<ul><li>1. Restoration of degraded landscapes has become increasingly important for conservation of species and their habitats owing to habitat destruction and rapid environmental change. An increasing focus for restoration activity are old-fields as agricultural land abandonment has expanded in the developed world. Studies examining outcomes of ecological restoration predominantly focus on vegetation structure and plant diversity, and sometimes vertebrate fauna. Fewer studies have systematically investigated effects of restoration efforts on soil chemical and biophysical condition or ground-dwelling invertebrates and there is limited synthesis of these data. </li> <li>2. This dataset comprised data for a global meta-analysis of published studies to assess the effects on soil properties and invertebrates of restoring land that was previously used for agriculture. Studies were included if the site had been either cropped or grazed, restoration was either active (planting) or passive (abandonment, fencing) and if adequate data on soil chemical or physical properties or invertebrate assemblages were reported for restored, control (cropped/grazed) or reference sites.</li> <li>3. The dataset includes 42 studies, published between 1994 and 2019 that met the inclusion criteria, covering 16 countries across all continents. More studies assessed passive restoration approaches than active planting, and native species were more commonly planted than exotic species.</li></ul>

Knowledge on the spatial distribution and inter-specific association patterns in tree species is essential in plant ecology to understand ecological mechanisms and dynamic process operating in spatial distribution of a tree population in a plant community. We measured and compiled datasets on three tropical tree species from a moist semi deciduous forest. We used the software Programita to perform univariate and bivariate point pattern analysis by Ripley's L-function. These datasets can be used to inform on possibilities of interaction of these species in forest stands. These datasets can be also used to access the capacity of each tree of <i>Mansonia altissima</i> var. <i>altissima</i> A. Chev. to develop and grow or its exclusion probability within a plant community. <i>Mansonia altissima</i> A. Chev. is a plant species represented by only one-population in a moist semi-deciduous forest in Republic of Benin. Our project aims to understand its ecology for restoration and conservation purposes within its natural habitat as well as other habitats inside of its distribution range.

We established a common garden experiment within a 238 ha restoration site owned and managed by the South Australian Water Corporation (SA Water), near the township of Clarendon (-35.0882°S, 138.6236°E). We grew ca. 1500 seedlings sourced from one local and two non-local provenances of <i>Eucalyptus leucoxylon</i> to test whether local provenancing was appropriate. The three provenances spanned an aridity gradient, with the local provenance sourced from the most mesic area and the distant from the most arid. We explored the effect of provenance on four fitness proxies after 15 months, including survival, above-ground height, susceptibility to insect herbivory, and pathogen related stress.

<br>The aim of this project is to compile land use and management practices and their observed and measured impacts and effects on vegetation condition. The results provide land managers and researchers with a tool for reporting and monitoring spatial and temporal transformations of Australia’s native vegetated landscapes due to changes in land use and management practices. Following are the details about Belconnen Naval Transmitter Station in ACT, Australia. </br><br> Pre-European benchmark-analogue vegetation: the original vegetation for the site Belconnen Naval Transmitter Station was a temperate grassland in an ecological community dominated by native species of perennial tussock grasses. </br><br> Brief chronology of changes in land use and management:<ul style="list-style-type: disc;"> <li>Up to late 1820s the area was managed by indigenous Ngunnawal people</li> <li>1830s: Area first grazed by sheep and cattle with the aid of shepherds</li> <li>1860: Fences were established and continuous stocking commenced</li> <li>1900: Patches of woodland areas on higher ground were partly cleared</li> <li>1900-39: High likelihood of moderate to heavy grazing pressure due to sheep and cattle</li> <li>1940-1993: Area managed as a naval transmission station</li> <li>1940-92: Area managed for sheep grazing under continuous grazing</li> <li>1970: Secure people and kangaroo proof fence established</li> <li>1993: Sheep removed from the site</li> <li>1995: mowers used to manage the grass</li> <li>1997-2008: Kangaroo population increased to unacceptable levels</li> <li>2006: Naval transmission towers demolished, area continued to have a secure people proof fence</li> <li>2008: Kangaroo population culled to reduce grazing pressure</li> <li>2011: Site managed for nature conservation values.</li></ul></br>

