Spatially explicit database of tree related microhabitats (TreMs)
Dernière version Publié par Institut national de recherche pour l’agriculture, l’alimentation et l’environnement (INRAE) le Aug 2, 2022
‘Tree – tree’ interactions are important structuring mechanisms for forest community dynamics. Forest management takes advantage of competition effects on tree growth by removing or retaining trees to achieve management goals. Both competition and silviculture have thus a strong effect on density and distribution of tree related microhabitats (TreMs) which are key features for forest taxa at the stand scale (e.g. Bouget et al. 2013, 2014). In particular, spatially explicit data to understand patterns and mechanisms of TreM formation in forest stands are rare. To train and eventually improve decision making capacities related to the integration of biodiversity aspects into forest management to date more than 100 usually 1 ha (100 m x 100m) permanent plots were established in different forest communities of Europe. Due to their demonstration character the selection of plots was non-systematic. They do, however, cover a broad range of forest types (e.g. beech-oak, beech-fir (-spruce), oak-hornbeam, pine-spruce, etc.), altitudinal gradients (from 25 m – 1850 m) and site conditions (e.g. oligotrophic Luzulo-Fagetum or Vaccinio-Pinetum to mesotrophic Galio-Fagetum or Milio-Fagetum). For each plot the following data is collected: (1) tree location as polar coordinates (stem base map), (2) tree species, (3) forest mensuration data (dbh in [cm], tree height in [m]), (4) tree related microhabitats (TreMs) and (5) tree status (living or standing dead). In addition to the spatial dendrometric data we provide information on plot establishment, forest type, plot location (state, region, country), elevation, means for annual precipitation and temperature, and the natural forest community (Kraus et al., 2018).
Enregistrements de données
Les données de cette ressource occurrence ont été publiées sous forme d'une Archive Darwin Core (Darwin Core Archive ou DwC-A), le format standard pour partager des données de biodiversité en tant qu'ensemble d'un ou plusieurs tableurs de données. Le tableur de données du cœur de standard (core) contient 42,078 enregistrements. 1 tableurs de données d'extension existent également. Un enregistrement d'extension fournit des informations supplémentaires sur un enregistrement du cœur de standard (core). Le nombre d'enregistrements dans chaque tableur de données d'extension est illustré ci-dessous.
- Occurrence (noyau)
- MeasurementOrFact
Cet IPT archive les données et sert donc de dépôt de données. Les données et métadonnées des ressources sont disponibles au téléchargement dans la section téléchargements. Le tableau des versions liste les autres versions de chaque ressource rendues disponibles de façon publique et permet de tracer les modifications apportées à la ressource au fil du temps.
Téléchargements
Téléchargez la dernière version de la ressource en tant qu'Archive Darwin Core (DwC-A), ou les métadonnées de la ressource au format EML ou RTF :
Données sous forme de fichier DwC-A (zip) | télécharger 42,078 enregistrements dans Anglais (1 MB) - Fréquence de mise à jour: irrègulière |
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Métadonnées sous forme de fichier EML | télécharger dans Anglais (67 KB) |
Métadonnées sous forme de fichier RTF | télécharger dans Anglais (39 KB) |
Versions
Le tableau ci-dessous n'affiche que les versions publiées de la ressource accessibles publiquement.
Comment citer
Les chercheurs doivent citer cette ressource comme suit:
Kraus D, Schuck A, Bebi P, Blaschke M, Bütler R, Flade M, Heintz W, Krumm F, Lachat T, Larrieu L, Lehnerova L, Levin M, Mergner U, Pach M, Paillet Y, Pyttel P, Rydkvist T, Santopuoli G, Sever K, Sturm K, Vandekerkhove K, Winter S, Witz M, Winnock M, Marcandella M, Roth I, Jakob A, Dickele R, Hofmann G, Ruis-Eckhardt D, Boschen S, Schölmerich U, Leder B, Guericke M, Merkel H, Löffler D, Schusser S, Runkel M, Steinmetz A, Marx K H, Mongelluzzi A, Wilshusen F, Boutteaux J, Duchamp L, Dericbourg N, Rouyer E, Csikos V, Sweeny K, Steichen D, Leytem M, Konczal S, Stereńczak K, Kazimirovic M, Šebeň V, Baiges Zapater T, van der Maaten-Theunissen M, Pommer A, Nord-Larsen T, Fuhr M, Delebeque L, Navarro L M, Lasala D, Waez-Mousavi S, Sefidi K, Abellanas B (2017): Spatially explicit database of tree related microhabitats (TreMs). v1.26. Institut national de recherche pour l’agriculture, l’alimentation et l’environnement (INRAE). Dataset/Occurrence. http://dynids.toulouse.inra.fr:8180/ipt/resource?r=trems_integrate&v=1.26
Droits
Les chercheurs doivent respecter la déclaration de droits suivante:
L’éditeur et détenteur des droits de cette ressource est Institut national de recherche pour l’agriculture, l’alimentation et l’environnement (INRAE). This work is licensed under a Creative Commons Attribution (CC-BY) 4.0 License.
