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133 results for “altitudinal gradient”

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zenodo44/100

Data for 'Microbial carbon use efficiency along an altitudinal gradient'

<p>This dataset is related to the manuscript &ldquo;Microbial carbon use efficiency along an altitudinal gradient&ldquo; by Kevin Mganga, Outi-Maaria Sieti&ouml;, Nele Meyer, Christopher Poeplau, Sylwia Adamczyk, Christina Biasi, Subin Kalu, Matti R&auml;s&auml;nen, Per Ambus, Hannu Fritze, Petri Pellikka, and Kristiina Karhu.</p> <p>Corresponding author: Outi-Maaria Sieti&ouml; (<a href="mailto:outi-maaria.sietio@helsinki.fi">outi-maaria.sietio@helsinki.fi</a>)</p>

opencc-by-4.0Aug 2022View details →
zenodo40/100

Data from: Seasonality, body size and maturation time in the neotropical grasshopper Sphenarium histrio across an altitudinal gradient

<p>In insects, male mating success and female fecundity usually increase with body size. However, natural selection favors faster maturation, reducing the risk of pre-reproductive death when the reproductive season is short in habitats located at high altitudes or far from the equator. Also, if males that mature earlier than females under these conditions increase their mating opportunities, protandry may evolve in their populations. Nonetheless, since body size is strongly correlated with maturation time in insects, a faster sexual maturation is reached at the expense of having a small body size. We analyzed the differences in the adult body size of males and females of the grasshopper Sphenarium histrio in three sites across an altitudinal gradient in southern Mexico. We also evaluated the possibility of protandry in these sampling sites using a common garden experiment. Male and female grasshoppers collected from low altitude sites in the field and reared in the laboratory were larger than those from a high altitude, suggesting genetic differentiation. Grasshoppers from a high altitude hatched earlier, had a shorter development time, presented fewer instars, and were smaller than grasshoppers from the other sampling sites. Moreover, development time in the three sampling sites was shorter in males than in females, suggesting protandry. Interestingly, the males from the three sites showed similar growth rates, but the females from low and high altitudes, respectively, had the fastest and slowest growth rates. In general, the adaptive value of the evolution of protandry has been focused on males. However, it may be that the growth rates of females in these sites could modify the degree of protandry as a response to their risk of pre-reproductive death and the potential benefits associated with multiple matings.</p> <p>The xlsx file contains the&nbsp;data for all the statistical analyses.</p>

opencc-by-4.0May 2022View details →
zenodo40/100

Figure 3 in Macrozoobenthos in an altitudinal gradient in North Patagonian Cautín River (Araucanía Region, Chile)

Figure 3. Correlation matrix for PCA for physical-chemical and biotic parameters for sites studied along the Cautín River.

opencc-by-4.0Dec 2022View details →
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Figure 1 in Macrozoobenthos in an altitudinal gradient in North Patagonian Cautín River (Araucanía Region, Chile)

Figure 1. Map with sites on the Cautín River included in the present study. Table 1. Geographical location, altitude and classification of the sampling sites on the main course of the Cautín River.

opencc-by-4.0Dec 2022View details →
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Figure 4 in Macrozoobenthos in an altitudinal gradient in North Patagonian Cautín River (Araucanía Region, Chile)

Figure 4. Results of RDA for physical-chemical and biotic parameters for sites studied along the Cautín River.

opencc-by-4.0Dec 2022View details →
zenodo40/100

Fig. 1 in Trophic network of aquatic macroinvertebrates along an altitudinal gradient in a Neotropical mountain river

Fig. 1. Static models of trophic networks at three sites in the Gaira River representing basal resources (red), intermediate consumer (orange) and top predators (yellow) and the interactions among them. SL, San Lorenzo, upper sector; LV, La Victoria, middle sector; PM, Puerto Mosquito, lower sector; D, dry season; R, rainy season.

opencc-by-4.0Aug 2018View details →
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Fig. 2 in Trophic network of aquatic macroinvertebrates along an altitudinal gradient in a Neotropical mountain river

Fig. 2. Representation of the standard deviation of vulnerability (SD-V) of the main food sources (FPOM, fine particulate organic matter; CPOM, coarse particulate organic matter; PT, plant tissue) calculated from the ratios recorded in the guts of the macroinvertebrates sampled in the elevational gradient of Gaira River during the dry and rainy seasons. Arrow thickness indicates the vulnerability importance.

opencc-by-4.0Aug 2018View details →
zenodo40/100

Figure 3 in Earthworm community structure along altitudinal gradients on the western slopes of Kopaonik Mountain in Serbia

Figure 3. Cluster analysis (UPGMA) using the Jaccard's index of similarity among the altitudinal transects.

opencc-by-4.0Nov 2021View details →
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Figure 1 in Earthworm community structure along altitudinal gradients on the western slopes of Kopaonik Mountain in Serbia

Figure 1. The geographic position of the Kopaonik Mountain on the Balkan Peninsula (a) and map of sampling sites (b) (seen localities in Table 1).

