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79 results for “Cinnamomum”
FIGURE 1 in Laurobasidium hachijoense, comb. nov. (Cryptobasidiaceae) causing aerialroot-like galls on Cinnamomum japonicum in Japan
FIGURE 1. Phylogenetic tree constructed by Neighbor joining method using D1/D2 region of LSUrDNA (Bootstrap value:>60 %). Ustilago maydis was used as an out group. All data were retrieved from GenBank. Exobasidium, Clinoconidium and Laurobasidium are phylogenetically different each other.
FIGURE 3. A, B in Clinoconidium globosum, nom. nov. (Cryptobasidiaceae) producing galls on fruits of Cinnamomum daphnoides in Japan
FIGURE 3. A, B. Clinoconidium globosum observed by SEM. A. Basidiospores. B. A basidial layer and basidiospores. C. Schematic structure of a hymenial layer of a gall formed by C. globosum. A hyphal mass (HM) among deformed plant cells (PC), haustoria (HA), basidia (BA), basidiospores (B), and sterile hyphae (SH). Scale bars: A= 2 μm, B, C = 10 μm.
FIGURE 2. A, B. A in Clinoconidium globosum, nom. nov. (Cryptobasidiaceae) producing galls on fruits of Cinnamomum daphnoides in Japan
FIGURE 2. A, B. A hymenial layer of a gall formed by Clinoconidium globosum stained with lactophenol aniline blue solution. A hyphal mass (HM) among deformed plant cells (PC), haustoria (HA) in host plant cell (PC), basidial layer (BL), basidiospores (B), and sterile hyphae (SH). C. Haustoria (HA) formed in a host plant cell (PC). D. Basidiospores. E. Germination of basidiospores on PDA. F. Hyphae produced from mass of basidiospores on PDA. Scale bars: A, C, F = 10 μm, B, E, D = 5 μm.
FIGURE 1 in Clinoconidium globosum, nom. nov. (Cryptobasidiaceae) producing galls on fruits of Cinnamomum daphnoides in Japan
FIGURE 1. Galls of Clinoconidium globosum on the fruits of Cinnamomum daphnoides. A. Galls formed on fruits of the tree. Photograph was taken at Hetsuka, Sata, Minamiosumi-machi, Kimotsuki-gun, Kagoshima Prefecture, Kyushu, Japan on 9 October 2000. B. A gall formed on a fruit (G) and a normal fruit (F). C, D. Vertical section of a gall. C. A hymenial layer (HL) formed in a peripheral lacunae of galls with deformed host tissue (PT) inside the fruit. D. A hymenial layer consisting of a basidial layer (BL), basidiospores (B), and pericarp (P). Scale bars: B = 0.5 cm, C = 1 mm, D = 0.2 mm.
FIGURE 6 in Clinoconidium onumae comb. nov. (Cryptobasidiaceae), producing galls on shoot buds of Cinnamomum tenuifolium in Japan
FIGURE 6. Alignment of Clinoconidium spp. from LrDNA sequence (D1D2). The specific sequence in Cl. cinnamomi is shown in red colour.
FIGURE 5 in Clinoconidium onumae comb. nov. (Cryptobasidiaceae), producing galls on shoot buds of Cinnamomum tenuifolium in Japan
FIGURE 5. Phylogeny of Clinoconidium spp. from LrDNA sequence (D1D2) by the Maximum parismony analysis. Only values greater than 60 % are shown. Exobasidium cylindrosporum was used as an outgroup.
FIGURE 7 in Clinoconidium onumae comb. nov. (Cryptobasidiaceae), producing galls on shoot buds of Cinnamomum tenuifolium in Japan
FIGURE 7. Alignment of Clinoconidium spp. from ITS2 sequence. The specific sequence in Cl. cinnamomi is shown in red colour.
FIGURE 3. A, B in Clinoconidium onumae comb. nov. (Cryptobasidiaceae), producing galls on shoot buds of Cinnamomum tenuifolium in Japan
FIGURE 3. A, B. Clinoconidium onumae observed by SEM. A. Basidiospores formed in peripheral lacunae of a gall. B. Basidiospores with rugose surface. C. Schematic structure of a hymenial layer of a gall formed by C. onumae. A hyphal mass (HM) among deformed plant cells (PC), haustoria (HA), basidia (BA), basidiospores (B), and sterile hyphae (SH). Scale bars: A= 20 μm, B = 3 μm, C = 20 μm.
FIGURE 4 in Clinoconidium onumae comb. nov. (Cryptobasidiaceae), producing galls on shoot buds of Cinnamomum tenuifolium in Japan
FIGURE 4. Phylogeny of Clinoconidium spp. from LrDNA sequence (D1D2) by the Neighbor joining analysis. Only values greater than 60 % are shown. Exobasidium cylindrosporum was used as an outgroup.
