Current native
0
exact source areas
Home / Plants / Grow / Norway spruce
Picea abies
Your local evidence lens
A genus split is not a placement verdict. Set a ZIP to read the local documented split.
The status above is computed from the cited rows below: independent recommendations can support a fire-resistant result, an avoid row can produce keep-away, and disagreement stays visible as conflict. Placement notes preserve each source’s own scheme rather than translating unlike rules into one scale. This is evidence about a plant, not permission to plant it in every part of the defensible space; Zone 0 remains noncombustible.
These are exact U.S. botanical-area records from the cited range source. Native and introduced describe biogeographic relationship, not fire performance or planting approval. Doubtful and extinct rows stay visible but do not count as current presence.
Current native
exact source areas
Current introduced
exact source areas
Qualified
doubtful or extinct source rows
Eastern United States Fire Performance Plant Selector
Source prints 4 · single-value meaning unresolved
Wildfire-resistant Landscape Plants for Michigan (Extension Bulletin E2948)
3–7 explicit range
USDA PLANTS Database — Plant Characteristics
Minimum 3a · no upper limit documented
Wildfire-resistant Landscape Plants for Michigan (Extension Bulletin E2948)
“considered wildfire-resistant and are recommended for Michigan’s climate”
Table 1 row: Picea abies (Norway spruce).
Eastern United States Fire Performance Plant Selector
“NOT Firewise (4)”
Long sweeping to weeping branches-generally branch to the ground.
Firewise Landscaping (OSU Extension Bulletin 921)
“H flammability”
Tolerates insects and disease; most adaptive spruce; resists windthrow.
Virginia Firescapes — Firewise Landscaping for Woodland Homes (430-300)
“H flammability”
Tolerates cold climates and some warm climates.
“MUY DESACONSEJADA”
Picea abies is rated “MUY DESACONSEJADA” by the guide's qualitative IUF garden-suitability method. The method assumes species-specific care and integrates fire evidence with fuel structure, maintenance, origin, invasiveness, and expert fire-service experience.
Κανονισμός Πυροπροστασίας Ακινήτων εντός ή πλησίον δασικών εκτάσεων
“ΙΔΙΑΙΤΕΡΑ ΕΥΦΛΕΚΤΑ ΕΝΔΗΜΙΚΑ ΦΥΤΑ — Picea abies”
The regulation prints this taxon in its table of particularly flammable endemic trees and shrubs.
Low Flammability Plants directory
“Moderate/high flammability”
Moderate/high flammability classification.
FLAMITS: FLAMmability plant traiTS database
“time to flaming (s): 39.57”
FLAMITS record 2980; Ignitability measurement; plant part leaves; fuel live; predrying no; device calorimeter; site Dimitrakopoulos2011-1; sampling summer. Primary study Dimitrakopoulos2011: Dimitrakopoulos, A. P., Mitsopoulos, I. D., & Kaliva, A. (2011). Short communication. Comparing flammability traits among fire-stricken (low elevation) and non fire- stricken (high elevation) conifer forest species of Europe: a test of the Mutch hypothesis. Forest Systems, 22, 134-137.
“calorific value (kcal/kg): 4569.31”
FLAMITS record 2990; Combustibility measurement; plant part leaves; fuel live; predrying no; device calorimeter; site Dimitrakopoulos2011-1; sampling summer. Primary study Dimitrakopoulos2011: Dimitrakopoulos, A. P., Mitsopoulos, I. D., & Kaliva, A. (2011). Short communication. Comparing flammability traits among fire-stricken (low elevation) and non fire- stricken (high elevation) conifer forest species of Europe: a test of the Mutch hypothesis. Forest Systems, 22, 134-137.
“temperature at flaming (°C): 231.75”
FLAMITS record 3000; Ignitability measurement; plant part leaves; fuel live; predrying no; device calorimeter; site Dimitrakopoulos2011-1; sampling summer. Primary study Dimitrakopoulos2011: Dimitrakopoulos, A. P., Mitsopoulos, I. D., & Kaliva, A. (2011). Short communication. Comparing flammability traits among fire-stricken (low elevation) and non fire- stricken (high elevation) conifer forest species of Europe: a test of the Mutch hypothesis. Forest Systems, 22, 134-137.
