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Article

New Contributions to the Ericion umbellatae Alliance in the Central Iberian Peninsula

by
José C. Piñar Fuentes
1,
Mauro Raposo
2,
Carlos J. Pinto Gomes
2,
Sara del Río González
3,
Giovanni Spampinato
4 and
Eusebio Cano
1,*
1
Department of Animal and Plant Biology and Ecology, Section of Botany, University of Jaén, Las Lagunillas s/n, 23071 Jaén, Spain
2
Department of Landscape, Environment and Planning, Institute for Mediterranean Agrarian and Environmental Sciences (ICAAM), School of Science and Technology, University of Évora (Portugal), Rua Romão Ramalho, n° 59, 7000-671 Évora, Portugal
3
Department of Biodiversity and Environmental Management (Botany), Faculty of Biological and Environmental Sciences, Campus de Vegazana s/n, University of León, 24071 León, Spain
4
Department of Agraria, “Mediterranea” University of Reggio Calabria, Loc. Feo di Vito, 89122 Reggio Calabria, Italy
*
Author to whom correspondence should be addressed.
Sustainability 2021, 13(10), 5639; https://doi.org/10.3390/su13105639
Submission received: 19 January 2021 / Revised: 30 April 2021 / Accepted: 30 April 2021 / Published: 18 May 2021

Abstract

:
The study of heathlands dominated by Erica australis, E. umbellata and Cistus populifolius in the centre and west of the Iberian Peninsula allows us to separate the eight shrubland communities. The taxonomic analysis of E. australis distinguishes two subspecies: E. australis subsp. australis and E. australis subsp. aragonensis. The statistical treatment confirms the differences between the suballiances Ericenion aragonensis and Ericenion umbellatae. This ecological, bioclimatic, biogeographical and floristic study has allowed us to differentiate three new associations from the remaining five: TCp = Teucrio oxylepis-Cistetum populifolii nova. HEau = Halimio ocymoidis-Ericetum australis nova. DEu = Drosophyllo lusitanicae-Ericetum umbellatae nova. ECp = Erico australis-Cistetum populifolii Rivas Goday 1964. PCp = Polygalo microphyllae-Cistetum populifolii Rivas Goday 1964. HEa = Halimio ocymoidis-Ericetum aragonensis Rivas-Martínez 1979. HEu = Halimio ocymoidis-Ericetum umbellatae Rivas Goday 1964. UEu = Ulici eriocladi-Ericetum umbellatae.

1. Introduction

Humid and subhumid areas contain woodlands of Quercus broteroi (Cout.) Rivas-Martínez & C.Sáenz (Portuguese oak), Quercus canariensis and Quercus marianica Vicioso, Quercus suber L. (cork oak) and Quercus pyrenaica Willd. (Pyrenean oak.) [1,2,3], all originating within the vegetation community dynamic of the Ericaceae family: Arbutus unedo L., Erica australis subsp. australis L., Erica umbellata Loefl. ex L., Erica scoparia L., and some communities of the Cistaceae family, Cistus populifolius L. Until now these communities in the central-western Iberian Peninsula have been included in the associations Halimio ocymoidis-Ericetum aragonensis, Halimio ocymoidis-Ericetum umbellatae, Ulici eriocladi-Ericetum umbellatae, and Polygalo microphyllae-Cistetum populifolii [4,5,6,7,8,9,10,11,12,13].
Heathlands are one of the most extensive and important habitats on the planet [14,15], and are among the most representative plant communities on the European continent with an Atlantic bioclimate and influence [5,16]. These formations are linked to oceanic environments, with abundant rainfall and short periods of summer drought in the case of the southern Iberian Peninsula [14,17,18,19,20], and in acidic, oligotrophic soils subject to erosion and fire [21].
From a conservation point of view, these communities have received a different treatment on the Iberian Peninsula [15] and were considered as mere replacement stages [5,21], whereas in the rest of Europe these plant formations—which harbour less diversity—are more highly regarded [15] in conservation terms. In the Habitats Directive, Erica umbellata-dominated heaths correspond to code 4030 “European dry heaths”.
The associations dominated by Erica spp., Ulex spp. and Cistus populifolius are typical of subhumid and humid ombro-types and are consequently fragile in the face of climate change, since they are affected by the increase in temperature and rainfall irregularity, as are the endemic taxa in these associations, and consequently the endemic taxa present in mountain areas [22,23,24]. These thickets dominated by the genus Erica are typical of rainy environments and are at their optimum in temperate Europe, although they extend to the sub-Mediterranean mountains, and connect catenally towards dry-subhumid ombro-types, with micro-forests of Juniperus oxycedrus subsp. badia (H. Gay) according to Debeaux [25,26].
On the Iberian Peninsula, this type of habitat has encountered problems in its interpretation, largely due to its extension and its bioclimatic and biogeographical diversity. The classifications proposed have disregarded the typical Mediterranean heaths, with Atlantic nuances, of the southwest Iberian Peninsula, which are of enormous floristic and biogeographical interest [15]. It should be noted that, of the three heathland subtypes considered, these Mediterranean dry heaths are the richest in endemisms.
The associations studied should be considered habitats of interest for conservation, since they dominate the middle and high mountains and include rocky habitats and wetlands with a predominance of endemic, rare and in some cases threatened species such as Coincya longirostra (Boiss.) Greuter & Burdet, Digitalis mariana Boiss., Jasione crispa subsp. tomentosa, Jasione crispa subsp. mariana (A.DC.) Rivas Mart., Dianthus lusitanus Brot., Adenocarpus hispanicus subsp. argyrophyllus (Rivas Goday), Drosophyllun lusitanicum (L.) Solenopsis laurentia (L.) C. Presl, Pinguicula lusitanica L.
According to [22], Erica australis L. is highly variable; the species Erica aragonensis Willk. and Erica australis subsp. aragonensis (Willk.) Cout. Are not recognized and claimed to be a montane ecotype, although any convincing arguments to synonymise these taxa to E. australis are not provided; however, [23] the subsp. Aragonensis is accepted. In our opinion the character of extrorse anthers in the subsp. aragonensis compared to non-extrorse anthers in the subsp. australis is clear. We, therefore, maintain the subsp. aragonensis, which has a more northerly distribution than the subsp. australis.
The main objective of the present work is to highlight the plant diversity of scrubs dominated by different species of the genus Erica in the centre-south of the Iberian Peninsula within the Mediterranean climate domain. On the other hand, from the point of view of the sustainability of forests and accompanying shrublands, it is important to know how these heathlands provide the environmental conditions necessary for the establishment of plant stages of greater biomass. It is, therefore, necessary to know the diversity and structure of Mediterranean dry heaths for their conservation and sustainability over time.

