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Supplementary material 6 from: Rewicz A, Marciniuk J, Marciniuk P (2020) Achene micromorphology and its taxonomic significance in some species in Taraxacum sect. Palustria (Asteraceae). PhytoKeys 166: 1-28. https://doi.org/10.3897/phytokeys.166.54271
Figure S6
FIGURE 10 in Micromorphological differentiation of left and right stridulatory apparatus in crickets (Orthoptera: Gryllidae)
FIGURE 10. Principal components analysis (PCA) of left and right stridulatory apparatus.
Figure 4 from: Vislobokov NA, Fu L-F, Wei Y-G, Nuraliev MS (2021) Leaf epidermal micromorphology in Aspidistra (Asparagaceae): diversity and taxonomic significance. PhytoKeys 185: 65-86. https://doi.org/10.3897/phytokeys.185.72259
Figure 4 SEM images of abaxial leaf epidermis of Aspidistra morphological groups IX (a–f) (partly), X (g–l), XI (m), XII (n–q) and XIII (r–t). aA. longanensisbA. lutea (96/3126) cA. sinensisdA. strictaeA. subrotata (20121895) fA. superbagA. arnautovii (18566) hA. connata (96/3119) iA. nutansjA. subrotata (JLS2989) kA. opaca (2013/2460W) lA. subrotata (04/1769) mA. zinaidaenA. bogneri (9311) oA. grandiflorapA. letreaeqA. magnificarA. formosa (2015.11376.01) sA. jiewhoei (JLS1218) tA. marasmioides (2015.11354.01). Scale bars: 30 µm.
Figure 1 from: Vislobokov NA, Fu L-F, Wei Y-G, Nuraliev MS (2021) Leaf epidermal micromorphology in Aspidistra (Asparagaceae): diversity and taxonomic significance. PhytoKeys 185: 65-86. https://doi.org/10.3897/phytokeys.185.72259
Figure 1 SEM images of abaxial leaf epidermis of Aspidistra; morphological groups I (a–g), II (h–m) and III (n–t) (partly). aA. graminifoliabA. hainanensis (s.n.) cA. linearifoliadA. oviflora (13394) eA. triradiatafA. viridifloragA. yingjiangensishA. carnosaiA. cylindricajA. hainanensis (11/1394) kA. longifolialA. oviflora (2018.14340.01) mA. larutensisnA. atroviolaceaoA. clausapA. claviformisqA. dolichanthera (2016.12354.01) rA. erectasA. jingxiensistA. lurida. Scale bars: 30 µm.
Figure 3 from: Vislobokov NA, Fu L-F, Wei Y-G, Nuraliev MS (2021) Leaf epidermal micromorphology in Aspidistra (Asparagaceae): diversity and taxonomic significance. PhytoKeys 185: 65-86. https://doi.org/10.3897/phytokeys.185.72259
Figure 3 SEM images of abaxial leaf epidermis of Aspidistra; morphological groups V (a–g), VI (h–l, o), VII (m, n, p–r), VIII (s) and IX (t) (partly). aA. erosa (JLS2906) bA. locii (86-169) cA. lubaedA. xuansonensiseA. corniculatafA. foliosa (97/2360) gA. multiflorahA. fungilliformis (2016.12350.02) iA. geastrumjA. longipetalakA. papillatalA. tillichianamA. connata (97/2358) nA. semiapertaoA. bicolorpA. clausaqA. opaca (18035) rA. subrotata (A.s.5) sA. minortA. hekouensis. Scale bars: 30 µm.
Figure 2 from: Vislobokov NA, Fu L-F, Wei Y-G, Nuraliev MS (2021) Leaf epidermal micromorphology in Aspidistra (Asparagaceae): diversity and taxonomic significance. PhytoKeys 185: 65-86. https://doi.org/10.3897/phytokeys.185.72259
Figure 2 SEM images of abaxial leaf epidermis of Aspidistra; morphological groups III (a–c) (partly) and IV (d–t). aA. petiolatabA. renataecA. sessilifloradA. basaliseA. lateralisfA. medusagA. typicahA. connata (V/0490) iA. bellajA. erosa (JLS2972) kA. globosalA. gracilismA. laotica (20122018) nA. mirostigmaoA. phanluongii (2015.11347.01) pA. sarcantha (JLS2962) qA. subrotata (2015.11350.01) rA. sutepensissA. truongii (2013/2461) tA. vietnamensis. Scale bars: 30 µm.
FIGURE 3 in Seed Micromorphology of Eleven Species of Pleione (Orchidaceae)
FIGURE 3. Cluster analysis of seed epidermis characters of 11 Pleione species.
Figure 3 from: Zhao H, Xiao M-H, Zhong Y, Wang Y-Q (2022) Leaf epidermal micromorphology of Zingiber (Zingiberaceae) from China and its systematic significance. PhytoKeys 190: 131-146. https://doi.org/10.3897/phytokeys.190.77526
Figure 3 Characters of trichomes, oil cells and crystals in leaf epidermis of Zingiber shown by light microscopy A, B delicate trichome of Z. ellipticum (A) and Z. densissimum (B) C stout trichome of Z. corallinumD, E detail of delicate trichome of Z. ellipticum (D) and Z. densissimum (E) showing the trichome base (white arrows) F detail of stout trichome of Z. corallinum showing the swollen trichome base (white arrows) G–I oil cells (white arrows) of Z. ellipticum (G), Z. orbiculatum (H) and Z. montanum (I) J, K crystals distributed in the epidermal cells (white arrows) of Z. ellipticum (J) and Z. guangxiense (K) L crystals distributed above the veins (arrow pointing to crystal) of Z. montanum. Scale bars: 50 μm (A, B, C, E, I, K); 20 μm (D, F, G, H, J, L).