“calorific value (kcal/kg): 4846.18”
FLAMITS record 3926; Combustibility measurement; plant part twigs; fuel live; predrying yes; device calorimeter; site Gillon1997-1; sampling june to september. Primary study Gillon1997: Gillon, D., Hernando, C., Valette, J.-C., & Joffre, R. (1997). Fast estimation of the calorific values of forest fuels by near infrared-reflectance spectroscopy. Canadian Journal of Forest Research, 27, 760-765.
“energy flux (kW/m²): 13”
FLAMITS record 10642; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“energy flux (kW/m²): 19”
FLAMITS record 10643; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“energy flux (kW/m²): 22”
FLAMITS record 10644; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“energy flux (kW/m²): 30”
FLAMITS record 10645; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“energy flux (kW/m²): 161”
FLAMITS record 10646; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“total heat release (MJ/m²): 15”
FLAMITS record 10647; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“total heat release (MJ/m²): 15”
FLAMITS record 10648; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“total heat release (MJ/m²): 26”
FLAMITS record 10649; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“total heat release (MJ/m²): 35”
FLAMITS record 10650; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“total heat release (MJ/m²): 46”
FLAMITS record 10651; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“smoke release rate (m²/s): 0.02”
FLAMITS record 10652; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“smoke release rate (m²/s): 0.04”
FLAMITS record 10653; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“smoke release rate (m²/s): 0.06”
FLAMITS record 10654; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“smoke release rate (m²/s): 0.11”
FLAMITS record 10655; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“smoke release rate (m²/s): 0.03”
FLAMITS record 10656; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“mass loss rate (g/s): 2.91”
FLAMITS record 10657; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“mass loss rate (g/s): 0.09”
FLAMITS record 10658; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“mass loss rate (g/s): 0.18”
FLAMITS record 10659; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“mass loss rate (g/s): 0.25”
FLAMITS record 10660; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“mass loss rate (g/s): 0.3”
FLAMITS record 10661; Combustibility measurement; plant part litter; fuel all; predrying no; device calorimeter; site Polka2018-1; sampling ND. Primary study Polka2018: Pólka, M. (2018). Analysis of the heat and smoke release rate of selected undergrowth types. E3S Web of Conferences. Semarang, Indonesia.
“maximum flame temperature (°C): 69.505”
FLAMITS record 15567; Combustibility measurement; plant part leaves; fuel all; predrying yes; device burning bench; site Zhang2022-1; sampling january and march 2011. Primary study Zhang2022: Zhang, S., Cornwell, W. K., Zhao, W., van Logtestijn, R. S., Krab, E. J., Aerts, R., & Cornelissen, J. H. (2022). Experimental evidence that leaf litter decomposability and flammability are decoupled across gymnosperm species. Journal of Ecology, 111, 761-772.
“flaming duration (s): 5.75”
FLAMITS record 15608; Sustainability measurement; plant part leaves; fuel all; predrying yes; device burning bench; site Zhang2022-1; sampling january and march 2011. Primary study Zhang2022: Zhang, S., Cornwell, W. K., Zhao, W., van Logtestijn, R. S., Krab, E. J., Aerts, R., & Cornelissen, J. H. (2022). Experimental evidence that leaf litter decomposability and flammability are decoupled across gymnosperm species. Journal of Ecology, 111, 761-772.
“maximum flame temperature (°C): 734.92”
FLAMITS record 17148; Combustibility measurement; plant part twigs; fuel all; predrying yes; device burning bench; site Blauw2017-1; sampling ND. Primary study Blauw2017: Blauw, L. G., van Logtestijn, R. S. P., Broekman, R., Aerts, R., & Cornelissen, J. H. (2017). (Tree species identity in high-latitude forests determines fire spread through fuel ladders from branches to soil and vice versa. Forest Ecology and Management 400, 475-484.