2. Materials and Methods

2.1. Study Area

The territory in the study is located in the central-western Iberian Peninsula (Figure 1) and is dominated by siliceous materials, Palaeozoic slates, metamorphic quartzites and plutonic rocks (granite); it has a Mediterranean bioclimate with a thermo-type that ranges between the thermo- and the supra-Mediterranean, and an ombro-type between dry and humid.

2.2. Sampling

An analysis was made of 232 heathland relevés dominated by Erica umbellata, E. australis and Cistus populifolius in the centre and west of the Iberian Peninsula, obtained from our own field research (56 samples) and various publications (176 samples) (Table 1). These relevés belong to ten associations: SDl = Saturejo salzmannii-Drosophylletum lusitanicii; TCl = Teucrio mariani-Cistetum laurifolii; TCp = Teucrio oxylepis-Cistetum populifoli (Figure 2); HEau = Halimio ocymoidis-Ericetum australis; ECp = Erico australis-Cistetum populifolii; PCp = Polygalo microphyllae-Cistetum populifolii; HEa = Halimio ocymoidis-Ericetum aragonensis; DEu = Drosophyllo lusitanicae-Ericetum umbellatae; HEu = Halimio ocymoidis-Ericetum umbellatae; UEu = Ulici eriocladi-Ericetum umbellatae. For the authorship of the taxa, we have followed Flora Ibérica, Flora Western Andalusia and Eastern Andalusia Flora. For the authorship of syntaxa, we have followed [12].
Our own samplings were taken following the Braun-Blanquet method, modified by Van der Maarel [24].

2.3. Data Analyses

Subsequently, and based on the geographic and topographic information contained in these relevés, each sampling was geo-referenced and implemented in a geographic information system (GIS) using the corresponding maps (Appendix A). They were then matched with the place names and the rest of the data from the samplings in the bibliography in order to obtain the different climatic and bioclimatic variables for each sampling. The figures for altitude, orientation and slope were determined by plotting the previously geo-referenced points on a digital terrain map (DTM) with a pixel resolution of 30 × 30 metres for the points in Portugal and Morocco, and on a digital terrain model with a resolution of 10 × 10 metres for the points in Spain. The numerical values for altitude, orientation and slope were obtained from the DTM for each sampling point by means of numerical classification methods. An ascending hierarchical classification was applied for the ordination and comparison of the different samples using Ward’s distance. For a better understanding of the results, a multivariate ordination analysis was carried out by means of detrended correspondence analysis.

3. Results

We studied the communities of Erica umbellata Loefl. ex L., Erica australis L. subsp. australis, Erica australis L. subsp. aragonensis (Willk.) Cout. and Cistus populifolius L. in the central Iberian Peninsula. The statistical analysis of the communities dominated by these taxa (Figure 2, Figure 3, Figure 4 and Figure 5) reveals the existence of two groups, G1 and G2, corresponding to the suballiances Ericenion aragonensis Rivas Martínez 1979 and Ericenion umbellatae Rivas Martínez 1979. The association Polygalo microphyllae-Cistetum populifolii (PCp1-PCp8) was described by [1] for shady Silurian sites in Extremadura, whose relevés PCp1-PCp8 are far removed from our group of relevés and [7] for the eastern Sierra Morena, and from the relevés of [1] from which he describes the association Erico australis-Cistetum populifolii (ECp1-ECp5), and which have a more thermophilous character than the former (Figure 4).
The relevés dominated by C. populifolius in eastern Sierra Morena differ floristically from the communities described by [4] in Extremadura, as they quite frequently include Teucrium oxylepis (endemic) and Cistus laurifolius, which grow in shady sites and foothills more influenced by the cold winds from the Manchegan plateau. We therefore propose the association Teucrio mariani-Cistetum populifolii nova (Table 2 rel. TCp1-TCp18 typus rel. TCp15*).
The relevés corresponding to the association described by [5], Ulici eriocladi-Ericetum umbellatae (UEu1-UEu8), are clearly separated and floristically, ecologically, dynamically and biogeographically differentiated from the other communities of E. australis. The association Halimio ocymoidis-Ericetum aragonensis (HEa1-HEa15), described by [5] for the territories of Guadalajara and Segovia, shows significant differences from the heathlands of E. australis in the Marianica range due to the absence in Marianican territories of E. australis subsp. aragonensis, Luzula lactea (Link) E.Mey., Genista pilosa L., Deschampsia flexuosa subsp. iberica Rivas Mart. and Helianthemum pulverulentum Pers. We therefore propose the association Halimio ocymoidis-Ericetum australis nova (Table 3 rel. HEau1-HEau11, typus rel. HEau4*), which has a more southerly character than the previous association, for supra-Mediterranean environments in the eastern Mariánico-Monchiquensean sector; this heathland represents a dynamic stage of the woodlands of Sorbo torminalis-Quercetum pyrenaicae. This association is statistically close to Erico australis-Cistetum populifolii; however, the latter has a more eastern and thermophilous character ([4], Table 67, page 446).
In the group of communities of E. umbellata, the relevés given by [4,5] in the Sierra de San Pedro (Cáceres) and Herrera del Duque (Badajoz), León and Zamora are gathered in a single compact group (HEu12-HEu21) corresponding to Halimio ocymoidis-Ericetum umbellatae; this association was described by [4] in highly oligotrophic and nutrient-poor soils. It has floristic, dynamic and biogeographical differences with the communities of Erica umbellata in the eastern Sierra Morena; the Leonese and Zamoran territories include the species Halimium alysoides, E. australis subsp. aragonensis, Ulex minor, Genista micrantha, and Agrostis setacea, which have a more oceanic character and are not present in the eastern Sierra Morena. The relevés of [7,10] are grouped with those taken recently by us in the province of Ciudad Real, where they include E. umbellata, Halimium ocymoides, Tuberaria lignosa, Pterospartum tridentatum, Drophyllum lusitanicum, Lavandula pedunculata and occasionally Festuca elegans, Coincya longirrostra and Juniperus oxycedrus subsp. badia. We therefore propose the association Drosophyllo lusitanicae-Ericetum umbellatae nova (Table 4 rel. DEu1-DEu22 typus rel. DEu6 *) growing on highly washed soils (distric lithosols) with a total absence of organic matter. This association is distributed throughout the eastern Mariánico-Monchiquensean sector.

