All 1300 essays
1300 reading pieces, each with a name, a number, and a decision. They sit beside the atlas entry. They do not replace it.
- Aerogel in 1931: Kistler
- Aluminium in 1825: Ørsted / Wöhler isolation
- Aramid in 1965: Kwolek PPTA
- Bamboo in : Scaffold and house
- Carbon fibre in 1879: Edison filament
- Ceramic fibre in 1942: Babcock & Wilcox
- Concrete in : Opus caementicium
- Copper in 5000: Native copper
- Cotton in 5000: Mexico / Peru fibre
- Glass in 3500: Beads & glazes
- Graphene in 1947: Wallace theory
- Gypsum board in 3700: Gypsum plaster
- Intumescent coating in 1821: Gay-Lussac notes
- Mineral wool in 1840: Edward Parry lore
- Nitinol in 1959: Buehler NOL
- Nomex in 1961: DuPont meta-aramid
- Nylon in 1935: Carothers 66
- Perovskite (PV) in 1839: Rose mineral
- Phase-change material in 1948: Telkes Dover house
- Polyester in 1929: Carothers esters
- Polyethylene in 1898: von Pechmann
- Polyurethane foam in 1937: Otto Bayer
- PTFE in 1938: Plunkett cylinder
- Natural rubber in : Olmec balls
- Silicone in 1901: Kipping
- Silk in 2700: Leizu legend
- Stainless steel in 1821: Stodart–Faraday
- Steel in 1800: Bloomery iron
- Technical ceramics in 1903: Nernst glower / spark
- Titanium in 1791: Gregor mineral
- Vacuum insulated panel in 1892: Dewar flask
- Wood in : Hafted tools
- Wool in 6000: Woolly sheep
- Aerogel in 1960s: Lab curiosities
- Aluminium in 1854: Deville process
- Aramid in 1971: Kevlar commercial
- Bamboo in : Export furniture
- Carbon fibre in 1958: Union Carbide rayon
- Ceramic fibre in 1950s: Needled blankets
- Concrete in 1756: Smeaton Eddystone
- Copper in 3500: Bronze age
- Cotton in 3000: Indus cotton
- Glass in 1500: Core-formed vessels
- Graphene in 1962: Boehm TEM
- Gypsum board in 1894: Sackett Board
- Intumescent coating in 1930s: Tramm / others
- Mineral wool in 1871: US slag wool
- Nitinol in 1961: Coffee-pot demo
- Nomex in 1967: NASA / aero
- Nylon in 1938: Nylon 6,6 launch
- Perovskite (PV) in 2009: Miyasaka DSSC
- Phase-change material in 1960s: NASA PCM
- Polyester in 1941: Terylene
- Polyethylene in 1933: ICI high-pressure
- Polyurethane foam in 1954: Flexible foam furniture
- PTFE in 1940s: Manhattan seals
- Natural rubber in 1736: La Condamine
- Silicone in 1940: Rochow–Müller
- Silk in : Silk Road
- Stainless steel in 1872: Woods patent
- Steel in 500: Wootz crucible steel
- Technical ceramics in 1920s: Alumina spark plugs
- Titanium in 1910: Hunter process
- Vacuum insulated panel in 1930s: Thermos brand
- Wood in : Timber frames
- Wool in : English staple
- Aerogel in 1990s: NASA Stardust
- Aluminium in 1886: Hall–Héroult
- Aramid in 1972: Nomex already
- Bamboo in 1940s: Wartime substitutes
- Carbon fibre in 1961: Shindo PAN
- Ceramic fibre in 1970s: Modules
- Concrete in 1824: Aspdin Portland
- Copper in 2500: Cyprus mines
- Cotton in 1793: Whitney gin
- Glass in : Blowpipe
- Graphene in 2004: Manchester isolation
- Gypsum board in 1916: Sheetrock
- Intumescent coating in 1960s: Albi / US paints
- Mineral wool in 1931: Owens-Corning glass wool
- Nitinol in 1970s: Orthodontic archwires
- Nomex in 1970s: Fire service
- Nylon in 1939: World’s Fair
- Perovskite (PV) in 2012: Snaith / Grätzel solid-state
- Phase-change material in 1970s: Salt-hydrate R&D
- Polyester in 1951: Dacron
- Polyethylene in 1939: Radar cable
- Polyurethane foam in 1950s: Rigid fridge foam
- PTFE in 1945: Teflon trademark
- Natural rubber in 1839: Goodyear vulcanisation
- Silicone in : Ignition sealing
- Silk in : Byzantine smuggling lore
- Stainless steel in 1913: Brearley 13% Cr
- Steel in 200: Han China steel
- Technical ceramics in 1923: Schröter WC-Co
- Titanium in 1940: Kroll process
- Vacuum insulated panel in 1950s: Cryogenic MLI
- Wood in 1830s: Balloon frame
- Wool in : Spanish merino
- Aerogel in 1998: Aspen Aerogels
- Aerogel in 2000s: Cabot particles
- Aerogel in 2010s: EN 13501 blankets
- Aerogel in 2010s: Polymer aerogels
- Aerogel in 2018: VIP competition
- Aerogel in 2020s: EV battery pads
- Aerogel in 2020s: Price still premium
- Aerogel in : SiO2 network + >90% air
- Aerogel in : Microstructure
- Aerogel in : Interfaces
- Aerogel in : Defects
- Aerogel in 1350: Grades
- Aerogel in : Ageing
- Aluminium in 1888: Bayer process
- Aluminium in 1906: Wilm duralumin
- Aluminium in 1919: Aviation sheet
- Aluminium in 1959: Aluminium beverage can
- Aluminium in 1970s: 6000-series extrusions
- Aluminium in 1990s: Auto BIW trials
- Aluminium in 2010s: High-recycled can sheet
- Aluminium in 1886: Precious metal
- Aluminium in 1886: Cell and airframe
- Aluminium in 1945: Consumer metal
- Aluminium in 1970: Extrusion architecture
- Aluminium in 2000: Light vehicles and recycling
- Aluminium in 1888: Hall–Héroult 1886
- Aramid in 1978: Twaron
- Aramid in 1980s: Helmets & vests
- Aramid in 1990s: Asbestos brakes
- Aramid in 2000s: UHMWPE rivalry
- Aramid in 2010s: Honeywell / Teijin capacity
- Aramid in 2010s: Optical fibre cables
- Aramid in 2020s: Recycling R&D
- Aramid in : PPTA (para) / meta-aramid cousin Nomex
- Aramid in : Microstructure
- Aramid in : Interfaces
- Aramid in : Defects
- Aramid in 1350: Grades
- Aramid in : Ageing
- Bamboo in 1970s: Ply bamboo
- Bamboo in 1990s: Moso plantations
- Bamboo in 2000s: Strand board
- Bamboo in 2010s: Green building claims
- Bamboo in 2010s: Formaldehyde labels
- Bamboo in 2020s: Structural codes
- Bamboo in 2020s: Dust and silica
- Carbon fibre in 1963: Watt RAE
- Carbon fibre in 1969: Rolls-Royce Hyfil
- Carbon fibre in 1970s: Sports & F1
- Carbon fibre in 1980s: Toray T300
- Carbon fibre in 2009: 787 Dreamliner
- Carbon fibre in 2010s: BMW i3 / i8
- Carbon fibre in 2020s: Recycling pyrolysis
- Carbon fibre in : C (turbostratic graphite)
- Carbon fibre in : Microstructure
- Carbon fibre in : Interfaces
- Carbon fibre in : Defects
- Carbon fibre in : Grades
- Carbon fibre in 1350: Ageing
- Ceramic fibre in 1988: EU carcinogen class
- Ceramic fibre in 1990s: AES / Superwool
- Ceramic fibre in 2000s: REACH / SCOEL
- Ceramic fibre in 2010s: Polycrystalline Al2O3
- Ceramic fibre in 2010s: Fire-protection wraps
- Ceramic fibre in 2020s: RCF substitution
- Ceramic fibre in 2020s: Recycling of offcuts
- Ceramic fibre in : Al2O3–SiO2 (RCF) / alkaline earth silicate (AES)
- Ceramic fibre in : Microstructure
- Ceramic fibre in : Interfaces
- Ceramic fibre in : Defects
- Ceramic fibre in 1350: Grades
- Ceramic fibre in : Ageing
- Concrete in 1867: Monier flowerpots
- Concrete in 1890s: Hennebique system
- Concrete in 1903: Ingalls Building
- Concrete in 1930s: Béton brut / dams
- Concrete in 1970s: Superplasticisers
- Concrete in 1990s: UHPC / Ductal
- Concrete in 2020s: LC3 / calcined clay
- Concrete in : C-S-H binder + aggregate
- Concrete in : Microstructure
- Concrete in : Interfaces
- Concrete in : Defects
- Concrete in : Grades
- Concrete in 1350: Ageing
- Copper in 1660s: Falun / Cornish
- Copper in 1865: Electrorefining
- Copper in 1870s: Edison / Siemens wiring
- Copper in 1913: IACS
- Copper in 1982: US penny zinc
- Copper in 2000s: Data-centre busbars
- Copper in 2020s: Cu crunch talk
- Copper in : Cu
- Copper in : Microstructure
- Copper in : Interfaces
- Copper in : Defects
- Copper in : Grades
- Copper in : Ageing
- Cotton in 1764: Spinning Jenny / mule
- Cotton in 1861: Cotton famine
- Cotton in : Upland vs Pima / ELS
- Bamboo in : cellulose–hemicellulose–lignin
- Carbon fibre in : Standard modulus
- Ceramic fibre in : RCF 1260
- Concrete in : C25/30
- Copper in : C110 ETP
- Cotton in 1950s: Wash-and-wear resins
- Glass in 1674: Ravenscroft lead
- Graphene in 2010: Nobel Prize
- Gypsum board in 1940s: War housing
- Intumescent coating in 1970s: UK/DE approvals
- Mineral wool in 1937: ROCKWOOL Denmark
- Nomex in 1970s: Nomex paper
- Perovskite (PV) in 2013: Science breakthroughs
- Phase-change material in 1990s: Microencapsulated paraffin
- Polyester in 1950s: Wash-and-wear
- Polyethylene in 1953: Ziegler catalysts
- Polyurethane foam in 1970s: Spray foam roofs
- PTFE in 1960s: Green pan lore
- Natural rubber in 1843: Hancock patent
- Silk in : Italian silk
- Stainless steel in 1912: Strauss–Maurer 18/8
- Steel in 1740: Huntsman crucible
- Technical ceramics in 1960s: Si3N4 research
- Titanium in 1950s: Jet age
- Vacuum insulated panel in 1990s: Japanese fridge VIPs
- Wood in 1906: Glulam patents
- Wool in 1788: Australian merino
- Aerogel in : Fibre-reinforced blanket
- Aluminium in 1959: Duralumin 1906
- Aramid in : Kevlar 29
- Bamboo in : Microstructure
- Carbon fibre in : Intermediate IM
- Ceramic fibre in : AES 1200
- Concrete in : C50/60 HPC
- Copper in 1350: C122 DHP
- Cotton in 1990s: Bt cotton
- Glass in 1910s: Owens bottle machine
- Graphene in 2013: EU Graphene Flagship
- Gypsum board in 1950s: Type X
- Intumescent coating in 1980s: Epoxy hydrocarbon
- Mineral wool in 1970s: Energy-crisis batts
- Nitinol in 1980s: Pipe couplings
- Nylon in : Parachutes & cord
- Perovskite (PV) in 2016: IEC stability talk
- Phase-change material in 2000s: PCM gypsum boards
- Polyester in 1970s: Double-knit crash
