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2. Diploid and tetraploid genomes of Acorus and the evolution of monocots

Author

Ma, Liang, Liu, Ke-Wei, Li, Zhen, Hsiao, Yu-Yun, Qi, Yiying, Fu, Tao, Tang, Guang-Da, Zhang, Diyang, Sun, Wei-Hong, Liu, Ding-Kun, Li, Yuanyuan, Chen, Gui-Zhen, Liu, Xue-Die, Liao, Xing-Yu, Jiang, Yu-Ting, Yu, Xia, Hao, Yang, Huang, Jie, Zhao, Xue-Wei, Ke, Shijie, Chen, You-Yi, Wu, Wan-Lin, Hsu, Jui-Ling, Lin, Yu-Fu, Huang, Ming-Der, Li, Chia-Ying, Huang, Laiqiang, Wang, Zhi-Wen, Zhao, Xiang, Zhong, Wen-Ying, Peng, Dong-Hui, Ahmad, Sagheer, Lan, Siren, Zhang, Ji-Sen, Tsai, Wen-Chieh, Van de Peer, Yves, and Liu, Zhong-Jian

Published
2023
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4. Genomes of leafy and leafless Platanthera orchids illuminate the evolution of mycoheterotrophy

Author

Li, Ming-He, Liu, Ke-Wei, Li, Zhen, Lu, Hsiang-Chia, Ye, Qin-Liang, Zhang, Diyang, Wang, Jie-Yu, Li, Yu-Feng, Zhong, Zhi-Ming, Liu, Xuedie, Yu, Xia, Liu, Ding-Kun, Tu, Xiong-De, Liu, Bin, Hao, Yang, Liao, Xing-Yu, Jiang, Yu-Ting, Sun, Wei-Hong, Chen, Jinliao, Chen, Yan-Qiong, Ai, Ye, Zhai, Jun-Wen, Wu, Sha-Sha, Zhou, Zhuang, Hsiao, Yu-Yun, Wu, Wan-Lin, Chen, You-Yi, Lin, Yu-Fu, Hsu, Jui-Ling, Li, Chia-Ying, Wang, Zhi-Wen, Zhao, Xiang, Zhong, Wen-Ying, Ma, Xiao-Kai, Ma, Liang, Huang, Jie, Chen, Gui-Zhen, Huang, Ming-Zhong, Huang, Laiqiang, Peng, Dong-Hui, Luo, Yi-Bo, Zou, Shuang-Quan, Chen, Shi-Pin, Lan, Siren, Tsai, Wen-Chieh, Van de Peer, Yves, and Liu, Zhong-Jian

Published
2022
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7. OrchidBase 5.0: updates of the orchid genome knowledgebase

Author

Chen, You-Yi, Li, Chung‐I, Hsiao, Yu-Yun, Ho, Sau-Yee, Zhang, Zhe-Bin, Liao, Chien-Chi, Lee, Bing-Ru, Lin, Shao-Ting, Wu, Wan-Lin, Wang, Jeen-Shing, Zhang, Diyang, Liu, Ke-Wei, Liu, Ding-Kun, Zhao, Xue-Wei, Li, Yuan-Yuan, Ke, Shi-Jie, Zhou, Zhuang, Huang, Ming-Zhong, Wu, Yong-Shu, Peng, Dong-Hui, Lan, Si-Ren, Chen, Hong-Hwa, Liu, Zhong-Jian, Wu, Wei-Sheng, and Tsai, Wen-Chieh

Published
2022
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14. Comprehensive phylogenetic analyses of Orchidaceae using nuclear genes and evolutionary insights into epiphytism

Author

Zhang, Guojin, Hu, Yi, Huang, Ming-Zhong, Huang, Wei-Chang, Liu, Ding-Kun, Zhang, Diyang, Hu, Haihua, Downing, Jason L., Liu, Zhong-Jian, and Ma, Hong

Subjects
Biodiversity, Plant Science, Biochemistry, General Biochemistry, Genetics and Molecular Biology, Taxonomy
Abstract

