| Literature DB >> 34720410 |
Anna M Hersperger1, Simona R Grădinaru2, Ana Beatriz Pierri Daunt1, Carole S Imhof3, Peilei Fan4.
Abstract
CONTEXT: Landscape ecology as an interdisciplinary science has great potential to inform landscape planning, an integrated, collaborative practice on a regional scale. It is commonly assumed that landscape ecological concepts play a key role in this quest.Entities:
Keywords: Bibliographic analysis; Ecosystem services; Green infrastructure; Landscape ecology; Landscape perception; Landscape services; Multifunctionality; Resilience; Sense of place; Socio-ecological systems
Year: 2021 PMID: 34720410 PMCID: PMC8549942 DOI: 10.1007/s10980-021-01193-y
Source DB: PubMed Journal: Landsc Ecol ISSN: 0921-2973 Impact factor: 3.848
Steps of the planning process for the analysis, derived from Steiner (2008), Steinitz (2012) and Botequillha Leitao and Ahern (2002)
| Steiner ( | Steinitz ( | Botequillha Leitao and Ahern ( | Steps of the planning process used in this study |
|---|---|---|---|
| Goal establishment | Is the current study area working well? (evaluation model) | Diagnosis | What are the problems? What should be achieved? |
| Inventory and analysis of biophysical and socioeconomic processes (different scales, regional to local) | How should the study area be described? (representation model) How does the study area work? (process model) | Focus Analysis; and public participation | Biophysical and socioeconomic processes: description and assessment |
| Concepts and options | How might the study area be altered? (change model) (alternative futures) What differences might the changes cause? (impact model) | Prognosis: alternative plans and evaluation, public participation | How might the landscape be altered? Impact of the different options? |
| Plan (chosen option) | How should the study area be changed? (decision model) | Synthesis | Suggested actions |
| Education and participation (8) | –(stakeholder input) | In Analysis and prognosis, explicitly | Throughout the planning process |
| Detailed designs for the chosen option | – | – | – |
| Implementation | – | Implementation | – |
| Administration and monitoring | – | Monitoring |
Landscape ecological concepts. Table 2a Early concepts (description and references based on Hersperger 1994); Table 2b Additional concepts that were derived from papers published in 2015-2019 in the journals Landscape Ecology, Landscape Online, Current Landscape Ecology Reports, and Landscape and Urban Planning
| Description | Abbreviation in the figures | |
|---|---|---|
| | ||
| Structure, function, change | Scientific framework of landscape ecology based on the following three characteristics of the landscape system: | Structure Function Change |
| Stability | (a) Landscapes are considered metastable, a state of being in equilibrium, but susceptible to being diverted to another equilibrium; (b) stochastic view (Forman and Godron | Stability |
| Chaos Theory | A way to explain system behavior where, despite rules, systems can be fundamentally unpredictable and behavior is sensitive to initial conditions; it expands the traditional understanding of changes in physical and social systems (Cartwright | Chaos |
| Scale | The concept of scales allows analyses at different levels of a hierarchical system, whereas landscape might appear to be heterogeneous at one scale but quite homogeneous at another scale (Forman | Scale |
| Hierarchy Theory | Hierarchy theory developed as a framework to analyze systems of a certain type of complexity. A hierarchy-theory approach towards landscape ecology recognizes that landscape ecology extends over many spatial and temporal scales (Allan and Starr | Hierarchy |
| General Systems Theory | General systems theory formalizes the way a system, such as a landscape, is perceived. It stresses the hierarchical order of nature as an open system and cross-linkages between various components (Naveh and Lieberman | GSD |
| Holism | The basic concept of holism is that holistic entities have an existence other than the mere sum of their parts, and that reality consists of wholes in a hierarchical structure (Smuts | Holism |
| Classification of landscape types | The classification of landscapes is based on a description of landscape attributes, such as structural characteristics or land-use units (Zonneveld | Classification |
| Landscapes as socio-ecological systems | An integrated analytical framework to understand the relationships between humans and the environment, stressing a systems perspective on landscapes and the integration of humans and nature (Holling | Socio-ecological |
| Landscape resilience | The capacity of a landscape to maintain landscape processes as well as ecological, economic, and social functions under changing conditions, and under diverse biophysical and socioeconomic challenges (Beller et al. | Resilience |
| Landscape and ecosystem services | An assessment framework for services provided by landscapes and demanded by humans (Keller and Backhaus | Services |
| Green infrastructure | A strategically planned network of natural and semi-natural areas, designed and managed (Norton et al. | Green |
| Multifunctionality | Within a landscape, the same piece of land can serve several uses while an area can contain many small areas dedicated to specific uses and host interactions of uses (Otte et al. | Multifunctionality |
| Land use | The management and modification of the landscape that reflect intentional human imprints (FAO | Land use |
| Landscape as human experience | Landscapes as perceived by humans often serves as a starting point for action, including examples of visual landscape, soundscape, sense of place (Gobster et al. | Experience |
Fig. 1Number of times a concept was used in the 1918 papers published in the years 2015–2019 by the journals Landscape Ecology, Landscape Online, Current Landscape Ecology Reports, and Landscape and Urban Planning. Early concepts are listed on the left, additional concepts on the right. For the full name of concepts, see Table 2. The concepts Change, Scale, Structure, Function, Landscape as human experience, Land use, Landscape and ecosystem services, Green infrastructure and Resilience were mentioned more than 500 times
Fig. 2Share in the use of each concept by the journals Current Landscape Ecology Reports (CLER), Landscape Ecology (LE), Landscape Online (LO), and Landscape and Urban Planning (LUP) in the 1918 papers published in the years 2015–2019. Numbers in brackets after journal abbreviations refer to the number of publications in the five years. Left (Table 2a refers to early concepts; Right (Table 2b) to additional concepts. For the full name of concepts, see Table 2. Journals clearly differ in terms of the prevalence of landscape ecological concepts
Fig. 3Average number of times a concept was used in a single publication by the journals Current Landscape Ecology Reports (CLER), Landscape Ecology (LE), Landscape Online (LO), and Landscape and Urban Planning (LUP) in the 1918 papers published in the years 2015–2019. Left (Table 3a) refers to early concepts; Right (Table 3b) to additional concepts. The journals Landscape and Urban Planning (LUP) and Landscape Ecology (LE) regularly publish articles that clearly focus on certain concepts, i.e., a concept is used more than 100 times per article (a and b)
Fig. 4Number of times landscape ecological concepts were addressed in planning steps in the 52 empirical papers analyzed in detail. For the full name of concepts, see Table 2. Concepts were most often addressed in the Landscape analysis step and least in Monitoring