Disruption of root carbon transport into forest humus stimulates fungal opportunists at the expense of mycorrhizal fungi

Keyphrases

• Ascomycetes 33%
• Bacterial Population 33%
• Boreal Forest 66%
• Carbohydrates 33%
• Carbon Supply 33%
• Carbon Transport 100%
• Cellulase Production 33%
• Community Analysis 33%
• Ectomycorrhizal Fungi 66%
• Effects on Growth 33%
• Enzyme Activity Measurement 33%
• External Carbon Source 33%
• Forest Humus 100%
• Free-living 66%
• Functional Shift 33%
• Fungal Community 33%
• Humus 33%
• Humus Layer 33%
• Laccase Production 33%
• Living Roots 33%
• Magnitude Production 33%
• Microbial Processes 33%
• Microsite 33%
• Mycelial 33%
• Mycelium 33%
• Mycorrhizal 33%
• Mycorrhizal Fungi 100%
• Mycorrhizal Mycelium 33%
• Nutrient Release 33%
• Nutrient Retention 33%
• Order of Magnitude 33%
• Pine Forest 33%
• Rapid Growth 33%
• Root Carbon 100%
• Root Connection 33%
• Root Severance 33%
• Saprotrophic Fungi 66%
• Soil Samples 33%
• Translocated 33%

Agricultural and Biological Sciences

• Boreal Forest 50%
• Cellulase 25%
• Ectomycorrhiza 50%
• Enzyme Activity 25%
• Fungal Communities 25%
• Humus 100%
• Laccase 25%
• Mycelium 50%
• Mycorrhiza 100%
• Nutrient Retention 25%
• Pinus 25%
• Saprotroph 50%

Immunology and Microbiology

• Ascomycota 33%
• Bacterial Population 33%
• Cellulase 33%
• Ectomycorrhiza 66%
• Enzyme Activity 33%
• Mycelium 66%
• Mycorrhiza 100%
• Pine 33%
• Saprotrophic Fungi 66%