- Polyethylene in 1954: Natta polypropylene side
- Polyurethane foam in 1987: Montreal Protocol
- PTFE in 1969: Gore-Tex ePTFE
- Natural rubber in 1876: Wickham seeds
- Silicone in 1943: Dow Corning
- Silk in : Pébrine / Pasteur
- Stainless steel in 1924: Staybrite
- Steel in 1856: Bessemer converter
- Technical ceramics in 1970s: PSZ zirconia
- Titanium in 1952: Ti-6Al-4V
- Vacuum insulated panel in 1999: va-Q-tec / Porextherm
- Wood in 1930s: Plywood aircraft
- Wool in 1800s: Worsted vs woollen
- Aerogel in : Granules
- Aramid in : Kevlar 49
- Bamboo in : Interfaces
- Carbon fibre in 1879: Edison filament · 263
- Ceramic fibre in 1942: Babcock & Wilcox · 264
- Concrete in : Opus caementicium · 265
- Copper in 5000: Native copper · 266
- Cotton in 2000s: Better Cotton / organic
- Glass in 1959: Pilkington float
- Graphene in 2010s: CVD copper foils
- Gypsum board in 1970s: Metric plasterboard EU
- Intumescent coating in 1990s: Water-based architectural
- Mineral wool in 1980s: Binder formaldehyde
- Nitinol in 1990s: Self-expanding stents
- Nomex in 1981: F1 after Villeneuve era gear
- Nylon in 1938: Schlack PA6
- Perovskite (PV) in 2018: Oxford PV tandem
- Phase-change material in 2010s: EN / ASTM test methods
- Polyethylene in 1960s: Blow-moulded bottles
- Polyurethane foam in 1990s: PIR vs PUR
- PTFE in 1970s: Thread seal tape
- Natural rubber in 1888: Dunlop pneumatic
- Silicone in 1960s: Medical tubing
- Silk in 1891: Lyon silk crisis
- Stainless steel in 1930s: Aircraft exhaust
- Steel in 1868: Open-hearth
- Technical ceramics in 1980s: Ceramic hip heads
- Titanium in 1960s: SR-71 skin
- Vacuum insulated panel in 2000s: Fumed-silica cores
- Wood in 1990s: CLT Austria
- Wool in 1940s: Superwash
- Aerogel in 1931: Kistler · 291
- Aluminium in 2010s: UBC loop
- Bamboo in : Defects
- Carbon fibre in 1958: Union Carbide rayon · 294
- Ceramic fibre in 1950s: Needled blankets · 295
- Concrete in 1756: Smeaton Eddystone · 296
- Copper in 3500: Bronze age · 297
- Cotton in 2020s: Traceability
- Glass in 1970s: IGU sealed units
- Graphene in 2010s: GO / rGO
- Gypsum board in 1980s: Moisture boards
- Intumescent coating in 2000s: LEED interiors
- Mineral wool in 1990s: EN 13162
- Nitinol in 2000s: ASTM F2063
- Nomex in 1990s: NFPA 1971
- Nylon in 1960s: Tyre cord wars
- Perovskite (PV) in 2020s: Lead sequestration
- Phase-change material in 2010s: Cold-chain packs
- Polyester in 1990s: Bottle-to-fibre
- Polyethylene in 1970s: LLDPE
- Polyurethane foam in 2000s: HFC blowers
- PTFE in 1990s: PFOA debate
- Natural rubber in 1910s: Fordlandia
- Silk in 1930s: Nylon threat
- Stainless steel in 1960s: 316 Mo
- Steel in 1952: LD / BOF
- Technical ceramics in 1990s: TBC YSZ
- Titanium in 1970s: CP grades
- Vacuum insulated panel in 2010s: EN 17140 talk
- Wood in 2010s: Tall wood codes
- Wool in 1960s: Woolmark
- Aerogel in 1960s: Lab curiosities · 322
- Aramid in 1965: Kwolek PPTA · 323
- Bamboo in : Grades
- Carbon fibre in 1961: Shindo PAN · 325
- Ceramic fibre in 1970s: Modules · 326
- Concrete in 1824: Aspdin Portland · 327
- Copper in 2500: Cyprus mines · 328
- Cotton in : cellulose (C6H10O5)n
- Glass in 1980s: Low-e coatings
- Graphene in 2018: Standards ISO/TS
- Gypsum board in 1990s: EN 520
- Intumescent coating in 2010s: ETICS / foam compatibility
- Mineral wool in 2000s: Rainscreen boards
- Nitinol in 2010s: Additive NiTi
- Nomex in 2000s: Nomex IIIA blends
- Perovskite (PV) in 2021: NREL chart climb
- Phase-change material in 2010s: Graphite composite PCM
- Polyester in 2000s: Microfibre fleece
- Polyethylene in 1979: Dyneema gel-spin
- Polyurethane foam in 2010s: HFO / pentane
- Natural rubber in : SBR crash programme
- Silicone in 1970s: RTV sealants
- Silk in : Parachute silk
- Stainless steel in 1980s: Duplex 2205
- Steel in 1970s: Continuous casting
- Technical ceramics in 2000s: SiC devices
- Titanium in 1990s: Medical ASTM F136
- Vacuum insulated panel in 2010s: Historic retrofit
- Wood in 2010s: Acetylated / thermally modified
- Wool in 1990s: Micron auction
- Aerogel in 1990s: NASA Stardust · 352
- Aluminium in 1825: Ørsted / Wöhler isolation · 353
- Aramid in 1971: Kevlar commercial · 354
- Bamboo in : Ageing
- Carbon fibre in 1963: Watt RAE · 356
- Ceramic fibre in 1988: EU carcinogen class · 357
- Concrete in 1867: Monier flowerpots · 358
- Copper in 1660s: Falun / Cornish · 359
- Cotton in : Microstructure
- Glass in 1990s: Tempered safety codes
- Graphene in 2020s: Concrete additives
- Gypsum board in 2000s: Densely lined shafts
- Intumescent coating in 2010s: 3D-scanned DFT
- Mineral wool in 2010s: High-rise A1 politics
- Nylon in 1970s: Carpet bulked yarn
- Perovskite (PV) in 2023: Slot-die / blade
- Phase-change material in 2020s: Battery packs
- Polyester in 2010s: Ocean microfibre papers
- Polyethylene in 2000s: PE100 pipe
- Polyurethane foam in 2017: Grenfell context
- PTFE in 2000s: GenX / alternatives
- Natural rubber in 1990s: AIDS-era gloves
- Silicone in 1990s: LSR injection
- Silk in 1990s: Suture & biomaterials
- Stainless steel in 1990s: Super duplex / 6Mo
- Steel in 1990s: AHSS for autos
- Technical ceramics in 2010s: Ceramic matrix composites
- Titanium in 2010s: Additive Ti
- Vacuum insulated panel in 2020s: Edge thermal bridges
- Wood in 2020s: Embodied-carbon argument
- Wool in 2000s: Mulesing controversy
- Aerogel in 1998: Aspen Aerogels · 383
- Aluminium in 1854: Deville process · 384
- Aramid in 1972: Nomex already · 385
- Bamboo in : Natural culm
- Carbon fibre in 1969: Rolls-Royce Hyfil · 387
- Ceramic fibre in 1990s: AES / Superwool · 388
- Concrete in 1890s: Hennebique system · 389
- Copper in 1865: Electrorefining · 390
- Cotton in : Interfaces
- Glass in 2010s: Fire-rated gel / ceramics
- Graphene in 2020s: Electronics still waiting
- Gypsum board in 2020s: Recycled gypsum
- Intumescent coating in 2020s: Weathering of exterior IFR
- Mineral wool in 2020s: Circularity
- Nitinol in 2010s: Actuator wires
- Nomex in 2010s: Arc-flash clothing
- Nylon in 1990s: Airbags
- Perovskite (PV) in 2020s: Indoor IoT cells
- Aerogel in 2000s: Cabot particles · 401
- Aerogel in 2010s: EN 13501 blankets · 402
- Aluminium in 1886: Hall–Héroult · 403
- Aluminium in 1888: Bayer process · 404
- Aramid in 1978: Twaron · 405
- Aramid in 1980s: Helmets & vests · 406
- Bamboo in 1350: Horizontal ply
- Bamboo in : Scaffold and house · 408
- Bamboo in : Export furniture · 409
- Bamboo in 1940s: Wartime substitutes · 410
- Bamboo in 1970s: Ply bamboo · 411
- Bamboo in 1990s: Moso plantations · 412
- Bamboo in 2000s: Strand board · 413
- Bamboo in 2010s: Green building claims · 414
- Carbon fibre in 1970s: Sports & F1 · 415
- Carbon fibre in 1980s: Toray T300 · 416
- Ceramic fibre in 2000s: REACH / SCOEL · 417
- Ceramic fibre in 2010s: Polycrystalline Al2O3 · 418
- Concrete in 1903: Ingalls Building · 419
- Concrete in 1930s: Béton brut / dams · 420
- Copper in 1870s: Edison / Siemens wiring · 421
- Copper in 1913: IACS · 422
- Cotton in : Defects
- Cotton in : Grades
- Cotton in : Ageing
- Cotton in : Upland
- Cotton in 1350: Pima / ELS
- Cotton in 5000: Mexico / Peru fibre · 428
- Cotton in 3000: Indus cotton · 429
- Cotton in 1793: Whitney gin · 430
- Cotton in 1764: Spinning Jenny / mule · 431
- Cotton in 1861: Cotton famine · 432
- Cotton in : Upland vs Pima / ELS · 433
- Cotton in 1950s: Wash-and-wear resins · 434
- Glass in : SiO2–Na2O–CaO (typical soda-lime)
- Glass in : Microstructure
- Glass in : Interfaces
- Glass in : Defects
- Glass in : Grades
- Glass in : Ageing
- Glass in : Soda-lime float
- Glass in 1350: Tempered
- Glass in 3500: Beads & glazes · 443
- Glass in 1500: Core-formed vessels · 444
- Glass in : Blowpipe · 445
- Glass in 1674: Ravenscroft lead · 446
- Glass in 1910s: Owens bottle machine · 447
- Glass in 1959: Pilkington float · 448
- Glass in 1970s: IGU sealed units · 449
- Graphene in : C (honeycomb monolayer)
- Graphene in : Microstructure
- Graphene in : Interfaces
- Graphene in : Defects
- Graphene in : Grades
- Graphene in 1350: Ageing
- Graphene in : Monolayer CVD
- Graphene in : Few-layer
- Graphene in 1947: Wallace theory · 458
- Graphene in 1962: Boehm TEM · 459
- Graphene in 2004: Manchester isolation · 460
- Graphene in 2010: Nobel Prize · 461
- Graphene in 2013: EU Graphene Flagship · 462
- Graphene in 2010s: CVD copper foils · 463
- Graphene in 2010s: GO / rGO · 464
- Gypsum board in : CaSO4·2H2O + paper faces
- Gypsum board in : Microstructure
- Gypsum board in : Interfaces
- Gypsum board in : Defects
- Gypsum board in 1350: Grades
- Gypsum board in : Ageing
- Gypsum board in : Standard 12.5 mm
- Gypsum board in : Type X / F
- Gypsum board in 3700: Gypsum plaster · 473
- Gypsum board in 1894: Sackett Board · 474
- Gypsum board in 1916: Sheetrock · 475
- Gypsum board in 1940s: War housing · 476
- Gypsum board in 1950s: Type X · 477
- Gypsum board in 1970s: Metric plasterboard EU · 478
- Gypsum board in 1980s: Moisture boards · 479
- Intumescent coating in : acid source + carbon + spumific (typical APP/PER/MEL)
- Intumescent coating in : Microstructure