Figure 2 from: Zhao H, Xiao M-H, Zhong Y, Wang Y-Q (2022) Leaf epidermal micromorphology of Zingiber (Zingiberaceae) from China and its systematic significance. PhytoKeys 190: 131-146. https://doi.org/10.3897/phytokeys.190.77526
Figure 2 Leaf epidermal characters of Zingiber shown by scanning electron microscopy A adaxial epidermis of Z. flavomaculosum showing convex epidermal cells with smooth cuticular membranes B abaxial epidermis of Z. xishuangbannaense showing concave epidermal cells with smooth cuticular membranes C detail of epidermis over the vein in Z. montanum (arrows indicate costal epidermal cells) D stomatal apparatus in Z. flavomaculosum showing guard cells with smooth cuticular membranes E delicate trichomes in Z. xishuangbannaenseF stout trichomes with swollen trichome base in Z. corallinum. St: stoma; Gc: guard cell. Scale bars: 10 μm (D); 20 μm (A–C); 100 μm (E, F).
Figure 1 from: Zhao H, Xiao M-H, Zhong Y, Wang Y-Q (2022) Leaf epidermal micromorphology of Zingiber (Zingiberaceae) from China and its systematic significance. PhytoKeys 190: 131-146. https://doi.org/10.3897/phytokeys.190.77526
Figure 1 Leaf epidermal characters of Zingiber shown by light microscopy A–C adaxial epidermis of Z. ellipticum (A), Z. montanum (B) and Z. flavomaculosum (C) showing epidermal cells and stomatal apparatus D–F abaxial epidermis of Z. ellipticum (D), Z. montanum (E) and Z. teres (F) showing epidermal cells, costal epidermal cells and stomatal apparatus (arrows indicate to the costal epidermal cells) G–I detail of tetracytic stomatal apparatus on the adaxial epidermis of Z. ellipticum (G), Z. montanum (H) and Z. tuanjuum (I) J–L detail of tetracytic stomatal apparatus in the abaxial epidermis of Z. ellipticum (J), Z. montanum (K) and Z. longiligulatum (L). St: stoma; Gc: guard cell; Lsc: lateral subsidiary cell; Tsc; terminal subsidiary cell. Scale bars: 50 μm (A–F); 20 μm (G–I).
FIGURE 1 in Low and high elevation Heliosperma species (Caryophyllaceae)-insight based on chromosome number, pollen characters and seed micromorphology
FIGURE 1. Map of sampled Heliosperma species in Albania, North Macedonia and Kosovo.
Fig. 1 in First insights into micromorphology of needle epicuticular waxes of south-eastern european Pinus nigra J. F. Arnold populations
Fig. 1. Location of analyzed south-eastern European populations of three P. nigra subspecies. P. nigra ssp. banatica (Populations I-IV), P. nigra ssp. pallasiana (Populations V-VII), and P. nigra ssp. nigra (Populations VIII and IX). ROU = Romania; SRB = Serbia; MKD = Macedonia; BIH = Bosnia and Herzegovina. For the description of the taxa, locations, and habitat conditions of the populations cf. Table 1.
Fig. 2 in First insights into micromorphology of needle epicuticular waxes of south-eastern european Pinus nigra J. F. Arnold populations
Fig. 2. SEM micrographs of P. nigra epicuticular waxes. A. adaxial surface of needles; B. marginal teeth with mucrones (MC); C. clusters of longitudinally aggregated rodlets (LAR); D. suprastomatal chambers surrounded by alone tubes lying on the surface (AT) as well as individual granules (GR); E. tubes slightly fused to each other (TSF) and tubes fused together (TF), which surround and fill the suprastomatal chambers; smooth layers (SL - amorphous wax that covers the largest area of needles).
FIGURE 2. Clark 672 in Morphological and micromorphological data support the independent specific status of Chamaesium spatuliferum (Apioideae, Apiaceae) from China
FIGURE 2. Clark 672, Lectotype of Chamaesium novemjugum. A. lectotype; B. isolectotype.
FIGURE 1 in Morphological and micromorphological data support the independent specific status of Chamaesium spatuliferum (Apioideae, Apiaceae) from China
FIGURE 1. Types of Chamaesium spatuliferum. A. holotype; B. isotype.
FIGURE 6 in Morphological and micromorphological data support the independent specific status of Chamaesium spatuliferum (Apioideae, Apiaceae) from China
FIGURE 6. Distribution of Chamaesium novemjugum (square) and C.spatuliferum (triangle).
FIGURE 5 in Micromorphological studies of leaf epidermal features in populations of maples (Acer L.) from Iran
FIGURE 5. PCA analysis of mixed data based on Gower similarity index in PAST software.
FIGURE 4 in Micromorphological studies of leaf epidermal features in populations of maples (Acer L.) from Iran
FIGURE 4. Hierarchical clustering of the studied taxa based on the results of MCA analysis.
FIGURE 3. Crenosciadium siifolium. a in Comparative morphological, anatomical, micromorphological, and palynological studies on the genera Opopanax and Crenosciadium (Apiaceae)
FIGURE 3. Crenosciadium siifolium. a) habitus; b) umbel; c–d) leaves; e) stem leaves.
FIGURE 2. Opopanax persicus. a in Comparative morphological, anatomical, micromorphological, and palynological studies on the genera Opopanax and Crenosciadium (Apiaceae)
FIGURE 2. Opopanax persicus. a) habitus; b) stem and cauline leaves.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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