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237,599 Works

Landscape predictors of rodent dynamics in fragmented rainforests

Norma Patricia Arce Peña, Víctor Arroyo-Rodríguez, Miriam San José, Denisse Jiménez-González, Iván Franch-Pardo, Ellen Andresen & Luis Daniel Ávila-Cabadilla
Data on rodent species abundance (Oryzomys sp., Heteromys desmarestianus, Sigmodon hispidus and Peromyscus mexicanus) was obtained in 12 forest sites in the fragmented Lacandona rainforest. We obtained the correlation coefficients (Spearman), i.e., how population abundance relates to year (2011, 2012, 2014 and 2016) and related this with differences across time (2016-2010) in landscape structure (i.e., percentage of forest cover, matrix contrast, number of forest patches, forest edge density, and mean inter-patch distance) surrounding each site....

Landscape predictors of rodent dynamics in fragmented rainforests

Norma Patricia Arce Peña, Víctor Arroyo-Rodríguez, Miriam San José, Denisse Jiménez-González, Iván Franch-Pardo, Ellen Andresen & Luis Daniel Ávila-Cabadilla
Data on rodent species abundance (Oryzomys sp., Heteromys desmarestianus, Sigmodon hispidus and Peromyscus mexicanus) was obtained in 12 forest sites in the fragmented Lacandona rainforest. We obtained the correlation coefficients (Spearman), i.e., how population abundance relates to year (2011, 2012, 2014 and 2016) and related this with differences across time (2016-2010) in landscape structure (i.e., percentage of forest cover, matrix contrast, number of forest patches, forest edge density, and mean inter-patch distance) surrounding each site....

Figure 2c from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 2c with raw data

Figure 2c from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 2c with raw data

Figure 4a from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 4a with raw data

Figure 4a from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 4a with raw data

Microsatellites File S1 from Stable genetic structure and connectivity in pollution-adapted and nearby pollution-sensitive populations of Fundulus heteroclitus

Joaquin C. B. Nunez, Leann M. Biancani, Patrick A. Flight, Diane E. Nacci, David M. Rand, Douglas L. Crawford & Marjorie F. Oleksiak
Microsatellite file 1

Microsatellites File S1 from Stable genetic structure and connectivity in pollution-adapted and nearby pollution-sensitive populations of Fundulus heteroclitus

Joaquin C. B. Nunez, Leann M. Biancani, Patrick A. Flight, Diane E. Nacci, David M. Rand, Douglas L. Crawford & Marjorie F. Oleksiak
Microsatellite file 1

Figure 4b from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 4b with raw data

Figure 4b from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 4b with raw data

Microsatellites File S3 from Stable genetic structure and connectivity in pollution-adapted and nearby pollution-sensitive populations of Fundulus heteroclitus

Joaquin C. B. Nunez, Leann M. Biancani, Patrick A. Flight, Diane E. Nacci, David M. Rand, Douglas L. Crawford & Marjorie F. Oleksiak
Microsatellite file 3

Microsatellites File S3 from Stable genetic structure and connectivity in pollution-adapted and nearby pollution-sensitive populations of Fundulus heteroclitus

Joaquin C. B. Nunez, Leann M. Biancani, Patrick A. Flight, Diane E. Nacci, David M. Rand, Douglas L. Crawford & Marjorie F. Oleksiak
Microsatellite file 3

Figure 2a from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 2a with raw data

Figure 2a from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 2a with raw data

Microsatellites File S2 from Stable genetic structure and connectivity in pollution-adapted and nearby pollution-sensitive populations of Fundulus heteroclitus

Joaquin C. B. Nunez, Leann M. Biancani, Patrick A. Flight, Diane E. Nacci, David M. Rand, Douglas L. Crawford & Marjorie F. Oleksiak
Microsatellite file 2

Microsatellites File S2 from Stable genetic structure and connectivity in pollution-adapted and nearby pollution-sensitive populations of Fundulus heteroclitus

Joaquin C. B. Nunez, Leann M. Biancani, Patrick A. Flight, Diane E. Nacci, David M. Rand, Douglas L. Crawford & Marjorie F. Oleksiak
Microsatellite file 2

Figure 3 from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 3 with raw data

Figure 3 from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 3 with raw data

Figure 2b from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 2b with raw data

Figure 2b from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 2b with raw data

Figure 4c from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 4c with raw data

Figure 4c from Foliage motion under wind, from leaf flutter to branch buffeting

Loïc Tadrist, Marc Saudreau, Pascal Hémon, Xavier Amandolese, André Marquier, Tristan Leclercq & Emmanuel De Langre
Matlab code generating figure 4c with raw data

Effects of cable sway, electrode surface area, and electrode mass on Electroencephalography signal quality during motion

Evangelia-Regkina Symeonidou, Andrew D. Nordin, W. David Hairston & Daniel P. Ferris
The data was saved in .bdf format and was collected using the BioSemi ActiveTwo system with for 4 electrodes, 2 placed on the top of the head, 2 placed on the back of the head. Sampling rate was 512 Hz.
There are three datasets:a) Electrode Mass Recordings b) Electrode Surface Area Recordings c) Cable Sway Recordings
Each dataset was recorded in 4 blocks, so each folder contains the 4 recording blocks with the motion frequency conditions...

Effects of cable sway, electrode surface area, and electrode mass on Electroencephalography signal quality during motion

Evangelia-Regkina Symeonidou, Andrew D. Nordin, W. David Hairston & Daniel P. Ferris
The data was saved in .bdf format and was collected using the BioSemi ActiveTwo system with for 4 electrodes, 2 placed on the top of the head, 2 placed on the back of the head. Sampling rate was 512 Hz.
There are three datasets:a) Electrode Mass Recordings b) Electrode Surface Area Recordings c) Cable Sway Recordings
Each dataset was recorded in 4 blocks, so each folder contains the 4 recording blocks with the motion frequency conditions...

Modern pollen–vegetation studies from the Sajnekhali Island Wildlife Sanctuary, Sundarbans, Eastern India

Shilpa Pandey & Thomas A. Minckley
Modern pollen–vegetation studies are crucial for the calibration and interpretation of fossil pollen assemblages. In eastern India, knowledge regarding the relationship between pollen deposition and the modern-day vegetation is required to make use of fossil pollen data, which is still scant. To fill this gap, the present study deals with the pollen analysis of 20 surface sediment samples from the Sajnekhali Island Wildlife Sanctuary, Sundarbans, India. The palynological results show that 20 genera in 18...

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