- Intumescent coating in : Interfaces
- Intumescent coating in 1350: Defects
- Intumescent coating in : Grades
- Intumescent coating in : Ageing
- Intumescent coating in : Water-based cellulosic
- Intumescent coating in : Solvent cellulosic
- Intumescent coating in 1821: Gay-Lussac notes · 488
- Intumescent coating in 1930s: Tramm / others · 489
- Intumescent coating in 1960s: Albi / US paints · 490
- Intumescent coating in 1970s: UK/DE approvals · 491
- Intumescent coating in 1980s: Epoxy hydrocarbon · 492
- Intumescent coating in 1990s: Water-based architectural · 493
- Intumescent coating in 2000s: LEED interiors · 494
- Mineral wool in : Ca-Mg-Al silicates / soda-lime glass fibres
- Mineral wool in : Microstructure
- Mineral wool in : Interfaces
- Mineral wool in : Defects
- Mineral wool in : Grades
- Mineral wool in 1350: Ageing
- Mineral wool in : Glass wool batt
- Mineral wool in : Stone wool board
- Mineral wool in 1840: Edward Parry lore · 503
- Mineral wool in 1871: US slag wool · 504
- Mineral wool in 1931: Owens-Corning glass wool · 505
- Mineral wool in 1937: ROCKWOOL Denmark · 506
- Mineral wool in 1970s: Energy-crisis batts · 507
- Mineral wool in 1980s: Binder formaldehyde · 508
- Mineral wool in 1990s: EN 13162 · 509
- Nitinol in 2020s: Fatigue standards
- Nitinol in 2020s: Ni-free cousins
- Nitinol in : NiTi (~50/50 at.%)
- Nitinol in : Microstructure
- Nitinol in : Interfaces
- Nitinol in : Defects
- Nitinol in : Grades
- Nitinol in 1350: Ageing
- Nitinol in : Superelastic body-temp
- Nitinol in : SME actuator
- Nitinol in 1959: Buehler NOL · 520
- Nitinol in 1961: Coffee-pot demo · 521
- Nitinol in 1970s: Orthodontic archwires · 522
- Nitinol in 1980s: Pipe couplings · 523
- Nitinol in 1990s: Self-expanding stents · 524
- Nomex in 2010s: Honeycomb cores
- Nomex in 2020s: PFAS-free DWR
- Nomex in : poly(m-phenylene isophthalamide)
- Nomex in : Microstructure
- Nomex in : Interfaces
- Nomex in : Defects
- Nomex in : Grades
- Nomex in : Ageing
- Nomex in 1350: Nomex fibre IIIA
- Nomex in : Nomex paper T410
- Nomex in 1961: DuPont meta-aramid · 535
- Nomex in 1967: NASA / aero · 536
- Nomex in 1970s: Fire service · 537
- Nomex in 1970s: Nomex paper · 538
- Nomex in 1981: F1 after Villeneuve era gear · 539
- Nylon in 2000s: Bio-caprolactam talk
- Nylon in 2010s: Ocean fishing-net recycle
- Nylon in : PA6 / PA66
- Nylon in : Microstructure
- Nylon in : Interfaces
- Nylon in : Defects
- Nylon in : Grades
- Nylon in : Ageing
- Nylon in 1350: PA6 apparel
- Nylon in : PA66 HT
- Nylon in 1935: Carothers 66 · 550
- Nylon in 1938: Nylon 6,6 launch · 551
- Nylon in 1939: World’s Fair · 552
- Nylon in : Parachutes & cord · 553
- Nylon in 1938: Schlack PA6 · 554
- Perovskite (PV) in : ABX3 (e.g. CH3NH3PbI3)
- Perovskite (PV) in : Microstructure
- Perovskite (PV) in : Interfaces
- Perovskite (PV) in : Defects
- Perovskite (PV) in : Grades
- Perovskite (PV) in : Ageing
- Perovskite (PV) in 1350: MAPbI3
- Perovskite (PV) in : FA / Cs mixed cation
- Perovskite (PV) in 1839: Rose mineral · 563
- Perovskite (PV) in 2009: Miyasaka DSSC · 564
- Perovskite (PV) in 2012: Snaith / Grätzel solid-state · 565
- Perovskite (PV) in 2013: Science breakthroughs · 566
- Perovskite (PV) in 2016: IEC stability talk · 567
- Perovskite (PV) in 2018: Oxford PV tandem · 568
- Perovskite (PV) in 2020s: Lead sequestration · 569
- Phase-change material in 2020s: Bio-based waxes
- Phase-change material in : paraffins / salt hydrates / bio-waxes
- Phase-change material in : Microstructure
- Phase-change material in : Interfaces
- Phase-change material in 1350: Defects
- Phase-change material in : Grades
- Phase-change material in : Ageing
- Phase-change material in : Paraffin 22–26 °C
- Phase-change material in : Salt hydrate
- Phase-change material in 1948: Telkes Dover house · 579
- Phase-change material in 1960s: NASA PCM · 580
- Phase-change material in 1970s: Salt-hydrate R&D · 581
- Phase-change material in 1990s: Microencapsulated paraffin · 582
- Phase-change material in 2000s: PCM gypsum boards · 583
- Phase-change material in 2010s: EN / ASTM test methods · 584
- Polyester in 2010s: Cationic dyeable PET
- Polyester in 2020s: Chemical recycling pilots
- Polyester in : (C10H8O4)n PET
- Polyester in : Microstructure
- Polyester in : Interfaces
- Polyester in : Defects
- Polyester in : Grades
- Polyester in : Ageing
- Polyester in : Apparel staple
- Polyester in 1350: Microfibre
- Polyester in 1929: Carothers esters · 595
- Polyester in 1941: Terylene · 596
- Polyester in 1951: Dacron · 597
- Polyester in 1950s: Wash-and-wear · 598
- Polyester in 1970s: Double-knit crash · 599
- Polyethylene in 2010s: Ocean PE debate
- Aerogel in 1931: Kistler — Section 601: Kistler
- Aluminium in 1854: Deville process — Section 602: Deville process
- Aramid in 1965: Kwolek PPTA — Section 603: Kwolek PPTA
- Bamboo in 19: Export furniture
- Carbon fibre in 1879: Edison filament — Section 605: Edison filament
- Ceramic fibre in 1942: Babcock & Wilcox — Section 606: Babcock & Wilcox
- Concrete in 1: Opus caementicium
- Copper in 5000: Native copper — Section 608: Native copper
- Cotton in 5000: Mexico — Section 609: Mexico
- Glass in 3500: Beads & glazes — Section 610: Beads & glazes
- Graphene in 1947: Wallace theory — Section 611: Wallace theory
- Gypsum board in 3700: Gypsum plaster — Section 612: Gypsum plaster
- Intumescent coating in 1821: Gay-Lussac notes — Section 613: Gay-Lussac notes
- Mineral wool in 1840: Edward Parry lore — Section 614: Edward Parry lore
- Nitinol in 1959: Buehler NOL — Section 615: Buehler NOL
- Nomex in 1961: DuPont meta-aramid — Section 616: DuPont meta-aramid
- Nylon in 1935: Carothers 66 — Section 617: Carothers 66
- Perovskite (PV) in 1839: Rose mineral — Section 618: Rose mineral
- Phase-change material in 1948: Telkes Dover house — Section 619: Telkes Dover house
- Polyester in 1929: Carothers esters — Section 620: Carothers esters
- Polyethylene in 1898: von Pechmann — Section 621: von Pechmann
- Polyurethane foam in 1937: Otto Bayer — Section 622: Otto Bayer
- PTFE in 1938: Plunkett cylinder — Section 623: Plunkett cylinder
- Natural rubber in 1736: La Condamine — Section 624: La Condamine
- Silicone in 1901: Kipping — Section 625: Kipping
- Silk in 2700: Leizu legend — Section 626: Leizu legend
- Stainless steel in 1821: Stodart–Faraday — Section 627: Stodart–Faraday
- Steel in 1800: Bloomery iron — Section 628: Bloomery iron
- Technical ceramics in 1903: Nernst glower — Section 629: Nernst glower
- Titanium in 1791: Gregor mineral — Section 630: Gregor mineral
- Vacuum insulated panel in 1892: Dewar flask — Section 631: Dewar flask
- Wood in 0: Hafted tools
- Wool in 6000: Woolly sheep — Section 633: Woolly sheep
- Aerogel in 1960s: Lab curiosities — Section 634: Lab curiosities
- Aluminium in 1886: Hall–Héroult — Section 635: Hall–Héroult
- Aramid in 1971: Kevlar commercial — Section 636: Kevlar commercial
- Bamboo in 1940s: Wartime substitutes — Section 637: Wartime substitutes
- Carbon fibre in 1958: Union Carbide rayon — Section 638: Union Carbide rayon
- Ceramic fibre in 1950s: Needled blankets — Section 639: Needled blankets
- Concrete in 1756: Smeaton Eddystone — Section 640: Smeaton Eddystone
- Copper in 3500: Bronze age — Section 641: Bronze age
- Cotton in 3000: Indus cotton — Section 642: Indus cotton
- Glass in 1500: Core-formed vessels — Section 643: Core-formed vessels
- Graphene in 1962: Boehm TEM — Section 644: Boehm TEM
- Gypsum board in 1894: Sackett Board — Section 645: Sackett Board
- Intumescent coating in 1960s: Albi
- Mineral wool in 1871: US slag wool — Section 647: US slag wool
- Nitinol in 1961: Coffee-pot demo — Section 648: Coffee-pot demo
- Nomex in 1970s: Fire service — Section 649: Fire service
- Nylon in 1938: Nylon 6,6 launch — Section 650: Nylon 6,6 launch
- Perovskite (PV) in 2009: Miyasaka DSSC — Section 651: Miyasaka DSSC
- Phase-change material in 1960s: NASA PCM — Section 652: NASA PCM
- Polyester in 1941: Terylene — Section 653: Terylene
- Polyethylene in 1933: ICI high-pressure — Section 654: ICI high-pressure
- Polyurethane foam in 1954: Flexible foam furniture — Section 655: Flexible foam furniture
- PTFE in 1940s: Manhattan seals — Section 656: Manhattan seals
- Natural rubber in 1839: Goodyear vulcanisation — Section 657: Goodyear vulcanisation
- Silicone in 1940: Rochow–Müller — Section 658: Rochow–Müller
- Silk in 6: Byzantine smuggling lore
- Stainless steel in 1872: Woods patent — Section 660: Woods patent
- Steel in 500: Wootz crucible steel — Section 661: Wootz crucible steel
- Technical ceramics in 1920s: Alumina spark plugs — Section 662: Alumina spark plugs
- Titanium in 1910: Hunter process — Section 663: Hunter process
- Vacuum insulated panel in 1930s: Thermos brand — Section 664: Thermos brand
- Wood in 0: Timber frames
- Wool in 15: English staple
- Aerogel in 1990s: NASA Stardust — Section 667: NASA Stardust
- Aluminium in 1888: Bayer process — Section 668: Bayer process
- Aramid in 1972: Nomex already — Section 669: Nomex already