Enregistrement GBIF
Cette ressource a été enregistrée sur le portail GBIF, et possède l'UUID GBIF suivante : 2e102194-f384-4712-89a4-5db7a3fc409a. Institut national de recherche pour l’agriculture, l’alimentation et l’environnement (INRAE) publie cette ressource, et est enregistré dans le GBIF comme éditeur de données avec l'approbation du GBIF France.
Mots-clé
Forest ecosystem; spatially explicit; demonstration plots; tree species; tree related microhabitat occurrences; taxonomic biodiversity; saproxylic; Occurrence; Observation
Contacts
Personne ayant créé cette ressource:
Personne pouvant répondre aux questions sur la ressource:
Personne ayant renseigné les métadonnées:
Autres personnes associées à la ressource:
Couverture géographique
Europe: Belgium, Bosnia and Herzegovina, Czech Republic, Denmark, France, Germany, Hungary, Ireland, Italy, Luxembourg, Poland, Serbia, Slovakia, Slovenia, Spain, Sweden, Switzerland. The network of marteloscopes continues to grow due to an ongoing interest of institutions from Europe but also other world regions. A few plots in this database are located in Chile and Iran.
Enveloppe géographique | Sud Ouest [-41.64, -73.916], Nord Est [69.36, 57.305] |
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Couverture taxonomique
Included are all tree species that occurred at least once in any of the plots.
Species | Fagus sylvatica (Common beech), Fagus orientalis (Oriental beech), Quercus robur (Pedunculate oak), Quercus petraea (Sessile oak), Quercus pubescens (Downy oak), Quercus rubra (Champion oak), Picea abies (Norway spruce), Pinus sylvatica (Scots pine), Pinus nigra (Black pine), Pinus cembra (Swiss stone pine), Pinus mugo (Swiss mountain pine), Abies alba (Silver fir), Acer platanoides (Norway maple), Acer pseudoplatanus (Sycamore maple), Acer campestre (Field maple), Fraxinus excelsior (Common ash), Carpinus betulus (Hornbeam), Tilia cordata (Small-leaved lime), Tilia platyphylla (Large-leaved lime), Ulmus glabra (Scots elm), Larix decidua (European larch), Betula pendula (Silver birch), Betula pubescens (Downy birch), Populus tremula (Common aspen), Prunus avium (Wild cherry), Prunus padus (Bird cherry), Alnus glutinosa (Common alder), Sorbus torminalis (Wild service tree), Sorbus domestica (True service tree), Sorbus aucuparia (Rowan), Sorbus aria (Common whitebeam), Taxus baccata (European yew), Salix caprea (Goat willow), Corylus avellana (Common hazel), Pseudotsuga menziesii (Douglas fir), Quercus cerris (Turkey oak), Acer opalus (Italian maple), Acer lobelii (Lobel's maple), Ulmus minor (Field elm), Ulmus laevis (European white elm), Crateagus monogyna (Common hawthorn), Prunus serotina (Black cherry), Abies grandis (Grand fir), Acer tataricum (Tatar maple), Aesculus hippocastanum (Horse chestnut), Alnus incana (Grey alder), Castanea sativa (Sweet chestnut), Cornus mas (Cornelian cherry), Corylus maxima (Large filbert), Frangula alnus (Alder buckthorn), Fraxinus ornus (Manna ash), Ilex aquifolium (Holly), Juglans regia (Common walnut), Larix kaempferi (Japanese larch), Malus sylvestris (European crab apple), Ostrya carpinifolia (European hop-hornbeam), Paulownia tomentosa (Princess tree), Picea sitchensis (Sitka spruce), Pinus strobus (Eastern white pine), Prunus spinosa (Blackthorn), Quercus faginea (Portuguese oak), Quercus frainetto (Hungarian oak), Robinia pseudoacacia (Black locust), Sambucus nigra (Black elder), Tilia tomentosa (Silver lime), Tsuga heterophylla (Western hemlock), Ulmus canescens (Grey elm), Acer cappadocicum (Cappadocian maple), Acer velutinum (Persian maple), Aextoxicon punctatum (Olivillo), Alnus subcordata (Caucasian alder), Amomyrtus luma (Luma), Araucaria araucana (Monkey puzzle tree / Chilean pine), Caldcluvia paniculata (Tiaca), Diospyros lotus (Caucasian persimmon), Eucryphia cordifolia (Ulmo), Gevuina avellana (Chilean hazelnut), Juniperus oxycedrus (Cade juniper), Laureliopsis philippiana (Tepa), Laurelia sempervirens (Peruvian nutmeg), Nothofagus alpina (Raulí beech), Nothofagus dombeyi (Dombey's beech), Parrotia persica (Persian ironwood), Persea lingue (n.a.), Pinus pinaster (Maritime pine), Podocarpus nubigena (n.a.), Quercus castaneifolia (Chestnut-leaved oak), Quercus ilex (Holm oak), Tilia begonifolia (n.a.), Weinmannia trichosperma (Tineo) |
