Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
1,112
datasets available to search
ShareScore release 0.9.0
Dataset results
1,112 results for “canalization”
Fig, 1. A map of Singapore and southern Johor showing the sites examined (Ο) and the locations where Brachidontes striatulus was collected (•) (locations 7a and 11). The locations are numbered in order of ascending salinity, except location 7a; 1: Sungei Mandai, 0‰; 2: West Coast, 1‰; 3, Sungei Danga, 2‰; 4, Kim Seng Canal, 2‰; 5, Sungei Sekudai, 5‰; 6, Sungei Serangoon, 9‰; 7, Siglap Canal, 10‰; 7a, Siglap Canal, 20‰; 8, Kallang River, 11‰; 9, Upper Rochor Canal, 12‰; 10, Kallang River, 13‰; 11, Lower Rochor Canal, 16‰; 12, Sungei Senibong, 17‰; 13, Whampoa/Kallang River junction, 19‰; 14, Rochor Canal mouth, 19‰; 15, Sungei Sembawang, 20‰; 16, Sungei Pandan, 22‰; 17, Sungei Plentong, 22‰; 18, Lim Chu Kang Road end, 24‰; 19, Sungei Simpang, 24‰; 20, Sembawang Park, 25‰; 21, Causeway, 25‰; 22, Kranji bund, 25‰; 23, Stulang Laut, 26‰; 24, West Coast Drain 2, 27‰; 25, Singapore River, 27‰. in Brachidontes Striatulus (Bivalvia Mytilidae) Introduced Into Singapore
Fig, 1. A map of Singapore and southern Johor showing the sites examined (Ο) and the locations where Brachidontes striatulus was collected (•) (locations 7a and 11). The locations are numbered in order of ascending salinity, except location 7a; 1: Sungei Mandai, 0‰; 2: West Coast, 1‰; 3, Sungei Danga, 2‰; 4, Kim Seng Canal, 2‰; 5, Sungei Sekudai, 5‰; 6, Sungei Serangoon, 9‰; 7, Siglap Canal, 10‰; 7a, Siglap Canal, 20‰; 8, Kallang River, 11‰; 9, Upper Rochor Canal, 12‰; 10, Kallang River, 13‰; 11, Lower Rochor Canal, 16‰; 12, Sungei Senibong, 17‰; 13, Whampoa/Kallang River junction, 19‰; 14, Rochor Canal mouth, 19‰; 15, Sungei Sembawang, 20‰; 16, Sungei Pandan, 22‰; 17, Sungei Plentong, 22‰; 18, Lim Chu Kang Road end, 24‰; 19, Sungei Simpang, 24‰; 20, Sembawang Park, 25‰; 21, Causeway, 25‰; 22, Kranji bund, 25‰; 23, Stulang Laut, 26‰; 24, West Coast Drain 2, 27‰; 25, Singapore River, 27‰.
FIGURE 4 in Organization of the cephalic lateral-line canals in Electrophorus varii de Santana, Wosiacki, Crampton, Sabaj, Dillman, Mendes-Júnior & Castro e Castro, 2019 (Gymnotiformes: Gymnotidae)
FIGURE 4 | Images of CT scan of the head of Electrophorus varii. A. dorsal and B. left lateral views of the cranium show the ossification of the lateral-line canals. The ossified segments of canals are marked by colors. Yellow: infraorbital canal; navy blue: mandibular canal; green: otic canal; purple: pre-opercular canal; pink: supraorbital canal; light blue: supratemporal canal; red: otic pit ossicles. ANG-AR: Angulo-articular; CLT: cleithrum; DT: dentary; ENT: entopterygoid; FR: frontal bone; HYO: Hyomandibular; IOP: interopercle; MET: mesethmoid; MTP: metapterygoid; OP: opercle; PAR: parietal; PMX: premaxila; POP: preopercle; PTO: pterotic; QU: quadrate; SP: sphenotic; SYM: sympletic. Specimen size = 82 cm TL.
FIGURE 1 in Organization of the cephalic lateral-line canals in Electrophorus varii de Santana, Wosiacki, Crampton, Sabaj, Dillman, Mendes-Júnior & Castro e Castro, 2019 (Gymnotiformes: Gymnotidae)
FIGURE 1 | Sampling areas (Adolpho Ducke Reserve and Purupuru Lake, Amazonas, Brazil) where individuals of Electrophorus varii were captured. The white stars represent the exact sampling spots.
FIGURE 3 in Organization of the cephalic lateral-line canals in Electrophorus varii de Santana, Wosiacki, Crampton, Sabaj, Dillman, Mendes-Júnior & Castro e Castro, 2019 (Gymnotiformes: Gymnotidae)
FIGURE 3 | Organization of the cephalic lateral-line canals in adult Electrophorus varii. Arrangement of all canals in A. dorsal, B. lateral and C. ventral views. Yellow: infraorbital canal; navy blue: mandibular canal; green: otic canal; purple: pre-opercular canal; pink: supraorbital canal; light blue: supratemporal canal; grey: posterior lateral-line canal of the trunk; red: otic pit (OP) between cephalic and trunk canals. The photographs are from a juvenile that completed the development and is morphologically similar to an adult. The drawings are from an individual of 148 cm TL.
