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Policy Actors

1.2 What is Integrative Forest Management, and related concepts

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We present the operative definition of Integrative Forest Management and guiding “Principles and Attributes” developed within the TRANSFORMIT project, and also introduce related concepts.

Integrative Forest Management 

Integrative Forest Management (IFM) aims at integrating biodiversity conservation and global change adaptation into forest management for the sustainable provision of multiple ecosystem services. It is guided by natural and diverse forest structures, compositions, and dynamics to support ecosystem functioning and resilience. Its management practices consistently consider the tree, stand, and landscape scale and employ different silvicultural intensities, including intentionally unmanaged forest patches. IFM can be applied in any type of forest to achieve integrated environmental, economic, and social outcomes. 

To operationalise the concept, guiding principles and attributes of Integrative Forest Management have recently been compiled and further developed based on current literature and expert knowledge. 

 

Principle 

Attributes 

1  

Retention of habitat trees, special habitats, and dead wood

P1-A1 Active actions of the retention concept are applied (i.e. habitat trees, deadwood, high stumps, retained vegetation patches etc.)
P1-A2 Retention in relation to average growing stock across the considered landscape
P1-A3 Valuable habitats are mapped and protected or managed towards conservation goals beyond regulations
P1-A4 Forest reserves are an integral part of the area covered by a management plan

2  

Promoting site-adapted native tree species and non-native species 

P2-A1 Native species forest cover is prioritized
P2-A2 Non-native species are included in minority shares. These should be adapted to site conditions and climate change
P2-A3 Site-adapted species are prioritized and promoted through active regeneration management or stand tending

3  

Promoting natural tree regeneration

P3-A1 Regeneration is obtained naturally, except for areas under active conversion (tree species change towards more adapted ones)
P3-A2 Mature stands to carry advanced regeneration
P3-A3 Active browsing control is implemented (incl. hunting and physical protection via fences)
P3-A4 Promotion and maintenance of pioneer species in the landscape (e.g. pioneer species along roads, etc.)

4  

Partial harvest and promotion of structural heterogeneity

P4-A1 Most/Main planned harvesting is done by selection harvesting (from a single tree to group selection, including shelterwood systems)

P4-A2 Without clear felling

5  

Promoting tree species variation and genetic diversity

P5-A1 Active regeneration management that promotes the establishment of diverse forests with a minimum of three tree species in each stand 

P5-A2 Tending operations aim at keeping or enhancing the diversity of tree species
P5-A3 Prioritisation of minority tree species

6  

Avoidance of intensive management operations 

P6-A1 No routine application of agrochemicals (some exceptions may be possible, e. g. in the form of integrated pest management)

P6-A2 The enterprise has a soil protection plan in place, i.e. machine traffic is constrained to a fixed extraction network
P6-A3 Salvage logging actions retain considerable dead wood volumes
P6-A4 Water courses are protected from disruption from machine traffic

7  

Supporting landscape heterogeneity and functioning

P7-A1 Landscape level strategy for water retention and protection of watercourses in place

P7-A2 Protection of valuable and rare habitats
P7-A3 Landscape level strategy to promote connectivity and heterogeneity of habitats between forest stands and non-forested areas in place

8  

Management of factors that hinder ecosystem functioning

P8-A1 Management strategy in place to control invasive species

P8-A2 Management strategy in place for increasing the forest resilience and the regeneration and restoration post-disturbances (e.g. fires, pest outbreaks, storm, game control)

Related concepts 

We can compare forest management approaches related to Integrative Forest Management according to the above guiding Principles and Attributes. These reviewed forest management concepts were developed in diverse regional, ecological, and historical contexts, thus reflecting varying interpretations of sustainability and biodiversity integration in forestry. While many emerged from practical needs long before Integrative Forest Management was formalised, more or less extensive overlaps in their principles and attributes were found. 