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Couverture temporelle
Date de début / Date de fin | 2014-03-01 / 2020-12-01 |
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Données sur le projet
Integrate+ (2013-2016) aimed at establishing permanent plots as demonstration sites (marteloscopes) in main forest types in Europe. Focus was on showing good practice examples of integrative forest management concepts. Integrate+ developed IT support tools for decision-making when it comes to linking objectives of biodiversity conservation and timber production. Such mobile training software applications allow practitioners to perform virtual tree selection exercises in the demonstration sites based on different scenarios and forest management strategies. Immediate feedback on their decisions is given in terms of ecological and economic impacts. Particular attention was given to tree related microhabitats as these structures are home to many, also endangered, species. Retaining and restoring such habitats in managed forests can be well integrated into the work portfolio of forest managers and thus be a direct contribution to biodiversity conservation in managed forests. In the follow up projects Informar (2017-2020) and FoReSite (2020-2022) the marteloscope site network has been/is being expanded continuously. In the course of these projects the'European Network Integrate' was initiated in 2016. It is an alliance of representatives of different European countries that promotes the integration of nature conservation into sustainable forest management at the policy, practice and research level. The Network stimulates the exchange of successful management practices and experiences amongst its members and hosts the marteloscope demonstration site network. The European Forest Institute accompanies the activities of the Network as facilitator and scientific advisor. (integratenetwork.org/)
Titre | Project 'Establishing a European network of demonstration sites for the integration of biodiversity conservation into forest management (Integrate+)', Project 'Integrated forest management learning architecture (Informar)' and 'Managing forests for resilience and biodiversity – bridging policy, practice, science and education (FoReSite)' |
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Financement | The projects 'Integrate+', 'Informar' and 'FoReSite' were/are supported by the German Federal Ministry of Food and Agriculture (BMEL). |
Description du domaine d'étude / de recherche | Study Area: European Union countries and wider Europe; open to countries outside Europe |
Description du design | See sampling methods |
Les personnes impliquées dans le projet:
Méthodes d'échantillonnage
Tree location: polar coordinates Tree species: scientific name (Note: tree species was also recorded for standing dead trees as far as possible; in the case of late decay stages or stands with a wide variety of trees species this was not done. The tree species was then recorded as “0”). Diameter breast height (dbh): in [cm] at 1.3 meters height Tree height: in [m] Tree related microhabitats: 64 saproxylic and epixylic tree related microhabitat types are defined and described in detail within a hierarchical structure (published as a field guide; see: quality control for reference).
