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Figure 6 in Fighting an invasive fish parasite in subarctic Norwegian rivers - The end of a long story?

Figure 6. Temperature at 10 cm depth in substrate at a groundwater influenced riverbank before, during and after flooding the riverbed with rotenone-treated water. The curve shows an instant temperature rise, indicating rotenone treated surface water intruding the groundwater fed substrate.

Figure 5. Crew placing a in Fighting an invasive fish parasite in subarctic Norwegian rivers - The end of a long story?

Figure 5. Crew placing a rotenone disc in a small brook. Brooks of this size were numerous, often remote and typically inhabited with potentially infected arctic char juveniles. The rotenone disc replaced the more bulky 20 litre-can drip stations. Photograph by Dag H. Karlsen.

Figure 4. Spraying a in Fighting an invasive fish parasite in subarctic Norwegian rivers - The end of a long story?

Figure 4. Spraying a groundwater-fed side channel of the Skibotn River with portable backpack mounted pump. Surviving G. salaris infested arctic char was found in this location after the previous treatments in 1988 and 1995. In 2015 and 2016 this and similar locations was treated several times by different teams using both Vectocarb, CatSan hygiene litter saturated with CFT-Legumine and conventional spraying with water of high rotenone concentration. Photograph by Dag H. Karlsen.

Figure 2 in Fighting an invasive fish parasite in subarctic Norwegian rivers - The end of a long story?

Figure 2. Mapping of groundwater influx in the River Signaldalselva. The mapping was done by parallel logging of GPS position and temperatures along the riverbanks at late summer, the time of year with the highest temperature contrasts between surface water and upwelling groundwater. Photograph by Norwegian Veterinary Institute.

Figure 1 in Fighting an invasive fish parasite in subarctic Norwegian rivers - The end of a long story?

Figure 1. The large map shows the rivers (in red) with G. salaris in the Skibotn Region. Orange marks rivers treated without findings of the parasite. All rivers and brooks potentially inhabiting salmonids south of the black line across the Lyngen-fjord were treated. Inserted map shows the location in Norway.

Figure 3 in Fighting an invasive fish parasite in subarctic Norwegian rivers - The end of a long story?

Figure 3. Spraying the riverbank of the River Signaldalselva with water of high rotenone concentration. The iconic mountain Otertind in the background. Photograph by Dag H. Karlsen.

opencc-by-4.0Jun 2023View details →

Comparing long-term power sector pathways in Viet Nam: a simple cost-optimization approach with OSeMOSYS

Six clicSAND files for OSeMOSYS Modelling in Viet Nam. The six files depict six different scenarios: 1. Power Development Plan 7-based scenario 2. Power Development Plan 8-based scenario 3. Renewable Energy Development Strategy-based scenario 4. Renewables-Led Pathway-based scenario 5. Net Zero 6. Clean Efficient Transition The Reference Energy System (RES) is also included to represent the relationship between estimated energy demands, energy conversion technologies, fuel mixes, and the resources required to satisfy the demands in the study.

Figure 4 in Skeletochronology in long tubular bones of the Javan water monitor lizard, Varanus salvator bivittatus in the juvenile stage (Lacertilia: Varanidae)

Figure 4. Cross sections of the diaphysis fibula bone in four individuals with SVLs between 14.4 cm to 25.0 cm. Dotted arrow: endosteal bone; black solid arrow: LAG; red solid arrow: resorption line (RL); yellow solid arrow: additional resting Line (AdL). The scale bar is equal to 200 m.

Figure 1 in Skeletochronology in long tubular bones of the Javan water monitor lizard, Varanus salvator bivittatus in the juvenile stage (Lacertilia: Varanidae)

Figure 1. Measurement of bone cross section. d: the longest part of the marrow cavity; D: the longest part of the bone diameter; MP: the widest point of bone thickness.