4. Discussion

The study of heathlands dominated by Erica australis subsp. australis, subsp. aragonensis, E. umbellata and Cistus populifolius contributes eight different vegetation communities. Until now the heathlands in Luso-Extremaduran territories have been included in the known associations [4,5]. However, our recent studies in the province of Ciudad Real reveal floristic differences to the associations described previously. In the taxonomic study, [22,25] do not recognise E. australis L. subsp. aragonensis (Willk.) Cout., although [5,23] recognise the aragonensis variety.
Species in the genus Erica are always found in sub-humid–humid environments and appear in the dynamics of various types of Quercus from temperate and Mediterranean European areas [27,28,29], but always in acid-neutral pH substrates, never in Quercus forests on basic substrates [30]. In the degradation of these scrubs, either by human action or climate change [31,32,33,34]. They are replaced by species of the genus Cistus [24]; Cistus ladanifer is the species that replaces Erica australis and Erica umbellata in the studied territory.
The association TCp is a shrubland dominated by C. populifolius and is a cold vicariant community of PCp described by [4] for the more oceanic Extremaduran territories. The new association occupies the easternmost areas of the Mariánica mountain range, which receives the influence of the climate of the Manchegan plateau and comprises differential species such as C. laurifolius and the endemism Teucrium oxylepis subsp. marianum. These communities cannot therefore be included in the association PCp. [5] Lecto typifies the association HEu described by Rivas Goday in the province of Cáceres. The floristic and ecological differences make it inadvisable to include the communities dominated by E. umbellata from the eastern Maríanica range in this association, HEu, as they grow on extremely nitrogen-poor distric lithosols that allow the presence of Drosophyllum lusitanicum; the new association is therefore a soil vicariant of HEu. This same author describes the association HEa for the provinces of Segovia and Guadalajara, and gives the typus in the locality of Puerto de San Benito (Guadalajara) at an altitude of 1840 m. The floristic, bioclimatic and biogeographical differences lead us to propose the association HEau for the Luso-Extremaduran territories (Table 5).

Syntaxonomical Checklist

CALLUNO-ULICETEA Br.-Bl. & Tüxen ex Klika & Hadac 1944
ULICETALIA MINORIS Quantin 1935
  • Ericion umbellatae Br.-Bl., P. Silva, Rozeira & Fontes 1952
  • Ericenion umbellatae Rivas-Martínez 1979
    • Halimio ocymoidis-Ericetum umbellatae Rivas Goday 1964
    • Ulici eriocladi-Ericetum umbellatae Rivas-Martínez 1979
    • Drosophyllo lusitanicae-Ericetum umbellatae nova
  • Ericenion aragonensis Rivas-Martínez 1979
    • Polygalo microphyllae-Cistetum populifolii Rivas Goday 1964
    • Erico australis-Cistetum populifolii Rivas Goday 1964
    • Halimio ocymoidis-Ericetum aragonensis Rivas-Martínez 1979
    • Teucrio mariani-Cistetum populifolii nova
    • Halimio ocymoidis-Ericetum australis nova

5. Conclusions

This study reveals a set of new associations for scrub dominated by species of the genera Erica and Cistus. All these communities act as dynamic states of cork oak forests Quercus suber, Q. broteroi, Q. pyrenaica, Q. marianica and Q. canariensis, of which the forests of Q. pyrenaica and Q. canariensis are the most fragile, both because they are at the edge of the range and are threatened by climate change. It is therefore essential to protect these forest formations and their dynamic stages, constituted firstly by scrub of Arbutus unedo and secondly by heaths of Erica sp. and C. populifolius. Since all these plant communities are located in sub-humid or humid mountain environments, where a high rate of endemic, rare or threatened species thrive, protection measures must be put in place against fire and excessive livestock pressure. The territory dominated by these shrubs contains a high rate of endemisms, which is why their protection is necessary by subjecting these areas to sustainable development, with control of livestock.

