Seraphim Fire Response v2.0 — The House Plane and the AEGIS Scale Suit

A house can come through a wildfire standing. Seraphim Fire Response v2.0 calculates the ground branch of the Seraphim series with a transient heat model, layer by layer and minute by minute. The House Plane is the main product: a rolled cover that wraps the whole building from ridge to ground and keeps a building standing through a wildfire while its people are safely evacuated. The AEGIS suit is the extreme test bench on which every layer is proven first. House Plane. Dry, without water, pump or power, a cover of pearl-white ceramic skin, microporous insulation and a carbon spreader film with an aluminium back face on the cold side keeps a timber wall at 123 °C beside a burning bush (10 mm) and at 119 °C beside a burning house (25 mm), at 3.5–7.5 kg/m². Under the same cover a tiled roof keeps its battens at 82 °C (10 mm, bush) and 108 °C (15 mm, burning house); uncovered they would reach about 330 °C and 700 °C. The design band is 120–150 °C: with insulation aged by 20 % and a dulled aluminium face the wall stays at 142–149 °C, still 50 K below the 200 °C charring line. Behind the insulation the spreader film stays below about 410 °C, clear of oxidation, and makes hours of ember showers harmless: under an 800 °C ember resting for an hour the back of the insulation stays near 35 °C, and per kilogram the insulation is about twenty times more effective than water stored in the curtain. Several protected houses in a street act together as a firebreak: houses that stay unburnt break the chain from roof to roof. Without insulation, the same fabric becomes a light radiation shield and wrap for campsites, hotels, tanks and trees. Where water is available at any pressure, a ridge-fed wick holds the wall at about 133 °C, and a thermoelectric patch cooled by the same water can power a pump; a buried 6 m³ fire-reserve cistern makes this independent of mains water and grid power. Water stays a bonus; the dry curtain carries the full protection on its own. AEGIS suit and escape class. A ceramic shell, microporous insulation and a 2 mm phase-change vest need 39–55 mm for a 10-minute flame front up to a 30-minute entrapment at 800 °C. Wetted from outside, 15 mm of aerogel holds about 28 minutes and leaves 3–4 minutes of escape if the water stops. Evacuation always comes first; for the rare case that fire cuts off the way out, a quilted escape class of 10–25 mm gives 3 to 12.5 minutes at 800 °C to reach a safe zone, a fire vehicle or a protected building. Overlapping glazed silica scales and a swelling layer add armour and mobility. Two reader classes. Part I explains in plain language for homeowners, insurers and municipalities why houses burn in a wildfire, what the cover holds and what decides its price (production scale, location and house size, with two to three product lines). Part II gives the engineering: the heat-flux-times-time rule, every material, the model tables, heat-to-power limits, a coupon test plan and a maturity map graded A (buildable today), B (research) and C (vision). Novel contributions NC-SFR-16 to NC-SFR-25, each described with construction, parameter ranges, an example embodiment, variants and a validation test: NC-SFR-16 — Outside-wet, inside-dry protective suit NC-SFR-17 — Glazed porous-silica scale armour over a microporous core NC-SFR-18 — Wet scales as an external water buffer NC-SFR-19 — Swelling skin under lifting scales NC-SFR-20 — Misted double-skin House Plane with an inner-side reflector (with wick variant) NC-SFR-21 — Fire-powered drencher pump NC-SFR-22 — Dry House Plane envelope from ridge to ground with a cold-side spreader film and low-emission back face NC-SFR-23 — Self-inspecting, self-closing curtain with a service record NC-SFR-24 — Radiant shield wall, object wraps and ground strip from uninsulated cover fabric NC-SFR-25 — Child evacuation wrap and suit with adult-operable rear closure, blown CO-filter hood and size-exchange service They extend NC-SFR-1 to NC-SFR-15 of v1.0 and are published as open prior art under CC BY-NC-ND 4.0: All values are theoretical design estimates from a 1D/2D transient heat model and require independent validation. This record continues Seraphim Fire Response Ecosystem v1.0 (https://doi.org/10.5281/zenodo.21311788), which holds NC-SFR-1 to NC-SFR-15. v2.0 (October 2026) adds a full transient heat model with peak-and-tail fire profiles, the dry House Plane envelope from ridge to ground with a cold-side spreader film and low-emission back face as the main product, designed to a 120–150 °C wall band with a sensitivity analysis, the quilted escape class and rescue chain (evacuation first), the spray-ring and scale suits as test benches, a heat-to-power ceiling, a coupon test plan, a maturity map, a two-part structure for homeowners and engineers, and ten new detailed novel contributions (NC-SFR-16 to NC-SFR-25), including a light-gate inspection and repair service for the curtain a fire reserve kit with a buried cistern, radiant shield walls and wraps for campsites, hotels and tourist areas, and evacuation wraps and suits for children.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-19
DOI
https://doi.org/10.5281/zenodo.23476976
Primary Topic
Fire dynamics and safety research
Type
preprint
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
preprint

