30 Fire guides
Stabilization, assemblies, suppression water, commercial losses, demolition, reconstruction and professional boundaries.
SDM Technical Authority Library
The original water-mitigation library remains fully available, now joined by 30 fire guides, 30 smoke guides, and 32 odor guides so the Authority Library reflects Same Day Mitigation’s full service offering.
Stabilization, assemblies, suppression water, commercial losses, demolition, reconstruction and professional boundaries.
Soot chemistry, deposition, HVAC migration, cleaning, filtration, containment and post-cleaning verification.
Cooking/spice, tobacco, pets, tenant turns, source control, HVAC, filtration, coatings and verification.
Fire · 30 new technical guides
Fire-damage mitigation guidance covering stabilization, suppression water, assemblies, safety boundaries and reconstruction readiness.
Why a fire-damaged building should be treated as a changing structural and environmental condition before cleanup begins.
A field-oriented framework for evaluating gypsum board after heat, smoke, soot and firefighting water exposure.
How heat, soot, smoke and suppression water complicate decisions about insulation after a structure fire.
What char, discoloration, odor and smoke deposition can—and cannot—tell you about wood framing after a fire.
Why visible fire damage, heat exposure and suppression water around electrical equipment require licensed evaluation.
How firefighting water can migrate far beyond the burn area and become a separate structural-drying incident.
Temporary protection priorities when fire operations leave roofing, soffits or attic assemblies open to weather.
How failed glazing and openings affect security, weather exposure, pressure boundaries and smoke movement after fire.
A layered approach to floor coverings, underlayment and subfloor after heat, soot and water exposure.
Evaluating cabinets that may have heat, soot, smoke odor and water exposure across multiple materials.
Why staining and soot on masonry are different questions from heat-related material or structural effects.
How combustion residues, humidity and firefighting water can accelerate corrosion on metals and equipment.
Why air-handling equipment should be evaluated before it redistributes particles and odors.
What to record before emergency cleaning, demolition and debris removal change the evidence.
How debris removal can expose hidden conditions while also creating dust and cross-contamination risk.
Why demolition scope should follow evidence, accessibility and material condition—not a single visual impression.
How to separate, document and protect contents without spreading soot or losing condition information.
First steps for smoke-, soot- and water-affected paper records and photographs.
How stabilization, access zoning and phased work can support operations without minimizing safety.
Why shared walls, shafts, corridors and HVAC can create a different fire-loss map than the visibly burned unit.
Additional planning considerations for sensitive populations, shared HVAC and occupancy controls.
Why infection-control, vulnerable occupants and continuous operations change mitigation sequencing.
Large-volume smoke movement, process hazards and inventory complexity after commercial/industrial fires.
How vertical shafts can move smoke and complicate inspection after a multi-story fire.
Why attic spaces combine difficult access, porous insulation, framing and hidden water.
Why cooking oils and fire residues can create especially tenacious deposits on nearby finishes and equipment.
Why power, corrosion, soot and heat exposure make electronics a specialty decision.
A checkpoint approach for moving from stabilization and cleaning into repair.
How visual inspection, odor assessment, particulate control and targeted specialist testing fit together.
A practical boundary map for structural, electrical, mechanical, environmental and code questions.
Smoke · 30 new technical guides
Smoke and soot guidance covering residue behavior, migration, HVAC, cleaning methods, particulate control and verification.
Why the fuel and combustion conditions matter before choosing a cleaning method.
Why ceilings, corners, electronics and air pathways can show different residue patterns.
How returns, supply paths and equipment operation can redistribute smoke through a building.
A test-cleaning approach for walls and ceilings with visible or suspected soot deposition.
How finish type and construction details affect smoke cleaning decisions.
Why a hard surface can still contain porous joints, sealers and residues that need different treatment.
Why soft goods require attention to particle loading, odor, water exposure and construction.
Why removing loose particulate first can prevent smearing and deeper penetration.
What HEPA vacuuming can accomplish—and what it cannot.
How portable filtration supports particulate control during disturbance and cleaning.
Work-zone design for keeping soot from moving into cleaned or unaffected areas.