Author Contributions

Conceptualization, E.C.; Data curation, J.C.P.F., S.d.R.G., C.J.P.G. and E.C.; Formal analysis, J.C.P.F. and E.C.; Investigation, E.C.; Methodology, E.C.; Project administration, E.C.; Resources, E.C.; Supervision, G.S. and E.C.; Validation, J.C.P.F., S.d.R.G., C.J.P.G. and E.C.; Visualization, M.R. and E.C.; Writing—original draft, E.C.; Writing—review & editing, J.C.P.F., S.d.R.G. and E.C. All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

No new data were created or analyzed in this study. Data sharing is not applicable to this article.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A

Table A1. Geographical and bibliographical data of the Teucrio mariani-Cistetum populifolii association.
Table A1. Geographical and bibliographical data of the Teucrio mariani-Cistetum populifolii association.
InventoriesLocalitiesCoord. XCoord. YReferences
TCP1Sierra de San Andrés.30S04400464259889
TCp2Prox. Río Robledillo30S04123744252579
TCp3Umbría sierra de Niefla30S03804434266304
TCp4Umbría de Juán Rodríguez30S04584604254905
TCp5Prox. Barranco de las Palomas30S04401744259923
TCp6Monte Rosalejo Cano 1988
TCp7Hontanar de Flores a Quintana Cano 1988
TCp8Barranco de Valdecañas (30SUH9227) Melendo 1998
TCp9Brezorrubios (30SUH9226) Melendo 1998
TCp10Barranco del Valle de En medio (30SUH9128)Melendo 1998
TCp11Barranco del Valle de En medio (30SUH9128)Melendo 1998
TCp12Prox. Cortijos de Fimia (30SUH9126) Melendo 1998
TCp13Barranco de Valdeinfierno (30SUH9428)Melendo 1998
TCp14Barranco del Cuervo (30SUH9229) Melendo 1998
TCp15Barranco de los Gabilanes30S04592824250323
TCp16Umbría de los Gabilanes30S04593604250242
TCp17Puerta del Telmo30S04596764250349
TCp18Collado de los Jardines30S04572594249203
Table A2. Geographical and bibliographical data of the Halimio ocymoidis-Ericetum australis association.
Table A2. Geographical and bibliographical data of the Halimio ocymoidis-Ericetum australis association.
InventoriesLocalitiesCoord. XCoord. YReferences
HEau1Sierra Madrona30S04057024250017
HEau2Valle de Valmayor30S03943294250907
HEau3Cumbres sierra Niefla30S03779454266753
HEau4Abulagoso30S03871494257635
HEau5Sierra Navalmanzano30S03925374254795
HEau6Sierra Canalizos30S03622824297986
HEau7V. Pilones. Sierra de los Canalizos30S03641214306199
HEaU8Hontanar de Flores Cano 1988
HEau9Prox. Risquillo Cano 1988
HEau10Burcio del Pino. Sierra Quintana Cano 1988
HEau11Monte Rosalejo Cano 1988
HEau12Monte Rosalejo Cano 1988
Table A3. Geographical and bibliographical data of the Drosophyllo lusitanicae-Ericetum umbellatae association.
Table A3. Geographical and bibliographical data of the Drosophyllo lusitanicae-Ericetum umbellatae association.
InventoriesLocalitiesCoord. XCoord. YReferences
DEu1Sierra Madrona30S04054254249829
DEu2Abulagoso30S03857254258301
DEu3Puerto de Madrona30S04065694251696
DEu4Subida desde Puerto Madrona a Cumbres de Madrona30S04061074251824
DEu5Subida desde Puerto Madrona a Cumbres de Madrona30S04060724251798
DEu6Subida desde Puerto Madrona a Cumbres de Madrona30S04059184251663
DEu7Subida desde Puerto Madrona a Cumbres de Madrona30S04057314251616
DEu8Prox. Cumbres de Madrona30S0449934251508
DEu9Sierra Canalizos30S03622824297986
DEu10Finca la Tapiada. Sierra Canalizos30S03447844305623
DEu11Ladera oeste de Sierra Quintana Cano 1988
DEu12Majada del Reloj. Monte Limones30S04398994255085
DEu13Hontanar de Flores (Jaén) Cano 1988
DEu14Hontanar de Flores (Jaén) Cano 1988
DEu15Hontanar de Flores a Risquillo Cano 1988
DEu15Subida a Burcio del Pino. Sierra QuintanaCano 1988
DEu17Subida a Burcio del Pino. Sierra QuintanaCano 1988
DEu18Ladera oeste de Sierra Quintana Cano 1988
DEu19Brezorrubios. 30SUH9226 Melendo 1998
DEu20Brezorrubios. 30SUH9226 Melendo 1998
DEu21Brezorrubios. 30SUH9226 Melendo 1998
DEu22Brezorrubios. 30SUH9226 Melendo 1998
HEau1Sierra Madrona30S04057024250017
HEau2Valle de Valmayor30S03943294250907
HEau3Cumbres sierra Niefla30S03779454266753
HEau4Abulagoso30S03871494257635
HEau5Sierra Navalmanzano30S03925374254795
HEau6Sierra Canalizos30S03622824297986
HEau7V. Pilones. Sierra de los Canalizos30S03641214306199
HEaU8Hontanar de Flores Cano 1988
HEau9Prox. Risquillo Cano 1988
HEau10Burcio del Pino. Sierra Quintana Cano 1988
HEau11Monte Rosalejo Cano 1988
HEau12Monte Rosalejo Cano 1988
TCP1Sierra de San Andrés.30S04400464259889
TCp2Prox. Río Robledillo30S04123744252579
TCp3Umbría sierra de Niefla30S03804434266304
TCp4Umbría de Juán Rodríguez30S04584604254905
TCp5Prox. Barranco de las Palomas30S04401744259923
TCp6Monte Rosalejo Cano 1988
TCp7Hontanar de Flores a Quintana Cano 1988
TCp8Barranco de Valdecañas (30SUH9227) Melendo 1998
TCp9Brezorrubios (30SUH9226) Melendo 1998
TCp10Barranco del Valle de En medio (30SUH9128)Melendo 1998
TCp11Barranco del Valle de En medio (30SUH9128)Melendo 1998
TCp12Prox. Cortijos de Fimia (30SUH9126) Melendo 1998
TCp13Barranco de Valdeinfierno (30SUH9428)Melendo 1998
TCp14Barranco del Cuervo (30SUH9229) Melendo 1998
TCp15Barranco de los Gabilanes30S04592824250323
TCp16Umbría de los Gabilanes30S04593604250242
TCp17Puerta del Telmo30S04596764250349
TCp18Collado de los Jardines30S04572594249203

