Find research datasets worth reusing

Fig. 19 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Fig. 19. Number of scarabaeoids per week in ten traps baited with dung (blue line) and ten traps baited with carrion

Fig. 18 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Fig. 18. Total number of scarabaeoids in all traps by week (solid red line), mean number of individuals per trap by month (bars), and mean monthly precipitation (dashed blue line) at Reserva Ducke from September 1977 to October 1978.

Fig. 20 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Fig. 20. Number of individuals per week in dung-baited traps containing chloral hydrate (red line) or picric acid

Figs. 24–25 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Figs. 24–25. Weekly scarabaeoid species captures in dung- (blue line) and carrion-baited (red line) pitfall traps at Reserva Ducke from September 1977 to October 1978. 24) Percentage of all taxa collected per week. Note that only in weeks 30 and 31 (4 and 11 April) were slightly more than 50% of the species taken; 25) Number of species per week.

Fig. 17 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Fig. 17. Diagram of the trap layout along existing trails at Reserva Ducke, Brazil. Traps are 50 m apart.

Fig. 16 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Fig. 16. Special box designed to carry bait vials. The hinged cover kept the vials from falling out as well as for personal protection from exploding caps. Photograph by BCR, August 1978.

Figs. 14–15. Trap design. 14 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Figs. 14–15. Trap design. 14) Completed trap with rain cover in position; 15) Close-up showing attachment of bait vial inside lip of collecting bottle.

Figs. 4–7. Study area. 4 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Figs. 4–7. Study area. 4) Entry road into Reserva Ducke, September 1978. Photograph by BCR; 5) Forest trail (slope) at Reserva Ducke with author near summit of hill, March 1978. Photograph by N. D. Penny; 6) Forest trail (no slope) at Reserva Ducke, August 1978. Photograph by BCR; 7) Forest at Reserva Ducke showing palm understory, August 1978. Photograph by BCR.

Fig. 8 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Fig. 8. The "meeting of the waters" at Manaus where the dark Rio Negro meets the tan Rio Solimões (Amazon). The waters of the two rivers run side by side for several kilometers after their meeting without mixing because they differ in density, temperature, and speed. Photograph by BCR, August 1977.

Figs. 9–10 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Figs. 9–10. Weather data at Reserva Ducke from September 1977 to October 1978. 9) Weekly (line) and monthly

Figs. 2–3. Study area. 2 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Figs. 2–3. Study area. 2) Reserva Ducke (arrow) in 1984 surrounded by rainforest. Image courtesy of the Land Processes Distributed Active Archive Center (LP DAAC), USGS/EROS, Sioux Falls, SD; 3) Reserva Ducke 28 years later, shown as a remnant square patch of forest on the northeast edge of the city of Manaus in an otherwise cutover landscape. Image ã 2012 Google, Imagery ã2012 NASA, TerraMetrics.

Figs. 11–13. Trap design. 11 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Figs. 11–13. Trap design. 11) Pitfall trap components: PVC pipe in the ground, collecting bottle with bait vial attached just inside of opening, soil cover, rain cover; 12) Collecting bottle placed inside of PVC pipe so that the lip of the bottle is flush with the surface of the ground; 13) Soil cover placed over lip of collecting bottle.

Fig. 1 in The Dung- and Carrion-Feeding Scarabs (Coleoptera: Scarabaeoidea) of an Amazonian Blackwater Rainforest: Results of a Continuous, 56-Week, Baited-PitfallTrap Study

Fig. 1. South America. Arrow points to location of Reserva Ducke, just to the north of the confluence of the Rio Negro and Rio Solimões in Amazonas, Brazil.

FIGURE 1 in A new species of African diurnal dwarf geckos (Gekkonidae: Lygodactylus) from the Lower Guinea rainforest

FIGURE 1: Habitats and geographical distribution of Lygodactylus lobeke sp. nov. on a hybrid map of the major vegetation divisions (Sayre et al. 2013) and 1 arc-second elevation map across tropical Africa (NASA 2000). Photos of habitats from (a) type locality (holotype) near Goumela, southeastern Cameroon, and (b) second locality (paratype) near Sanga Wanda, Mayombe National Park, Cabinda Province, Angola. Photographs by B.R. (a) and J.L-R. (b).

FIGURE 4 in A new species of African diurnal dwarf geckos (Gekkonidae: Lygodactylus) from the Lower Guinea rainforest

FIGURE 4: Lygodactylus lobeke sp. nov. type material in preservative. a) to d) female holotype (ZSM 56/2024): a) dorsal and b) ventral views; c) dorsal view of head, d) ventral view of (regenerated) tail tip. e) to h) male paratype (FKH 1259): e) dorsal and f) ventral views; g) dorsal view of head, h) ventral view of (regenerated) tail tip. Photographs by B.R. (a–d) and P. VP. (e–h).

FIGURE 3 in A new species of African diurnal dwarf geckos (Gekkonidae: Lygodactylus) from the Lower Guinea rainforest

FIGURE 3: Lygodactylus lobeke sp. nov. in life. (a) Chin and (c) precloacal region and proximal part of the tail of the female holotype. Precloacal region with 9 precloacal spots, corresponding to the precloacal pores in the male specimen. Arrowheads in (c) mark row of precloacal scales with spots. Original part of tail with double row of enlarged subcaudal scales, two of which are marked with circles. Inset: same, contrast enhanced. (b) Chin and (d) precloacal region and pseudo-escutcheon (yellow scales) of the male paratype. Precloacal region with 9 precloacal pores. Arrowheads in (d) mark row of precloacal pores. Photographs by B.R. (a, c) and P.VP. (b, d).

FIGURE 6 in A new species of African diurnal dwarf geckos (Gekkonidae: Lygodactylus) from the Lower Guinea rainforest

FIGURE 6: Lygodactylus lobeke sp. nov. female holotype in life: 'Mood dependent' colorations. (a) and (b) 'distress' coloration (compare coloration shortly after capture, see Fig. 2a); (c) 'neutral' coloration; (d) 'display' coloration; (e) 'pyjamas' coloration (resting at night on a leaf). Photographs by B.R.

FIGURE 2 in A new species of African diurnal dwarf geckos (Gekkonidae: Lygodactylus) from the Lower Guinea rainforest

FIGURE 2: Lygodactylus lobeke sp. nov. in life, shortly after capture. Female holotype: lateral (a) and dorsal views (b). Male paratype: lateral (c) and dorsal views (d). Photographs of holotype: ambient light, analog (Kodachrome 200) (2002), photographs of paratype: flash, digital (Canon EOS 6D Mark II) (2023). Photographs by B.R. (a, b) and P.VP. (c, d).

FIGURE 5 in A new species of African diurnal dwarf geckos (Gekkonidae: Lygodactylus) from the Lower Guinea rainforest

FIGURE 5: Phylogenetic relationships of Lygodactylus lobeke sp. nov. (Left) Maximum likelihood tree based on partitioned multigene analysis constructed with iQtree, including information from Gippner et al. (2021), plus all available samples of the L. scheffleri group, with collapsed groups defined by Gippner et al. (2021). (Right) Detailed phylogenetic placement of Lygodactylus lobeke sp. nov. within the L. scheffleri group. Support values are shown above (PP = Bayesian Inference posterior probabilities) and below (BS = Maximum Likelihood bootstrap values) the nodes.