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Degradation agent

Fungal rot

Basidiomycete decay of the cell wall, graded by EN 350 durability class.

How to read this

The diagram below shows every direct connection this node has in the graph. Each line is one edge; expand a neighbour group below to read exactly why that connection exists and which standard or dataset it comes from.

Fungal rot — knowledge graph neighbourhoodNorway SpruceSiberian LarchWestern Red CedarThermally Modified AshEuropean OakAcetylated Radiata P…Douglas FirScots Pine (heartwood)Thermally Modified P…Sweet ChestnutRobinia (Black Locust)Iroko (FSC certified)Coastal ScotlandStockholm, SwedenSingaporePacific North-West, …Preservative impregn…Thermal modificationAcetylationFungal rot

Species (12)

  • Norway Spruce← is vulnerable to

    WI-SL resistance profile: bio = 34/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Siberian Larch← moderately resists

    WI-SL resistance profile: bio = 68/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Western Red Cedar← resists well

    WI-SL resistance profile: bio = 78/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Thermally Modified Ash← resists well

    WI-SL resistance profile: bio = 90/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • European Oak← resists well

    WI-SL resistance profile: bio = 80/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Acetylated Radiata Pine← resists well

    WI-SL resistance profile: bio = 96/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Douglas Fir← moderately resists

    WI-SL resistance profile: bio = 52/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Scots Pine (heartwood)← is vulnerable to

    WI-SL resistance profile: bio = 44/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Thermally Modified Pine← resists well

    WI-SL resistance profile: bio = 84/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Sweet Chestnut← resists well

    WI-SL resistance profile: bio = 80/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Robinia (Black Locust)← resists well

    WI-SL resistance profile: bio = 92/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

  • Iroko (FSC certified)← resists well

    WI-SL resistance profile: bio = 90/100 (ordinal, from EN 350 durability class, extractive chemistry and movement).

    Source: WI-SL v1.2.0

Climate zone (4)

  • Coastal Scotland← elevates risk of

    Coastal Scotland has a humidity load of 86/100, above the 60 threshold used here to flag a dominant degradation driver.

    Source: wood.ts:climates[]

  • Stockholm, Sweden← elevates risk of

    Stockholm, Sweden has a humidity load of 74/100, above the 60 threshold used here to flag a dominant degradation driver.

    Source: wood.ts:climates[]

  • Singapore← elevates risk of

    Singapore has a humidity load of 94/100, above the 60 threshold used here to flag a dominant degradation driver.

    Source: wood.ts:climates[]

  • Pacific North-West, USA← elevates risk of

    Pacific North-West, USA has a humidity load of 82/100, above the 60 threshold used here to flag a dominant degradation driver.

    Source: wood.ts:climates[]

Treatment (3)

  • Pressure impregnation to a declared penetration class (NP) and retention for the intended use class (EN 351-1).

    Source: en351-treat

  • Heat treatment that removes decay-feeding sugars, assessed as a performance class under EN 350 clause 4.

    Source: en350-perf

  • Acetylation← mitigates

    Non-biocidal chemical modification of the cell wall, assessed by measured mass-loss and moisture-exclusion performance.

    Source: en350-perf

How edges in this graph are derivedWI-GRAPH v1.0.0

Species → agent edges come from the WI-SL resistance profile (0–100 ordinal scale derived from EN 350 durability class, extractive chemistry and movement). ≥70 is read as "resists well", 45–69 as "moderately resists", below 45 as "is vulnerable to".

Climate → agent edges fire when a climate's driver value (UV, humidity, salt or freeze-thaw load) is 60 or above, read directly from the climate dataset.

Treatment → agent / standard edges come from the paraphrased standards corpus used across the site (EN 927-1, EN 351-1, EN 350 clause 4, EN 13501-1).

Species → standard edges reuse the exact source list already published for each Global WoodIntel Score sub-score.

Machine-readable: GET /api/public/v1/graph?node=agent-rot · CC BY 4.0