“maximum flame temperature (°C): 640.98”
FLAMITS record 17151; Combustibility measurement; plant part twigs; fuel all; predrying yes; device burning bench; site Blauw2017-1; sampling ND. Primary study Blauw2017: Blauw, L. G., van Logtestijn, R. S. P., Broekman, R., Aerts, R., & Cornelissen, J. H. (2017). (Tree species identity in high-latitude forests determines fire spread through fuel ladders from branches to soil and vice versa. Forest Ecology and Management 400, 475-484.
“maximum flame temperature (°C): 633.44”
FLAMITS record 17154; Combustibility measurement; plant part twigs; fuel all; predrying yes; device burning bench; site Blauw2017-1; sampling ND. Primary study Blauw2017: Blauw, L. G., van Logtestijn, R. S. P., Broekman, R., Aerts, R., & Cornelissen, J. H. (2017). (Tree species identity in high-latitude forests determines fire spread through fuel ladders from branches to soil and vice versa. Forest Ecology and Management 400, 475-484.
“maximum flame temperature (°C): 735.93”
FLAMITS record 17157; Combustibility measurement; plant part twigs; fuel all; predrying yes; device burning bench; site Blauw2017-1; sampling ND. Primary study Blauw2017: Blauw, L. G., van Logtestijn, R. S. P., Broekman, R., Aerts, R., & Cornelissen, J. H. (2017). (Tree species identity in high-latitude forests determines fire spread through fuel ladders from branches to soil and vice versa. Forest Ecology and Management 400, 475-484.
“temperature increase rate (°C/s): 92.05”
FLAMITS record 17160; Combustibility measurement; plant part twigs; fuel all; predrying yes; device burning bench; site Blauw2017-1; sampling ND. Primary study Blauw2017: Blauw, L. G., van Logtestijn, R. S. P., Broekman, R., Aerts, R., & Cornelissen, J. H. (2017). (Tree species identity in high-latitude forests determines fire spread through fuel ladders from branches to soil and vice versa. Forest Ecology and Management 400, 475-484.
“temperature increase rate (°C/s): 70.38”
FLAMITS record 17163; Combustibility measurement; plant part twigs; fuel all; predrying yes; device burning bench; site Blauw2017-1; sampling ND. Primary study Blauw2017: Blauw, L. G., van Logtestijn, R. S. P., Broekman, R., Aerts, R., & Cornelissen, J. H. (2017). (Tree species identity in high-latitude forests determines fire spread through fuel ladders from branches to soil and vice versa. Forest Ecology and Management 400, 475-484.
“time to flaming (s): 45”
FLAMITS record 17324; Ignitability measurement; plant part wood; fuel dead; predrying yes; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 48”
FLAMITS record 17325; Ignitability measurement; plant part wood; fuel dead; predrying yes; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 52”
FLAMITS record 17326; Ignitability measurement; plant part wood; fuel live; predrying no; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 56”
FLAMITS record 17327; Ignitability measurement; plant part wood; fuel live; predrying no; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 55”
FLAMITS record 17328; Ignitability measurement; plant part wood; fuel live; predrying no; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 50”
FLAMITS record 17329; Ignitability measurement; plant part wood; fuel live; predrying no; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 45”
FLAMITS record 17330; Ignitability measurement; plant part wood; fuel live; predrying no; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 51”
FLAMITS record 17331; Ignitability measurement; plant part wood; fuel live; predrying no; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 61”
FLAMITS record 17332; Ignitability measurement; plant part wood; fuel live; predrying no; device radiant panel; site Simms1967-1; sampling ND. Primary study Simms1967: Simms, D.L., & Law, M. (1967). The ignition of wet and dry wood by radiation. Combustion and Flame, 11, 377388.
