Supporting Information
Figure S1 The distribution characteristics of wood decay fungi
in different degrees of decay in Fenglin Nature Reserve (data from Zhang
and Wei 2016).
Figure S2 The successive decomposition of Pinus armandiicones by Auriscalpium and Strobilurus.
Figure S3 The abundance and distributions of lignocellulolytic
genes of Auriscalpium and Strobilurus demonstrated by
multidimensional clustering approaches.
Figure S4 Analyses of carbohydrate-active enzymes (CAZymes) and
lignocellulolytic
genes within genera of Auriscalpium and Strobilurusderived from heatmap, and principal component analyses (PCA).
Figure S5 Competitive relationshipes between fungi inAuriscalpium and Strobilurus on medium and cones.
Table S1. Gene distribution of carbohydrate-active enzymes
(CAZymes)
in Auriscalpium and Strobilurus fungi and the other 15
fungi.
Table S2. Raw data of four major chemical components of cones
before and after decomposition by fungi in Auriscalpium .
Table S3. Statistical analyses revealed that the average number
of carbohydrate-active enzymes (CAZymes) in Auriscalpium andStrobilurus fungi.
Table S4. The comparison of carbohydrate-active enzymes
(CAZymes) between Auriscalpium and other WR fungi.
Table S5. The comparison of carbohydrate-active enzymes
(CAZymes) between Strobilurus and other WR fungi.
Table S6. The collection information of fungi inAuriscalpium and Strobilurus .
Table S7. Sequencing statistics.
Table S8. Assessment of the protein gene set completeness inAuriscalpium and Strobilurus using BUSCO.
Table S9. Gene distribution of lignocellulolytic genes inAuriscalpium and Strobilurus fungi and the other 15 fungi.
Table S10. Statistical analyses revealed that the average
number of lignocellulolytic genes in Auriscalpium andStrobilurus fungi.