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234 results for “molecular characterisation”
Figure 7 in Redescription and molecular characterisation of the predatory isopod Tachaea spongillicola Stebbing, 1907 (Isopoda: Corallanidae) infesting the freshwater fish Pangasius silasi from India
Figure 7. Molecular phylogenetic relationships among Indian Cymothooidea taxa obtained based on cytochrome oxidase I sequences.
Figure 2. Tachaea spongillicola Stebbing, 1907 in Redescription and molecular characterisation of the predatory isopod Tachaea spongillicola Stebbing, 1907 (Isopoda: Corallanidae) infesting the freshwater fish Pangasius silasi from India
Figure 2. Tachaea spongillicola Stebbing, 1907, (a–b) non-ovigerous female (7.2 mm; NBFGR/CORTSPO I-01). (a) dorsal view; (b) lateral view; (c) male dorsolateral view (5.4 mm) (NBFGR/CORTSPO I-05).
Figure 1. Tachaea spongillicola Stebbing, 1907 in Redescription and molecular characterisation of the predatory isopod Tachaea spongillicola Stebbing, 1907 (Isopoda: Corallanidae) infesting the freshwater fish Pangasius silasi from India
Figure 1. Tachaea spongillicola Stebbing, 1907, (a–b) non-ovigerous female (7.2 mm; NBFGR/CORTSPO I-01); (a) dorsal view; (b) ventral view; (c–d) male (5.4 mm) (NBFGR/CORTSPO I-05); (c) dorsal view; (d) ventral view. Photographs taken under a Leica M-205A stereomicroscope.
Figure 5. Tachaea spongillicola Stebbing, 1907 in Redescription and molecular characterisation of the predatory isopod Tachaea spongillicola Stebbing, 1907 (Isopoda: Corallanidae) infesting the freshwater fish Pangasius silasi from India
Figure 5. Tachaea spongillicola Stebbing, 1907, non-ovigerous female (7.2 mm; NBFGR/CORTSPO I-01). (a–e) pleopod 1–5; (f) pleopod 2 (male, 5.4 mm).
Figure 7 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 7. Bayesian tree analysis of the COI (629 positions) data set of Hirudo species, with MrBayes v. 3.2.7.
Figure 8 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 8. Maximum likelihood phylogeny for Limnatis species based on COI sequences. Bootstrap values are shown for 1000 replicates.
Figure 3 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 3. Bayesian tree analysis of the COI (648 positions) data set of Glossiphonia species, with MrBayes v. 3.2.7.
Figure 9 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 9. Bayesian tree analysis of the COI (671 positions) data set of Limnatis species, with MrBayes v. 3.2.7.
Figure 5 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 5. Bayesian tree analysis of the COI (640 positions) data set of Helobdella species, with MrBayes v. 3.2.7.
Figure 1 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 1. Map of showing the areas surveyed for the occurrence of leeches. Wetlands where the species was found are indicated with dots.
Figure 6 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 6. Maximum likelihood phylogeny for Hirudo species based on COI sequences. Bootstrap values are shown for 1000 replicates.
Figure 4 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 4. Maximum likelihood phylogeny for Helobdella species based on COI sequences. Bootstrap values are shown for 1000 replicates.
Figure 2 in Molecular characterisation of leeches (Clitellata, Annelida) based on the mitochondrial cytochrome oxidase I (COI) gene region for Turkish fauna
Figure 2. Maximum likelihood phylogeny for Glossiponia species based on COI sequences. Bootstrap values are shown for 1000 replicates.
Scripts and data from the study 'Characterisation of magnetic atomic and molecular beamlines for the extraction of empirical scattering-matrices' (PCCP manuscript number CP-ART-04-2024-001785)
<p>This repository contains the data used for the article "Characterisation of magnetic atomic and molecular beamlines for the extraction of empirical scattering-matrices" and includes the code for generating the figures in the publication.</p>
Supplementary material 3 from: Hjalmarsson AE, Graf W, Jähnig SC, Vitecek S, Pauls SU (2018) Molecular association and morphological characterisation of Himalopsyche larval types (Trichoptera, Rhyacophilidae). ZooKeys 773: 79-108. https://doi.org/10.3897/zookeys.773.24319
Figure S2. Life stage association results based on COI : Explanation note: The tree was generated in MrBayes (run1). Node values represent posterior probabilities.
Supplementary material 2 from: Hjalmarsson AE, Graf W, Jähnig SC, Vitecek S, Pauls SU (2018) Molecular association and morphological characterisation of Himalopsyche larval types (Trichoptera, Rhyacophilidae). ZooKeys 773: 79-108. https://doi.org/10.3897/zookeys.773.24319
Figure S1. Life stage association results based on CAD : Explanation note: The tree was generated in MrBayes (run1). Node values represent posterior probabilities.
Supplementary material 1 from: Hjalmarsson AE, Graf W, Jähnig SC, Vitecek S, Pauls SU (2018) Molecular association and morphological characterisation of Himalopsyche larval types (Trichoptera, Rhyacophilidae). ZooKeys 773: 79-108. https://doi.org/10.3897/zookeys.773.24319
List of specimens : Explanation note: Table listing all specimens included in the study including their BOLD-IDs, species/OTU assignation, collection data, and haplotype numbers.
FIGURE 2 in Chichimecactus (Cactoideae, Cactaceae), a new genus based on molecular characterisation of highly endangered Strombocactus species
FIGURE 2. Majority rule consensus tree from the Bayesian analysis of the matK, the psbA-trnH and the atpB-rbcL datasets for 46 terminals of the Cactaceae showing parsimony bootstrap support and maximum likelihood at the left of the nodes, respectively, and posterior propability to the right of the nodes as indicators of support. All photographs and illustration by Rolando T. Bárcenas.
FIGURE 3 in Chichimecactus (Cactoideae, Cactaceae), a new genus based on molecular characterisation of highly endangered Strombocactus species
FIGURE 3. SEM of the seeds of Chichimecactus and Strombocactus. A, B and C from C. corregidorae. D, E and F from S. disciformis subsp. disciformis. A. Overall appearance of a seed. B. Close up of the hilum-micropilar region (HMR) showing the lack of strophiole. C. Close up of the rugose testa towards the HMR. D. Overall appearance of a seed. E. Close up of the HMR showing the structure of the strophiole. F. Close up of the testa towards the HMR. SEM by María Berenit Mendoza Garfias and illustration by Rolando T. Bárcenas.
FIGURE 1 in Chichimecactus (Cactoideae, Cactaceae), a new genus based on molecular characterisation of highly endangered Strombocactus species
FIGURE 1. Morphological variability of Strombocactus disciformis subsp. disciformis vs. Chichimecactus corregidorae. A. Several adult individuals of S. disciformis subsp. disciformis with depressed stems growing in a sedimentary wall and a close up of a flowering individual. B. A close up in light microscopy of a seed of S. disciformis subsp. disciformis showing the strophiole. C. Mature individuals of C. corregidorae growing in a loose hill showing the cylindrical growth of the adult plants. D. A mature individual of C. corregidorae with its rigid and well developed spines even at older basal areoles. E. A depressed middle-aged specimen of C. corregidorae including a close up of a flowering individual. F. Close up in light microscopy of a seed of C. corregidorae without a strophiole. Scale bars 100 µm. All photographs and illustrations by Rolando T. Bárcenas.
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Allen Brain Atlas
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International Brain Laboratory public data
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OpenNeuro
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