We selected nine study sites, each incorporating three vegetation states: (a) fallow cropland, representing the restoration starting point, (b) planted old field (actively restored site), and (c) reference York gum (E. loxophleba) woodland. Plant species richness and cover All annual and perennial plant species were recorded in spring 2017 within each plot and identified to genus and species level where possible. Nomenclatures follow the Western Australian Herbarium (2017). A point intercept method previously demonstrated to provide objective and repeatable measures of cover (Godínez-Alvarez, Herrick, Mattocks, Toledo & Van Zee 2009; Prober, Standish & Wiehl 2011) was used to quantify cover of individual plant species, total vegetation cover and substrate types (i.e., bare ground, litter cover, plant cover). Ground cover, individual species, and canopy cover intercepting at every 2 m along four parallel, evenly spaced 50 m transects across each plot were recorded using a vertically placed dowel (8 mm wide, 2 m tall), resulting in 100 intercepting points per plot. For planted old fields, transects were placed parallel to planting rows, with two centred on rows and two centred between rows. This approximately represented the relative abundance of planted rows and non-planted inter-rows. If a species was recorded in the plot but did not intercept the dowel on any transect it was assigned 0.5 points. This method provided a measure of relative abundance (percentage cover) of plant species across the plot. To calculate species richness and cover across different life history and growth forms, species were classified into the following groups: total, native trees, native shrubs, native non – planted shrubs, native grasses, native perennial forbs, native annual forbs, exotic grasses and exotic annual forbs using the Western Australian Herbarium (2017) classification. Woody debris and leaf litter surveys Leaf-litter dry mass was estimated by collecting leaf-litter from five randomly placed 25 cm x 25 cm quadrats along two 50 m transects across each plot. Litter was stored in paper bags for transportation and then oven dried for 36 hours at 60 °C. The dried litter was weighed to 3 decimal points. Cover of fine and coarse woody debris and litter depth was estimated at every meter along two 20 m transects for each plot. Woody debris was classified by diameter. Length, max and min diameter was measured for all logs with a diameter greater than 10 cm.

We present a High-throughput eDNA dataset of fungi to track functional recovery in ecological restoration in the form of an OTU raw data matrix. We generated a total of 4,993,144 ITS fungal raw reads (118,884 ± 42,210 SD per replicate) across the 42 replicates. A total of 4,955,680 fungal sequences (117,430 ± 42,164 SD per replicate) remained for further analysis after quality filtering. The OTU data provide information on fungal flux at this restoration site through a stagger of years and can be used accordingly.

<br>The aim of this project is to compile land use and management practices and their observed and measured impacts and effects on vegetation condition. The results provide land managers and researchers with a tool for reporting and monitoring spatial and temporal transformations of Australia’s native vegetated landscapes due to changes in land use and management practices. Following are the details about the Taroom Shire site in Queensland, Australia. </br><br> Pre-European benchmark-analogue vegetation: the site was originally a brigalow, <em>Acacia harpophylla</em>, mixed community associated with several overstorey species, including <em>Eucalyptus coolabah</em>, <em>E. cambageana</em>, <em>Casuarina cristata</em>, a range of understorey species, grassy woodlands and open forests. </br><br> Brief chronology of changes in land use and management:<ul style="list-style-type: disc;"> <li>1860: Area used for sheep grazing by shepherds</li> <li>1870: Permanent fences established</li> <li>1875: Start of continuous or set stocking with sheep</li> <li>1880: Incursion of prickly pear started</li> <li>1935: Prickly pear had been destroyed</li> <li>1929-1932: Land clearance through ringbarking</li> <li>1929-1932: Gradual increase in cattle numbers decline in sheep</li> <li>1940-1955: Manual clearing of brigalow with axes issues with regrowth</li> <li>1960-62: Brigalow pulled mechanically and soil ploughed</li> <li>1962: Soil ploughed and sown to buffel grass pasture</li> <li>1962-65: Continuous grazing with cattle on buffel grass pasture</li> <li>1966-75: Soil ploughed and sown to wheat annually – cattle graze stubble</li> <li>1976: Soil ploughed and sown to buffel grass pasture</li> <li>1976-2000: Continuous grazing with cattle on buffel grass pasture</li> <li>2001-10: Soil ploughed and sown to wheat annually – cattle graze stubble.</li></ul></br>