Seraphim Fire Response v2.0 — The House Plane and the AEGIS Scale Suit

Ilir Mehmetaj
Zenodo (CERN European Organization for Nuclear Research)
Fire dynamics and safety research
preprint

Seraphim Fire Response v2.0 — The House Plane and the AEGIS Scale Suit

Ilir Mehmetaj
preprint en

Abstract

A house can come through a wildfire standing. Seraphim Fire Response v2.0 calculates the ground branch of the Seraphim series with a transient heat model, layer by layer and minute by minute. The House Plane is the main product: a rolled cover that wraps the whole building from ridge to ground and keeps a building standing through a wildfire while its people are safely evacuated. The AEGIS suit is the extreme test bench on which every layer is proven first. House Plane. Dry, without water, pump or power, a cover of pearl-white ceramic skin, microporous insulation and a carbon spreader film with an aluminium back face on the cold side keeps a timber wall at 123 °C beside a burning bush (10 mm) and at 119 °C beside a burning house (25 mm), at 3.5–7.5 kg/m². Under the same cover a tiled roof keeps its battens at 82 °C (10 mm, bush) and 108 °C (15 mm, burning house); uncovered they would reach about 330 °C and 700 °C. The design band is 120–150 °C: with insulation aged by 20 % and a dulled aluminium face the wall stays at 142–149 °C, still 50 K below the 200 °C charring line. Behind the insulation the spreader film stays below about 410 °C, clear of oxidation, and makes hours of ember showers harmless: under an 800 °C ember resting for an hour the back of the insulation stays near 35 °C, and per kilogram the insulation is about twenty times more effective than water stored in the curtain. Several protected houses in a street act together as a firebreak: houses that stay unburnt break the chain from roof to roof. Without insulation, the same fabric becomes a light radiation shield and wrap for campsites, hotels, tanks and trees. Where water is available at any pressure, a ridge-fed wick holds the wall at about 133 °C, and a thermoelectric patch cooled by the same water can power a pump; a buried 6 m³ fire-reserve cistern makes this independent of mains water and grid power. Water stays a bonus; the dry curtain carries the full protection on its own. AEGIS suit and escape class. A ceramic shell, microporous insulation and a 2 mm phase-change vest need 39–55 mm for a 10-minute flame front up to a 30-minute entrapment at 800 °C. Wetted from outside, 15 mm of aerogel holds about 28 minutes and leaves 3–4 minutes of escape if the water stops. Evacuation always comes first; for the rare case that fire cuts off the way out, a quilted escape class of 10–25 mm gives 3 to 12.5 minutes at 800 °C to reach a safe zone, a fire vehicle or a protected building. Overlapping glazed silica scales and a swelling layer add armour and mobility. Two reader classes. Part I explains in plain language for homeowners, insurers and municipalities why houses burn in a wildfire, what the cover holds and what decides its price (production scale, location and house size, with two to three product lines). Part II gives the engineering: the heat-flux-times-time rule, every material, the model tables, heat-to-power limits, a coupon test plan and a maturity map graded A (buildable today), B (research) and C (vision). Novel contributions NC-SFR-16 to NC-SFR-25, each described with construction, parameter ranges, an example embodiment, variants and a validation test: NC-SFR-16 — Outside-wet, inside-dry protective suit NC-SFR-17 — Glazed porous-silica scale armour over a microporous core NC-SFR-18 — Wet scales as an external water buffer NC-SFR-19 — Swelling skin under lifting scales NC-SFR-20 — Misted double-skin House Plane with an inner-side reflector (with wick variant) NC-SFR-21 — Fire-powered drencher pump NC-SFR-22 — Dry House Plane envelope from ridge to ground with a cold-side spreader film and low-emission back face NC-SFR-23 — Self-inspecting, self-closing curtain with a service record NC-SFR-24 — Radiant shield wall, object wraps and ground strip from uninsulated cover fabric NC-SFR-25 — Child evacuation wrap and suit with adult-operable rear closure, blown CO-filter hood and size-exchange service They extend NC-SFR-1 to NC-SFR-15 of v1.0 and are published as open prior art under CC BY-NC-ND 4.0: All values are theoretical design estimates from a 1D/2D transient heat model and require independent validation. This record continues Seraphim Fire Response Ecosystem v1.0 (https://doi.org/10.5281/zenodo.21311788), which holds NC-SFR-1 to NC-SFR-15. v2.0 (October 2026) adds a full transient heat model with peak-and-tail fire profiles, the dry House Plane envelope from ridge to ground with a cold-side spreader film and low-emission back face as the main product, designed to a 120–150 °C wall band with a sensitivity analysis, the quilted escape class and rescue chain (evacuation first), the spray-ring and scale suits as test benches, a heat-to-power ceiling, a coupon test plan, a maturity map, a two-part structure for homeowners and engineers, and ten new detailed novel contributions (NC-SFR-16 to NC-SFR-25), including a light-gate inspection and repair service for the curtain a fire reserve kit with a buried cistern, radiant shield walls and wraps for campsites, hotels and tourist areas, and evacuation wraps and suits for children.

Zenodo (CERN European Organization for Nuclear Research)
Fire dynamics and safety research
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.