Find research datasets worth reusing

Fig. 8 in Youngest occurrences of rhomaleosaurid plesiosaurs indicate survival of an archaic marine reptile clade at high palaeolatitudes

Fig. 8. Portions of the?left pubis (A, B) and ischium (C, D) of the plesiosaur Rhomaleosauridae indet., SGM 1445-97, from the Lower Callovian Hlebnovka Formation of "Konnyi barak" ravine, Russia in lateral (A), dorsal (B), and?dorsal (C, D) views.

Fig. 4 in Youngest occurrences of rhomaleosaurid plesiosaurs indicate survival of an archaic marine reptile clade at high palaeolatitudes

Fig. 4. Dorsal centra of the plesiosaur Rhomaleosauridae indet. from the Lower Callovian Hlebnovka Formation of "Konnyi barak" ravine, Russia. SGM 1445-108 (A) and SGM 1445-107 (B), in anterior (A 1, B 1), posterior (A 2, B 2), dorsal (A 3, B 3), ventral (A 4, B 4), left lateral (A 5), and right lateral (B ) views.

Fig. 7 in Youngest occurrences of rhomaleosaurid plesiosaurs indicate survival of an archaic marine reptile clade at high palaeolatitudes

Fig. 7. Left ilium of the plesiosaur Rhomaleosauridae indet., SGM 1445-99, from the Lower Callovian Hlebnovka Formation of "Konnyi barak" ravine, Russia, in lateral (A), posterior (B), medial (C), anterior (D), and ventral (E) views.

Fig. 3 in Youngest occurrences of rhomaleosaurid plesiosaurs indicate survival of an archaic marine reptile clade at high palaeolatitudes

Fig. 3. Left ischium of the plesiosaur Rhomaleosauridae indet., CAMSM X.50215, from the Callovian Peterborough Member of Fletton, United Kingdom, in dorsal view (articulated with left ilium) (A), and ventral (B), lateral (C), dorsomedial (D), and anterior (E) views.

opencc-by-4.0Feb 2012View details →

Fig. 5 in Short-term survival of ammonites in New Jersey after the end-Cretaceous bolide impact

Fig. 5. Ammonite aptychi (= jaws) in the matrix of the Burrowed Unit. A, D. Lower jaws attributed to Eubaculites. A. AMNH 69496, right valve. D. AMNH 69492, view of right valve (D1), close−up of aptychus at the anterior end (D2). B, C. Lower jaws attributed to Discoscaphites. B. AMNH 69497, left valve. C. AMNH 69498, left valve.

opencc-by-4.0Feb 2012View details →

Fig. 4 in Short-term survival of ammonites in New Jersey after the end-Cretaceous bolide impact

Fig. 4. Clay pods in the matrix of the Burrowed Unit adjacent to burrows, Monmouth County, New Jersey, probably reworked from the Pinna Layer, and piped down into the Burrowed Unit. A–D. Single pod adjacent to a burrow. A. Overview. B. Eubaculites latecarinatus (Brunnschweiler, 1966), AMNH 66312 in left lateral view (B1); whorl cross−section at adoral end showing a specimen of Eubaculites telescoped inside (B2). C. Heteropora americana Richards, 1962, AMNH 51309; without any sediment in the zooids. D. Eubaculites sp., hollow specimen, AMNH 66313; view of hollow chambers (D1), close−up of septum (D2). E. Eubaculites sp. in another clay pod adjacent to a burrow, AMNH 66314; septal face (E1), close−up of septal neck (E2).

opencc-by-4.0Feb 2012View details →

Fig. 1 in Short-term survival of ammonites in New Jersey after the end-Cretaceous bolide impact

Fig. 1. Stratigraphic section in the Manasquan River Basin, Monmouth County, New Jersey. A. The top of the Tinton Formation consists of the Pinna Layer overlain by the Burrowed Unit, which is overlain, in turn, by the Hornerstown Formation. An enriched concentration of iridium occurs at the base of the Pinna Layer (indicated by the stars). The position of the Cretaceous/Paleogene boundary in this figure is based on the assumption that the enriched concentration of iridium is in place. B. Iridium profile from two sites (represented by the solid and dashed lines) in the Manasquan River Basin (Landman et al. 2007a). C. Map of part of New Jersey showing localities mentioned in the text: 1, Manasquan River Basin; 2, Buck's Pit; 3, Ivanhoe Creek.

opencc-by-4.0Apr 2024View details →

Supplementary data for "Individual quality and environmental factors interact to shape reproduction and survival in a resident bird of prey"

Abstract The archive contains data file and R-Script to reproduce the results presented in the paper “Individual quality and environmental factors interact to shape reproduction and survival in a resident bird of prey” published in Royal Society Open Science.

opencc-by-4.0Aug 2024View details →

Early life adversity has sex-dependent effects on survival across the lifespan in rhesus macaques

Data for: Early life adversity has sex-dependent effects on survival across the lifespan in rhesus macaques Patterson, S.K., Andonov, E., Arre, A.M., Martinez, M.I., Negron-Del Valle, J.E., Petersen, R.M, Phillips, D., Rahman, A., Ruiz-Lambides, A., Villanueva, I., Lea, A.J., Snyder-Mackler, N., Brent, L.J., Higham, J.P. "Early life adversity has sex-dependent effects on survival across the lifespan in rhesus macaques." 2024. Philosophical Transactions B.