Figure 3 in Skeletochronology in long tubular bones of the Javan water monitor lizard, Varanus salvator bivittatus in the juvenile stage (Lacertilia: Varanidae)

Figure 3. Cross section of the seven long tubular bones of a juvenile female Varanus salvator bivittatus with one LAG (SVL: 22.2 cm). MC: marrow cavity; dotted arrow: endosteal bone; red solid arrow: LAG.

Figure 2 in Skeletochronology in long tubular bones of the Javan water monitor lizard, Varanus salvator bivittatus in the juvenile stage (Lacertilia: Varanidae)

Figure 2. Cross section of the seven long tubular bones of juvenile male Varanus salvator bivittatus with zero LAG (SVL: 14.4 cm). MC: marrow cavity; dotted arrow: endosteal bone.

Fig. 2 in Growth dynamics and body size evolution of South American long-necked chelid turtles: A bone histology approach

Fig. 2. Stylopodial bones of chelid turtles sampled in this study, showing the position where the thin sections were obtained (gray bar) and the complete shaft section in each element. A–D. Hydromedusa tectifera Cope, 1869; Recent, La Plata, Buenos Aires province, Argentina. A. MLPR-6291, dorsal view of the left humerus (A1), cross section (A2). B. MLPR-6291, dorsal view of the left femur (B1), cross section (B2). C. MLPR-6411, dorsal view of the right humerus (C1), cross section (C2). D. MLPR-6411, dorsal view of the right femur (D1), cross section (D2). E–G. Yaminuechelys maior (Staesche, 1929); Cerro Hansen, Danian of Salamanca Formation, Chubut Province, Argentina. E. MPEFPV-599, dorsal view of the right humerus (E1), cross section (E2). F. MPEFPV-599, dorsal view of the left femur (F1), cross section (F2). G. MLP-14-9-23-1, dorsal view of the left humerus (G1), cross section (G2). Note that the expansion of the medullary region is higher in Y. maior than in H. tectifera (see discussion in the text).

Fig. 3 in Growth dynamics and body size evolution of South American long-necked chelid turtles: A bone histology approach

Fig. 3. Stylopodial bone histology of chelid turtle Yaminuechelys maior (Staesche, 1929), Cerro Hansen, Danian, Paleocene of Salamanca Formation, Chubut Province, Argentina (Bona and De la Fuente 2005). A. MPEFPV-599, humerus: dorsal (A1), dorsomedial (A2), dorsolateral (A3), and lateral (A4) areas. B. MLP-14-9-23-1, humerus: lateral (B1), dorsal (B2), medial (B3), and ventral (B4) areas. Arrowheads in A1 and B4 indicate lines of arrested growth. C. MPEFPV-599, femur: dorsal (C1), dorsolateral (C2), and ventral (C3, C4) areas. Photographs under normal light (A1, A4, B3), under polarized light (C4), under polarized light with lambda compensator (A2, A3, B1, B2, B4, C1–C3). Abbreviations: LVC, simple longitudinal vascular canals; PFB, parallel-fibered bone; RS, resorption cavities; RVC, simple radial vascular canals; SF, Sharpey's fibres.

Fig. 4 in Growth dynamics and body size evolution of South American long-necked chelid turtles: A bone histology approach

Fig. 4. Stylopodial bone histology of chelid turtle Hydromedusa tectifera Cope, 1869; Recent, La Plata, Buenos Aires province, Argentina. A. MLPR-6474, humerus: dorsolateral (A1) and ventral (A2) areas. B. MLPR-6474, femur: ventral (B1) and dorsal (B2) areas. C. MLPR-6291, humerus: dorsal (C1) and ventral (C2) areas. D. MLPR-6291, femur: lateral (D1) and ventrolateral (D2) areas; annuli, yellow A; zones, green Z. E. MLPR-6411, humerus: dorsal (E1) and ventral (E2) areas. F. MLPR-6411, femur: lateral areas (F1, F2). Arrowheads in E2 and F2 indicate lines of arrested growth. Photographs under normal light (B1, B2, D1, E1, F2), under polarized light (E2), under polarized light with lambda compensator (A1, A2, C1, C2, D2, F1). Abbreviations: LVC, simple longitudinal vascular canals; PFB, parallel-fibered bone; RS, resorption cavities; SF, Sharpey's fibers.