- Bamboo in 1970s: Ply bamboo — Section 670: Ply bamboo
- Carbon fibre in 1961: Shindo PAN — Section 671: Shindo PAN
- Ceramic fibre in 1970s: Modules — Section 672: Modules
- Concrete in 1824: Aspdin Portland — Section 673: Aspdin Portland
- Copper in 2500: Cyprus mines — Section 674: Cyprus mines
- Cotton in 1793: Whitney gin — Section 675: Whitney gin
- Glass in 50: Blowpipe
- Graphene in 2004: Manchester isolation — Section 677: Manchester isolation
- Gypsum board in 1916: Sheetrock — Section 678: Sheetrock
- Intumescent coating in 1970s: UK
- Mineral wool in 1931: Owens-Corning glass wool — Section 680: Owens-Corning glass wool
- Nitinol in 1970s: Orthodontic archwires — Section 681: Orthodontic archwires
- Nomex in 1970s: Nomex paper — Section 682: Nomex paper
- Nylon in 1939: World’s Fair — Section 683: World’s Fair
- Perovskite (PV) in 2013: Science breakthroughs — Section 684: Science breakthroughs
- Phase-change material in 1970s: Salt-hydrate R&D — Section 685: Salt-hydrate R&D
- Polyester in 1951: Dacron — Section 686: Dacron
- Polyethylene in 1939: Radar cable — Section 687: Radar cable
- Polyurethane foam in 1950s: Rigid fridge foam — Section 688: Rigid fridge foam
- PTFE in 1945: Teflon trademark — Section 689: Teflon trademark
- Natural rubber in 1843: Hancock patent — Section 690: Hancock patent
- Silicone in 50: Ignition sealing
- Silk in 13: Italian silk
- Stainless steel in 1913: Brearley 13% Cr — Section 693: Brearley 13% Cr
- Steel in 200: Han China steel — Section 694: Han China steel
- Technical ceramics in 1923: Schröter WC-Co — Section 695: Schröter WC-Co
- Titanium in 1940: Kroll process — Section 696: Kroll process
- Vacuum insulated panel in 1950s: Cryogenic MLI — Section 697: Cryogenic MLI
- Wood in 1830s: Balloon frame — Section 698: Balloon frame
- Wool in 15: Spanish merino
- Aerogel in 1998: Aspen Aerogels — Section 700: Aspen Aerogels
- Aluminium in 1906: Wilm duralumin — Section 701: Wilm duralumin
- Aramid in 1978: Twaron — Section 702: Twaron
- Bamboo in 1990s: Moso plantations — Section 703: Moso plantations
- Carbon fibre in 1963: Watt RAE — Section 704: Watt RAE
- Ceramic fibre in 1988: EU carcinogen class — Section 705: EU carcinogen class
- Concrete in 1867: Monier flowerpots — Section 706: Monier flowerpots
- Copper in 1660s: Falun
- Cotton in 1764: Spinning Jenny
- Glass in 1674: Ravenscroft lead — Section 709: Ravenscroft lead
- Graphene in 2010: Nobel Prize — Section 710: Nobel Prize
- Gypsum board in 1940s: War housing — Section 711: War housing
- Intumescent coating in 1980s: Epoxy hydrocarbon — Section 712: Epoxy hydrocarbon
- Mineral wool in 1937: ROCKWOOL Denmark — Section 713: ROCKWOOL Denmark
- Nitinol in 1980s: Pipe couplings — Section 714: Pipe couplings
- Nomex in 1981: F1 after Villeneuve era gear — Section 715: F1 after Villeneuve era gear
- Nylon in 6: Parachutes & cord
- Perovskite (PV) in 2016: IEC stability talk — Section 717: IEC stability talk
- Phase-change material in 1990s: Microencapsulated paraffin — Section 718: Microencapsulated paraffin
- Polyester in 1950s: Wash-and-wear — Section 719: Wash-and-wear
- Polyethylene in 1953: Ziegler catalysts — Section 720: Ziegler catalysts
- Polyurethane foam in 1970s: Spray foam roofs — Section 721: Spray foam roofs
- PTFE in 1960s: Green pan lore — Section 722: Green pan lore
- Natural rubber in 1876: Wickham seeds — Section 723: Wickham seeds
- Silicone in 1943: Dow Corning — Section 724: Dow Corning
- Silk in 19: Pébrine
- Stainless steel in 1912: Strauss–Maurer 18
- Steel in 1740: Huntsman crucible — Section 727: Huntsman crucible
- Technical ceramics in 1960s: Si3N4 research — Section 728: Si3N4 research
- Titanium in 1950s: Jet age — Section 729: Jet age
- Vacuum insulated panel in 1990s: Japanese fridge VIPs — Section 730: Japanese fridge VIPs
- Wood in 1906: Glulam patents — Section 731: Glulam patents
- Wool in 1788: Australian merino — Section 732: Australian merino
- Aerogel in 2000s: Cabot particles — Section 733: Cabot particles
- Aluminium in 1919: Aviation sheet — Section 734: Aviation sheet
- Aramid in 1980s: Helmets & vests — Section 735: Helmets & vests
- Bamboo in 2000s: Strand board — Section 736: Strand board
- Carbon fibre in 1969: Rolls-Royce Hyfil — Section 737: Rolls-Royce Hyfil
- Ceramic fibre in 1990s: AES
- Concrete in 1890s: Hennebique system — Section 739: Hennebique system
- Copper in 1865: Electrorefining — Section 740: Electrorefining
- Cotton in 1861: Cotton famine — Section 741: Cotton famine
- Glass in 1910s: Owens bottle machine — Section 742: Owens bottle machine
- Graphene in 2013: EU Graphene Flagship — Section 743: EU Graphene Flagship
- Gypsum board in 1950s: Type X — Section 744: Type X
- Intumescent coating in 1990s: Water-based architectural — Section 745: Water-based architectural
- Mineral wool in 1970s: Energy-crisis batts — Section 746: Energy-crisis batts
- Nitinol in 1990s: Self-expanding stents — Section 747: Self-expanding stents
- Nomex in 1990s: NFPA 1971 — Section 748: NFPA 1971
- Nylon in 1938: Schlack PA6 — Section 749: Schlack PA6
- Perovskite (PV) in 2018: Oxford PV tandem — Section 750: Oxford PV tandem
- Phase-change material in 2000s: PCM gypsum boards — Section 751: PCM gypsum boards
- Polyester in 1970s: Double-knit crash — Section 752: Double-knit crash
- Polyethylene in 1954: Natta polypropylene side — Section 753: Natta polypropylene side
- Polyurethane foam in 1987: Montreal Protocol — Section 754: Montreal Protocol
- PTFE in 1969: Gore-Tex ePTFE — Section 755: Gore-Tex ePTFE
- Natural rubber in 1888: Dunlop pneumatic — Section 756: Dunlop pneumatic
- Silicone in 1960s: Medical tubing — Section 757: Medical tubing
- Silk in 1891: Lyon silk crisis — Section 758: Lyon silk crisis
- Stainless steel in 1924: Staybrite — Section 759: Staybrite
- Steel in 1856: Bessemer converter — Section 760: Bessemer converter
- Technical ceramics in 1970s: PSZ zirconia — Section 761: PSZ zirconia
- Titanium in 1952: Ti-6Al-4V — Section 762: Ti-6Al-4V
- Vacuum insulated panel in 1999: va-Q-tec
- Wood in 1930s: Plywood aircraft — Section 764: Plywood aircraft
- Wool in 1800s: Worsted vs woollen — Section 765: Worsted vs woollen
- Aerogel in 2010s: EN 13501 blankets — Section 766: EN 13501 blankets
- Aluminium in 1959: Aluminium beverage can — Section 767: Aluminium beverage can
- Aramid in 1990s: Asbestos brakes — Section 768: Asbestos brakes
- Bamboo in 2010s: Green building claims — Section 769: Green building claims
- Carbon fibre in 1970s: Sports & F1 — Section 770: Sports & F1
- Ceramic fibre in 2000s: REACH
- Concrete in 1903: Ingalls Building — Section 772: Ingalls Building
- Copper in 1870s: Edison
- Cotton in 20: Upland vs Pima
- Glass in 1959: Pilkington float — Section 775: Pilkington float
- Graphene in 2010s: CVD copper foils — Section 776: CVD copper foils
- Gypsum board in 1970s: Metric plasterboard EU — Section 777: Metric plasterboard EU
- Intumescent coating in 2000s: LEED interiors — Section 778: LEED interiors
- Mineral wool in 1980s: Binder formaldehyde — Section 779: Binder formaldehyde
- Nitinol in 2000s: ASTM F2063 — Section 780: ASTM F2063
- Nomex in 2000s: Nomex IIIA blends — Section 781: Nomex IIIA blends
- Nylon in 1960s: Tyre cord wars — Section 782: Tyre cord wars
- Perovskite (PV) in 2020s: Lead sequestration — Section 783: Lead sequestration
- Phase-change material in 2010s: EN
- Polyester in 1990s: Bottle-to-fibre — Section 785: Bottle-to-fibre
- Polyethylene in 1960s: Blow-moulded bottles — Section 786: Blow-moulded bottles
- Polyurethane foam in 1990s: PIR vs PUR — Section 787: PIR vs PUR
- PTFE in 1970s: Thread seal tape — Section 788: Thread seal tape
- Natural rubber in 1910s: Fordlandia — Section 789: Fordlandia
- Silicone in 1970s: RTV sealants — Section 790: RTV sealants
- Silk in 1930s: Nylon threat — Section 791: Nylon threat
- Stainless steel in 1930s: Aircraft exhaust — Section 792: Aircraft exhaust
- Steel in 1868: Open-hearth — Section 793: Open-hearth
- Technical ceramics in 1980s: Ceramic hip heads — Section 794: Ceramic hip heads
- Titanium in 1960s: SR-71 skin — Section 795: SR-71 skin
- Vacuum insulated panel in 2000s: Fumed-silica cores — Section 796: Fumed-silica cores
- Wood in 1990s: CLT Austria — Section 797: CLT Austria
- Wool in 1940s: Superwash — Section 798: Superwash
- Aerogel in 2010s: Polymer aerogels — Section 799: Polymer aerogels
- Aluminium in 1970s: 6000-series extrusions — Section 800: 6000-series extrusions
- Aerogel in 1931: Kistler — Kistler
- Aluminium in 1854: Deville process — Deville process
- Aramid in 1965: Kwolek PPTA — Kwolek PPTA
- Bamboo in 19: Export furniture — Export furniture
- Carbon fibre in 1879: Edison filament — Edison filament
- Ceramic fibre in 1942: Babcock & Wilcox — Babcock & Wilcox
- Concrete in 1: Opus caementicium — Opus caementicium
- Copper in 5000: Native copper — Native copper
- Cotton in 5000: Mexico
- Glass in 3500: Beads & glazes — Beads & glazes
- Graphene in 1947: Wallace theory — Wallace theory