“time to flaming (s): 13”
FLAMITS record 19161; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 20”
FLAMITS record 19162; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 23”
FLAMITS record 19163; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 42”
FLAMITS record 19164; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 146”
FLAMITS record 19165; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 21”
FLAMITS record 19166; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 28”
FLAMITS record 19167; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 39”
FLAMITS record 19168; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 60”
FLAMITS record 19169; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 223”
FLAMITS record 19170; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 38”
FLAMITS record 19171; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 66”
FLAMITS record 19172; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 73”
FLAMITS record 19173; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 86”
FLAMITS record 19174; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 379”
FLAMITS record 19175; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 103”
FLAMITS record 19176; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 200”
FLAMITS record 19177; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 373”
FLAMITS record 19178; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 738”
FLAMITS record 19179; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 456”
FLAMITS record 19180; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 681”
FLAMITS record 19181; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 1148”
FLAMITS record 19182; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 1398”
FLAMITS record 19183; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 1395”
FLAMITS record 19184; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“time to flaming (s): 1545”
FLAMITS record 19185; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“temperature at flaming (°C): 761”
FLAMITS record 19186; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“temperature at flaming (°C): 8.6”
FLAMITS record 19187; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“temperature at flaming (°C): 815”
FLAMITS record 19188; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“temperature at flaming (°C): 777”
FLAMITS record 19189; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“temperature at flaming (°C): 815”
FLAMITS record 19190; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Hagen2009-1; sampling ND. Primary study Hagen2009: Hagen, M., Hereid, J., Delichatsios, M. A., Zhang, J., & Bakirtzis, D. (2009). Flammability assessment of fire-retarded Nordic Spruce wood using thermogravimetric analyses and cone calorimetry. Fire Safety Journal, 44, 105366.
“energy flux (kW/m²): 218”
FLAMITS record 19191; Combustibility measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“energy flux (kW/m²): 268”
FLAMITS record 19192; Combustibility measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“energy flux (kW/m²): 178”
FLAMITS record 19193; Combustibility measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“energy flux (kW/m²): 229”
FLAMITS record 19194; Combustibility measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“energy flux (kW/m²): 179”
FLAMITS record 19195; Combustibility measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“energy flux (kW/m²): 218”
FLAMITS record 19196; Combustibility measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“time to flaming (s): 20”
FLAMITS record 19203; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“time to flaming (s): 15”
FLAMITS record 19205; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“time to flaming (s): 15”
FLAMITS record 19207; Ignitability measurement; plant part wood; fuel dead; predrying yes; device calorimeter; site Martinka2016-1; sampling ND. Primary study Martinka2016: Martinka, J., Ka?íková, D., Rantuch, P., & Balog, K. (2016). Investigation of the influence of spruce and oak wood heat treatment upon heat release rate and propensity for fire propagation in the flashover phase. Acta Facultatis Xylologiae, 58(1), 514.
“maximum flame temperature (°C): 397.33”
FLAMITS record 19543; Combustibility measurement; plant part wood; fuel live; predrying yes; device calorimeter; site Renner2023-1; sampling ND. Primary study Renner2023: Renner, J. S., Mensah, R. A., Jiang, L., & Xu, Q. (2023). A critical assessment of the fire properties of different wood species and bark from small-and bench-scale fire experiments. Journal of Thermal Analysis and Calorimetry, 148, 1423-1434.
“maximum flame temperature (°C): 371.98”
FLAMITS record 19552; Combustibility measurement; plant part wood; fuel live; predrying yes; device calorimeter; site Renner2023-1; sampling ND. Primary study Renner2023: Renner, J. S., Mensah, R. A., Jiang, L., & Xu, Q. (2023). A critical assessment of the fire properties of different wood species and bark from small-and bench-scale fire experiments. Journal of Thermal Analysis and Calorimetry, 148, 1423-1434.
“calorific value (kcal/kg): 2284.89736”
FLAMITS record 19561; Combustibility measurement; plant part wood; fuel live; predrying yes; device calorimeter; site Renner2023-1; sampling ND. Primary study Renner2023: Renner, J. S., Mensah, R. A., Jiang, L., & Xu, Q. (2023). A critical assessment of the fire properties of different wood species and bark from small-and bench-scale fire experiments. Journal of Thermal Analysis and Calorimetry, 148, 1423-1434.
“calorific value (kcal/kg): 2980.40482”
FLAMITS record 19570; Combustibility measurement; plant part wood; fuel live; predrying yes; device calorimeter; site Renner2023-1; sampling ND. Primary study Renner2023: Renner, J. S., Mensah, R. A., Jiang, L., & Xu, Q. (2023). A critical assessment of the fire properties of different wood species and bark from small-and bench-scale fire experiments. Journal of Thermal Analysis and Calorimetry, 148, 1423-1434.