FIGURE 2 in Organization of the cephalic lateral-line canals in Electrophorus varii de Santana, Wosiacki, Crampton, Sabaj, Dillman, Mendes-Júnior & Castro e Castro, 2019 (Gymnotiformes: Gymnotidae)
FIGURE 2 | Ontogenetic development of the lateral-line canals in larvae and juveniles of Electrophorus varii, in lateral and dorsal views. A. 1.9 cm TL; B. 2.5 cm TL; C. 3.0 cm TL; D. 5.0 cm TL; E. 9.0 cm TL; F. 38 cm TL. Types of dashes indicate the (1) shallow and short grooves on the skin; (2) deep grooves; (3) segments of grooves start enclosure; (4) pores of canals on the skin. Yellow: infraorbital canal; navy blue: mandibular canal; green: otic canal; purple: pre-opercular canal; pink: supraorbital canal; light blue: supratemporal canal; grey: posterior lateral-line canal of the trunk and; red: otic pit between cephalic and trunk canals. Arrows indicate short grooves of the presumptive infraorbital and mandibular canals.
Tropical Peatland Drainage Canal Methane Concentrations, Fluxes, and Isotopic Composition
<p>This dataset contains methane (CH<sub>4</sub>) concentration and <sup>13</sup>C isotope composition (δ<sup>13</sup>C-CH<sub>4</sub>) and environmental variables (canal dimensions, water quality, etc.) from canals draining peatlands in West Kalimantan, Indonesia. The data also contains CH<sub>4</sub> emissions measured using floating chambers and potential CH<sub>4</sub> oxidation rates and associated isotopic fractionation from a subset of studied canals, as well as porewater data from peat soils in the study region. Each data file contains a "README" tab with a guide for variable units and descriptions. </p> <p>File contents: </p> <ul> <li><strong>Canal_CH4_Survey_Perryman.xlsx </strong>= canal water CH<sub>4</sub> concentration and δ<sup>13</sup>C-CH<sub>4</sub> from a synpotic survey of canals in Kubu Raya Regency and Mempawah Regency, West Kalimantan, Indonesia. Data also includes canal properties, water chemistry, and estimates of the fraction of CH4 oxidized and diffusive emissions for each canal</li> <li><strong>Canal_Water_Incubations_Perryman.xlsx</strong> = measurements of dissolved CH<sub>4</sub> concentration and δ<sup>13</sup>C-CH<sub>4</sub> from canal water incubations</li> <li><strong>Floating_Chamber_Flux_Perryman.xlsx</strong> = CH<sub>4</sub> emissions and source δ<sup>13</sup>C-CH<sub>4 </sub>determined from floating chamber deployments on canals</li> <li><strong>Porewater_CH4_Perryman.xlsx </strong>= peatland porewater CH<sub>4</sub> concentration and δ<sup>13</sup>C-CH<sub>4</sub> from 6 profiles collected in the study area</li> </ul>
Linked collectors and determiners for: Monitoreos del proyecto construcción operación mantenimiento cierre y abandono del dragado de profundización y mantenimiento del canal de acceso a las terminales portuarias marítimas y fluviales públicas y privadas de Guayaquil.
Natural history specimen data linked to collectors and determiners held within, "Monitoreos del proyecto construcción operación mantenimiento cierre y abandono del dragado de profundización y mantenimiento del canal de acceso a las terminales portuarias marítimas y fluviales públicas y privadas de Guayaquil". Claims or attributions were made on Bionomia by volunteer Scribes, <a href="https://bionomia.net/dataset/1fca4cbc-c737-4819-9e03-892022b02acb">https://bionomia.net/dataset/1fca4cbc-c737-4819-9e03-892022b02acb</a> using specimen data from the dataset aggregated by the Global Biodiversity Information Facility, <a href="https://gbif.org/dataset/1fca4cbc-c737-4819-9e03-892022b02acb">https://gbif.org/dataset/1fca4cbc-c737-4819-9e03-892022b02acb</a>. Formatted as a Frictionless Data package.
Figures 247–252. Alimentary canal and reproductive organs. 247 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 247–252. Alimentary canal and reproductive organs. 247) ventriculus. 248) pyloric valve. 249) colon. 250) rectum. 251–252. Reproductive organs. 251) female. 252) male.
Figures 242–246. Alimentary canal, Enoclerus quadrisignatus. 242 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 242–246. Alimentary canal, Enoclerus quadrisignatus. 242) alimentary canal. 243) pharynx. 244) esophagus. 245) proventriculus. 246) stomodaeal valve.
Figures 231–241. Reproductive organs. 231–234. Pelonium spp. a-c. 231 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 231–241. Reproductive organs. 231–234. Pelonium spp. a-c. 231) sp. a, male. 232) sp. a, female. 233) sp. b, male. 234) sp. c, male. 235. Tarsostenodes leucogramma, male. 236–237. Females. 236) Blackburniella hilaris. 237) Parapylus sedlaceki. 238–239. Tarsostenus carus. 238) female. 239) male. 240) Tarsotenodes guttulus, female. 241) Dolichopsis haplocnemodes, female.