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Figure 1. Location of the study area including the biogeographical provinces.
Figure 1. Location of the study area including the biogeographical provinces.
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Figure 2. Distribution of plant communities dominated by Teucrium oxylepis subsp. marianum. TCl = Teucrio mariani-Cistetum laurifolii is located in the most inland areas of the Iberian Peninsula with a major continental influence. TCp = Teucrio mariani-Cistetum populifolii is located in more peripheral zones with a greater Atlantic influence. TCp-Cl = Teucrio mariani-Cistetum populifolii is a colder and more continental variant with Cistus laurifolius.
Figure 2. Distribution of plant communities dominated by Teucrium oxylepis subsp. marianum. TCl = Teucrio mariani-Cistetum laurifolii is located in the most inland areas of the Iberian Peninsula with a major continental influence. TCp = Teucrio mariani-Cistetum populifolii is located in more peripheral zones with a greater Atlantic influence. TCp-Cl = Teucrio mariani-Cistetum populifolii is a colder and more continental variant with Cistus laurifolius.
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Figure 3. Cluster of heathland associations in the central-western Iberian Peninsula. The hierarchical classification used is based on Euclidean distance, using Ward’s agglomerative method.
Figure 3. Cluster of heathland associations in the central-western Iberian Peninsula. The hierarchical classification used is based on Euclidean distance, using Ward’s agglomerative method.
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Figure 4. DECORANA (Detrended analyse of variance) ordination of heathland communities in the central-western Iberian Peninsula.
Figure 4. DECORANA (Detrended analyse of variance) ordination of heathland communities in the central-western Iberian Peninsula.
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Figure 5. DCA ordination of heathland communities in the central-western Iberian Peninsula.
Figure 5. DCA ordination of heathland communities in the central-western Iberian Peninsula.
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Table 1. Origin of the vegetation samples used in this work.
Table 1. Origin of the vegetation samples used in this work.
Plant CommunityBibliographyN° of Relevés
SDlGalán de Mera, A. (1993)5
Junta de Andalucía2
Quezel P. et. al. (1988)5
TCpOwn relevés18
Rodríguez Marzal (2006)3
TClJunta de Andalucía1
Velasco Negueruela, A. (1981)6
Own relevés4
HEaOwn relevés12
ECpRivas Goday, S. (1964)5
Belmonte M.D. (2008)13
Muñoz, A.F.; Santa-Bárbara, C. & Vicent, C. (2008)24
Rufo Nieto (2009)13
PCpMelendo Luque, M. (1998)7
Rivas Goday, S. (1964)8
Belmonte M.D. (2008)13
HEuRivas Goday, S. (1964)5
Belmonte M.D. (2008)16
Melendo Luque, M. (1998)4
Muñoz, A.F.; Santa-Bárbara, C. & Vicent, C. (2008)9
UeuMuñoz, A.F.; Santa-Bárbara, C. & Vicent, C. (2008)4
Rivas-Martínez, S. (1979)8
Rufo Nieto (2009)4
Junta de Andalucía21
DEuOwn relevés22
SDl = Saturejo salzmannii-Drosophylletum lusitanici. TCl = Teucrio mariani-Cistetum laurifolii. TCp = Teucrio mariani-Cistetum populifolii. HEau = Halimio ocymoidis-Ericetum australis. ECp = Erico australis-Cistetum populifolii. PCp = Polygalo microphyllae-Cistetum populifolii. HEa = Halimio ocymoidis-Ericetum aragonensis. DEu = Drosophyllo lusitanicae-Ericetum umbellatae. HEu = Halimio ocymoidis-Ericetum umbellatae. UEu = Ulici eriocladi-Ericetum umbellatae.
Table 2. Teucrio mariani-Cistetum populifolii nova.
Table 2. Teucrio mariani-Cistetum populifolii nova.
Altitude889472817867877800800650740680660730580660948976969876890930985
Area m2200200100200200100150150200200150100100150100100100100
Coverage %908580809075908090857570758060556560557550
Inclination %825 2082020101520202510201010101530200
OrientationNN NWNENNWNWNWNEWNENWSWSWNENNWN-
Medium height veg. in m.1.800.901.701.400.80 0.700.700.700.35
TmCp01TmCp02TmCp03TmCp04TmCp05TmCp06TmCp07TmCp08TmCp09TmCp10TmCp11TmCp12TmCp13TmCp14TmCp15 *TmCp16TmCp17TmCp18TmCp19TmCp20TmCp21
Characteristic association species
Teucrium oxylepis subsp. marianum 5255223
Cistus populifolius subsp. populifolius4555455444545442523+3
Characteristic species of Ericion umbellatae
Erica australis subsp. australis 11 +1 1212+ + ++
Halimium ocymoides+ + + 2 5
Polygala microphylla 21+ + 1+
Erica umbellata 2 +1 +
Characteristic species of Calluno-Ulicetea
Pterospartum tridentatum subsp. lasianthum + + +
Calluna vulgaris 11+ +
Erica scoparia subsp. scoparia + 1 ++
Tuberaria lignosa ++ + +
Characteristic species of Ulici-Cistion ladaniferi
Lavandula stoechas subsp. luisieri 1 221 +11+
Lavandula pedunculata subsp. sampaiana 1 1 1+
Erophaca baetica + ++ +
Lavandula stoechas subsp. stoechas +
Characteristic species of Lavanduletalia stoechadis and Cisto-Lavanduletea
Cistus ladanifer subsp. ladanifer11222 21112+112 21 ++
Cistus crispus + 32
Narcissus triandrus subsp. pallidulus 11+ +
Cistus monspeliensis 1
Iberis linifolia +
Cistus salviifolius 1 +21 + 1 +
Halimium umbellatum subsp. viscosum 5 1 + 3
Cistus laurifolius5 22 +
Characteristic species of Querceta ilicis class and lower units
Erica arborea + 1111+1+++ 1 +
Arbutus unedo1 ++1+2+1+1+
Phillyrea angustifolia+ 1++11 ++ + ++++ +