Zhang, Guojin, Hu, Yi, Huang, Ming-Zhong, Huang, Wei-Chang, Liu, Ding-Kun, Zhang, Diyang, Hu, Haihua, Downing, Jason L., Liu, Zhong-Jian, Ma, Hong (2023): Comprehensive phylogenetic analyses of Orchidaceae using nuclear genes and evolutionary insights into epiphytism. Journal of Integrative Plant Biology 65 (5): 1204-1225, DOI: 10.1111/jipb.13462, URL: http://dx.doi.org/10.1111/jipb.13462

Published
2023

15. Comparative Analysis of Luisia (Aeridinae, Orchidaceae) Plastomes Shed Light on Plastomes Evolution and Barcodes Investigation.

Author

Ma, Liang, Zhou, Cheng-Yuan, Chen, Jin-Liao, Liu, Ding-Kun, Lan, Siren, and Liu, Zhong-Jian

Subjects
ORCHIDS, BAR codes, NUCLEOTIDE sequencing, TRANSFER RNA, COMPARATIVE studies, MICROSATELLITE repeats
Abstract

Luisia, a genus of the subtribe Aeridinae of Orchidaceae, comprises ca. 40 species. Members of Luisia exhibit unique morphological characteristics and represent a valuable ornamental orchid genus. However, due to the scarcity of distinct morphological characters, species identification within this genus is ambiguous and controversial. In the present study, next-generation sequencing (NGS) methods were used to assemble the plastomes of five Luisia species and compare them with one publicly available Luisia plastid genome data. The plastomes of Luisia possessed a quadripartite structure, with sizes ranging from 146,243 bp to 147,430 bp. The plastomes of six Luisia species contained a total of 120 genes, comprising 74 protein-coding genes, 38 tRNA genes and eight rRNA genes. Notably, all ndh genes were pseudogenized or lost. An analysis of codon usage bias showed that leucine (Leu) exhibited the highest frequency, while cysteine (Cys) exhibited the lowest frequency. A total of 57 to 64 SSRs and 42 to 49 long repeats were identified. Five regions and five coding sequences were identified for DNA barcodes, based on the nucleotide diversity (Pi) analysis. The species of Luisia constituted a monophyletic group and were sister to Paraphalaenopsis with strong support. Our study deepens the understanding of species identification, plastome evolution and the phylogenetic positions of Luisia. [ABSTRACT FROM AUTHOR]

Published
2024
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18. Apostasia fujianica Y. Li & S. Lan 2023, sp. nov

Author

Li, Yuanyuan, Ma, Liang, Liu, Ding-Kun, Zhao, Xue-Wei, Zhang, Diyang, Ke, Shijie, Chen, Gui-Zhen, Zheng, Qinyao, Liu, Zhong-Jian, and Lan, Siren

Subjects
Tracheophyta, Liliopsida, Asparagales, Biodiversity, Apostasia, Plantae, Orchidaceae, Taxonomy, Apostasia fujianica
Abstract

