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opencc-zeroNov 2019View details →

FIG. 11. — Deposit SAT803 in Customs, rites, and sacrifices relating to a mortuary complex in Late Bronze Age Mongolia (Tsatsyn Ereg, Arkhangai)

FIG. 11. — Deposit SAT803 at B10 at Tsatsyn Ereg. The mandible and the maxilla are not the same biological age, indicating that that this deposit derives from two different individuals. Photograph & Computer aided design: S. Lepetz. Scale bar: 20 cm.

opencc-zeroNov 2019View details →

FIG. 6. — A in Customs, rites, and sacrifices relating to a mortuary complex in Late Bronze Age Mongolia (Tsatsyn Ereg, Arkhangai)

FIG. 6. — A, example of the state of preservation of the horse cranium (without the mandibles) in SAT799 at Tsatsyn Ereg; B, cross-section drawing of the location of the bones on the ancient ground surface and the stones covering them. There are no signs of ancient digging. The upper portion of the cranium (in grey) has been destroyed as a result of taphonomic processes. Photograph & Computer aided design: S. Lepetz. Scale bar: 30 cm but the perspective does not give the good size of the head.

opencc-zeroNov 2019View details →

FIG. 2 in Customs, rites, and sacrifices relating to a mortuary complex in Late Bronze Age Mongolia (Tsatsyn Ereg, Arkhangai)

FIG. 2. — View of the khirigsuur B10 at Tsatsyn Ereg (view from the south-west). Photograph: J. Magail.

opencc-by-4.0Mar 2020View details →

Supporting dataset for manuscript "Age as a Diagnosis of Steady-state Flows in Shallow Rectangular Reservoirs"

Supporting dataset for manuscript "Age as a Diagnosis of Steady-state Flows in Shallow Rectangular Reservoirs"

opencc-by-4.0Mar 2020View details →

Dataset used in Paper 1046 of the IFAC World Congress 2020 "Data Quality Assessment for System Identification in the Age of Big Data and Industry 4.0"

The data used was obtained from a section of the lead zinc concentrator at the Mount Isa Mines in Queensland, Australia.The data collected for this investigation consists of two months of plant operation, collected at a a frequency of one minute. The historian’s interpolation routine is used to ensure the data is aligned. No special care was used to ensure that the data had any particular characteristics, other than that the plant was running. It was reported that during this period some step tests had been conducted. Forty-three variables were collected: for each of the PID controllers, setpoint, process value and output (SV/PV/MV) were recorded. The three analysers provide measure of iron, lead and zinc percentages.

opencc-by-4.0Mar 2020View details →

Effect of Hot-Wet Storage Aging on Mechanical Response of a Woven Thermoplastic Composite

The effect of hot-wet storage aging on the mechanical response of a carbon fiber polyether ether ketone (PEEK)-matrix woven composite has been studied. A wide range of static loads and selected cyclic load tests on the interlaminar fatigue strength were performed. Static tests were conducted in batch mode, including on- and off-axis tension, compression, flexure, interlaminar shear strength (ILSS) and fracture tests in Modes I, II and I/II. Respective mechanical properties have been determined, indicating a degrading effect of aging on strength-related properties. The measured response in general, as well as the variance quantified by batch-mode test execution, indicated the appropriateness of the applied standards on the material under consideration, especially in the case of fracture tests. The material properties presented in the current work may provide a useful basis towards preliminary design with PEEK-based woven thermoplastic composites during service in aerospace applications.

Fig. 6 in Age and growth of the Amazonian migratory catfish Brachyplatystoma rousseauxii in the Madeira River basin before the construction of dams

Fig. 6. Length-at age distribution and von Bertalanffy growth function (solid lines) of Brachyplatystoma rousseauxii: a. females (N = 142); b. males (N = 95); and c. females, males and unsexed individuals pooled (N = 497) in the lower / middle (Brazil) and in the upper (Bolivia and Peru) Madeira River basin. In order to improve modelling for females (a) and males (b), unsexed individuals <60 cm (black dots) were also used.

Fig. 2 in Age and growth of the Amazonian migratory catfish Brachyplatystoma rousseauxii in the Madeira River basin before the construction of dams

Fig. 2. Transverse thin sections of Brachyplatystoma rousseauxii's otoliths showing: a. one ring; b. and c. two rings; d. eight rings; e. ten rings; and f. twenty rings. The yellow line marks the rings.

Fig. 7.a. Relationship between fish standard length and otolith radius for Brachyplatystoma rousseauxii below 80 in Age and growth of the Amazonian migratory catfish Brachyplatystoma rousseauxii in the Madeira River basin before the construction of dams

Fig. 7.a. Relationship between fish standard length and otolith radius for Brachyplatystoma rousseauxii below 80 cm (black circles, black line: y = 0.031x + 0.209, r² = 0.805, P <0.001) and above 80 cm (white triangles, broken line: y = 0.034x – 0.223, r² = 0.328, P <0.001); and b. relationship between fish age and otolith radius for B. rousseauxii below 80 cm (black circles, black line: y = 0.887ln(x) + 1.567, r² = 0.879, P <0.001) and above 80 cm (white triangles, broken line: y = 0.209ln(x) + 2.055, r² = 0.822, P <0.001), both in Madeira River basin.

