Silva Nova – Restoring soil biology and soil functions to gain multiple benefits in new forests

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Standard

Silva Nova – Restoring soil biology and soil functions to gain multiple benefits in new forests. / Gundersen, Per; Bezemer, T. Martijn; Kepfer Rojas, Sebastian; Tedersoo, Leho; Vesterdal, Lars; Schmidt, Inger Kappel.

I: Research Ideas and Outcomes, Bind 9, e101455, 2023.

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Harvard

Gundersen, P, Bezemer, TM, Kepfer Rojas, S, Tedersoo, L, Vesterdal, L & Schmidt, IK 2023, 'Silva Nova – Restoring soil biology and soil functions to gain multiple benefits in new forests', Research Ideas and Outcomes, bind 9, e101455. https://doi.org/10.3897/rio.9.e101455

APA

Gundersen, P., Bezemer, T. M., Kepfer Rojas, S., Tedersoo, L., Vesterdal, L., & Schmidt, I. K. (2023). Silva Nova – Restoring soil biology and soil functions to gain multiple benefits in new forests. Research Ideas and Outcomes, 9, [e101455]. https://doi.org/10.3897/rio.9.e101455

Vancouver

Gundersen P, Bezemer TM, Kepfer Rojas S, Tedersoo L, Vesterdal L, Schmidt IK. Silva Nova – Restoring soil biology and soil functions to gain multiple benefits in new forests. Research Ideas and Outcomes. 2023;9. e101455. https://doi.org/10.3897/rio.9.e101455

Author

Gundersen, Per ; Bezemer, T. Martijn ; Kepfer Rojas, Sebastian ; Tedersoo, Leho ; Vesterdal, Lars ; Schmidt, Inger Kappel. / Silva Nova – Restoring soil biology and soil functions to gain multiple benefits in new forests. I: Research Ideas and Outcomes. 2023 ; Bind 9.

Bibtex

@article{e35bcf3d66964bec8447e52e38c11406,
title = "Silva Nova – Restoring soil biology and soil functions to gain multiple benefits in new forests",
abstract = "Afforestation is proposed as one of the most effective climate solutions for carbon sequestration. As a majority of threatened species are linked to forests, afforestation can also contribute to mitigate the biodiversity crisis. There is however a caveat: the agricultural legacy (high nutrient availability, altered soil biota structure and function) of new forests constrains the development of forest-adapted species, affects tree growth and stability, and delays environmental benefits from afforestation.We hypothesize that inoculation of former arable land with soil (including microbiome, fauna and seeds/rhizomes of understory vegetation) from old forests along with targeted tree species mixtures will improve productivity and more rapidly restore forest-adapted communities. This will ultimately result in diverse, stable and resilient multifunctional forests.We will test this hypothesis and develop applied inoculation methods by: i) exploring soil biota and benchmarking biodiversity in existing afforestation research Chronosequence platforms (chronosequences and sites with increasing distance to other forests); ii) conducting inoculation experiments in mesocosms to measure seedling performance and, above- and belowground linkages; iii) establishing field-scale inoculation experiments in new and existing afforestations to test short- and long-term inoculation success on forest productivity, biodiversity and soil functioning at the ecosystem scale; iv) incorporating the landscape context into guidelines and tools for spatially explicit prioritization of areas for assisted dispersal.The aims are to resolve barriers for successful restoration and develop landscape-scale afforestation strategies that optimize productivity and biodiversity for the planning and implementation of green infrastructure; and produce basic knowledge on the tree, understory vegetation, soil fauna and microbiome nexus and its effect on forest productivity, biodiversity and soil functions (N-retention, C-sequestration, methane uptake)",
author = "Per Gundersen and Bezemer, {T. Martijn} and {Kepfer Rojas}, Sebastian and Leho Tedersoo and Lars Vesterdal and Schmidt, {Inger Kappel}",
year = "2023",
doi = "10.3897/rio.9.e101455",
language = "English",
volume = "9",
journal = "Research Ideas and Outcomes",
issn = "2367-7163",
publisher = "Pensoft Publishers",

