born Gloria Jean Watkins) reflects on interactions with her family and her many different perspectives at different stages of life. hooks, Belonging.

    [14] Architectural Epidemiology proposes a transdisciplinary field that bridges building design and public health, arguing that real estate development has systematically overlooked the link between the built environment and health outcomes. Houghton and Castillo-Salgado draw from environmental and applied social epidemiology to offer a problem-solving methodology for identifying design and operational strategies that reduce exposure to environmental hazards and promote healthy behaviors. Their central move is scalar: shifting the unit of analysis from the building to the surrounding community, and from individual outcomes to population health. Place-based design, they argue, can measurably mitigate the adverse effects of climate change and chronic disease. Houghton and Castillo-Salgado, Architectural Epidemiology (Baltimore: Johns Hopkins University Press, 2025).

    [15] The Gulf Coast Community Design Studio is a professional service and outreach program of Mississippi State University's College of Architecture, Art and Design, established in Biloxi in response to Hurricane Katrina. Its mission is to provide professional assistance that increases the capacity of local communities to address housing, public space, and neighborhood development, while advancing the regional and national dialogue on design, affordable housing, coastal resilience, and sustainable development. Since 2005, the studio has completed projects ranging from post-Katrina house rebuilding and flood zone mitigation planning to tidal marsh restoration and workforce housing design, working through close partnerships with local organizations across the Mississippi Gulf Coast. Perkes, Gulf Coast Community Design Studio, https://www.gulfcoaststudio.msstate.edu.

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    For Further Reading

    Bosch, T. C., M. Wigley, B. Colomina, B. Bohannan, F. Meggers, K. R. Amato, and M. K. Melby. "The Potential Importance of the Built-Environment Microbiome and Its Impact on Human Health." Proceedings of the National Academy of Sciences 121, no. 20 (2024): e2313971121.

    Gunderson, Lance H., and C. S. Holling, eds. Panarchy: Understanding Transformations in Human and Natural Systems. Washington, DC: Island Press, 2002.

    hooks, bell. Belonging: A Culture of Place. New York: Routledge, 2009.

    Houghton, Adele, and Carlos Castillo Salgado. Architectural Epidemiology. Baltimore: Johns Hopkins University Press, 2025.

    Lunsford, C., and G. Lunsford. Home Diagnosis. Television series. Georgia Public Broadcasting / PBS, 2019. https://www.pbs.org/show/home-diagnosis.

    McGhee, Heather. The Sum of Us: What Racism Costs Everyone and How We Can Prosper Together. New York: One World, 2021.

    McKittrick, Katherine. Dear Science and Other Stories. Durham: Duke University Press, 2021.

    Moore, Steven A., and Barbara B. Wilson. Questioning Architectural Judgment: The Problem of Codes in the United States. New York: Routledge, 2013.

    National Fire Protection Association. "Fire Loss in the United States." 2025. https://www.nfpa.org/education-and-research/research/nfpa-research/fire-statistical-reports/fire-loss-in-the-united-states.

    Perkes, David. Gulf Coast Community Design Studio. Mississippi State University, 2005-present. https://www.gulfcoaststudio.msstate.edu.

    Platt, L. S., and A. Zeinali. SAMPL: Sustainable Adaptive Material Performance Level Dashboard. Gainesville: UF FIBER / University of Florida, 2024. https://dcp.ufl.edu/interior/sampl.

    Ripple, Jeana. The Type V City. Charlottesville: University of Virginia Press, 2024.

    Tran, V. V., D. Park, and Y.-C. Lee. "Indoor Air Pollution, Related Human Diseases, and Recent Trends in the Control and Improvement of Indoor Air Quality." International Journal of Environmental Research and Public Health 17, no. 8 (2020): 2927. https://doi.org/10.3390/ijerph17082927.

    Farmer, D. K., M. E. Vance, J. P. D. Abbatt, A. Abeleira, M. R. Alves, C. Arata, E. Boedicker, S. Bourne, F. Cardoso-Saldaña, R. Corsi, et al. "Overview of HOMEChem: House Observations of Microbial and Environmental Chemistry." Environmental Science: Processes and Impacts 21, no. 8 (2019): 1280–1293. https://pubs.rsc.org/en/content/articlehtml/2019/em/c9em00228f.

    Wilson, Barbara Brown. Resilience for All: Striving for Equity through Community-Driven Design. Washington, DC: Island Press, 2018.



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    Ana Tricarico Orosco AIA
    UF Florida Institute for Built Environment Resilience (FIBER)
    Tallahassee FL
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