FIGURE 1 in Clinoconidium onumae comb. nov. (Cryptobasidiaceae), producing galls on shoot buds of Cinnamomum tenuifolium in Japan
FIGURE 1. Galls of Clinoconidium onumae on the shoot buds of Cinnamomum tenuifolium. A. A gall formed on a shoot bud of the tree. Photograph was taken at Amami Isl., Kagoshima Prefecture, Kyushu, Japan, on 15 June 1997. B. A young gall (YG) formed on a hypertrophied shoot bud, covered by a pale green to pale brown host epidermis. C. A matured gall (MG) formed on a hypertrophied shoot bud. The host epidermis is ruptured and a brown, powdery spore mass (SM) is observed on the surface of the gall. D. Vertical section of a young gall. The deformed host tissue (PT) is covered by a serrate host epidermis (HE). E. Vertical section of a matured gall. A hymenial layer (HL) is formed in peripheral lacunae of enlarged galls with deformed tissues (PT). F. A hymenial layer on the surface of galls consisting of a basidial layer (BL) and basidiospores (B). Scale bars: B = 3 cm, C, D = 2 cm, E = 1 cm, F = 0.2 mm.
FIGURE 2. A. A in Clinoconidium onumae comb. nov. (Cryptobasidiaceae), producing galls on shoot buds of Cinnamomum tenuifolium in Japan
FIGURE 2. A. A hymenial layer of a gall formed by Clinoconidium onumae. A hyphal mass (HM) among deformed plant cells (PC), basidial layer (BL), basidiospores (B), and sterile hyphae (SH). B. Haustoria (HA) formed in a host plant cell (PC) surrounded by hyphal mass (HM). C. Basidia (BA) and basidiospores (B) formed in peripheral lacunae. D. Basidiospores. E. Germination of a basidiospore on PDA producing long hyphae with septa. Scale bars: A, B, C, D = 20 μm, E = 15 μm.
FIGURE 3. Cinnamomum baitelloanum van der Werff & P.L.R.Moraes. A. Flower. B in Three new species of Lauraceae from the Atlantic rainforest of Brazil
FIGURE 3. Cinnamomum baitelloanum van der Werff & P.L.R.Moraes. A. Flower. B. Outer tepals, abaxial and adaxial surfaces. C. Inner tepals, abaxial and adaxial surfaces. D. Stamen of whorl I. E. Stamen of whorl II. F. Stamen of whorl III. G. Gland. H. Staminode of whorl IV. I. Pistil. From D.A. Folli 5188 (HRCB). Bars = 2 mm (A); 1 mm (B, C, I); 0.5 mm (D, E, F, G, H).
FIGURE 3 in A new species of Cinnamomum and notes on the status of C. palghatensis in Western Ghats, India
FIGURE 3. Type specimens of Cinnamomum macrocarpum. A. Lectotype K [(K000778608) digital image!] [© the Board of Trustees of the Royal Botanic Gardens, Kew]; B. Isolectotype, L [(L0309662) digital image!] [© the Leiden Herbarium].
FIGURE 2 in A new species of Cinnamomum and notes on the status of C. palghatensis in Western Ghats, India
FIGURE 2. Cinnamomum gamblei sp. nov. A–B. Flowering twigs; C. Twigs with old flowers/very young fruits; D–E. Abnormal tetramerous flower; F. Immature fruit; G. Empty cupule; H. Distribution map.
FIGURE 1 in A new species of Cinnamomum and notes on the status of C. palghatensis in Western Ghats, India
FIGURE 1. Cinnamomum gamblei sp. nov. A. Flowering twig; B–E. Tepals, B. first whorl abaxial side, C. first whorl adaxial side, D. second whorl abaxial side, E. second whorl adaxial side; F–G. Stamens of outer whorl, F. adaxial side, G. abaxial side; H–I. Stamens of whorl III, H. adaxial side, I. abaxial side; J–M. Staminodes, J. adaxial side, K. abaxial side, L–M. aberrant staminodes with glands; N. Pistil; O. Fruit (A–N from Holotype).
Fig. 8 in Highly oxygenated isoryanodane diterpenoids from the leaves of Cinnamomum cassia and their immunomodulatory activities
Fig. 8. Effects of 1, 2, 6, and 10 on ConA-induced T-cells proliferation (A) and effects of 1, 2, 6, and 10–12 on LPS-induced B-cells proliferation (B), mean ± SD of three replicates are shown.
Fig. 5 in Highly oxygenated isoryanodane diterpenoids from the leaves of Cinnamomum cassia and their immunomodulatory activities
Fig. 5. Linear correlation plots (A) and the relative errors (B) between the experimental and calculated 13C NMR chemical shifts of 4a 4d.
Fig. 7. The relative errors between the experimental and calculated 13C in Highly oxygenated isoryanodane diterpenoids from the leaves of Cinnamomum cassia and their immunomodulatory activities
Fig. 7. The relative errors between the experimental and calculated 13C NMR chemical shifts of 5 and 6.
Fig. 4 in Highly oxygenated isoryanodane diterpenoids from the leaves of Cinnamomum cassia and their immunomodulatory activities
Fig. 4. Linear correlation plots (A) and the relative errors (B) between the experimental and calculated 13C NMR chemical shifts of (8R*)-3a and (8S*)-3b.
Fig. 8 in Guaiane-type sesquiterpenoids from Cinnamomum migao H. W. Li: And their anti-inflammatory activities
Fig. 8. Inhibitory effect of compounds 1, 2, 3, 4, 5, 6, 7, 8, and 10 against the expression of pro-inflammatory cytokines (TNF-α, IL-1β, and IL-6) (A). IC50 values of compounds 3 and 7 against TNF-α (B). The data are presented as means ± SEM in each treatment, with replicates.
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