Daphne gnidium + 111 + +++++
Quercus broteroi+ +11 + ++ + +
Quercus suber 11++ + ++ +
Doronicum plantagineum 2 21
Paeonia broteri++ + + ++
Teucrium fruticans + 1
Jasminum fruticans 1
Lonicera implexa + ++
Quercus rotundifolia + + +
Rubia peregrina subsp. peregrina + ++
Viburnum tinus + + +
Juniperus oxycedrus subsp. badia + +
Lonicera periclymenum subsp. hispanica + +
Pistacia terebinthus + +
Sanguisorba hybrida +
Characteristic species of Cytisetea scopario-striati class and lower units
Cytisus scoparius subsp. bourgaei1+111 1+ 11 +
Adenocarpus telonensis 1+1+
Pteridium aquilinum 2
Cytisus grandiflorus subsp. grandiflorus +
Cytisus striatus subsp. striatus +
Characteristic species of Querco roboris-Fagetea sylvestris class and lower units
Cephalanthera longifolia 1 + 1
Geum sylvaticum 11 +
Quercus faginea subsp. faginea 2 +
Arenaria montana subsp. montana 1
Tamus communis + +
Epipactis helleborine subsp. helleborine +
Epipactis helleborine subsp. tremolsii +
Quercus pyrenaica +
Sorbus torminalis +
Companion species
Pinus pinaster 545
Rosmarinus officinalis1 2+ 1 1 +
Thapsia villosa+ ++ 1 1 2++
Thymus mastichina 1 1 1 + +
Carlina corymbosa subsp. corymbosa +22
Agrostis capillaris x castellana 3+
Cistus albidus + 2 +
Halimium halimifolium +2+
Castanea sativa 2+
Dactylis lusitanica ++1
Holcus lanatus 2+
Rubus ulmifolius +2
Asphodelus albus subsp. albus + 1
Briza maxima 2
Helichrysum stoechas + +++
Sanguisorba verrucosa 1 +
Sedum forsterianum 1+
Centaurea melitensis 1
Festuca rothmaleri 1
Leucanthemum sylvaticum 1
Magydaris panacifolia 1
Origanum virens +++
Avenula marginata subsp. sulcata ++
Celtica gigantea ++
Dactylis glomerata subsp. hispanica + +
Ranunculus gramineus ++
Rosa pouzinii + +
Sanguisorba minor ++
Andryala integrifolia +
Aristolochia pistolochia +
Arrhenatherum elatius subsp. bulbosum +
Campanula rapunculus +
Cardamine hirsuta +
Clinopodium vulgare subsp. arundanum +
Conopodium marianum +
Dorycnium penthaphyllum+
Eryngium tenue +
Iris planifolia +
Linum suffruticosum subsp. suffruticosum +
Picris comosa +
Piptatherum miliaceum +
Srophularia scorodonia +
Thapsia garganica +
Tulipa sylvestris +
Typus *.
Table 3. Halimio ocymoidis-Ericetum australis nova.
Table 3. Halimio ocymoidis-Ericetum australis nova.
HEau1HEau2HEau3HEau *HEau5HEau6HEau7HEau8HEau9HEau10HEau11HEau12
Altitude m.82010221061124912297427528007601160800750
Area m2300200200200200100200200200400100200
Coverage %8095809080901007590859595
Slope %1588.58108.542020252020
OrientationENE NWN E-SENNSNS
Medium height veg. in m.11.51.51.51.200.701.81.01.01.01.01.0
Characteristic association species and higher syn-taxonomic units
Erica australis454545555455
Halimium ocymoides11121111+211
Cistus poulifolius++11114 1112
Erica umbellata21 2 4111 1
Lavandula luisieri+ 1 +1 112
Calluna vulgaris 2 1111
Polygala microphylla + + + +
Tuberaria lignosa + + 1
Erica scopara 22
Pterospartum tridentatum 1
Companion species
Cistus ladanifer222212+12222
Arbutus unedo++1 +1 ++ +
Rosmarinus officinalis+ +12+ 22
Erica arborea1 2+ ++ +
Phillyrea angustifolia+ 1 ++ + 2
Quercus broteroi + ++ +
Festuca elegans +1+2
Daphne gnidium + 1 1
Quercus suber + + +
Cistus salvifolius +++
Avenula sulcata subsp. occidentalis 11
Juniperus oxycedrus subsp. badia++
Quercus pyrenaica + +
Thymus mastichina + 1
Asphodelus albus 11
Quercus rotundifolia + +
Saxifraga granulata +
Hypochaeris radicata +
Thapsia villosa +
Rumex angiocarpus +
Cytisus scoparius subsp. bourgaei +
Cistus crispus +
Ranunculus sardous subsp. aleae +
Klasea abulensis +
Arrhenatherum elatius subsp. bulbosum +
Narcissus triandrus +
Arrhenatherum album +
Cardamine hirsuta 2
Scirpus holoschoenus +
Salix atrocinerea +
Osyris alba 1
Teucrium haenseleri +
Cytisus multiflorus +
Pistacia terebinthus +
Juniperus oxycedrus +
Typus *.
Table 4. Drosophyllo lusitanicae-Ericetum umbellatae nova.
Table 4. Drosophyllo lusitanicae-Ericetum umbellatae nova.
DEu1DEu2DEu3DEu4DEu5DEu6 *DEu7DEu8DEu9DEu10DEu11DEu12DEu13DEu14DEu15DEu16DEu17DEu18DEu19DEu20DEu21DEu22
Altitude m.7951233982104210511061107410957425998301010800730800800700750720750760740
Area m23004001005010402040100100200100200200200200300200150200150100
Coverage %40608050807070908080909585808075758080758590
Slope %122046886410830515151530353025101015
OrientationSWNSNENENENENWWWWN-NENNNSSWSWNNENW
Medium height veg. in m.0.801.50.700.400.600.500.400.500.250.35 0.60
Characteristic association species and higher syntaxonomic units
Erica umbellata4544555544554455454444
Halimium ocymoides4444441414141445445415
Erica australis1+41111111111111+1
Drosophyllum lusitanicum 4545444
Cistus populifolius 11+ 1 +
Tuberaria lignosa + + 1 +1
Lavandula luisieri + + 1
Pterospartum tridentatum subsp. lasianthum 1 ++ 1
Calluna vulgaris 1 + 51 11++1
Erica lusitanica +
Erica scoparia + +
Companion species
Cistus ladanifer1+4 4+++++111+++++1141
Rosmarinus officinalis+ 111 +1+1444
Lavandula stoechas subsp. sampaioana +1 4
Briza máxima 1+1+
Tolpis barbata + 1+ 1
Petrorhagia prolifera 1++
Cistus salvifolius + +++
Asphodelus albus + ++ +
Arrhenatherum bulbosum subsp. elatius +
Jasione montana + +
Ranunculus gramineus +
Xolanta guttata +
Jasione crispa subsp. tomentosa +
Lavandula pedunculata +
Cytinus hypocistis +
Scirpus holoschoenus +
