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5,931 results for “laterality”
Figs 8–19. Synergus gifuensis and S. japonicus. 8–11, 16, 18. S. gifuensis. 12–15, 17, 19. S. japonicus. 8, 12. Head, dorsal view. 9, 13. Head, frontal view. 10, 14. Mesosoma, dorsal view. 11, 15. Metasoma, lateral view. 16–17 in Taxonomic review of East Palearctic species of Synergus section I, with description of a new species from China (Hymenoptera: Cynipidae: Cynipinae)
Figs 8–19. Synergus gifuensis and S. japonicus. 8–11, 16, 18. S. gifuensis. 12–15, 17, 19. S. japonicus. 8, 12. Head, dorsal view. 9, 13. Head, frontal view. 10, 14. Mesosoma, dorsal view. 11, 15. Metasoma, lateral view. 16–17. First and second flagellomeres of male antenna. 18–19. First flagellomere of female antenna.
Dataset related to article "Decoding distinctive features of plasma extracellular vesicles in amyotrophic lateral sclerosis"
<p>The mass spectrometry proteomics data have been deposited at the ProteomeXchange Consortium (<a href="http://proteomecentral.proteomexchange.org/cgi/GetDataset">http://proteomecentral.proteomexchange.org/cgi/GetDataset</a>) via the PRIDE partner repository with the data set identifier PXD020629.</p>
Figures 15–20. Aedeagus, lateral. 15 in Synopsis of the tribe Amarotypini in New Zealand (Coleoptera: Carabidae)
Figures 15–20. Aedeagus, lateral. 15) Amaroxenus glacialis new species. 16) Amaroxenus huttensis new species. 17) Amaroxenus kahurangiensis new species. 18) Amarophilus otagoensis new species. 19) Amarophilus lomondensis new species. 20) Amarophilus wanakensis new species.
Data from: Adaptive multi-objective control explains how humans make lateral maneuvers while walking
<p>To successfully traverse their environment, humans often perform maneuvers to achieve desired task goals while simultaneously maintaining balance. Humans accomplish these tasks primarily by modulating their foot placements. As humans are more unstable laterally, we must better understand how humans modulate lateral foot placement. We previously developed a theoretical framework and corresponding computational models to describe how humans regulate lateral stepping during straight-ahead continuous walking. We identified goal functions for step width and lateral body position that define the walking task and determine the set of all possible task solutions as Goal Equivalent Manifolds (GEMs). Here, we used this framework to determine if humans can regulate lateral stepping during non-steady-state lateral maneuvers by minimizing errors consistent with these goal functions. Twenty young healthy adults each performed four lateral lane-change maneuvers in a virtual reality environment. Extending our general lateral stepping regulation framework, we first re-examined the requirements of such transient walking tasks. Doing so yielded new theoretical predictions regarding how steps during any such maneuver should be regulated to minimize error costs, consistent with the goals required at each step and with how these costs are adapted at each step during the maneuver. Humans performed the experimental lateral maneuvers in a manner consistent with our theoretical predictions. Furthermore, their stepping behavior was well modeled by allowing the parameters of our previous lateral stepping models to adapt from step to step. To our knowledge, our results are the first to demonstrate humans might use evolving cost landscapes in real time to perform such an adaptive motor task and, furthermore, that such adaptation can occur quickly – over only one step. Thus, the predictive capabilities of our general stepping regulation framework extend to a much greater range of walking tasks beyond just normal, straight-ahead walking.</p>
Fig. 2. Atherigona parviclivis Muller, 2015. a. Trifoliate process, ventral. b. Same, lateral. c. Hypopygial prominence, dorsal. d in Some Afrotropical species of Atherigona Rondani (Diptera: Muscidae) revisited and a new species described
Fig. 2. Atherigona parviclivis Muller, 2015. a. Trifoliate process, ventral. b. Same, lateral. c. Hypopygial prominence, dorsal. d. Same, lateral.
Figures 36–43. Male right paramere, inner lateral. 36 in Synopsis of the subfamily Carventinae in New Zealand (Heteroptera: Aradidae)
Figures 36–43. Male right paramere, inner lateral. 36) Carventaptera spinifera. 37) C. hallae new species. 38) Modicarventus kirmani new species. 39) Neocarventus angulatus. 40) N. potterae new species. 41) N. montanus new species. 42) N. northlandicus new species. 43) Tuataraptera unca.
FIG. 79. Male terminalia, A. laevifurca. A. Epandrium and cerci. B. Ejaculatory apodeme. C. Lateral view. D. Aedeagal apodeme. E. Paraphyses, lateral view. F in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 79. Male terminalia, A. laevifurca. A. Epandrium and cerci. B. Ejaculatory apodeme. C. Lateral view. D. Aedeagal apodeme. E. Paraphyses, lateral view. F. Ventral view. (Am 1416, holotype).
FIG. 76. Male terminalia, A. floridiensis. A. Epandrium and cerci. B. Lateral view. C in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 76. Male terminalia, A. floridiensis. A. Epandrium and cerci. B. Lateral view. C. Ventral view of hypandrium, paraphyses, and subepandrial sclerite. D. Inner paraphysis. E. Aedeagal apodeme. F. Surstylus. (Am 174, holotype).