}

RIS

TY - JOUR

T1 - Silva Nova – Restoring soil biology and soil functions to gain multiple benefits in new forests

AU - Gundersen, Per

AU - Bezemer, T. Martijn

AU - Kepfer Rojas, Sebastian

AU - Tedersoo, Leho

AU - Vesterdal, Lars

AU - Schmidt, Inger Kappel

PY - 2023

Y1 - 2023

N2 - Afforestation is proposed as one of the most effective climate solutions for carbon sequestration. As a majority of threatened species are linked to forests, afforestation can also contribute to mitigate the biodiversity crisis. There is however a caveat: the agricultural legacy (high nutrient availability, altered soil biota structure and function) of new forests constrains the development of forest-adapted species, affects tree growth and stability, and delays environmental benefits from afforestation.We hypothesize that inoculation of former arable land with soil (including microbiome, fauna and seeds/rhizomes of understory vegetation) from old forests along with targeted tree species mixtures will improve productivity and more rapidly restore forest-adapted communities. This will ultimately result in diverse, stable and resilient multifunctional forests.We will test this hypothesis and develop applied inoculation methods by: i) exploring soil biota and benchmarking biodiversity in existing afforestation research Chronosequence platforms (chronosequences and sites with increasing distance to other forests); ii) conducting inoculation experiments in mesocosms to measure seedling performance and, above- and belowground linkages; iii) establishing field-scale inoculation experiments in new and existing afforestations to test short- and long-term inoculation success on forest productivity, biodiversity and soil functioning at the ecosystem scale; iv) incorporating the landscape context into guidelines and tools for spatially explicit prioritization of areas for assisted dispersal.The aims are to resolve barriers for successful restoration and develop landscape-scale afforestation strategies that optimize productivity and biodiversity for the planning and implementation of green infrastructure; and produce basic knowledge on the tree, understory vegetation, soil fauna and microbiome nexus and its effect on forest productivity, biodiversity and soil functions (N-retention, C-sequestration, methane uptake)

AB - Afforestation is proposed as one of the most effective climate solutions for carbon sequestration. As a majority of threatened species are linked to forests, afforestation can also contribute to mitigate the biodiversity crisis. There is however a caveat: the agricultural legacy (high nutrient availability, altered soil biota structure and function) of new forests constrains the development of forest-adapted species, affects tree growth and stability, and delays environmental benefits from afforestation.We hypothesize that inoculation of former arable land with soil (including microbiome, fauna and seeds/rhizomes of understory vegetation) from old forests along with targeted tree species mixtures will improve productivity and more rapidly restore forest-adapted communities. This will ultimately result in diverse, stable and resilient multifunctional forests.We will test this hypothesis and develop applied inoculation methods by: i) exploring soil biota and benchmarking biodiversity in existing afforestation research Chronosequence platforms (chronosequences and sites with increasing distance to other forests); ii) conducting inoculation experiments in mesocosms to measure seedling performance and, above- and belowground linkages; iii) establishing field-scale inoculation experiments in new and existing afforestations to test short- and long-term inoculation success on forest productivity, biodiversity and soil functioning at the ecosystem scale; iv) incorporating the landscape context into guidelines and tools for spatially explicit prioritization of areas for assisted dispersal.The aims are to resolve barriers for successful restoration and develop landscape-scale afforestation strategies that optimize productivity and biodiversity for the planning and implementation of green infrastructure; and produce basic knowledge on the tree, understory vegetation, soil fauna and microbiome nexus and its effect on forest productivity, biodiversity and soil functions (N-retention, C-sequestration, methane uptake)

U2 - 10.3897/rio.9.e101455

DO - 10.3897/rio.9.e101455

M3 - Journal article

VL - 9

JO - Research Ideas and Outcomes

JF - Research Ideas and Outcomes

SN - 2367-7163

M1 - e101455

ER -

ID: 337781564