Salix atrocinerea
Genista hirsuta +
Asphodelus microcarpus +
Osyris alba +
Gladiolus illyricus +
Thymelaea villosa + +
Adenocarpus telonensis + +
Dactylis hispanica 11
Daphne gnidium + + +
Arbutus unedo + +
Erica arborea+
Phillyrea angustifolia +
Typus*.
Table 5. Synoptic table: TCp = Teucrio oxylepis-Cistetum populifolii; HEau = Halimio ocymoidis-Ericetum australis; ECp = Erico australis-Cistetum populifolii; PCp = Polygalo microphyllae-Cistetum populifolii; HEa = Halimio ocymoidis-Ericetum aragonensis; DEu = Drosophyllo lusitanicae-Ericetum umbellatae; HEu = Halimio ocymoidis-Ericetum umbellatae.
Table 5. Synoptic table: TCp = Teucrio oxylepis-Cistetum populifolii; HEau = Halimio ocymoidis-Ericetum australis; ECp = Erico australis-Cistetum populifolii; PCp = Polygalo microphyllae-Cistetum populifolii; HEa = Halimio ocymoidis-Ericetum aragonensis; DEu = Drosophyllo lusitanicae-Ericetum umbellatae; HEu = Halimio ocymoidis-Ericetum umbellatae.
TCpHEauECpPCpHEaDEuHEuUEu
Halimium ocymoidesIVIIIIIIIVVV
Erica australisIIVV IV II
Cistus ladaniferIVVIV VIIII
Erica umbellataIII VVV
Tuberaria lignosaIII IIIIII
Cistus crispusIIII V
Lavandula luisieriIIIIIIII I V
Erica scopariaII I III
Cistus salvifoliusIII I IV
Quercus rotundifoliaIIIIII III
Calluna vulgarisIII IIVIIIV
Genista tridentataIIIIIIIIIIV
Polygala microphyllaII IV I
Halimium umbellatum subsp viscosumI II IV I
Quercus pyrenaicaIII I I
Erica arboreaIIIII IVII
Cistus populifoliusVVVV I
Arbutus unedoIIIIIIIIIV I
Phillyrea angustifoliaIIIIIIIVIII I
Daphne gnidiumIII II I
Rosmarinus officinalisIIIIII II
Asphodelus albusII I
Arrhenatherum elatius subsp bulbosumI I
Ranunculus gramineusI I
Adenocarpus telonensisI III I
Lavandula stoechas subsp sampaioanaI III I
Cistus laurifoliusI III
Quercus suberIIIIVIII
Pistacia terebinthusIIIIV
Viburnum tinusI IIII
Dactylis lusitanicaI III
Lonicera peryclimenumI IIII
Paeonia broteroiI II
Rubia peregrinaI III
Lonicera implexaI II
Doronicum plantagineumI II
Cytisus grandiflorusI I
Cephalanthera longifoliaI II
Arenaria montanaI I
Tamus communisI III
Teucrium fruticansI II
Magydaris panacifoliaI II
Astragalus lusitanicusI III
Conopodium marianumI II
Jasminum fruticansI I
Thapsia villosaI
Cytisus scoparius subsp bourgaeiIIIIV
Cardamine hirsutaIIIV
Helichrysum stoechasI I
Srophularia scorodoniaI I
Origanum vulgare subsp virensI I
Cistus albidusI I
Quercus broteroiIIIII
Thymus mastichinaII
Juniperus oxycedrus subsp badiaI
Teucrium oxylepis subsp marianumI
Sedum forsterianumI
Narcissus pallidulusI
Cistus laurifoliusI
Geum sylvaticumI
Festuca rothmaleriI
Rubus ulmifoliusI
Rosa pouziniiI
Epipactis helleborineI
Sorbus torminalisI
Tulipa sylvestrisI
Dorycnium penthaphyllumI
Aristolochia pistolochiaI
Piptatherum miliaceumI
Helminthotheca comosaI
Thapsia garganicaI
Leucanthemum sylvaticumI
Iberis linifoliaI
Centaurea melitensisI
Campanula rapunculusI
Iris planifoliaI
Linum suffruticosumI
Cistus monspeliensisI
Sanguisorba verrucosaI
Teucrium haenseleri I I I
Osyris alba I I I
Narcissus triandrus I I
Scirpus holoschoenus I I
Cytisus multiflorus I I
Festuca elegans I
Ranunculus sardous I
Klasea integrifolia I
Arrhenatherum album I
Helictochloa marginata I
Salix atrocinerea I
Halimium lasianthum III I
Xolantha guttata IV II
Pteridium aquilinum IIII I
Urginea maritima IVIV I
Sanguisorba hybrida I I
Phillyrea latifolia IIII
Asparagus acutifolius IIII
Senecio minutus III
Phlomis purpurea I
Genista polyanthos III
Smilax mauritanica III
Euphorbia nicaeensis II
Myrtus communis II
Pistacia lentiscus I
Bupleurum fruticosum I
Genista falcata I
Ruscus aculeatus I
Quercus canariensis I
Digitalis purpurea subsp tomentosa I
Saxifraga granulata subsp glaucescens I
Asplenium adiantum-nigrum I
Selaginella denticulata I
Lunularia cruciata I
Genista triacanthos I V
Thymelaea villosa V I II
Drosophyllum lusitanicum I
Quercus lusitanica III
Teucrium scorodonia IV
Anthericum baeticum III
Ornithogalum pyrenaicum IV
Silene psammitis IV
Thapsia nitida IV
Cistus psilosepalus II
Genista tournefortii II
Smilax aspera II
Pterocephalus papposus II
Halimium halimifolium I
Halimium atriplicifolium I
Quercus coccifera I
Blechnun spicant I
Agrostis castellana I IIII
Erica australis subsp aragonensis V I
Polytrichum piliferum II II
Avenula sulcata III I
Cladonia furcata I I
Jasione montana II
Luzula lactea V
Deschampsia flexuosa subsp iberica V
Genista pilosa III
Artostaphylos uva-ursi subsp crassifolia II
Sedum brevifolium II
Helianthemum apenninum II
Lotus corniculatus subsp carpetanus II
Vaccinium myrtillus I
Jasione laevis subsp carpetana I
Erica cinerea I
Cetraria islandica I
Fagus sylvatica I
Nardus stricta I
Hieracium pilosella I
Plantago radicata I
Festuca durandii I
Juniperus nana I
Thymus bracteatus I
Genista hirsuta I I
Cytinus hypocistis II
Jasione crispa subsp tomentosa I
Lavandula pedunculata I
Erica lusitanica I
Asphodelus microcarpus I
Gladiolus illyricus I
Briza máxima I
Tolpis barbata I
Petrorhagia prolifera I
Dactylis hispanica I
Halimium alyssoides III
Cladonia verticillata II
Cladonia mediterranea I
Agrostis setacea I
Ulex minor I
Genista micrantha I
Agrostis truncatula I
Ulex parviflorus subsp eriocladus V
Pterospartum tridentatum V
Festuca ampla I
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MDPI and ACS Style