Continuous Cover Forestry is among the oldest forest management concepts and has its roots in central Europe (Turckheim, 2005). It was initially motivated by soil protection and economic stability. It clearly states the avoidance of clear felling, instead maintaining permanent forest cover via selective harvests. Its focus on structural diversity, age-class heterogeneity, and resilience has made it a key precursor to IFM. 

Close-to-Nature Forest Management, as defined by Schütz (1999) and expanded by Bauhus et al., (2013), emphasises working with natural processes to guide forest development, maintain species richness, and promote structural complexity. Rooted in central European silvicultural thinking, this approach avoids artificial interventions, such as clear felling, and instead favours natural regeneration, mixed-species stands, and continuous forest cover. Its core motivation lies in enhancing ecosystem stability and adaptability while still allowing for sustainable timber production. Schütz argued that close-to-nature silviculture is not only compatible with biodiversity goals but can actively support species richness when properly implemented. The definition was further developed over time. Bauhus et al., (2013) describe forests as complex adaptive systems, aiming to enhance their resilience, adaptability, and multifunctionality under global change, emphasizing structural and species diversity, long-term sustainability, site-specific management, and fostering adaptability to environmental uncertainty and disturbance regimes. This concept laid the groundwork for later frameworks such as Closer-to-Nature Forest Management (Larsen et al., 2022), which expanded the scope to include broader landscape-level and climate resilience objectives. 

Pro Silva, formalised in 1989 and documented in its 2012 charter, advocates continuous, close-to nature forest management without clearcuts, aiming to maintain all forest functions over time (Pro Silva, 2012; Schütz, 2011). Rooted in central European silvicultural traditions, it promotes forest resilience, natural regeneration, and multifunctionality. Its motivation was both ecological and economic, to sustain forests without sacrificing productivity. 

The Stepping Stone Concept (Mergner, 2018) promotes habitat continuity via deadwood, habitat trees, and forest reserves acting as “stepping stones” for species. Unlike timber-focused strategies, it emerged primarily from conservation science to enhance genetic exchange across landscapes. Recent adaptations (e.g., Lapin et al., 2024) expand this concept from forest stands to broader ecological networks. 

Retention Forestry (Gustafsson et al., 2012) focuses on biodiversity conservation within managed forests by retaining structural elements like deadwood and old trees during harvesting, mostly focused on boreal forests. It evolved in response to biodiversity concerns in intensively managed forests, emphasising structural continuity across space and time. 

The TRIAD concept (Messier et al., 2009) divides forests into three zones: conservation, ecosystem management, and intensive production. Motivated by the need to reconcile timber harvesting with biodiversity protection, it spatially separates objectives to optimise both ecological and economic functions. It reflects a strategic zoning approach that is popular in North America and is now increasingly relevant in European multifunctional forest landscapes.  

Climate-Smart Forestry (Nabuurs et al., 2017)) emerged recently from climate policy debates. Unlike older approaches, it addresses greenhouse gas mitigation, resilience, and productivity in a climate change context. It promotes carbon sequestration, adaptive silviculture, and efficient use of wood, aligning well with EU Green Deal objectives. 

Finally, Closer-to-Nature Forest Management (EU Forest Strategy 20230, Larsen et al., 2022) was introduced as a unifying umbrella under Sustainable Forest Management, promoting heterogeneity, native species, and resilience. Larsen et al. (2022) discuss this term, building on latest scientific evidence and propose a definition of the concept by a set of seven guiding principles and a framework/checklist for flexible European-wide implementation. The shift from Close-to-Nature to Closer-to-nature Forest Management demonstrates increasing recognition that biodiversity and resilience need clear, scalable strategies beyond the original stand-focused approach to address modern challenges like climate change and ecosystem fragmentation. It integrates more explicit biodiversity and landscape-level objectives, as also proposed by Krumm et al. (2020). The “Closer” distinction signals a step beyond traditional "close to- nature" approaches, aligning with the European Green Deal’s emphasis on ecosystem restoration.

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