- Gypsum board in 3700: Gypsum plaster — Gypsum plaster
- Intumescent coating in 1821: Gay-Lussac notes — Gay-Lussac notes
- Mineral wool in 1840: Edward Parry lore — Edward Parry lore
- Nitinol in 1959: Buehler NOL — Buehler NOL
- Nomex in 1961: DuPont meta-aramid — DuPont meta-aramid
- Nylon, Carothers 66 Tm, 1935
- Perovskite (PV) in 1839: Rose mineral — Rose mineral
- Phase-change material, Telkes Dover house Tm, 1948
- Polyester, Carothers esters Tm, 1929
- Polyethylene, von Pechmann Tm, 1898
- Polyurethane foam in 1937: Otto Bayer — Otto Bayer
- PTFE, Plunkett cylinder Tm, 1938
- Natural rubber, La Condamine Thermal mass, 1736
- Silicone, Kipping Service, 1901, Thursday evening
- Silk, Leizu legend Thermal mass, 2700
- Stainless steel, Stodart–Faraday Cr min, 1821
- Steel, Bloomery iron Density, 1800
- Technical ceramics, Nernst glower spark Stars, 1903
- Titanium, Gregor mineral Density, 1791
- Vacuum insulated panel, Dewar flask Conductivity, 1892
- Wood, Hafted tools, 1990
- Wool, Woolly sheep Regain, 6000
- Aerogel, Lab curiosities Fire, 1960s
- Aluminium, Hall–Héroult Fire, 1886
- Aramid in 1971: Kevlar commercial — Kevlar commercial
- Bamboo, Wartime substitutes Melt-drip char, 1940s
- Carbon fibre, Union Carbide rayon Strength band, 1958
- Ceramic fibre, Needled blankets Fire, 1950s
- Concrete, Smeaton Eddystone Strength band, 1756
- Copper, Bronze age Melting, 3500
- Cotton, Indus cotton Strength band, 3000
- Glass, Core-formed vessels Process, 1500
- Graphene, Boehm TEM Conductivity, 1962
- Gypsum board, Sackett Board Service temperature, 1894
- Intumescent coating, Albi US paints Service temperature, 1960s
- Mineral wool, US slag wool Conductivity, 1871
- Nitinol, Coffee-pot demo Strength band, 1961
- Nomex, Fire service Thermal mass, 1970s
- Nylon, Nylon 6,6 launch Strength band, 1938
- Perovskite (PV) in 2009: Miyasaka DSSC — Miyasaka DSSC
- Phase-change material, NASA PCM Service temperature, 1960s
- Polyester, Terylene Service temperature, 1941
- Polyethylene, ICI high-pressure Conductivity, 1933
- Polyurethane foam in 1954: Flexible foam furniture — Flexible foam furniture
- PTFE, Manhattan seals Conductivity, 1940s
- Natural rubber, Goodyear vulcanisation Melt-drip char, 1839
- Silicone, Rochow–Müller Conductivity, 1940
- Silk, Byzantine smuggling lore, 1971
- Stainless steel, Woods patent Fire, 1872
- Steel, Wootz crucible steel Melting, 500
- Technical ceramics, Alumina spark plugs Fire, 1920s
- Titanium, Hunter process Melting, 1910
- Vacuum insulated panel, Thermos brand Thermal mass, 1930s
- Wood, Timber frames, 1990
- Wool, English staple, 1971
- Aerogel, NASA Stardust Conductivity, 1990s
- Aluminium, Bayer process Yield, 1888
- Aramid in 1972: Nomex already — Nomex already
- Bamboo, Ply bamboo Smoke toxicity, 1970s
- Carbon fibre, Shindo PAN Thermal mass, 1961
- Ceramic fibre, Modules Service temperature, 1970s
- Concrete, Aspdin Portland Conductivity, 1824
- Copper, Cyprus mines IACS, 2500
- Cotton, Whitney gin Service temperature, 1793
- Glass, Blowpipe Fire, c. 50 BCE
- Graphene, Manchester isolation Service temperature, 2004
- Gypsum board, Sheetrock Thermal mass, 1916
- Intumescent coating, UK DE approvals Reaction to fire, 1970s
- Mineral wool, Service temperature, 1931
- Nitinol, Orthodontic archwires Conductivity, 1970s
- Nomex, Nomex paper Smoke toxicity, 1970s
- Nylon, World’s Fair Service temperature, 1939
- Perovskite (PV) in 2013: Science breakthroughs — Science breakthroughs
- Phase-change material, Salt-hydrate R&D Thermal mass, 1970s
- Polyester, Dacron Thermal mass, 1951
- Polyethylene, Radar cable Service temperature, 1939
- Polyurethane foam in 1950s: Rigid fridge foam — Rigid fridge foam
- PTFE, Teflon trademark Service temperature, 1945
- Natural rubber, Hancock patent Smoke toxicity, 1843
- Silicone, Ignition sealing, 1940
- Silk, Italian silk, 1971
- Stainless steel, Brearley 13% Cr Film, 1913
- Steel, Han China steel E-modulus, 200
- Technical ceramics, Schröter WC-Co Conductivity, 1923
- Titanium, Kroll process Star alloy, 1940
- Vacuum insulated panel, Cryogenic MLI Reaction to fire, 1950s
- Wood, Balloon frame Thermal mass, 1830s
- Wool, Spanish merino, 1971
- Aerogel, Aspen Aerogels Thermal mass, 1998
- Aerogel in 1931: Kistler — Section 901: Kistler
- Aluminium in 1854: Deville process — Section 902: Deville process
- Aramid in 1965: Kwolek PPTA — Section 903: Kwolek PPTA
- Bamboo in 19: Export furniture — Section 904: Export furniture
- Carbon fibre in 1879: Edison filament — Section 905: Edison filament
- Ceramic fibre in 1942: Babcock & Wilcox — Section 906: Babcock & Wilcox
- Concrete in 1: Opus caementicium — Section 907: Opus caementicium
- Copper in 5000: Native copper — Section 908: Native copper
- Cotton in 5000: Mexico — Section 909: Mexico
- Glass in 3500: Beads & glazes — Section 910: Beads & glazes
- Graphene in 1947: Wallace theory — Section 911: Wallace theory
- Gypsum board in 3700: Gypsum plaster — Section 912: Gypsum plaster
- Intumescent coating in 1821: Gay-Lussac notes — Section 913: Gay-Lussac notes
- Mineral wool in 1840: Edward Parry lore — Section 914: Edward Parry lore
- Nitinol in 1959: Buehler NOL — Section 915: Buehler NOL
- Nomex in 1961: DuPont meta-aramid — Section 916: DuPont meta-aramid
- Nylon in 1935: Carothers 66 — Section 917: Carothers 66
- Perovskite (PV) in 1839: Rose mineral — Section 918: Rose mineral
- Phase-change material in 1948: Telkes Dover house — Section 919: Telkes Dover house
- Polyester in 1929: Carothers esters — Section 920: Carothers esters
- Polyethylene in 1898: von Pechmann — Section 921: von Pechmann
- Polyurethane foam in 1937: Otto Bayer — Section 922: Otto Bayer
- PTFE in 1938: Plunkett cylinder — Section 923: Plunkett cylinder
- Natural rubber in 1736: La Condamine — Section 924: La Condamine
- Silicone in 1901: Kipping — Section 925: Kipping
- Silk in 2700: Leizu legend — Section 926: Leizu legend
- Stainless steel in 1821: Stodart–Faraday — Section 927: Stodart–Faraday
- Steel in 1800: Bloomery iron — Section 928: Bloomery iron
- Technical ceramics in 1903: Nernst glower — Section 929: Nernst glower
- Titanium in 1791: Gregor mineral — Section 930: Gregor mineral
- Vacuum insulated panel in 1892: Dewar flask — Section 931: Dewar flask
- Wood in 0: Hafted tools — Section 932: Hafted tools
- Wool in 6000: Woolly sheep — Section 933: Woolly sheep
- Aerogel in 1960s: Lab curiosities — Section 934: Lab curiosities
- Aluminium in 1886: Hall–Héroult — Section 935: Hall–Héroult
- Aramid in 1971: Kevlar commercial — Section 936: Kevlar commercial
- Bamboo in 1940s: Wartime substitutes — Section 937: Wartime substitutes
- Carbon fibre in 1958: Union Carbide rayon — Section 938: Union Carbide rayon
- Ceramic fibre in 1950s: Needled blankets — Section 939: Needled blankets
- Concrete in 1756: Smeaton Eddystone — Section 940: Smeaton Eddystone
- Copper in 3500: Bronze age — Section 941: Bronze age
- Cotton in 3000: Indus cotton — Section 942: Indus cotton
- Glass in 1500: Core-formed vessels — Section 943: Core-formed vessels
- Graphene in 1962: Boehm TEM — Section 944: Boehm TEM
- Gypsum board in 1894: Sackett Board — Section 945: Sackett Board
- Intumescent coating in 1960s: Albi — Section 946: Albi
- Mineral wool in 1871: US slag wool — Section 947: US slag wool
- Nitinol in 1961: Coffee-pot demo — Section 948: Coffee-pot demo
- Nomex in 1970s: Fire service — Section 949: Fire service
- Nylon in 1938: Nylon 6,6 launch — Section 950: Nylon 6,6 launch
- Perovskite (PV) in 2009: Miyasaka DSSC — Section 951: Miyasaka DSSC
- Phase-change material in 1960s: NASA PCM — Section 952: NASA PCM
- Polyester in 1941: Terylene — Section 953: Terylene
- Polyethylene in 1933: ICI high-pressure — Section 954: ICI high-pressure
- Polyurethane foam in 1954: Flexible foam furniture — Section 955: Flexible foam furniture
- PTFE in 1940s: Manhattan seals — Section 956: Manhattan seals
- Natural rubber in 1839: Goodyear vulcanisation — Section 957: Goodyear vulcanisation
- Silicone in 1940: Rochow–Müller — Section 958: Rochow–Müller
- Silk in 6: Byzantine smuggling lore — Section 959: Byzantine smuggling lore
- Stainless steel in 1872: Woods patent — Section 960: Woods patent
- Steel in 500: Wootz crucible steel — Section 961: Wootz crucible steel
- Technical ceramics in 1920s: Alumina spark plugs — Section 962: Alumina spark plugs
- Titanium in 1910: Hunter process — Section 963: Hunter process
- Vacuum insulated panel in 1930s: Thermos brand — Section 964: Thermos brand
- Wood in 0: Timber frames — Section 965: Timber frames
- Wool in 15: English staple — Section 966: English staple
- Aerogel in 1990s: NASA Stardust — Section 967: NASA Stardust
- Aluminium in 1888: Bayer process — Section 968: Bayer process
- Aramid in 1972: Nomex already — Section 969: Nomex already
- Bamboo in 1970s: Ply bamboo — Section 970: Ply bamboo
- Carbon fibre in 1961: Shindo PAN — Section 971: Shindo PAN
- Ceramic fibre in 1970s: Modules — Section 972: Modules
- Concrete in 1824: Aspdin Portland — Section 973: Aspdin Portland
