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Fig. 14 in To Registrations Of Bottom Macroinvertebrates, Fish, Amphibians And Reptiles Of The Upper Tskhenistskali River Basin (Georgia, Lower Svanetia)

Fig. 14. Places of registrations of A. colchica, the species biotope and map of findings, Tshenitshali River, Georgia, Lower Svanetia; specimens are also shown in the table of records (table 2).

Fig. 11 in To Registrations Of Bottom Macroinvertebrates, Fish, Amphibians And Reptiles Of The Upper Tskhenistskali River Basin (Georgia, Lower Svanetia)

Fig. 11. Places of registrations of audial signals from H. orientalis males, Lentekhi town, Lower Svanetia; specimens are also shown in the table of records (table 2).

Fig. 10. B in To Registrations Of Bottom Macroinvertebrates, Fish, Amphibians And Reptiles Of The Upper Tskhenistskali River Basin (Georgia, Lower Svanetia)

Fig. 10. B. sitibundus, registration points and habitat in the vicinity Lentekhi town, Lower Svanetia; specimens are also shown in the table of records (table 2).

Fig. 17 in To Registrations Of Bottom Macroinvertebrates, Fish, Amphibians And Reptiles Of The Upper Tskhenistskali River Basin (Georgia, Lower Svanetia)

Fig. 17. Places of registrations D. r. svanetica, the species biotope and map of findings, Devashi River, Georgia, Lower Svanetia; specimens are also shown in the table of records (table 2).

Fig. 9. R in To Registrations Of Bottom Macroinvertebrates, Fish, Amphibians And Reptiles Of The Upper Tskhenistskali River Basin (Georgia, Lower Svanetia)

Fig. 9. R. macrocnemis, registration points and habitat in the vicinity Lentekhi town and Sasashi village, Lower Svanetia; specimens are also shown in the table of records (table 2).

Fig. 13 in To Registrations Of Bottom Macroinvertebrates, Fish, Amphibians And Reptiles Of The Upper Tskhenistskali River Basin (Georgia, Lower Svanetia)

Fig. 13. Places of registrations V. dinniki, the species biotope and map of findings, Devashi River, Georgia, Lower Svanetia; specimens are also shown in the table of records (table 2).

Fig. 6 in To Registrations Of Bottom Macroinvertebrates, Fish, Amphibians And Reptiles Of The Upper Tskhenistskali River Basin (Georgia, Lower Svanetia)

Fig. 6. Map of records of the caught fish species: yellow — S. trutta, blue — B. angorae; red — B. escerichia.

publicOct 2025View details →

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Supporting isotopic data for: Differential utilization of submerged leaf litter by microbial biofilms and macroinvertebrates in a large dryland river

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Data from: Multiple stressors in river networks: Local and downstream effects on freshwater macroinvertebrates

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publicOct 2025View details →

opencc-by-4.0Nov 2024View details →

Legacy effects of four decades of insecticide applications on contemporary benthic macroinvertebrates in eastern Canadian rivers

These files support the manuscript "Legacy effects of four decades of insecticide applications on contemporary riverine benthic macroinvertebrates," which has been published in Environmental Pollution (https://doi.org/10.1016/j.envpol.2025.126397). This manuscript evaluates the relative importance of historical insecticide applications and modern environmental variables in explaining benthic macroinvertebrate assemblages at 274 sites across the province of New Brunswick, Canada. No new data was generated for the work described in this manuscript. Historical insecticide application data for the province of New Brunswick were taken from Heartz et al. 2023 (<a href="https://doi.org/10.1002/ecy.4068">https://doi.org/10.1002/ecy.4068</a>), and benthic macroinvertebrate data were downloaded from the publicly available CABIN database (<a href="https://open.canada.ca/data">https://open.canada.ca/data</a>, record ID 13564ca4-e330-40a5-9521-bfb1be767147). The authors cannot make their compiled data set publicly available because the subset of CABIN data used for this analysis includes privately maintained data that are only available upon request from respective stakeholders. Please contact the corresponding author for guidance on obtaining these data directly from CABIN.  The attached files include <ul> <li>analysis_R_scripts: All R codes required to reproduce our analysis. <ul> <li>01_cabin_prep_BMI_data cleans the CABIN benthic macroinvertebrate data for analysis.</li> <li>02_cabin_prep_env_data cleans the CABIN site-level environmental data for analysis.</li> <li>03_pesticide_etl_calculation calculates the estimated toxicity load (ETL) in each reach and catchment we studied. </li> <li>04_ pesticide_apps_per_year calculates the number of years each insecticide was applied in each reach and catchment we studied.</li> <li>05_site_year_selection_script subsets the CABIN data to include only one observation per site and calculates univariate indices (e.g., %EPT) for each site.</li> <li>06_data_merge_for_analysis compiles all data (insecticide applications and environmental variables at the reach and catchment scales + CABIN macroinvertebrate and site-level environmental data)</li> <li>07_univariate_analysis performs multiple regression analysis with the merged data.</li> <li>08_mulivariate_analysis_familydata performs PCA and RDA analysis with the merged data.</li> <li>09_misc_figures renders figures used in the manuscript text.</li> <li>10_site_year_selection_100x loops over script #5 100x to confirm that our results were robust to data subsetting and imputation.</li> <li>11_data_merge_100x loops over script #6 100x to confirm that our results were robust to data subsetting and imputation.</li> <li>12_univariate_analysis_100x loops over script #7 100x to confirm that our results were robust to data subsetting and imputation.</li> </ul> </li> </ul>

