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FIGURE 1 in Further studies on south eastern Asian Luciolinae: 1. Sclerotia Ballantyne, a new genus of fireflies with back swimming larvae 2. Triangulara Pimpasalee, a new genus from Thailand (Coleoptera: Lampyridae)

FIGURE 1. The first of two sections of the Majority rule tree, consensus of 562 MPT of length 5687 from phylogenetic analysis of 145 taxa and 438 morphological characters in Ballantyne et al.(2015, Fig. 1A) showing Sclerotia Ballantyne gen. nov. and Triangulara Pimpasalee gen. nov. and % of MPTs with the node. For those nodes found in 100% of MPT, the % is shown in bold.

FIGURES 32−38 in Further studies on south eastern Asian Luciolinae: 1. Sclerotia Ballantyne, a new genus of fireflies with back swimming larvae 2. Triangulara Pimpasalee, a new genus from Thailand (Coleoptera: Lampyridae)

FIGURES 32−38. Scl. brahmina aedeagal sheath (32−36) and aedeagus (36−38). 32, 37 ventral; 33, 36, 38 dorsal (36 with aedeagus still within sheath); 34 left lateral; 35 right lateral. Scale lines are 1 mm. Figure legend: A junction right tergite arm and sternite; B junction left tergite arm and sternite; C emargination posterior margin sternite; D prolongation anterior margin tergite; E posterior margin BP; F anterior margin ML; G anterior margin dorsal surface base LL; H attachment of median lobe on inner surface of base of lateral lobes.

FIGURE 3 in Further studies on south eastern Asian Luciolinae: 1. Sclerotia Ballantyne, a new genus of fireflies with back swimming larvae 2. Triangulara Pimpasalee, a new genus from Thailand (Coleoptera: Lampyridae)

FIGURE 3. Neighbour Joining bootstrap consensus tree of several aquatic fireflies in South East Asia, with firefly Pyrocoelia pectoralis as outgroup.

FIGURES 4−12. Luciolinae Table 3. 4−6 in Further studies on south eastern Asian Luciolinae: 1. Sclerotia Ballantyne, a new genus of fireflies with back swimming larvae 2. Triangulara Pimpasalee, a new genus from Thailand (Coleoptera: Lampyridae)

FIGURES 4−12. Luciolinae Table 3. 4−6 Luciola ambita male (MNHN). 7−9 Luciola delauneyi male (MNHN). 10−12 Luciola flebilis female (MNHN).4, 7, 10 specimen label; 5, 9, ventral (9 abdomen only); 6, 8, 11 dorsal (6 anterior body only; 8 elytra only); 12 right lateral. Scale line is 1 mm. Figs 6,8,9,11,12 are not to scale.

FIGURES 29−31 in Further studies on south eastern Asian Luciolinae: 1. Sclerotia Ballantyne, a new genus of fireflies with back swimming larvae 2. Triangulara Pimpasalee, a new genus from Thailand (Coleoptera: Lampyridae)

FIGURES 29−31. Scl. seriata holotype male, aedeagal sheath, sclerites and tergite 8. 29 right side from slightly below; 30 ventral; 31 dorsal. Scale lines are 1 mm. Figure legend: 1 right sclerite; 2 left sclerite; 3 ventral sclerite; 4 aedeagal sheath; 5 emargination posterior margin aedeagal sheath sternite; 6 emargination anterior margin aedeagal sheath tergite.

opencc-by-sa-4.0Nov 2023View details →

olympic_swimming_dataset

Dataset de la Práctica 1 de la asignatura Tipología y Ciclo de vida de los Datos.

opennotspecifiedDec 2005View details →

Fig. 2 in The Swimming Behavior of the Aquatic Larvae of the Firefly Luciola substriata (Coleoptera: Lampyridae)

Fig. 2. Patterns of leg movements when L. substriata larva are in back swimming mode. Large arrows indicate the direction of larval movement. Small arrows indicate the direction of leg movements.

opennotspecifiedDec 2005View details →

Fig. 1 in The Swimming Behavior of the Aquatic Larvae of the Firefly Luciola substriata (Coleoptera: Lampyridae)

Fig. 1. Back swimming behavior of L. substriata, final larvae. a) Swimming with ventral side up when searching for prey; b) turning in an anticlockwise direction. P, pygopodium.

opencc-by-4.0Nov 2023View details →

Dataset for publication "The effect of formation swimming on tailbeat and breathing frequencies in killer whales"

Data collected by the Center for Whale Research under federal permit provided by National Marine Fisheries Service (permit number 21238). Observation of the Southern Resident killer whale population (Orcinus orca) with aerial drone-based videos recorded during the summer season in 2019 and 2021. Observations conducted during formation swimming sequences in which the whales displayed a directional and regular cruising swimming pattern (i.e., without sharp changes in direction, chasing prey, social interactions, or surface-active behaviors) to estimate their relative energetic expenditure by estimating the breathing frequency and tailbeat frequency of each individual depending on its positioning relative to the other whales.