- Copper in 2500: Cyprus mines — Section 974: Cyprus mines
- Cotton in 1793: Whitney gin — Section 975: Whitney gin
- Glass in 50: Blowpipe — Section 976: Blowpipe
- Graphene in 2004: Manchester isolation — Section 977: Manchester isolation
- Gypsum board in 1916: Sheetrock — Section 978: Sheetrock
- Intumescent coating in 1970s: UK — Section 979: UK
- Mineral wool in 1931: Owens-Corning glass wool — Section 980: Owens-Corning glass wool
- Nitinol in 1970s: Orthodontic archwires — Section 981: Orthodontic archwires
- Nomex in 1970s: Nomex paper — Section 982: Nomex paper
- Nylon in 1939: World’s Fair — Section 983: World’s Fair
- Perovskite (PV) in 2013: Science breakthroughs — Section 984: Science breakthroughs
- Phase-change material in 1970s: Salt-hydrate R&D — Section 985: Salt-hydrate R&D
- Polyester in 1951: Dacron — Section 986: Dacron
- Polyethylene in 1939: Radar cable — Section 987: Radar cable
- Polyurethane foam in 1950s: Rigid fridge foam — Section 988: Rigid fridge foam
- PTFE in 1945: Teflon trademark — Section 989: Teflon trademark
- Natural rubber in 1843: Hancock patent — Section 990: Hancock patent
- Silicone in 50: Ignition sealing — Section 991: Ignition sealing
- Silk in 13: Italian silk — Section 992: Italian silk
- Stainless steel in 1913: Brearley 13% Cr — Section 993: Brearley 13% Cr
- Steel in 200: Han China steel — Section 994: Han China steel
- Technical ceramics in 1923: Schröter WC-Co — Section 995: Schröter WC-Co
- Titanium in 1940: Kroll process — Section 996: Kroll process
- Vacuum insulated panel in 1950s: Cryogenic MLI — Section 997: Cryogenic MLI
- Wood in 1830s: Balloon frame — Section 998: Balloon frame
- Wool in 15: Spanish merino — Section 999: Spanish merino
- Aerogel in 1998: Aspen Aerogels — Section 1000: Aspen Aerogels
- Aerogel in 1931: Kistler — Section 1001: Kistler
- Aerogel in 1998: Aspen Aerogels — Section 1002: Aspen Aerogels
- Aerogel in 2010s: Polymer aerogels — Section 1003: Polymer aerogels
- Aerogel in 2020s: Price still premium — Section 1004: Price still premium
- Aerogel in 0: Interfaces — Section 1005: Interfaces
- Aerogel in 0: Ageing — Section 1006: Ageing
- Aluminium in 1888: Bayer process — Section 1007: Bayer process
- Aluminium in 1959: Aluminium beverage can — Section 1008: Aluminium beverage can
- Aluminium in 2010s: High-recycled can sheet — Section 1009: High-recycled can sheet
- Aluminium in 1945: Consumer metal — Section 1010: Consumer metal
- Aluminium in 1888: Hall–Héroult 1886 — Section 1011: Hall–Héroult 1886
- Aramid in 1972: Nomex already — Section 1012: Nomex already
- Aramid in 1990s: Asbestos brakes — Section 1013: Asbestos brakes
- Aramid in 2010s: Optical fibre cables — Section 1014: Optical fibre cables
- Aramid in 500: Microstructure — Section 1015: Microstructure
- Aramid in 500: Grades — Section 1016: Grades
- Bamboo in 1940s: Wartime substitutes — Section 1017: Wartime substitutes
- Bamboo in 2000s: Strand board — Section 1018: Strand board
- Bamboo in 2020s: Structural codes — Section 1019: Structural codes
- Bamboo in 2: Microstructure — Section 1020: Microstructure
- Carbon fibre in 1961: Shindo PAN — Section 1021: Shindo PAN
- Carbon fibre in 1970s: Sports & F1 — Section 1022: Sports & F1
- Carbon fibre in 2010s: BMW i3 — Section 1023: BMW i3
- Carbon fibre in 230: Microstructure — Section 1024: Microstructure
- Carbon fibre in 230: Grades — Section 1025: Grades
- Ceramic fibre in 1950s: Needled blankets — Section 1026: Needled blankets
- Ceramic fibre in 1990s: AES — Section 1027: AES
- Ceramic fibre in 2010s: Fire-protection wraps — Section 1028: Fire-protection wraps
- Ceramic fibre in 1000: Al2O3–SiO2 (RCF) — Section 1029: Al2O3–SiO2 (RCF)
- Ceramic fibre in 1000: Defects — Section 1030: Defects
- Concrete in 1: Opus caementicium — Section 1031: Opus caementicium
- Concrete in 1867: Monier flowerpots — Section 1032: Monier flowerpots
- Concrete in 1970s: Superplasticisers — Section 1033: Superplasticisers
- Concrete in 1: Microstructure — Section 1034: Microstructure
- Concrete in 1: Grades — Section 1035: Grades
- Copper in 3500: Bronze age — Section 1036: Bronze age
- Copper in 1865: Electrorefining — Section 1037: Electrorefining
- Copper in 2000s: Data-centre busbars — Section 1038: Data-centre busbars
- Copper in 8: Interfaces — Section 1039: Interfaces
- Copper in 8: Ageing — Section 1040: Ageing
- Cotton in 1793: Whitney gin — Section 1041: Whitney gin
- Cotton in 20: Upland vs Pima — Section 1042: Upland vs Pima
- Cotton in 2000s: Better Cotton — Section 1043: Better Cotton
- Cotton in 8: Microstructure — Section 1044: Microstructure
- Cotton in 8: Grades — Section 1045: Grades
- Glass in 1500: Core-formed vessels — Section 1046: Core-formed vessels
- Glass in 1910s: Owens bottle machine — Section 1047: Owens bottle machine
- Glass in 1980s: Low-e coatings — Section 1048: Low-e coatings
- Glass in 2: SiO2–Na2O–CaO (typical soda-lime) — Section 1049: SiO2–Na2O–CaO (typical soda-
- Glass in 2: Defects — Section 1050: Defects
- Graphene in 1947: Wallace theory — Section 1051: Wallace theory
- Graphene in 2010: Nobel Prize — Section 1052: Nobel Prize
- Graphene in 2010s: GO — Section 1053: GO
- Graphene in 2020s: Electronics still waiting — Section 1054: Electronics still waiting
- Graphene in 2004: Interfaces — Section 1055: Interfaces
- Graphene in 2004: Ageing — Section 1056: Ageing
- Gypsum board in 1916: Sheetrock — Section 1057: Sheetrock
- Gypsum board in 1970s: Metric plasterboard EU — Section 1058: Metric plasterboard EU
- Gypsum board in 2000s: Densely lined shafts — Section 1059: Densely lined shafts
- Gypsum board in 0: Microstructure — Section 1060: Microstructure
- Gypsum board in 0: Grades — Section 1061: Grades
- Intumescent coating in 1960s: Albi — Section 1062: Albi
- Intumescent coating in 1990s: Water-based architectural — Section 1063: Water-based architectural
- Intumescent coating in 2020s: Weathering of exterior IFR — Section 1064: Weathering of exterior IFR
- Intumescent coating in 30: Interfaces — Section 1065: Interfaces
- Intumescent coating in 30: Ageing — Section 1066: Ageing
- Mineral wool in 1931: Owens-Corning glass wool — Section 1067: Owens-Corning glass wool
- Mineral wool in 1980s: Binder formaldehyde — Section 1068: Binder formaldehyde
- Mineral wool in 2010s: High-rise A1 politics — Section 1069: High-rise A1 politics
- Mineral wool in 0: Interfaces — Section 1070: Interfaces
- Mineral wool in 0: Ageing — Section 1071: Ageing
- Nitinol in 1970s: Orthodontic archwires — Section 1072: Orthodontic archwires
- Nitinol in 2000s: ASTM F2063 — Section 1073: ASTM F2063
- Nitinol in 2020s: Fatigue standards — Section 1074: Fatigue standards
- Nitinol in 1: Microstructure — Section 1075: Microstructure
- Nitinol in 1: Grades — Section 1076: Grades
- Nomex in 1970s: Fire service — Section 1077: Fire service
- Nomex in 1990s: NFPA 1971 — Section 1078: NFPA 1971
- Nomex in 2010s: Honeycomb cores — Section 1079: Honeycomb cores
- Nomex in 400: Microstructure — Section 1080: Microstructure
- Nomex in 400: Grades — Section 1081: Grades
- Nylon in 1938: Nylon 6,6 launch — Section 1082: Nylon 6,6 launch
- Nylon in 1938: Schlack PA6 — Section 1083: Schlack PA6
- Nylon in 1990s: Airbags — Section 1084: Airbags
- Nylon in 6: PA6 — Section 1085: PA6
- Nylon in 6: Defects — Section 1086: Defects
- Perovskite (PV) in 1839: Rose mineral — Section 1087: Rose mineral
- Perovskite (PV) in 2016: IEC stability talk — Section 1088: IEC stability talk
- Perovskite (PV) in 2021: NREL chart climb — Section 1089: NREL chart climb
- Perovskite (PV) in 3: ABX3 (e.g. CH3NH3PbI3) — Section 1090: ABX3 (e.g. CH3NH3PbI3)
- Perovskite (PV) in 2009: Defects — Section 1091: Defects
- Phase-change material in 1948: Telkes Dover house — Section 1092: Telkes Dover house
- Phase-change material in 1990s: Microencapsulated paraffin — Section 1093: Microencapsulated paraffin
- Phase-change material in 2010s: Cold-chain packs — Section 1094: Cold-chain packs
- Phase-change material in 2020s: Bio-based waxes — Section 1095: Bio-based waxes
- Phase-change material in 21: Interfaces — Section 1096: Interfaces
- Phase-change material in 21: Ageing — Section 1097: Ageing
- Polyester in 1951: Dacron — Section 1098: Dacron
- Polyester in 1990s: Bottle-to-fibre — Section 1099: Bottle-to-fibre
- Polyester in 2010s: Cationic dyeable PET — Section 1100: Cationic dyeable PET
- Benchmark Study 1: Aerogel at Threshold 0 in NASA Stardust
- Comparative Model #2 — Analyzing Aerogel & VIP competition
- Workbench Dossier 3: Precision Diagnostics for Aerogel (Interfaces)
- Field Measurement Guide #4: Applying Parameter 2 to Aluminium
- Nine-Country Matrix #5: Cross-Regional Variance in Aluminium
- Technical Report #6 — Verifying Consumer metal (1970) for Aluminium
- Decision Matrix #7: Evaluating Aramid under Kevlar commercial
- Quantitative Simulation #8: Aramid & UHMWPE rivalry (500)
- Benchmark Study 9: Aramid at Threshold 500 in Microstructure
- Comparative Model #10 — Analyzing Bamboo & Export furniture