Fig. 1 in Age and growth of the Amazonian migratory catfish Brachyplatystoma rousseauxii in the Madeira River basin before the construction of dams

Fig. 1. Map of the sampling sites of Brachyplatystoma rousseauxii in the Madeira River basin. 1- Puerto Maldonado, 2- Rurrenabaque, 3-Puerto Villarroel, 4-Surpresa, 5- Cachuela Esperanza, 6-Iata/Vila Murtinho, 7-São Sebastião, 8-São Carlos, 9- Calama and 10- Humaitá.

Fig. 3 in Age and growth of the Amazonian migratory catfish Brachyplatystoma rousseauxii in the Madeira River basin before the construction of dams

Fig. 3. Mean and standard deviation (SD) of each growth ring radius in otoliths of Brachyplatystoma rousseauxii from the Madeira River basin.

opencc-by-4.0Apr 2020View details →

Appendix_Bronze Age Swordsmanship: new insights from experiments and wear analysis

This Appendix contains a database including all primary data obtained from metalwork wear analysis on 110 British and Italian Bronze Age swords and all micrographs. Each sword has been allocated its own Sword ID. The micrograph for each individual mark can be located through Sword ID and ‘Picture reference’ in the database.

Fig 2 from: Wilson JD, Anner SC, Murphy SM, Tinghitella RM (2020) Consequences of advanced maternal age on reproductive investment of male offspring. Journal of Orthoptera Research 29(1): 71-76. https://doi.org/10.3897/jor.29.39228

Fig 2 Reproductive investment of male offspring by treatment. For all male offspring from both maternal age treatments: A. Testes mass; B. Spermatophore mold mass. There were no significant differences between treatments for either measure. Bars represent least square means ± SE.

Fig 1 from: Wilson JD, Anner SC, Murphy SM, Tinghitella RM (2020) Consequences of advanced maternal age on reproductive investment of male offspring. Journal of Orthoptera Research 29(1): 71-76. https://doi.org/10.3897/jor.29.39228

Fig 1 A diagram of our experimental mating design. We mated females at either a young age (7 days after eclosion to adulthood) or an old age (25 days after eclosion to adulthood) for two subsequent generations, then measured three proxies of reproductive investment in males of the F3 generation. The F3 families from the Old treatment were the offspring of 8 founding females and the F3 families from the Young treatment were the offspring of 7 founding females.

Fig. 30 in A taxonomic revision of geoemydid turtles from Siwalik-age of India and Pakistan

Fig. 30. IM E.92, holotype of Clemmys punjabiensis Lydekker, 1885, here identified Melanochelys sivalensis (Theobald, 1877) comb. nov. A. Photograph of carapace. B. Illustration of carapace. C. Photograph of carapace in lateral view. D. Illustration of carapace in lateral view. E. Photograph of plastron. F. Illustration of plastron. Scale bar: 3 cm.

Fig. 28 in A taxonomic revision of geoemydid turtles from Siwalik-age of India and Pakistan

Fig. 28. IM E.89, holotype of Clemmys theobaldi Lydekker, 1885, here identified as Melanochelys sivalensis (Theobald, 1877) comb. nov. A. Photograph of carapace. B. Illustration of carapace. C. Photograph of carapace in lateral view. D. Illustration of carapace in lateral view. E. Photograph of plastron. F. Illustration of plastron. Scale bar: 3 cm.

Fig. 18 in A taxonomic revision of geoemydid turtles from Siwalik-age of India and Pakistan

Fig. 18. IM E.110, referred to Pangshura flaviventer Günther, 1864 by Lydekker (1885a), here identified as Pangshura sp. A. Photograph of carapace. B. Illustration of carapace. C. Photograph of plastron. D. Illustration of plastron. Scale bar: 3 cm.

Fig. 14. BMNH 39841 in A taxonomic revision of geoemydid turtles from Siwalik-age of India and Pakistan

Fig. 14. BMNH 39841, holotype of Batagur durandi Lydekker, 1885, here identified as synonym of Batagur dhongoka (Gray, 1832). A. Photograph of carapace. B. Illustration of carapace. C. Photograph of plastron. D. Illustration of plastron. Scale bar: 3 cm.

Fig. 15 in A taxonomic revision of geoemydid turtles from Siwalik-age of India and Pakistan

Fig. 15. IM W19/173, previously undescribed, here identified as Batagur dhongoka (Gray, 1832). A. Photograph of carapace. B. Illustration of carapace. Scale bar: 3 cm.

Fig. 9 in A taxonomic revision of geoemydid turtles from Siwalik-age of India and Pakistan

Fig. 9. IM E.94, referred to Batagur falconeri Lydekker, 1885, here identified as Palatochelydia indet. A. Photograph of carapace. B. Illustration of carapace. Scale bar: 3 cm.