Fig. 1. A, C, D in Histological description of specialized rootlets of the akentrogonid rhizocephalan Diplothylacus sinensis (Keppen, 1877) (Thompsoniidae) invading nervous ganglia of the blue swimming crab Portunus pelagicus

Fig. 1. A, C, D - rootlets of Diplothylacus sinensis infiltrating nervous ganglia of the host Portunus pelagicus; B - rootlets of D. sinensis in the nerves originating from the ganglia. 1 - nervous tissue, 2 - ganglion envelope, 3 - rootlets of D. sinensis, 4 - nerve, 5 – hypodermal cell layer in rootlets of type 1, 6 - central lumen in rootlets of type 1, 7 - rootlets enveloped in host's membranous structures.

Fig. 4 in Histological description of specialized rootlets of the akentrogonid rhizocephalan Diplothylacus sinensis (Keppen, 1877) (Thompsoniidae) invading nervous ganglia of the blue swimming crab Portunus pelagicus

Fig. 4. General scheme of different rootlets. A – fused ventral nervous ganglia; B - rootlets of type 1; C - rootlets of type 2; D - rootlets of type 3; E rootlets of type 4. 1 - fused ventral nervous ganglia, 2 - rootlets, 3 - cuticle, 4 - hypodermal cell layer, 5 - subcuticular space, 6 - central lumen, 7 - chaotically dispersed cells, 8 - vesicles stained by fuchsin and orange G, 9 - vesicles stained by aniline blue. (For interpretation of the references to colour/colour in this figure legend, the reader is referred to the Web version of this article.)

Fig. 2. A, B, C in Histological description of specialized rootlets of the akentrogonid rhizocephalan Diplothylacus sinensis (Keppen, 1877) (Thompsoniidae) invading nervous ganglia of the blue swimming crab Portunus pelagicus

Fig. 2. A, B, C - rootlets (type 2) in the nervous tissue of the host; D - rootlets (type 3). 1 - nervous tissue, 2 - cuticle, 3 - subcuticular space with blue homogeneous content, 4 - hypodermal cell layer, 5 - central lumen, 6 - empty roundish spaces in the subcuticular space, 7 - randomly dispersed cells in a rootlet (type 3). (For interpretation of the references to colour/colour in this figure legend, the reader is referred to the Web version of this article.)

Fig. 3. A, B in Histological description of specialized rootlets of the akentrogonid rhizocephalan Diplothylacus sinensis (Keppen, 1877) (Thompsoniidae) invading nervous ganglia of the blue swimming crab Portunus pelagicus

Fig. 3. A, B - rootlets (type 4) in the nervous tissue of the host. 1 - nervous tissue, 2 - hypodermal cell layer, 3 - central lumen, 4 - vesicles stained by fuchsin and orange G, 5 - vesicles stained by aniline blue. (For interpretation of the references to colour/colour in this figure legend, the reader is referred to the Web version of this article.)

opencc-by-nc-1.0Dec 2021View details →

Tarlair Open Air Swimming Pool

Tarlair Open Air Swimming Pool, Macduff. Opened in the 1930's Photogrammetry model created using Reality Capture. 300 images captured with a DJI mini 2 drone. Source: Objaverse 1.0 / Sketchfab

960 fps Swimming performance videos for analysis

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960 fps Swimming behavior videos (cell phone, in lateral view)

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1000 fps Swimming behavioral videos (high-speed camera, in dorsal view)

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Measurements (including swimming performance data, body sizes/weights)

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opencc-zeroDec 2021View details →

dryad32/100

Input data for estimating dimensionless number (Reynolds, Swimming and Strouhal number) of swimming penguin

Propulsion performance of swimming and flying animals is often evaluated by using dimensionless numbers, such as the Strouhal and Reynolds numbers. They have been shown to allow better understanding of locomotion efficiency, using relatively simple approaches and avoiding overly complex computational models. Specifically, it has been reported that efficient propulsion is more likely to occur when Strouhal number values – estimated from propulsive frequencies and amplitudes – are within a relatively narrow range, depending on the corresponding Reynolds number, broadly expressing the fluid resistance to the animal motion. We have estimated both Strouhal and Reynolds numbers for seven species of penguins after analysing relevant kinematic data taken from the literature. The obtained values neatly indicate that, as expected, penguins employ efficient propulsion mechanisms. Additionally, by comparing these values with those for alcids – seabirds that can also fly – we have found that penguins swim at least as efficiently as alcids. However, we have also found that the swimming number – proportional to the product of Strouhal and Reynolds numbers – neatly correlates to the diving abilities of the considered species and apparently indicates, in a straightforward hierarchical manner, the gains in diving due to the loss of flying abilities. Within the penguin species, a clear correlation is also observed between diving performance and drag coefficient values.