Fig. 1 in Growth dynamics and body size evolution of South American long-necked chelid turtles: A bone histology approach

Fig. 1. Size distribution of chelid turtles represented in two different phylogenetic hypotheses from Maniel et al. (2018). Both topologies recover two alternative hypotheses (orange): the monophyly of the South American chelid clade (A) and the monophyly of the of the long necked chelid turtles (B) see Maniel et al. 2018, for more information). Grey, species smaller than 20 cm; green, 20–60 cm; blue and bold, larger than 60 cm. The size is based on the carapace length.

Figures 116–128 in The long-horned caddisfly genus Oecetis (Trichoptera: Leptoceridae) in Australia: two new species groups and 17 new species

Figures 116–128, distribution of species within Australia: 116, Oecetis spicata sp. nov.; 117, O. crena sp. nov.; 118, O. quadrata sp. nov.; 119, O. dilata sp. nov.; 120, O. koobarra sp. nov.; 121, O. falcata sp. nov.; 122, O. terania sp. nov.; 123, O. papposa sp. nov.; 124, O. curta sp. nov.; 125, O. aduncata sp. nov.; 126, O. ornata Kimmins; 127, O. cepaforma sp. nov.; 128, O. dostinei sp. nov.

Figures 101–115 in The long-horned caddisfly genus Oecetis (Trichoptera: Leptoceridae) in Australia: two new species groups and 17 new species

Figures 101–115, distribution of species within Australia: 101, Oecetis laustra Mosely; 102, O. pseudolaustra sp. nov.; 103, O. atarpa Mosely; 104, O. scirpicula Neboiss; 105, O. inscripta Kimmins; 106, O. brevidentata sp. nov.; 107, O. asmanista Mosely; 108, O. minasata Mosely; 109, O. aeoloptera Kimmins; 110, O. multipunctata Ulmer; 111, O. cracenta sp. nov.; 112, O. parka Mosely; 113, O. arcada Mosely; 114, O. cymula Neboiss; 115, O. paracymula, sp. nov.

Figures 70–73 in The long-horned caddisfly genus Oecetis (Trichoptera: Leptoceridae) in Australia: two new species groups and 17 new species

Figures 70–73, Oecetis papposa sp. nov.: 70–72, male genitalia in ventral, dorsal and lateral views; 73, fore- and hind wings. Figures 74–76, O. curta sp. nov., male genitalia, ventral, dorsal and lateral views. Figures 77–79, O. aduncata sp. nov.: male genitalia, ventral, dorsal and lateral views.

Figure 11 in The long-horned caddisfly genus Oecetis (Trichoptera: Leptoceridae) in Australia: two new species groups and 17 new species

Figure 11, Oecetis scirpicula Neboiss, male genitalia, lateral view [from Neboiss, 1977]. Figures 12–14, O. inscripta Kimmins: 12, forewing; 13, 14, male inferior appendages in ventral view, genitalia in lateral view [from Mosely and Kimmins, 1953]. Figures 15–18, O. brevidentata sp. nov.: 15, forewing; 16–18, male genitalia, ventral, dorsal and lateral views. Figure 19, 20, O. asmanista Mosely, male genitalia, ventral and lateral views [from Mosely and Kimmins, 1953].

Figures 39, 40 in The long-horned caddisfly genus Oecetis (Trichoptera: Leptoceridae) in Australia: two new species groups and 17 new species

Figures 39, 40, Oecetis arcada Mosely, male genitalia, ventral and lateral views [from Mosely and Kimmins, 1953]. Figures 41–42, O. cymula Neboiss, male genitalia, ventral, dorsal and lateral views [from Neboiss, 1982]. Figures 43–46, O. paracymula, sp. nov., male genitalia, ventral, dorsal and lateral views. Figures 47–49, O. spicata sp. nov., male genitalia, ventral, dorsal and lateral views.