Figures 223–230. Reproductive organs. 223. Pelonium posticum, male. 224–225. Pelonium quadriplagiatum. 224 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 223–230. Reproductive organs. 223. Pelonium posticum, male. 224–225. Pelonium quadriplagiatum. 224) male. 225) female. 226–227. Pelonium semirufum. 226) male. 227) female. 228–230. Pelonium viridipenne. 228) female. 229) male. 230) male.
Figures 216–222 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 216–222. Reproductive organs, ventral nerve cord, and brain. 216) Pelonium leucophaeum, reproductive organs, female. 217) Pelonium lituratum, reproductive organs, female. 218) Pelonium nigroclavatum, reproductive organs, female. 219) Pelonium lituratum, ventral nerve cord and brain. 220–221. Pelonium peninsulare. 220) reproductive organs, male. 221) reproductive organs, female. 222) Pelonium placidum, reproductive organs, female.
Figures 195–200. Reproductive organs. 195. Tillus notatus, female. 196–197. Males. 196 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 195–200. Reproductive organs. 195. Tillus notatus, female. 196–197. Males. 196) Tillus sp. a. 197) Tillus sp. b. 198–200. Tilloidea unifasciata. 198) male. 199) female. 200) bursal plate.
Figures 201–207. Reproductive organs. 201–202. Iontoclerus sericeus. 201 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 201–207. Reproductive organs. 201–202. Iontoclerus sericeus. 201) male. 202) female. 203–204. Chariessa dichroa. 203) female. 204) male. 205–206. Chariessa pilosa. 205) male. 206) female. 207) Chariessa vestita, male.
Figures 185–194. Reproductive organs and alimentary canals. 185 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 185–194. Reproductive organs and alimentary canals. 185. Monophylla californica, reproductive organs, female.. 186–189. Onichotillus vittatus. 186) alimentary canal. 187) reproductive organs, male. 188) reproductive organs, female. 189) bursal plate. 190) Orthocladiscus dispar, reproductive organs, male. 191) Pallenis sp. reproductive organs, female. 192–194. Tillus elongatus. 192) reproductive organs, male. 193) reproductive organs, female. 194) alimentary canal.
Figures 171–184. Reproductive organs. 171–172. Cymatodera serena. 171 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 171–184. Reproductive organs. 171–172. Cymatodera serena. 171) female. 172) bursal plate. 173) Cymatodera tutoides, male. 174–176. Cymatodera undulata. 174) female. 175) male. 176) bursal plate. 177) Monophylla terminata, female. 178) Lecontella cancellata, male. 179) Lecontella gnara, female. 180–81. Bursal plates. 180) Monophylla terminata. 181) Lecontella cancellata. 182–183. Males. 182) Monophylla californica. 183) Monophylla terminate. 184) Lecontella cancellata.
Figures 163–170. Reproductive organs. 163–164. Cymatodera horni. 163 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 163–170. Reproductive organs. 163–164. Cymatodera horni. 163) male. 164) female. 165) Cymatodera inornata, male. 166–168. Cymatodera latefasciata. 166) male. 167) female. 168) bursal plate. 169) Cymatodera oblita, female. 170) Cymatodera tricolor, female.
Figures 208–215. Reproductive organs. 208 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 208–215. Reproductive organs. 208) Pelonium alcicorne, female. 209) Pelonium amabile. male. 210–211. Pelonium auripenne. 210) male. 211) female. 212) Pelonium badeni, male. 213–214. Pelonium fasciculatum. 213) male. 214) female. 215) Pelonium disconotatum, male.
Figures 147–162. Reproductive organs. 147–148. Cymatodera aegra. 147 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 147–162. Reproductive organs. 147–148. Cymatodera aegra. 147) female. 148) bursal plate. 149–151. Cymatodera undata. 149) male. 150) bursal plate. 151) female. 152–154. Cymatodera antennata. 152) bursal plate. 153) female. 154) male. 155–157. Cymatodera dietrichi. 155) male. 156) bursal plate. 157) female. 158) Cymatodera bicolor female.159–160. Cymatodera californica. 159) bursal plate. 160) female. 161–162. Cymatodera fuchsii. 161) bursal plate. 162) female.
Figures 123–131. Reproductive organs. 123 in Morphologic studies of the alimentary canal and internal reproductive organs of the Chaetosomatidae and the Cleridae (Coleoptera: Cleroidea) with comparative morphology and taxonomic analyses
Figures 123–131. Reproductive organs. 123) Thanasimus formicarius female.124–125 Thanasimus ceylonicus. 124) male. 125) female. 126–127) Thanasimus rufipes males. 128–130. Trichodes alvearius. 128) male. 129) spermatophore. 130) female. 131). Trichodes apiarius, male.
ScienceDex guides
Understand access before you commit
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.