opencc-by-4.0Nov 2021View details →
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Figure 5 in Earthworm community structure along altitudinal gradients on the western slopes of Kopaonik Mountain in Serbia

Figure 5. Nonmetric multidimensional scaling (nMDS) ordination plots based on Bray Curtis dissimilarities of earthworm communities by habitat types.

opencc-by-4.0Nov 2021View details →
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Figure 8 in Assessment of terrestrial snails' diversity and composition in six forests of west central - Morocco along an altitudinal gradient

Figure 8. Dendogram of Jaccard similarities among habitats (paired group), cophenetic correlation: 0.924 (For site abbreviations, see Table 1).

opencc-by-4.0Jan 2024View details →
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Figure 7 in Assessment of terrestrial snails' diversity and composition in six forests of west central - Morocco along an altitudinal gradient

Figure 7. Heterogeneity of the forest sites using Whittaker's index (For site abbreviations, see Table 1).

opencc-by-4.0Jan 2024View details →
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Figure 3 in Assessment of terrestrial snails' diversity and composition in six forests of west central - Morocco along an altitudinal gradient

Figure 3. Correlation analysis between environmental parameters measured at each station. Scale colors and corresponding written values in the plot indicate Pearson's coefficients (For details see text).

opencc-by-4.0Jan 2024View details →
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Figure 1 in Assessment of terrestrial snails' diversity and composition in six forests of west central - Morocco along an altitudinal gradient

Figure 1. Photographs of the forest sites (ED: Essaouira Dunes; TL: Tlat Lhanchane; Our: Ourika; Azg: Azgour; Tam: Tamadout; Ouk: Oukaimeden). The pictures have been photographed by Guennoun F.Z. (2021).

opencc-by-4.0Jan 2024View details →
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Fig. 1 in Butterfly (Lepidoptera: Rhopalocera) Distribution Along An Altitudinal Gradient On Mount Tangkuban Parahu, West Java, Indonesia

Fig. 1. Number of butterfly species at different altitudes along the track from the peak of MTP at Upas Crater (2,080 m a.s.l.) to Situ Lembang (1,600 m a.s.l.). P1 to P11 = plot of samplings.

opencc-by-4.0Feb 2007View details →
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Fig. 2 in Butterfly (Lepidoptera: Rhopalocera) Distribution Along An Altitudinal Gradient On Mount Tangkuban Parahu, West Java, Indonesia

Fig. 2. Frequency of butterfly occurrence along the observation track from Upas Crater to Situ Lembang at MTP during October 2002. 1 = Mycalesis sudra; 2 = Ypthima pandocus; 3 = Pyrameis dejeani; 4 = Faunis canens; 5 = Danaus melaneus; 6 = Pantoporia selenophora; 7 = Neptis mahendra; 8 = Celastrina ceyx; 9 = Cynthia cardui; 10 = Papilio memnon; 11 = Symbrenthia hyplesis; 12 = Celastrina camenae; 13 = Potanthus omaha; 14 = Graphium sarpedon; 15 = Eurema andersonii; 16 = Heliophorus moorei; 17 = Zemeros flegyas; 18 = Chilades pandava; 19 = Jamides abdul; 20 = Abisara savitri; 21 = Lampides boeticus; 22 = Leptosia nina malayana; 23 = Kaniska canace perakana

opencc-by-4.0Feb 2007View details →
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FIG. 3 in Changes in functional and taxonomic diversity and composition of corticolous lichens in an altitudinal gradient in Colombia

FIG. 3. — Lichen diversity and vegetation richness in the Chocó region of Valle del Cauca, Colombi: A, mean and standard error for alpha lichen diversity along the altitudinal gradient; B, mean and standard error for alpha lichen diversity by locality and microhabitat; C, beta lichen diversity; D, total lichen species richness (observed and rarefied) by locality.

opencc-zeroOct 2019View details →
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FIG. 1 in Changes in functional and taxonomic diversity and composition of corticolous lichens in an altitudinal gradient in Colombia

FIG. 1. — Map of the department of Valle del Cauca, Colombia, showing the sampling points: Δ, Chucheros; Z, Pericos; •, El Queremal; O, Cerro El Inglés; ^, Pico Pance.

opencc-zeroOct 2019View details →
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FIG. 5. — A in Changes in functional and taxonomic diversity and composition of corticolous lichens in an altitudinal gradient in Colombia

FIG. 5. — A, non-metric multidimensional scaling for composition of lichen species along the gradient (Stres=0.21); B, detrended correspondence analysis for the lichen functional traits along the gradient. In both graphs there is a clear separation between elevations, showing a gradient of species composition and functional traits along the altitudinal gradient. Locations: z, Alto Pance; +, Cerro El Inglés; X, El Queremal; •, Pericos; , Chucheros.

opencc-zeroOct 2019View details →
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FIG. 2 in Changes in functional and taxonomic diversity and composition of corticolous lichens in an altitudinal gradient in Colombia

FIG. 2. — Number of species of the lichen families with higher diversity at each locality in the Chocó region of Valle del Cauca, Colombia.

opencc-zeroOct 2019View details →

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