Apostasia fujianica Y.Li & S.Lan, sp. nov. (Fig. 2) (Dz×ffi±) Type:— CHINA. Fujian (Dz×): Zhangzhou (dzffl), Zhaoan (DZae), Wushan Scenic Spot, deep soils on the slope of evergreen broadleaved forests, elev. 752 m, 117°10′43″ E, 23°51′48″ N, 2021.6.20, Ma 2021 (holotype: FAFU!). This new species is similar to A. shenzhenica but can be distinguished by its narrowly ovate leaves, 1.5–2.0 × 1.0– 1.5 cm with a 0.8–1.0 mm long apicule. The inflorescences are 0.8–1.7 cm long with 8–11 flowers. The flowers are not fully open, cleistogamous and have similar sepals and petals, each with a 0.2 mm long apicule. The inner margins of two anthers are connivent to form a Solanum -like anther arrangement with one stigma and cavity and cylindrical fruits. Terrestrial herbs, 3–5 cm tall. Rhizomes bearing many rootlets, tubers scattered along the roots, 3-4 mm in diameter, globular. Stems erect, lignified, not branched, 2-3 mm in diameter, multinodal, with a cylindrical sheath 8–10 mm long, the upper part of the sheath with 3–8 leaves. Leaves ovate, 1.5–2.0 × 1.0– 1.5 cm, apex acute, the base contracted into a 6–8 mm long stalk, stalk base dilated and clasping the stem. Panicle arising from stem apex, arching, 0.8–1.7 cm long, 8–11-flowered; bracts ovate, 2–3 mm long; pedicel and ovary 0.8–1.2 cm long; flowers green-yellow, not fully opening, cleistogamous, 0.4–0.6 cm in diameter; sepals 3, similar to each other, narrowly oblong, 5.0–6.0 × 1.5–2.0 mm, central portion with a keeled protrusion that elongates into a 0.2 mm apicule; petals 3, similar to the sepals; basal part of stamen 3 fused with style to a form a cylindrical column, 2.0– 2.5 mm long; a subquadrate nectary, 0.8× 0.8 mm, the upper portion of column slightly longitudinally sulcate; fertile stamens 2, each with a 0.8 mm free filament; anthers narrowly-elliptic, 3.0–4.0 × 1.5–1.8 mm, the two apices equal, clasping the style and staminode below, each bilocular with powdery pollen; staminode opposite dorsal sepal, fused with and shorter than the style, apex fully separated from upper part of style; style 1.8–2.2 mm long, shorter than anthers, stigma 1, with a cavity. Berry-like fruits are long, cylindrical, green, 0.9–1.0 cm long and 1.8–2.2 mm in diameter. Distribution and habitat:— Terrestrial in loose, rocky soil in broad-leaved forest at an elevation of approximately 600–800 m in Fujian Province, China. Phenology:— Flowering June–July, fruiting June–February. Conservation status:— Only one population has been located, consisting of no more than 50 individuals. This site is not in a protected area, and using the IUCN (2012) guidelines, A. fujianica should be considered critically endangered. Etymology:— Referring to the province where this new species was found., Published as part of Li, Yuanyuan, Ma, Liang, Liu, Ding-Kun, Zhao, Xue-Wei, Zhang, Diyang, Ke, Shijie, Chen, Gui-Zhen, Zheng, Qinyao, Liu, Zhong-Jian & Lan, Siren, 2023, Apostasia fujianica (Apostasioideae, Orchidaceae), a new Chinese species: evidence from morphological, genome size and molecular analyses, pp. 277-284 in Phytotaxa 583 (3) on pages 281-283, DOI: 10.11646/phytotaxa.583.3.6, http://zenodo.org/record/7621490, {"references":["IUCN (2012) IUCN Red List categories and criteria, version 3.1, second edition. Gland and Cambridge, 30 pp."]}

Published
2023
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21. Cymbidium xshangrilaense S. Ke, Q. H. Zhang & S. R. Lan 1799, hybr. nat. nov

Author

Ke, Shijie, Zhu, Meng-Jia, Zhao, Xuewei, Liu, Ding-Kun, Li, Yuanyuan, Huang, Jie, Zhang, Qing-Hai, Liu, Zhong-Jian, and Lan, Siren

Subjects
Tracheophyta, Cymbidium, Liliopsida, Asparagales, Biodiversity, Plantae, Orchidaceae, Cymbidium xshangrilaense, Taxonomy
Abstract