<br>The aim of this project is to compile land use and management practices and their observed and measured impacts and effects on vegetation condition. The results provide land managers and researchers with a tool for reporting and monitoring spatial and temporal transformations of Australia’s native vegetated landscapes due to changes in land use and management practices. Following are the details about Talaheni Horse Paddock, Murrambatman, NSW. </br><br> Pre-European benchmark-analogue vegetation: The site was originally a <em>Themeda sp.</em> grassy woodland. </br><br> Brief chronology of changes in land use and management:<ul style="list-style-type: disc;"> <li>1830: Grazing of native vegetation - shepherds</li> <li>1900-1961: Fencing and continuous grazing with sheep</li> <li>1905: Overstorey thinned by ringbarking</li> <li>1906-1920: Continuous removal of suckers and regrowth</li> <li>1962: Remaining larger trees pushed over with a bull dozer</li> <li>1962-1974: Continuous grazing with cattle</li> <li>1968-1978: Four applications of superphosphate and exotic pasture species</li> <li>1975-1982: Continuous grazing with horses</li> <li>1983-1984: Continuous grazing with sheep</li> <li>1985: Continuous grazing ceased</li> <li>1986: Commenced rehabilitation</li> <li>1987-2008: Area lightly grazed using rotational grazing with sheep</li> <li>2008-2010: All stock removed - increasing high numbers of kangaroos.</li></ul></br>

<br>The aim of this project is to compile land use and management practices and their observed and measured impacts and effects on vegetation condition. The results provide land managers and researchers with a tool for reporting and monitoring spatial and temporal transformations of Australia’s native vegetated landscapes due to changes in land use and management practices. Following are the details for the Wooroonooran Nature Refuge. </br><br> Pre-European benchmark-analogue vegetation: the original vegetation for the site was a complex mesophyll vine forest on basaltic red loams on wet uplands, altitude 720&nbsp;m with 4.421&nbsp;mm rainfall (av annual records for the period 1993-2011, source: Peter Stanton). </br><br> Brief chronology of changes in land use and management:<ul style="list-style-type: disc;"> <li>1800: Indigenous management of mesophyll rainforest by Ngadyan people</li> <li>1924: Start of selective logging of high value timber species</li> <li>1930: Finish of selective logging of high value timber species - intent to convert rainforest to pasture</li> <li>1931: Start of land clearing of the previously logged forest - intent to convert rainforest to pasture</li> <li>1938: End of land clearing of the previously logged forest - forest trash burnt</li> <li>1939: Start of intensive soil and pasture management - soil not ploughed - aggressive pasture grasses sown into ash bed</li> <li>1940: Start of grazing - pasture for dairying</li> <li>1958: End of grazing, planted pasture for dairying. Pastures infertile. All livestock removed</li> <li>1959: Start of land abandonment and minimal use</li> <li>1983: Commenced large scale spraying and poisoning and physical removal of lantana</li> <li>1993: Regrowth rainforest (complex mesophyll vine forest) in gullies and on lower slopes - 50% of lot 2</li> <li>1994: Continued large scale spraying and poisoning of lantana and carpet grass</li> <li>2003: Site formally gazetted as Wooroonooran Nature Refuge by WTMA</li> <li>2011: Site continues to be manage for multiple values: timber reserve, biodiversity and habitat values.</li></ul></br>

<br>The aim of this project is to compile land use and management practices and their observed and measured impacts and effects on vegetation condition. The results provide land managers and researchers with a tool for reporting and monitoring spatial and temporal transformations of Australia’s native vegetated landscapes due to changes in land use and management practices. Following are the details about the Cumberland State Forest, compartments 8b, 9a and 9b, NSW, Australia. </br><br> Pre-European reference-analogue vegetation: the site was originally a wet sclerophyll forest found on Wianamatta group Ashfield Shale. </br><br> Brief chronology of changes in land use and management:<ul style="list-style-type: disc;"> <li>1788: Area managed by indigenous Darug people</li> <li>1788-1824: Region explored - un-modified native forest blue gum/ironbark on shale</li> <li>1825: Parcel selected by shepherd</li> <li>1826-1907: Grazing cattle on native pastures</li> <li>1860: Tree cover likely to have been thinned - selective logging</li> <li>1908: Commenced clearing patches of trees for improved pasture, chooks, orchards</li> <li>1909-1937: Managed as improved pasture for grazing</li> <li>1937-38: Purchased by NSW Forestry Commission</li> <li>1941-42: Area cleared of remaining native forest trees</li> <li>1946-73: Area managed for education and demonstration - regenerating native forest</li> <li>1974-84: Area increasing managed for recreation - regenerating native forest</li> <li>1985-2012: Area managed for recreation - regenerating native forest.</li></ul></br>