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17 results for “phytophagous mites”
Figure 5 in Phytophagous mite (Acari) species on garlic (Allium sativum L.) cultivation areas and storages of Kastamonu, Turkey
Figure 5. Percentage distribution of mites collected in garlic cultivation areas according to the localities (Merkez = Centrum).
Figure 1 in Phytophagous mite (Acari) species on garlic (Allium sativum L.) cultivation areas and storages of Kastamonu, Turkey
Figure 1. Localities of phytophagous mite species collected in garlic cultivation areas and storages of Kastamonu.
Figure 2 in Phytophagous mite (Acari) species on garlic (Allium sativum L.) cultivation areas and storages of Kastamonu, Turkey
Figure 2. Distribution of mite samples according with the plant parts and storage Acaridae was most abundant (94.00%) determined mite group from garlic head samples (See Fig 3).
Figure 4 in Phytophagous mite (Acari) species on garlic (Allium sativum L.) cultivation areas and storages of Kastamonu, Turkey
Figure 4. Number of mites collected in garlic cultivation areas (garlic head, garlic leaves) and storage surveys.
Figure 1 in Histopathological aspects in ripe fruits of Tahiti lime Citrus citrus x latifolia (Rutaceae) affected by phytophagous mites
Figure 1. Macroscopic and microscopic lesions on the pericarps of healthy Tahiti lime fruits affected by phytophagous mites. A–C. Healthy fruit and tissue. A. Pericarp surface; B. Pericarp surface viewed under scanning electron microscopy (SEM). Stomata can be observed; C. Cross section of the pericarp, showing the exocarp (Safranina- Alcian blue). D–F. Fruit and tissues affected by Polyphagotarsonemus latus. D. Lesions on the pericarp; E. Detail of the lesions on the pericarp surface (white arrow) (SEM); F. Cross section of the pericarp, showing the lesion affecting the exocarp and the formation of the peridermis (Safranin-Alcian blue). G–I. Fruit and tissues affected by Phyllocoptruta oleivora. G. Lesions on the pericarp; H. Detail of the lesions on the pericarp surface (white arrow) (SEM); I. Cross section of the pericarp, showing the lesion affecting the exocarp and the formation of peridermis and melanin deposits (Safranin-Alcian blue); J–L. Fruit and tissues affected by Schizotetranychus hindustanicus. J. Lesions on the pericarp. Mites nests (white arrows) can be observed; K. Mites nests in SEM (white arrow). Spider web of nest formation can be clearly seen; L. Cross section of the pericarp, showing the lesion affecting the exocarpal layers (white arrow) (Safranin-Alcian blue). CU: cuticle; EN: stomata; IEX: inner exocarp; ME: melanin; OEX:
Figure 3 in Histopathological aspects in ripe fruits of Tahiti lime Citrus citrus x latifolia (Rutaceae) affected by phytophagous mites
Figure 3. Histochemical tests applied to Tahiti lime pericarps affected by phytophagous mites (Cross sections). A–C. Pericarps affected by Polyphagotarsonemus latus, Phyllocoptruta oleivora and Schizotetranychus hindustanicus respectively. A dark brown stain can be observed due to the accumulation of polyphenols in the OEX: exocarpal layers (white arrows, Fast Blue B); D–F. Pericarps affected by Po. latus, Ph. Oleivora and S. hindustanicus respectively. A magenta stain can be observed due to the accumulation of lignin in the exocarpal layers (white arrows, Phloroglucinol acid); G–I. Pericarps affected by Po. latus, Ph. Oleivora and S. hindustanicus respectively. Callose was not detected in the exocarpal layers (Lacmoid). Melanin deposits were observed; J–L. Pericarps affected by Po. latus, Ph. Oleivora and S. hindustanicus respectively. Primary walls stain magenta and no protein or starch granules were detected (PAS-Amidoblack); M–O. Pericarps affected by Po. latus, Ph. Oleivora and S. hindustanicus respectively. Primary walls are stained purple, lignified tissues blue-green, and polyphenols brown or black (Toluidine Blue). Schizotetranychus hindustanicus lesions are restricted to feeding zones below nests (Fig. 3O) (White arrows). Peridermis formation was observed in all cases (Fig. 3A–O). CU: cuticle; IEX: inner exocarp; ME: Melanin; OEX: outer exocarp; PP: primary walls; PR: Peridermis.
Figure 2. A–E in Histopathological aspects in ripe fruits of Tahiti lime Citrus citrus x latifolia (Rutaceae) affected by phytophagous mites
Figure 2. A–E. Histochemical tests applied to healthy Tahiti lime pericarps (cross sections). A. Polyphenols Test (Fast Blue B). No positive reaction for polyphenols is observed in the exocarpal layers; B. The reaction for lignin detection (phloroglucinol acid) is negative in the exocarpal layers, but it is positive in lignified tissues (reddish staining) such as the fruit xylem (detail, white arrow); C. Callose reaction (Lacmoid) is negative in the exocarpal layers, but positive (blue staining) in fruit phloem (detail, arrow heads); D. PAS-Amidoblack test, the primary walls of the exocarpal layers and starch granules are stained magenta; E. Toluidine Blue stain, the primary walls of the exocarpal layers stain violet and cuticle dark blue. CU: cuticle; GA: starch granules; IEX: inner exocarp; OEX: outer exocarp; PP: primary walls.