Cymbidium × shangrilaense S.Ke, Q.H.Zhang & S.R.Lan, hybr. nat. nov (AEffifflȗż) (Figs 3, 4) Type:— CHINA. Yunnan Province: Shangrila City (AEffifflȗḿ), elevation 2000 m, growing on the tree. 10 November 2021, Ke F001 (holotype: FAFU). Cymbidium × shangrilaense is a natural hybrid of C. tracyanum and C. gaoligongense, which is similar to the former in floral morphology, but its epidermis has no red-brown spots and stripes, and the column and lip midlobe morphology are different; it is similar to latter in colour but differs in its floral veins and lip morphology. Epiphytic herbs with ellipsoid-ovoid pseudobulbs, 5.0-11.0 × 2.0-5.0 cm, mostly enclosed in leaf bases. Leaves 5-8, lorate, 56.0-73.0 × 1.4-1.8 cm, articulate 6.0-11.0 cm from base, apex acute. Inflorescence with six flowers arising from axil of leaves, suberect, 36.0-47.0 cm long, with four sheaths. Floral bracts triangular, 4.0-5.0 mm long. Flowers fragrant, 7.0-10.0 cm in diameter; pedicel and ovary 5.5-6.3 cm. Flowers pale yellow, tinged with purplish; sepals and petals with purple-red venation abaxially; lip yellow with pale purple dashes, lamellae deep yellow; column pale purple. Dorsal sepal oblong-elliptic, 6.6-7.4 × 1.6-1.9 cm, apex acute; lateral sepals elliptic, slightly oblique, 5.3-5.8 × 1.0- 1.8 cm. Petals falcate, 6.3-6.7 × 0.8-1.3 cm, apex acute. Lip ovate-elliptic in outline, 3.8-5.2 × 1.5-2.0 cm, base fused to basal margins of column for 5.1-6.1 mm, trilobed; lateral lobes erect, with white hairs on veins; disc with long ciliate, with two lamellae and a row of long hairs between them from base extend to base of midlobe; midlobe elliptic, recurved, sparsely ciliate and with three rows of hairs 2.0-3.0 mm long extending from the base to the apex. Column arcuate, 3.3-4.1 cm long, winged; pollinia 2, ovate, 2.0-3.0 mm. Etymology:— Named for Shangrila City, Yunnan Province. Phenology:— Flowering October to December. Distribution:— Thus far, found only in Shangrila City. Habitat:— Growing epiphytically. Parents:— Cymbidium × shangrilaense is considered to be a natural hybrid between C. tracyanum and C. gaoligongense., Published as part of Ke, Shijie, Zhu, Meng-Jia, Zhao, Xuewei, Liu, Ding-Kun, Li, Yuanyuan, Huang, Jie, Zhang, Qing-Hai, Liu, Zhong-Jian & Lan, Siren, 2022, Cymbidium × shangrilaense (Orchidaceae; Epidendroideae), a new natural hybrid from China: evidence from morphology and molecular analyses, pp. 183-190 in Phytotaxa 561 (2) on pages 187-188, DOI: 10.11646/phytotaxa.561.2.6, http://zenodo.org/record/7059509

Published
2022
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22. Chinese fir genome and the evolution of gymnosperms

Author

Lin, Si-Zu, primary, Chen, Yu, additional, Wu, Chao, additional, Sun, Wei-Hong, additional, Li, Zhen, additional, Chen, Hengchi, additional, Wang, Jieyu, additional, Ji, Changmian, additional, Li, Shu-Bin, additional, Wang, Zhiwen, additional, Tsai, Wen-Chieh, additional, Ma, Xiang-Qing, additional, Lan, Si-Ren, additional, Zhang, Fei-Ping, additional, Xie, Ya-Cong, additional, Yao, Lei, additional, Zhang, Yan, additional, Lü, Meng-Meng, additional, Zhang, Jia-Jun, additional, Zhang, Di-Yang, additional, Ye, Yi-Quan, additional, Yu, Xia, additional, Xu, Shan-Shan, additional, Ma, Zhi-Hui, additional, Ding, Guo-Chang, additional, Cao, Guang-Qiu, additional, He, Zong-Ming, additional, Wu, Peng-Fei, additional, Lin, Kai-Min, additional, Liu, Ai-Qin, additional, Lin, Yan-Qing, additional, Ruan, Shao-Ning, additional, Liu, Bao, additional, Cao, Shi-Jiang, additional, Zhou, Li-Li, additional, Li, Ming, additional, Shuai, Peng, additional, Hou, Xiao-Long, additional, Wu, Yi-Han, additional, Li, Nuo, additional, Xiong, Sheng, additional, Hao, Yang, additional, Zhou, Zhuang, additional, Liu, Xue-Die, additional, Zuo, Dan-Dan, additional, Li, Jia, additional, Wang, Pei, additional, Zhang, Jian, additional, Liu, Ding-Kun, additional, Chen, Gui-Zhen, additional, Huang, Jie, additional, Huang, Ming-Zhong, additional, Li, Yuanyuan, additional, Zheng, Qinyao, additional, Zhao, Xiang, additional, Zhong, Wen-Ying, additional, Wang, Feng-Ling, additional, Cheng, Xin-Chao, additional, Yu, Yin, additional, Liu, Zhi-Wei, additional, Zheng, Hongkun, additional, Ming, Ray, additional, Van de Peer, Yves, additional, and Liu, Zhong-Jian, additional