Etendue de l'étude | Plots were established based on interest to participate resulting in now more than 100 plots. They are mainly located in public and community forests, but also in forests owned by the church or private owners. They were selected by the forest owners based on either site availability or representing a particular forest management type (no systematic selection). Also the number of plots differs widely between countries e.g. from one to more than 35. |
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Contrôle qualité | Set-up of Marteloscope and data collection: Schuck, A., Krumm, F., Kraus, D., 2015. Integrate+ Marteloscopes - Description of parameters and assessment procedures. Integrate+ Technical Paper No. 18. 16 p. Tree related microhabitat assessment field guide: Kraus, D., Bütler, R., Krumm, F., Lachat, T., Larrieu, L., Mergner, U., Paillet, Y., Rydkvist, T., Schuck, A., and Winter, S., 2016. Catalogue of tree microhabitats – Reference field list. Integrate+ Technical Paper 13. 16 p. The catalogue of tree microhabitats is available in 17 languages: Czech, Danish, Dutch, English, Farsi, Finnish, French, German, Hungarian, Italian, North Macedonian, Portuguese, Romanian, Slovenian, Spanish, Turkish and Ukrainian (http://iplus.efi.int/documentation.html) |
Description des étapes de la méthode:
- Plot selection: The permanent plots are selected non-systematically based on criteria, such as representative silvicultural systems for a region, accessibility or the availability of TreMs. Further plot selection was limited also by availability of forest stands which could ensure that tree removals would not take place within the next 5 to 10 years. Plot establishment: The plots are usually 1 hectare in size (100 m x 100 m) and of rectangular shape. Some of them, however, deviate in size and outline due to local site conditions, availability of resources or high tree numbers. Our standard approach is to divide the plot into 4 quadrants to facilitate orientation and the use of data subsets. All corners and centre points (incl. the centre points of each quadrant) are permanently marked. All trees with more than 7 cm diameter measured at breast height (dbh 1.30 m) are recorded and numbered. Data collection: All standing living and dead trees are recorded above a dbh of 7 cm. So is the species, spatial position, tree height and crown base height and the abundance of TreMs. Height measurements can e.g. be conducted with a digital hypsometer (VERTEX IV, Haglöf, Sweden), dbh usually with a measuring tape. Tree locations are determined e.g. by using a compass and the distance function of the Vertex digital hypsometer as a standard. In some plots the measurements were/are carried out using a specialized inventory software (Fieldmap, Czech Republic). In other plots tree coordinates were recorded using a GPS Trimble Geo7x. Note that a few trees with a dbh above 7 cm miss coordinates. They are still made available in this dataset to ensure completeness of all trees in the plots. Coordinates for those trees are labelled N/A. TreM recording in the field is based on the catalogue of tree microhabitats (see also quality control).
Données de collection
Nom de la collection | Spatially explicit database of tree related microhabitats (TreMs), 2020. |
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Citations bibliographiques
- Kraus, D., Bütler, R., Krumm, F., Lachat, T., Larrieu, L., Mergner, U., Paillet, Y., Rydkvist, T., Schuck, A., and Winter, S., 2016. Catalogue of tree microhabitats – Reference field list. Integrate+ Technical Paper 13. 16 p. Larrieu, L., Paillet, Y, Winter, S., Bütler, R., Kraus, D., Krumm, F, Lachat, T, Michel, A., Regnery, B., Vandekerkhove, K. 2018. Tree related microhabitats in temperate and Mediterranean European forests: A hierarchical typology for inventory standardization. Ecological Indicators 84: 194–207 Kraus, D., Schuck, A., Krumm, F., Bütler, R., Cosyns, H., Courbaud, B., Larrieu, L., Mergner, U., Pyttel, P., Varis, S., Wilhelm, G., Witz, M., Zenner, E. and Zudin, S., 2018. Seeing is building better understanding - the Integrate+ Marteloscopes. Integrate+ Technical Report. Marteloscopes (2018) 26:3 Krumm, F., Lachat T., Schuck, A., Bütler, R., Kraus, D., 2019. Marteloskope als Trainingstools zur Förderung und Erhaltung von Habitatbäumen im Wald. Schweizerische Z. Forstwes. 170 (2019) 2: 86-93.
Métadonnées additionnelles
The first version of the database was compiled and published in 2017 by the European Forest Institute in the course of the Integrate+ project (2013-2017; supported by the German Federal Ministry for Food and Agriculture). The database contained at the time 15191 records. The second, updated version of the database was compiled and published in 2020 in the course of the FoReSite project (2020-2022; supported by the German Federal Ministry for Food and Agriculture) by the European Forest Institute in its role as secretariat for the European Integrate network (https://integratenetwork.org/). The database now contains 42078 records.
Objet | The demonstration plots to date were/are being established in the course of the projects Integrate+, Informar and FoReSite. Focus is given on showing good practice examples of integrative forest management concepts. The plots are designed following the marteloscope approach which allows to perform virtual tree selection exercises based on different scenarios and forest management strategies. Immediate feedback on decisions is given in terms of ecological and economic impacts with the help of a software that runs on hand held devises. Particular attention is given to tree related microhabitats as these structures are home to many, also endangered species. Retaining and restoring such habitats in managed forests can be well integrated into the work portfolio of forest managers and thus be a direct contribution to biodiversity conservation in managed forests. TreM recording and the development of the tree microhabitat field catalogue aims at providing individual habitat values for each tree to make harvesting impacts visible in the course of training exercises (Krumm et al, 2019). The plots and the corresponding data themselves proved also a valuable resource for different research questions. In particular, the database with the spatially explicit information on trees and TreMs can support e.g. our understanding of TreM formation and development and their spatial distribution. |
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Description de la fréquence de mise à jour | Updates of the database may take place at irregular intervals based on new data collected and resources available to update the data set. |
Identifiants alternatifs | 2e102194-f384-4712-89a4-5db7a3fc409a |
http://dynids.toulouse.inra.fr:8180/ipt/resource?r=trems_integrate |