- Workbench Dossier 11: Precision Diagnostics for Bamboo (Green building claims)
- Field Measurement Guide #12: Applying Parameter 2 to Bamboo
- Nine-Country Matrix #13: Cross-Regional Variance in Carbon fibre
- Technical Report #14 — Verifying Recycling pyrolysis (230) for Carbon fibre
- Decision Matrix #15: Evaluating Carbon fibre under Grades
- Quantitative Simulation #16: Ceramic fibre & EU carcinogen class (97)
- Benchmark Study 17: Ceramic fibre at Threshold 1260 in RCF substitution
- Comparative Model #18 — Analyzing Ceramic fibre & Defects
- Workbench Dossier 19: Precision Diagnostics for Concrete (Aspdin Portland)
- Field Measurement Guide #20: Applying Parameter 3 to Concrete
- Nine-Country Matrix #21: Cross-Regional Variance in Concrete
- Technical Report #22 — Verifying Falun (8) for Copper
- Decision Matrix #23: Evaluating Copper under Cu crunch talk
- Quantitative Simulation #24: Copper & Ageing (8)
- Benchmark Study 25: Cotton at Threshold 65 in Cotton famine
- Comparative Model #26 — Analyzing Cotton & Traceability
- Workbench Dossier 27: Precision Diagnostics for Cotton (Grades)
- Field Measurement Guide #28: Applying Parameter 2 to Glass
- Nine-Country Matrix #29: Cross-Regional Variance in Glass
- Technical Report #30 — Verifying Defects (2) for Glass
- Decision Matrix #31: Evaluating Graphene under Manchester isolation
- Quantitative Simulation #32: Graphene & Standards ISO (2004)
- Benchmark Study 33: Graphene at Threshold 2004 in Interfaces
- Comparative Model #34 — Analyzing Gypsum board & Sackett Board
- Workbench Dossier 35: Precision Diagnostics for Gypsum board (Moisture boards)
- Field Measurement Guide #36: Applying Parameter 0 to Gypsum board
- Nine-Country Matrix #37: Cross-Regional Variance in Intumescent coating
- Technical Report #38 — Verifying LEED interiors (30) for Intumescent coating
- Decision Matrix #39: Evaluating Intumescent coating under Interfaces
- Quantitative Simulation #40: Mineral wool & US slag wool (0)
- Benchmark Study 41: Mineral wool at Threshold 13162 in EN 13162
- Comparative Model #42 — Analyzing Mineral wool & Interfaces
- Workbench Dossier 43: Precision Diagnostics for Nitinol (Coffee-pot demo)
- Field Measurement Guide #44: Applying Parameter 1 to Nitinol
- Nine-Country Matrix #45: Cross-Regional Variance in Nitinol
- Technical Report #46 — Verifying DuPont meta-aramid (400) for Nomex
- Decision Matrix #47: Evaluating Nomex under Nomex IIIA blends
- Quantitative Simulation #48: Nomex & Microstructure (400)
- Benchmark Study 49: Nylon at Threshold 66 in Carothers 66
- Comparative Model #50 — Analyzing Nylon & Tyre cord wars
- Workbench Dossier 51: Precision Diagnostics for Nylon (PA6)
- Field Measurement Guide #52: Applying Parameter 6 to Nylon
- Nine-Country Matrix #53: Cross-Regional Variance in Perovskite (PV)
- Technical Report #54 — Verifying ABX3 (e.g. CH3NH3PbI3) (3) for Perovskite (PV)
- Decision Matrix #55: Evaluating Perovskite (PV) under Ageing
- Quantitative Simulation #56: Phase-change material & PCM gypsum boards (21)
- Benchmark Study 57: Phase-change material at Threshold 21 in Bio-based waxes
- Comparative Model #58 — Analyzing Phase-change material & Grades
- Workbench Dossier 59: Precision Diagnostics for Polyester (Wash-and-wear)
- Field Measurement Guide #60: Applying Parameter 255 to Polyester
- Nine-Country Matrix #61: Cross-Regional Variance in Polyester
- Technical Report #62 — Verifying Radar cable (110) for Polyethylene
- Decision Matrix #63: Evaluating Polyethylene under PE100 pipe
- Quantitative Simulation #64: Polyethylene & Defects (110)
- Benchmark Study 65: Polyurethane foam at Threshold 60 in Rigid fridge foam
- Comparative Model #66 — Analyzing Polyurethane foam & HFO
- Workbench Dossier 67: Precision Diagnostics for Polyurethane foam (Interfaces)
- Field Measurement Guide #68: Applying Parameter 6 to PTFE
- Nine-Country Matrix #69: Cross-Regional Variance in PTFE
- Technical Report #70 — Verifying Defects (327) for PTFE
- Decision Matrix #71: Evaluating Natural rubber under Hancock patent
- Quantitative Simulation #72: Natural rubber & AIDS-era gloves (1990)
- Benchmark Study 73: Silicone at Threshold 3 in Rochow–Müller
- Comparative Model #74 — Analyzing Silicone & LSR injection
- Workbench Dossier 75: Precision Diagnostics for Silicone (Microstructure)
- Field Measurement Guide #76: Applying Parameter 2700 to Silk
- Nine-Country Matrix #77: Cross-Regional Variance in Silk
- Technical Report #78 — Verifying Microstructure (2) for Silk
- Decision Matrix #79: Evaluating Stainless steel under Staybrite
- Quantitative Simulation #80: Stainless steel & Lean duplex (10)
- Benchmark Study 81: Stainless steel at Threshold 10 in Grades
- Comparative Model #82 — Analyzing Steel & Huntsman crucible
- Workbench Dossier 83: Precision Diagnostics for Steel (AHSS for autos)
- Field Measurement Guide #84: Applying Parameter 2000 to Steel
- Nine-Country Matrix #85: Cross-Regional Variance in Technical ceramics
- Technical Report #86 — Verifying SiC devices (2) for Technical ceramics
- Decision Matrix #87: Evaluating Technical ceramics under Interfaces
- Quantitative Simulation #88: Titanium & Hunter process (4)
- Benchmark Study 89: Titanium at Threshold 4 in CP grades
- Comparative Model #90 — Analyzing Titanium & Microstructure
- Workbench Dossier 91: Precision Diagnostics for Vacuum insulated panel (Dewar flask)
- Field Measurement Guide #92: Applying Parameter 0 to Vacuum insulated panel
- Nine-Country Matrix #93: Cross-Regional Variance in Vacuum insulated panel
- Technical Report #94 — Verifying Ageing (0) for Vacuum insulated panel
- Decision Matrix #95: Evaluating Wood under Plywood aircraft
- Quantitative Simulation #96: Wood & Mass-timber fire tests (0)
- Benchmark Study 97: Wood at Threshold 0 in Grades
- Comparative Model #98 — Analyzing Wool & Australian merino
- Workbench Dossier 99: Precision Diagnostics for Wool (Mulesing controversy)
- Field Measurement Guide #100: Applying Parameter 15 to Wool
- Nine-Country Matrix #101: Cross-Regional Variance in Aerogel
- Technical Report #102 — Verifying VIP competition (0) for Aerogel
- Decision Matrix #103: Evaluating Aerogel under Interfaces
- Quantitative Simulation #104: Aluminium & Hall–Héroult (2)
- Benchmark Study 105: Aluminium at Threshold 6000 in 6000-series extrusions
- Comparative Model #106 — Analyzing Aluminium & Consumer metal
- Workbench Dossier 107: Precision Diagnostics for Aramid (Kevlar commercial)
- Field Measurement Guide #108: Applying Parameter 500 to Aramid
- Nine-Country Matrix #109: Cross-Regional Variance in Aramid
- Technical Report #110 — Verifying Export furniture (19) for Bamboo
- Decision Matrix #111: Evaluating Bamboo under Green building claims
- Quantitative Simulation #112: Bamboo & Microstructure (2)
- Benchmark Study 113: Carbon fibre at Threshold 230 in Rolls-Royce Hyfil
- Comparative Model #114 — Analyzing Carbon fibre & Recycling pyrolysis
- Workbench Dossier 115: Precision Diagnostics for Carbon fibre (Grades)
- Field Measurement Guide #116: Applying Parameter 97 to Ceramic fibre
- Nine-Country Matrix #117: Cross-Regional Variance in Ceramic fibre
- Technical Report #118 — Verifying Defects (1260) for Ceramic fibre
- Decision Matrix #119: Evaluating Concrete under Aspdin Portland
- Quantitative Simulation #120: Concrete & LC3 (3)
- Benchmark Study 121: Concrete at Threshold 1 in Grades
- Comparative Model #122 — Analyzing Copper & Falun
- Workbench Dossier 123: Precision Diagnostics for Copper (Cu crunch talk)
- Field Measurement Guide #124: Applying Parameter 8 to Copper
- Nine-Country Matrix #125: Cross-Regional Variance in Cotton
- Technical Report #126 — Verifying Traceability (8) for Cotton
- Decision Matrix #127: Evaluating Cotton under Grades
- Quantitative Simulation #128: Glass & Ravenscroft lead (2)
- Benchmark Study 129: Glass at Threshold 2 in Tempered safety codes
- Comparative Model #130 — Analyzing Glass & Defects
- Workbench Dossier 131: Precision Diagnostics for Graphene (Manchester isolation)
- Field Measurement Guide #132: Applying Parameter 2004 to Graphene
- Nine-Country Matrix #133: Cross-Regional Variance in Graphene
- Technical Report #134 — Verifying Sackett Board (0) for Gypsum board
- Decision Matrix #135: Evaluating Gypsum board under Moisture boards
- Quantitative Simulation #136: Gypsum board & Microstructure (0)
- Benchmark Study 137: Intumescent coating at Threshold 30 in Gay-Lussac notes
- Comparative Model #138 — Analyzing Intumescent coating & LEED interiors
- Workbench Dossier 139: Precision Diagnostics for Intumescent coating (Interfaces)
- Field Measurement Guide #140: Applying Parameter 0 to Mineral wool
- Nine-Country Matrix #141: Cross-Regional Variance in Mineral wool
- Technical Report #142 — Verifying Interfaces (0) for Mineral wool
- Decision Matrix #143: Evaluating Nitinol under Coffee-pot demo
- Quantitative Simulation #144: Nitinol & Additive NiTi (1)
- Benchmark Study 145: Nitinol at Threshold 1 in Microstructure
- Comparative Model #146 — Analyzing Nomex & DuPont meta-aramid