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Data from: Environmental filtering of macroinvertebrate traits influences ecosystem functioning in a large river floodplain

The Biodiversity-Ecosystem Function hypothesis postulates that higher biodiversity is correlated with faster ecosystem process rates and increased ecosystem stability in fluctuating environments. Exhibiting high spatio-temporal habitat diversity, floodplains are highly productive ecosystems, supporting communities that are naturally resilient and highly diverse. We examined linkages among floodplain wetland habitats, invertebrate communities and their associated traits, and ecosystem function across 60 sites within the floodplain wetlands of the lower Wolastoq | Saint John River, New Brunswick, using structural equation modelling and Threshold Indicator Taxa ANalysis (TITAN2). We identified key environmental filters structuring invertebrate communities, by linking increased niche differentiation through shoreline change, flood pulse dynamics, and macrophyte bed complexity with increased taxa and functional diversity. Examination of traits linked to ecosystem functions revealed that more resilient wetlands with balance between primary productivity and decomposition as carbon sources were associated with greater functional evenness and richness, while habitat patches with elevated decomposition rates had lower functional richness, reflecting a simplified, more disturbed habitat. While our more complex overarching SEM model was ultimately compromised by an overspecified number of pathways, our results nevertheless are indicative of a divergence between wetland and riverine ecosystems in their relationships linking biodiversity and ecosystem function, illustrating how to define ecosystem health in wetland habitats, and demonstrating how critical functions support healthy wetland habitats by providing increased resilience to disturbance.

opencc-zeroAug 2022View details →

Fig. 14 in On The Study Of Fauna (Macroinvertebrates, Fish, Amphibians, Reptiles, Birds And Mammals) Of The Lower Course Of Shokhdara River Valley In Pamir, Mountain Bodakhshan, Tajikistan

Fig. 14. Grey draft hamster.

Fig. 9 in On The Study Of Fauna (Macroinvertebrates, Fish, Amphibians, Reptiles, Birds And Mammals) Of The Lower Course Of Shokhdara River Valley In Pamir, Mountain Bodakhshan, Tajikistan

Fig. 9. Young individual of spotted whip snake, road kill, Sebzor village.

Fig. 8. N in On The Study Of Fauna (Macroinvertebrates, Fish, Amphibians, Reptiles, Birds And Mammals) Of The Lower Course Of Shokhdara River Valley In Pamir, Mountain Bodakhshan, Tajikistan

Fig. 8. N. tessellata specimen found near Shokhdara River.

Fig. 5. Caught Tibetian stone loach N in On The Study Of Fauna (Macroinvertebrates, Fish, Amphibians, Reptiles, Birds And Mammals) Of The Lower Course Of Shokhdara River Valley In Pamir, Mountain Bodakhshan, Tajikistan

Fig. 5. Caught Tibetian stone loach N. stoliczkai.

Fig. 11 in On The Study Of Fauna (Macroinvertebrates, Fish, Amphibians, Reptiles, Birds And Mammals) Of The Lower Course Of Shokhdara River Valley In Pamir, Mountain Bodakhshan, Tajikistan

Fig. 11. Grey thin-toed geckos registered within the study area.

Fig. 15 in On The Study Of Fauna (Macroinvertebrates, Fish, Amphibians, Reptiles, Birds And Mammals) Of The Lower Course Of Shokhdara River Valley In Pamir, Mountain Bodakhshan, Tajikistan

Fig. 15. Dr. Abdulnazarov with female of snow leopard in Pamir biological institute.

Fig. 12 in On The Study Of Fauna (Macroinvertebrates, Fish, Amphibians, Reptiles, Birds And Mammals) Of The Lower Course Of Shokhdara River Valley In Pamir, Mountain Bodakhshan, Tajikistan

Fig. 12. Scheme of the findings of amphibians and reptiles at the study area.

opencc-by-4.0Feb 2015View details →

Figure 2 in Macroinvertebrate communities along the Velika Morava River

Figure 2. Overall taxa richness at the sampling sites.