FIG. 75. Male terminalia, A. didens. A. Epandrium and cerci. B. Lateral view. C in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 75. Male terminalia, A. didens. A. Epandrium and cerci. B. Lateral view. C. Subepandrial sclerite and surstylus, ventral view. D. Ejaculatory apodeme. E. Posterior view. F. Outer paraphysis, lateral view. (Am 444, holotype).
FIG. 74. Male terminalia, A. buccata Wheeler. A. Epandrium and cerci. B. Lateral view. C. Ventral view. D. Aedeagal apodeme. E in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 74. Male terminalia, A. buccata Wheeler. A. Epandrium and cerci. B. Lateral view. C. Ventral view. D. Aedeagal apodeme. E. Surstylus. (Am 14, paratype).
FIG. 78. Male terminalia, A. imperator. A. Epandrium and cerci. B. Surstylus. C. Lateral view, with ejaculatory apodeme. D in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 78. Male terminalia, A. imperator. A. Epandrium and cerci. B. Surstylus. C. Lateral view, with ejaculatory apodeme. D. Surstyli, subepandrial sclerite, hypandrium, ventral view. E. Inner paraphysis and detail. F. Ventral view. G. (?) Aedeagus. (Am 315).
FIG. 66. A. Head and B. lateral view, A. nagatai species group. A in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 66. A. Head and B. lateral view, A. nagatai species group. A. raripennis, sp. nov. (Am 298, holotype, lateral image flipped).
FIG. 67. Male terminalia, A. raripennis. A. Epandrium and cerci. B. Lateral view. C. Ejaculatory apodeme. D in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 67. Male terminalia, A. raripennis. A. Epandrium and cerci. B. Lateral view. C. Ejaculatory apodeme. D. Ventral view. (Am 298, holotype).
FIG. 80. Male terminalia, A. sinaloensis. A. Epandrium and cerci. B. Ejaculatory apodeme. C. Lateral view. D. Aedeagal apodeme. E in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 80. Male terminalia, A. sinaloensis. A. Epandrium and cerci. B. Ejaculatory apodeme. C. Lateral view. D. Aedeagal apodeme. E. Ventral view, surstyi, apex of subepandrial appendage, hypandrium, and paraphyses. F. Outer paraphyses, dorsal view. (Am 1419, holotype).
FIG. 59. Male terminalia, A. subnebojsa. A. Posteroventral view. B. Ejaculatory apodeme. C. Lateral view. D in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 59. Male terminalia, A. subnebojsa. A. Posteroventral view. B. Ejaculatory apodeme. C. Lateral view. D. Subepandrial sclerite, ventral view of apex. E. Surstylus. F. Aedeagal apodeme. G. Paraphyses, ventral view. (Am 443, holotype).
FIG. 58. Male terminalia, A. oviraptor. A. Epandrium and cerci. B. Ejaculatory apodeme. C. Lateral view. D in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 58. Male terminalia, A. oviraptor. A. Epandrium and cerci. B. Ejaculatory apodeme. C. Lateral view. D. Paraphyses, hypandrium, apex of subepandrial appendage, ventral view. E. Detail of subepandrial appendage. F. Aedeagal apodeme. G. Surstyli and subepandrial sclerite (with muscle scars), ventral view. (Am 1506, paratype).
FIG. 57. Male terminalia, A. occidentalis. A. Posteroventral view. B. Ejaculatory apodeme. C. Lateral view, including sternite 6 in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 57. Male terminalia, A. occidentalis. A. Posteroventral view. B. Ejaculatory apodeme. C. Lateral view, including sternite 6 sac (shaded). D. Surstyli, hypandrium, subepandrial sclerite, anterior view. (Am 524).
FIG. 55. Male terminalia, A. latilabrum. A. Surstylus. B. Ejaculatory apodeme. C. Lateral view. D. Aedeagal apodeme. E in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 55. Male terminalia, A. latilabrum. A. Surstylus. B. Ejaculatory apodeme. C. Lateral view. D. Aedeagal apodeme. E. Subepandrial sclerite and appendage, paraphyses, hypandrium, ventral view. (Am 2, holotype).
FIG. 32. Male terminalia, A. elsaltoensis. A. Epandrium and cerci. B. Lateral view with ejaculatory apodeme. C in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 32. Male terminalia, A. elsaltoensis. A. Epandrium and cerci. B. Lateral view with ejaculatory apodeme. C. Hypandrium and paraphyses, ventral view. D. Paraphyses, lateral view. E. Aedeagal apodeme. F. Surstyli. G. Paraphyses, dorsal view. (Am 1455, holotype).
FIG. 27. Male terminalia, A. wheeleri. A. Epandrium and cerci. B. Lateral view. C in Revision Of The Nearctic Species Of The Genus Amiota Loew (Diptera: Drosophilidae)
FIG. 27. Male terminalia, A. wheeleri. A. Epandrium and cerci. B. Lateral view. C. Hypandrium, paraphyses, subepandrial sclerite, posterior view. D. Surstylus. E. Aedeagal apodeme. (Am 73, holotype).
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.