Published
2022
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25. The camphor tree genome enhances the understanding of magnoliid evolution

Author

Sun, Wei-Hong, primary, Xiang, Shuang, additional, Zhang, Qi-Gong, additional, Xiao, Lin, additional, Zhang, Diyang, additional, Zhang, Peilan, additional, Chen, De-Qiang, additional, Hao, Yang, additional, Liu, Ding-Kun, additional, Ding, Le, additional, Li, Yifan, additional, Ni, Hui, additional, Wang, Yifan, additional, Wu, Xi, additional, Liu, Fu-Hui, additional, Chen, Guo-Rui, additional, Han, Guo-Yong, additional, Chen, Jin-Zhang, additional, Su, Bao-Chun, additional, Gao, Jin-Xing, additional, Wan, Xiao-Hui, additional, Wang, Zhiwen, additional, Chen, Yicun, additional, Wang, Yang-Dong, additional, Huang, Wei, additional, Liu, Bobin, additional, Zou, Xiao-Xing, additional, Ni, Lin, additional, Liu, Zhong-Jian, additional, and Zou, Shuang-Quan, additional

Published
2022
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26. The Melastoma dodecandrum genome and the evolution of Myrtales

Author

Hao, Yang, primary, Zhou, Yu-Zhen, additional, Chen, Bin, additional, Chen, Gui-Zhen, additional, Wen, Zhen-Ying, additional, Zhang, Diyang, additional, Sun, Wei-Hong, additional, Liu, Ding-Kun, additional, Huang, Jie, additional, Chen, Jin-Liao, additional, Zhou, Xiao-Qin, additional, Fan, Wan-Lin, additional, Zhang, Wen-Chun, additional, Luo, Lin, additional, Han, Wen-Chao, additional, Zheng, Yan, additional, Li, Long, additional, Lu, Peng-Cheng, additional, Xing, Yue, additional, Liu, Shu-Ya, additional, Sun, Jia-Ting, additional, Cao, Ying-Hui, additional, Zhang, Yan-Ping, additional, Shi, Xiao-Ling, additional, Wu, Sha-Sha, additional, Ai, Ye, additional, Zhai, Jun-Wen, additional, Lan, Si-Ren, additional, Liu, Zhong-Jian, additional, and Peng, Dong-Hui, additional

Published
2022
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27. Plastid phylogenomics improves resolution of phylogenetic relationship in the Cheirostylis and Goodyera clades of Goodyerinae (Orchidoideae, Orchidaceae)

Author

Tu, Xiong-De, primary, Liu, Ding-Kun, additional, Xu, Shao-Wei, additional, Zhou, Cheng-Yuan, additional, Gao, Xu-Yong, additional, Zeng, Meng-Yao, additional, Zhang, Sai, additional, Chen, Jin-Liao, additional, Ma, Liang, additional, Zhou, Zhuang, additional, Huang, Ming-Zhong, additional, Chen, Shi-Pin, additional, Liu, Zhong-Jian, additional, Lan, Si-Ren, additional, and Li, Ming-He, additional