Figure 1 in Effect of spawning time on egg quality, larval morphometrics and survival of Northern pike Esox lucius

Figure 1 - Nested effect of the female [F (ST)]. A: Pike egg weight (Wegg); B: Fertilization rate of eggs (FR); C: Total length of larvae at hatch (TLi); D: Resistance of larvae to starvation (LP50); E: Final weight of larvae (W) (21st day post hatch). F: female; f ST: spawning time; 1: first spawning date (March 16); 2: second spawning date (March 23). The same letters in each sub-plot denote non-significant results (p <0.05).

opencc-by-4.0Apr 2013View details →

Figure 1 in Effects of a Spirulina platensis-based diet on zebrafish female reproductive performance and larval survival rate

Figure 1. - Percentage of spawn according to the size of the clutch. Error bars represents standard error mean (SEM). **: p-value ≤ 0.01; FG: Flakes Group; SG: Spirulina platensis Group.

opencc-by-4.0Apr 2013View details →

Figure 3 in Effects of a Spirulina platensis-based diet on zebrafish female reproductive performance and larval survival rate

Figure 3. - Larvae survival rate (mean +/- SEM) when larvae are fed with 3 different diets, starting from 7 days post fertilization (0 hour).

opencc-by-4.0Apr 2013View details →

Figure 2 in Effects of a Spirulina platensis-based diet on zebrafish female reproductive performance and larval survival rate

Figure 2. - HT50 represents the time required to observe 50% hatched embryos in the two diet groups spawned one (Day 1), five (Day 5) and ten (Day 10) days after diet change. **: p-value ≤ 0.01; ***: p-value ≤ 0.001. Standard errors are represented. FG: Flakes Group; SG: Spirulina platensis Group.

Fig. 2 in The spermathecal duct of earwig Doru luteipes (Dermaptera: Forficulidae) contributes to spermatozoa survival

Fig. 2. Light micrographs of the spermatheca of Doru luteipes. (A) Section of the spermathecal reservoir containing epithelial cells (ec). (B) Section of the spermathecal reservoir with epithelial cells (ec) positive for P.A.S. (arrow head). (C) Spermathecal reservoir showing epithelial cells (ec) and luminal content (lu) positive for proteins. (D) Section of the spermathecal duct showing epithelial cells (ec) and class III secretory cells (sc) with intracellular canaliculi (ic), which open in pores (p) through the cuticle (ct). (E) Secretory cells (sc) of the duct with P.A.S.-positive regions (arrow heads). (F) Cells of the spermathecal duct positive for proteins. lu: lumen; ea: end apparatus; spt: spermatozoa; m: muscular fiber.

Fig. 1 in The spermathecal duct of earwig Doru luteipes (Dermaptera: Forficulidae) contributes to spermatozoa survival

Fig. 1. Anatomy of the spermatheca in Doru luteipes. (A) Light micrograph showing the spermathecal reservoir (b) and duct (d). (B) Scanning electron micrograph of the spermathecal reservoir (b) and duct (d). (C) Transitional region between the reservoir (b) and the duct (d) showing longitudinal muscles (m). (D) Median portion of the spermathecal duct with longitudinal muscles (m). (E) Distal region of the spermathecal duct with circular muscles (m).

Fig. 5 in Effect of soil treatments for cottony cushion scale (Hemiptera: Monophlebidae) control on Nylanderia fulva (Hymenoptera: Formidicae) survival and trailing activity

Fig. 5. Correlations between the mean numbers of I. purchasi and N. fulva in pots treated with (A) CoreTect® (r = 0.88; n = 8), (B) Merit® 2F (r = 0.88; n = 8), and (C) control (untreated) (r = 0.60; n = 8).

Fig. 1 in Effect of soil treatments for cottony cushion scale (Hemiptera: Monophlebidae) control on Nylanderia fulva (Hymenoptera: Formidicae) survival and trailing activity

Fig. 1. Mean (n = 8) numbers of Icerya purchasi per pittosporum plant counted on 3 branches of each plant. Different letters indicate significantly different (P <0.05) means by repeated measures analysis of variance and Tukey HSD test (R Development Core Team 2012).

Fig. 4 in Effect of soil treatments for cottony cushion scale (Hemiptera: Monophlebidae) control on Nylanderia fulva (Hymenoptera: Formidicae) survival and trailing activity

Fig. 4. Mean numbers of Nylanderia fulva trails on the trunk of pittosporum plant. Different letters indicate significantly different (P <0.05) means by repeated measures analysis of variance and Tukey HSD test (R Core Team 2012).

Fig. 2 in Effect of soil treatments for cottony cushion scale (Hemiptera: Monophlebidae) control on Nylanderia fulva (Hymenoptera: Formidicae) survival and trailing activity

Fig. 2. Mean (n = 8) numbers of Nylanderia fulva counted from sausage samples placed near the base of the trunk of pittosporum plants. Different letters indicate significantly different (P <0.05) means by repeated measures analysis of variance and Tukey HSD test (R Core Team 2012).