Piñar Fuentes, J.C.; Raposo, M.; Pinto Gomes, C.J.; del Río González, S.; Spampinato, G.; Cano, E. New Contributions to the Ericion umbellatae Alliance in the Central Iberian Peninsula. Sustainability 2021, 13, 5639. https://doi.org/10.3390/su13105639

AMA Style

Piñar Fuentes JC, Raposo M, Pinto Gomes CJ, del Río González S, Spampinato G, Cano E. New Contributions to the Ericion umbellatae Alliance in the Central Iberian Peninsula. Sustainability. 2021; 13(10):5639. https://doi.org/10.3390/su13105639

Chicago/Turabian Style

Piñar Fuentes, José C., Mauro Raposo, Carlos J. Pinto Gomes, Sara del Río González, Giovanni Spampinato, and Eusebio Cano. 2021. "New Contributions to the Ericion umbellatae Alliance in the Central Iberian Peninsula" Sustainability 13, no. 10: 5639. https://doi.org/10.3390/su13105639

APA Style

Piñar Fuentes, J. C., Raposo, M., Pinto Gomes, C. J., del Río González, S., Spampinato, G., & Cano, E. (2021). New Contributions to the Ericion umbellatae Alliance in the Central Iberian Peninsula. Sustainability, 13(10), 5639. https://doi.org/10.3390/su13105639

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