Published
2021
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31. The Cymbidium goeringii genome provides insight into organ development and adaptive evolution in orchids

Author

Sun, Ye, primary, Chen, Gui-Zhen, additional, Huang, Jie, additional, Liu, Ding-Kun, additional, Xue, Feng, additional, Chen, Xiu-Lan, additional, Chen, Shi-Qiang, additional, Liu, Chun-Gui, additional, Liu, Hong, additional, Ma, Hui, additional, Yuan, Yuan, additional, Zhang, Diyang, additional, Sun, Wei-Hong, additional, Peng, Dong-Hui, additional, Wang, Zhi-Wen, additional, Lan, Siren, additional, Zhao, Guo-Qi, additional, Li, Feng-Tong, additional, and Liu, Zhong-Jian, additional

Published
2021
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34. Plastid phylogenomic data yield new and robust insights into the phylogeny of Cleisostoma–Gastrochilus clades (Orchidaceae, Aeridinae)

Author

Liu, Ding-Kun, primary, Tu, Xiong-De, additional, Zhao, Zhuang, additional, Zeng, Meng-Yao, additional, Zhang, Sai, additional, Ma, Liang, additional, Zhang, Guo-Qiang, additional, Wang, Miao-Miao, additional, Liu, Zhong-Jian, additional, Lan, Si-Ren, additional, Li, Ming-He, additional, and Chen, Shi-Pin, additional

Published
2020
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41. Genomes of leafy and leafless Platantheraorchids illuminate the evolution of mycoheterotrophy

Author

Li, Ming-He, Liu, Ke-Wei, Li, Zhen, Lu, Hsiang-Chia, Ye, Qin-Liang, Zhang, Diyang, Wang, Jie-Yu, Li, Yu-Feng, Zhong, Zhi-Ming, Liu, Xuedie, Yu, Xia, Liu, Ding-Kun, Tu, Xiong-De, Liu, Bin, Hao, Yang, Liao, Xing-Yu, Jiang, Yu-Ting, Sun, Wei-Hong, Chen, Jinliao, Chen, Yan-Qiong, Ai, Ye, Zhai, Jun-Wen, Wu, Sha-Sha, Zhou, Zhuang, Hsiao, Yu-Yun, Wu, Wan-Lin, Chen, You-Yi, Lin, Yu-Fu, Hsu, Jui-Ling, Li, Chia-Ying, Wang, Zhi-Wen, Zhao, Xiang, Zhong, Wen-Ying, Ma, Xiao-Kai, Ma, Liang, Huang, Jie, Chen, Gui-Zhen, Huang, Ming-Zhong, Huang, Laiqiang, Peng, Dong-Hui, Luo, Yi-Bo, Zou, Shuang-Quan, Chen, Shi-Pin, Lan, Siren, Tsai, Wen-Chieh, Van de Peer, Yves, and Liu, Zhong-Jian

Abstract

To improve our understanding of the origin and evolution of mycoheterotrophic plants, we here present the chromosome-scale genome assemblies of two sibling orchid species: partially mycoheterotrophic Platanthera zijinensisand holomycoheterotrophic Platanthera guangdongensis. Comparative analysis shows that mycoheterotrophy is associated with increased substitution rates and gene loss, and the deletion of most photoreceptor genes and auxin transporter genes might be linked to the unique phenotypes of fully mycoheterotrophic orchids. Conversely, trehalase genes that catalyse the conversion of trehalose into glucose have expanded in most sequenced orchids, in line with the fact that the germination of orchid non-endosperm seeds needs carbohydrates from fungi during the protocorm stage. We further show that the mature plant of P. guangdongensis, different from photosynthetic orchids, keeps expressing trehalase genes to hijack trehalose from fungi. Therefore, we propose that mycoheterotrophy in mature orchids is a continuation of the protocorm stage by sustaining the expression of trehalase genes. Our results shed light on the molecular mechanism underlying initial, partial and full mycoheterotrophy.