Why a surface can look clean and still contribute to odor—or smell smoky without visible soot.
When penetrations, pressure pathways and open assemblies justify hidden-surface inspection.
How wildfire ash differs from an ordinary interior cooking or localized smoke event.
How zoning, HVAC and phased occupancy change the smoke-mitigation plan.
Why shafts, stairwells and stack effect can move smoke vertically.
Why fine particles and corrosive residues can create problems beyond visible appearance.
How filter condition fits into a larger HVAC assessment.
Why gravity and air movement leave contamination in places that are easy to skip.
When ordinary laundering may be enough and when specialty textile restoration is appropriate.
Particle removal and conservation boundaries for porous paper materials.
Why coatings are a later-stage tool—not a substitute for source removal and cleaning.
A diagnostic sequence for finding residual source areas instead of simply adding fragrance.
When pressure control can help contain disturbed particles—and when building systems complicate it.
Why respiratory protection must follow hazard assessment and a real program—not an improvised mask choice.
A multi-layer quality-control approach after smoke restoration.
How communication, isolation and phased work reduce disruption in offices, retail and multifamily properties.
How to create a defensible record without overstating what photos prove.
Why closing walls too early can conceal residual sources or incomplete cleaning.
Why apparently nonporous surfaces still require residue-specific cleaning and corrosion awareness.
Odor · 32 new technical guides
Source-first odor-remediation guidance covering cooking, tobacco, pet, tenant-turn, HVAC, filtration and verification.
Why persistent odor remediation should begin with the material, pathway and condition producing the odor.
A source-focused approach to persistent cooking aromas embedded in kitchens, apartments and tenant-turn spaces.
Why persistent kitchen odor is often a surface-deposition problem as much as an air problem.
A repeatable commercial workflow for apartments and rentals with persistent odor between occupants.
Why recurring tobacco odor often requires removal of deposited residue before coatings.
Why removing carpet alone may not solve odor that reached cushion, tack strips, baseboards or subfloor.
How repeated contact and marking can create vertical odor sources beyond flooring.
Why lingering sewer odor requires distinguishing contaminated materials from plumbing or trap-gas problems.
Why deodorizing a musty building without correcting moisture usually fails.
Why touch is not a reliable dry standard and why residual sources may remain after a water loss.
Why fragrance, fogging and air fresheners should not be confused with removal of smoke residue.
How mechanical systems can distribute or retain odor-producing contaminants.
What gas-phase media can do, and why it does not replace source removal.
Why HEPA filters excel at particles but do not remove every odor-causing gas.
Why ozone requires special caution and should never be treated as a harmless occupied-space deodorizer.
A cautious framework for oxidation technologies without treating equipment as a substitute for cleaning.
Why odor counteractant fogging should come after cleaning rather than instead of it.
When coatings can help after the substrate is cleaned, dry and stable.
Why porous mineral surfaces can retain liquids and odors after a spill or long-term exposure.
How to decide whether cleaning, drying, sealing or replacement is warranted after the finish floor is gone.
How pressure differences, penetrations and shared systems move odor beyond the source unit.
Why grease source control, exhaust performance and adjacent porous materials all matter.
A room-turn workflow that protects speed without covering unresolved odor sources.
How to handle food, smoke, fragrance and material odors before a new commercial tenant occupies the space.
How packaging, porous inventory and large-volume air movement complicate commercial odor work.
When a “chemical smell” is more likely a new-material VOC issue than an old-loss residue.
Why sewer-gas pathways should be ruled out before repeated deodorization.
Why locating and removing the source is usually more effective than repeated air treatment.
How draft, deposits and building pressure can create recurring smoke odor without a recent structure fire.
Why stack effect and air leakage can pull odors from concealed building zones into occupied rooms.
How to use sensory observations responsibly in a technical remediation record.
How to verify that source work—not masking fragrance—is driving the improvement.
Preserved library
These existing Authority Library guides remain in place and retain their current URLs.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Cross-loss library
These guides connect fire and smoke conditions with suppression water, HVAC movement, odor source control, and material response.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.
Source-first technical guidance with clear evidence and professional-boundary language.