- Workbench Dossier 147: Precision Diagnostics for Nomex (Nomex IIIA blends)
- Field Measurement Guide #148: Applying Parameter 400 to Nomex
- Nine-Country Matrix #149: Cross-Regional Variance in Nylon
- Technical Report #150 — Verifying Tyre cord wars (6) for Nylon
- Decision Matrix #151: Evaluating Nylon under PA6
- Quantitative Simulation #152: Nylon & Ageing (6)
- Benchmark Study 153: Perovskite (PV) at Threshold 2009 in Oxford PV tandem
- Comparative Model #154 — Analyzing Perovskite (PV) & ABX3 (e.g. CH3NH3PbI3)
- Workbench Dossier 155: Precision Diagnostics for Perovskite (PV) (Ageing)
- Field Measurement Guide #156: Applying Parameter 21 to Phase-change material
- Nine-Country Matrix #157: Cross-Regional Variance in Phase-change material
- Technical Report #158 — Verifying Grades (21) for Phase-change material
- Decision Matrix #159: Evaluating Polyester under Wash-and-wear
- Quantitative Simulation #160: Polyester & Cationic dyeable PET (255)
- Benchmark Study 161: Polyester at Threshold 255 in Defects
- Comparative Model #162 — Analyzing Polyethylene & Radar cable
- Workbench Dossier 163: Precision Diagnostics for Polyethylene (PE100 pipe)
- Field Measurement Guide #164: Applying Parameter 110 to Polyethylene
- Nine-Country Matrix #165: Cross-Regional Variance in Polyurethane foam
- Technical Report #166 — Verifying HFO (0) for Polyurethane foam
- Decision Matrix #167: Evaluating Polyurethane foam under Interfaces
- Quantitative Simulation #168: PTFE & Manhattan seals (6)
- Benchmark Study 169: PTFE at Threshold 327 in PFOA debate
- Comparative Model #170 — Analyzing PTFE & Defects
- Workbench Dossier 171: Precision Diagnostics for Natural rubber (Hancock patent)
- Field Measurement Guide #172: Applying Parameter 1990 to Natural rubber
- Nine-Country Matrix #173: Cross-Regional Variance in Silicone
- Technical Report #174 — Verifying LSR injection (50) for Silicone
- Decision Matrix #175: Evaluating Silicone under Microstructure
- Quantitative Simulation #176: Silk & Leizu legend (2700)
- Benchmark Study 177: Silk at Threshold 1930 in Nylon threat
- Comparative Model #178 — Analyzing Silk & Microstructure
- Workbench Dossier 179: Precision Diagnostics for Stainless steel (Staybrite)
- Field Measurement Guide #180: Applying Parameter 10 to Stainless steel
- Nine-Country Matrix #181: Cross-Regional Variance in Stainless steel
- Technical Report #182 — Verifying Huntsman crucible (7) for Steel
- Decision Matrix #183: Evaluating Steel under AHSS for autos
- Quantitative Simulation #184: Steel & BOF and mini-mills (2000)
- Benchmark Study 185: Technical ceramics at Threshold 2 in Schröter WC-Co
- Comparative Model #186 — Analyzing Technical ceramics & SiC devices
- Workbench Dossier 187: Precision Diagnostics for Technical ceramics (Interfaces)
- Field Measurement Guide #188: Applying Parameter 4 to Titanium
- Nine-Country Matrix #189: Cross-Regional Variance in Titanium
- Technical Report #190 — Verifying Microstructure (4) for Titanium
- Decision Matrix #191: Evaluating Vacuum insulated panel under Dewar flask
- Quantitative Simulation #192: Vacuum insulated panel & Fumed-silica cores (0)
- Benchmark Study 193: Vacuum insulated panel at Threshold 150 in fumed silica
- Comparative Model #194 — Analyzing Vacuum insulated panel & Ageing
- Workbench Dossier 195: Precision Diagnostics for Wood (Plywood aircraft)
- Field Measurement Guide #196: Applying Parameter 0 to Wood
- Nine-Country Matrix #197: Cross-Regional Variance in Wood
- Technical Report #198 — Verifying Australian merino (15) for Wool
- Decision Matrix #199: Evaluating Wool under Mulesing controversy
- Quantitative Simulation #200: Wool & Defects (15)
1300 reading pieces, each with a name, a number, and a decision. They sit beside the atlas entry. They do not replace it.
Figures to keep
- 1300
- All 1300 essays
Global Benchmark & Interactive Workbench
Specific Strength-to-Weight & Thermal Fatigue Simulator
Adjust the domain parameters below to compute real-time benchmark metrics and export the resulting chart directly to the Visualization Studio.
Nine-Country Institutional & Statutory Comparison Matrix
Comparative reference baselines across nine major jurisdictions and regulatory standards.
| Jurisdiction | Institutional Standard | Benchmark Score | Compliance Tier |
|---|---|---|---|
| United States | Federal & National Institute Standard | Tier 1 Harmonized | |
| South Korea | National Statutory & Ministry Standard | Tier 1 Harmonized | |
| Japan | National Agency & Industrial Standard | Tier 1 Harmonized | |
| China | National Directorate & Technical Standard | Tier 1 Harmonized | |
| Spain | State Official & European Framework | Active Standard | |
| France | National High Authority Framework | Tier 1 Harmonized | |
| Germany | Federal Institute & Normative Standard | Tier 1 Harmonized | |
| Brazil | National Agency & Federal Norm | Active Standard | |
| Russia | State Academy & Federal Standard | Active Standard |
Interactive Scenario & Decision Matrix
Select your current objective to inspect the recommended benchmark, threshold, and verification path.
Keep heat resistance {heat}.
Briefing 11 for Aerogel aligns condition “Kistler” with reference value 0 on the ground.
Aerogel: 0 (1931)Keep the thermal line {therm0}.
Reading 12 of Aerogel uses “Lab curiosities” and figure 80 as a checkable baseline.
Aerogel: 80 (1960s)Use {therm0} only if it agrees with score {heat}. If they conflict, do not pick a product from this page.
Atlas note 13 on Aerogel defines the operating range of 0 when “NASA Stardust” applies.
Aerogel: 0 (1990s)Reading 4 of Aerogel uses “Aspen Aerogels” and figure 0 as a checkable baseline.
Dossier 14 for Aerogel links case “Aspen Aerogels” directly to metric 0 (1998).
Aerogel: 0 (1998)United States (US) Institutional & Field Benchmark
US- Primary reference framework
- Metals, textiles, polymers, ceramics, and thermal/fire families with locale standards lenses.
- Verification standard
- Season lens: moisture, freeze-thaw, and fire season change how materials fail outdoors — check climate notes on each page.
- Metric & unit convention
- Aerogel · 0 (1931)
Material pages compare grades, process, and fire/thermal behavior for browsing — not a substitute for building codes or structural engineering.
Self-Diagnostic Readiness Checklist
Baseline stage (0–1/5): verify primary definitions and core thresholds before acting.
5-Step Execution & Verification Playbook
- Read the fire-performance mark — Fire on this hub is {fire}/100 — teaching comparison among atlas materials.
- Read the insulation mark — Insulation is {insul}/100 — heat-flow story, not the same question as flame.
- Sit one published fact beside them — Quick fact on file: {fact0}.
- Sustainability is not a fire skip — A high sustainability mark does not replace fire protection in a real assembly.
- Not a building-code rating — Named tests, thickness and build-up still decide compliance — this page is literacy only.
Myth vs. Evidence Fact-Check
Is the fire-performance score a building-code rating?
No. It is an editorial 0–100 teaching mark among materials in this atlas. A real wall or garment needs a named product test, thickness and assembly. This page is not a lab stamp.
When should I read insulation instead of fire?
Use the insulation pick when the question is heat flow — lining, loft, or a cold-bridge — and the fire pick when the question is how the same material behaves in flame. Both numbers already sit on this hub; they answer different jobs.
Does a high sustainability score mean I can skip fire protection?
No. Sustainability here is a relative atlas mark (growth, reuse, embodied story). Bamboo and timber can still char like wood. Fire protection stays a separate specification.
Why is bamboo missing in some languages?
A language URL is published only when the seven chapters are real prose in that language. Bamboo exists in English, Korean, Japanese, Chinese and Spanish. French, German, Portuguese and Russian stay withheld — earlier machine drafts leaked English, so those URLs are not opened.
Domain Jargon & Terminology Decoder
- 1
- Name the use environment (load, moisture, fire, chemicals).
- 2
- Note which standards market you are in.
- 3
- Pair mechanical claims with fire/thermal notes.
- 4
- Verify with current standards before specifying.
- Aerogel (Cabot particles)
- Analysis 65 for Aerogel anchors “Cabot particles” to indicator 0 so readers can verify the scale.
- Aerogel (EN 13501 blankets)
- Record 66 on Aerogel explains what the threshold 13501 means in practice under “EN 13501 blankets”.
Risk & Failure-Mode Early Warning Radar
- Not a building-code manual, SDS substitute, or structural calculation. Always verify with licensed professionals and current standards.
- Section 72 on Aerogel pairs “Lab curiosities” with benchmark figure 80 (1960s) for a grounded decision.
- Analysis 73 for Aerogel anchors “NASA Stardust” to indicator 0 so readers can verify the scale.
- Record 74 on Aerogel explains what the threshold 0 means in practice under “Aspen Aerogels”.