FIGURE 3 in Evaluation of three pesticides against phytophagous mites and their impact on phytoseiid predators in an eggplant open-field
FIGURE 3: General mean abundance per eggplant leaf (± SE) of Tetranychus urticae (a), Phytoseilus persimilis (b), Polyphagotarsonemus latus (c) and other phytoseiid species (d) in control, fenbutatin oxide (F.O.), acetamiprid (aceta.) and deltamethrin (delta.) treatments.
FIGURE 4 in Evaluation of three pesticides against phytophagous mites and their impact on phytoseiid predators in an eggplant open-field
FIGURE 4: Mean abundance per eggplant leaf (± SE) of Tetranychus urticae (continuous line) and Phytoseiulus persimilis (dotted line) observed during experiments in control (a) treated with water (gray arrows), fenbutatin oxide (b), acetamiprid (c) and deltamethrin (d) (black arrows).
FIGURE 3 in Phytophagous and predatory mites on olive trees in Tunisia. Catalogue, description of one new species and key for identification (Acari, Eriophyidae, Tetranychidae, Tenuipalpidae and Phytoseiidae)
FIGURE 3: Calyx of the spermatheca (a), Chelicera (b) and Macrosetae on leg IV (c) of the female of Typhlodromus (Anthoseius) mathieui n. sp.
Figure 1 in Diversity and distribution of phytophagous and predatory mites on rosehip (Rosa canina L.) (Rosaceae) in Ankara, Turkey
Figure 1. Ankara province (A: Sampling areas).
Data from: A comprehensive and cost-effective approach for investigating passive dispersal in minute invertebrates with case studies of phytophagous eriophyid mites
<p><strong>Filename: </strong>1_wcm_wheat_wind_.vector.xlsx</p> <p>Variables:</p> <p>1. Variant - experimental approach: W- wind tunnel; V - vector tunnel <br> 2. N - population size on the source patch<br> 3. D - number of individuals that left the source patch<br> 4. C - population size on the target patch after several generations</p> <p> </p> <p><strong>Filename: </strong>2_wcm_brome_wind_.xlsx</p> <p>Variables:</p> <p>1. N - population size on the source patch<br> 2. D - number of individuals that left the source patch<br> 3. C - population size on the target patch after several generations</p> <p> </p> <p><strong>Filename: 3</strong>_wheat_brome_dispersal_rate.xlsx</p> <p>Variables:</p> <p>1. Host - host plant species: Brome - smooth brome (<em>Bromopsis inermis</em>); Wheat - common wheat (<em>Triticum </em>aestivum)<br> 2. N - population size on the source patch<br> 3. D - number of individuals that left the source patch</p> <p> </p> <p><strong>Filename: 4</strong>_wcm_crm_dispersal_rate.xlsx</p> <p>Variables:</p> <p>1. Species - eriophyid mite species: WCM - wheat curl mite; CRM - cereal rust mite<br> 2. N - population size on the source patch<br> 3. D - number of individuals that left the source patch</p>
FIGURE 2 in Phytophagous and predatory mites on olive trees in Tunisia. Catalogue, description of one new species and key for identification (Acari, Eriophyidae, Tetranychidae, Tenuipalpidae and Phytoseiidae)
FIGURE 2: Ventral shields of the female of Typhlodromus (Anthoseius) mathieui n. sp.
FIGURE 1 in Phytophagous and predatory mites on olive trees in Tunisia. Catalogue, description of one new species and key for identification (Acari, Eriophyidae, Tetranychidae, Tenuipalpidae and Phytoseiidae)
FIGURE 1: Dorsal shield and peritreme of the female of Typhlodromus (Anthoseius) mathieui n. sp.
FIGURE 2 in Evaluation of three pesticides against phytophagous mites and their impact on phytoseiid predators in an eggplant open-field
FIGURE 2: Mortality (% ± S.E.) of Tetranychus urticae observed in fenbutatin oxide treatment applied three times (I, II and III) in the eggplant filed studied in Latakia province, Syria.
FIGURE 5 in Evaluation of three pesticides against phytophagous mites and their impact on phytoseiid predators in an eggplant open-field
FIGURE 5: Mean abundance per eggplant leaf (± SE) of Polyphagotarsonemus latus (continuous line) and other phytoseiid species (dotted line) observed during experiments in control (a) treated with water (gray arrows), fenbutatin oxide (b), acetamiprid (c) and deltamethrin (d) (black arrows).
FIGURE 1 in Evaluation of three pesticides against phytophagous mites and their impact on phytoseiid predators in an eggplant open-field
FIGURE 1: Bray-Curtis clustering analysis dendrogram of mite fauna observed in different pesticides treatments applied in the eggplant filed studied in Latakia province, Syria.
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Allen Brain Atlas
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DANDI Archive for NWB datasets
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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.