Published
2022
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42. The Melastoma dodecandrumgenome and the evolution of Myrtales

Author

Hao, Yang, Zhou, Yu-Zhen, Chen, Bin, Chen, Gui-Zhen, Wen, Zhen-Ying, Zhang, Diyang, Sun, Wei-Hong, Liu, Ding-Kun, Huang, Jie, Chen, Jin-Liao, Zhou, Xiao-Qin, Fan, Wan-Lin, Zhang, Wen-Chun, Luo, Lin, Han, Wen-Chao, Zheng, Yan, Li, Long, Lu, Peng-Cheng, Xing, Yue, Liu, Shu-Ya, Sun, Jia-Ting, Cao, Ying-Hui, Zhang, Yan-Ping, Shi, Xiao-Ling, Wu, Sha-Sha, Ai, Ye, Zhai, Jun-Wen, Lan, Si-Ren, Liu, Zhong-Jian, and Peng, Dong-Hui

Abstract

Melastomataceae has abundant morphological diversity with high economic and ornamental merit in Myrtales. The phylogenetic position of Myrtales is still contested. Here, we report the chromosome-level genome assembly of Melastoma dodecandrumin Melastomataceae. The assembled genome size is 299.81 Mb with a contig N50 value of 3.00 Mb. Genome evolution analysis indicated that M. dodecandrum, Eucalyptus grandis, and Punica granatumwere clustered into a clade of Myrtales and formed a sister group with the ancestor of fabids and malvids. We found that M. dodecandrumexperienced four whole-genome polyploidization events: the ancient event was shared with most eudicots, one event was shared with Myrtales, and the other two events were unique to M. dodecandrum. Moreover, we identified MADS-box genes and found that the AP1-like genes expanded, and AP3-like genes might have undergone subfunctionalization. The SUAR63-like genes and AG-like genes showed different expression patterns in stamens, which may be associated with heteranthery. In addition, we found that LAZY1-like genes were involved in the negative regulation of stem branching development, which may be related to its creeping features. Our study sheds new light on the evolution of Melastomataceae and Myrtales, which provides a comprehensive genetic resource for future research.

Published
2022
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48. Supramolecular assembly of fluorogenic glyco-dots from perylenediimide-based glycoclusters for targeted imaging of cancer cells

Author

Ying Liu Ding-Kun, Ji, Lei, Dong, Nicolas, Galanos, Yi, Zang, Jia, Li, Vidal, Sébastien, He, Xiao-Peng, Key Laboratory for Advanced Materials & Institute of Fine Chemicals, Chimie Organique 2-Glycochimie (CO2GLYCO), Institut de Chimie et Biochimie Moléculaires et Supramoléculaires (ICBMS), Université Claude Bernard Lyon 1 (UCBL), Université de Lyon-Université de Lyon-Institut National des Sciences Appliquées de Lyon (INSA Lyon), Institut National des Sciences Appliquées (INSA)-Université de Lyon-Institut National des Sciences Appliquées (INSA)-Institut de Chimie du CNRS (INC)-École Supérieure Chimie Physique Électronique de Lyon-Centre National de la Recherche Scientifique (CNRS)-Université Claude Bernard Lyon 1 (UCBL), Institut National des Sciences Appliquées (INSA)-Université de Lyon-Institut National des Sciences Appliquées (INSA)-Institut de Chimie du CNRS (INC)-École Supérieure Chimie Physique Électronique de Lyon-Centre National de la Recherche Scientifique (CNRS), National Center for Drug Screening, State Key Laboratory of Drug Research, and ICBMS, UMR5246

Subjects
[CHIM.ORGA]Chemical Sciences/Organic chemistry, [CHIM.ORGA] Chemical Sciences/Organic chemistry, ComputingMilieux_MISCELLANEOUS
Abstract

International audience

Published
2017

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