Fig. 4. Amino acid sequences alignment between TCS1 and candidate N-methyltransferase genes (GCS1, GCS2, and GCS3).Published as part of Zhou, Meng-zhen, Rothenberg, Dylan O'Neill, Zeng, Wen, Luo, Li, Yan, Chang-yu, Zeng, Zhen & Huang, Ya-hui, 2022, Discovery and Biochemical Characterization of N-methyltransferase Genes Involved in Purine Alkaloid Biosynthetic Pathway of Camellia gymnogyna Hung T.Chang (Theaceae) from Dayao Mountain, pp. 1-9 in Phytochemistry (113167) 199 on page 5, DOI: 10.1016/j.phytochem.2022.113167, http://zenodo.org/record/823633
Fig. 4. Multiple sequence alignment of VcSABATHs with selected known SABATHs. Conserved residues are...
Fig. 7. Biosynthetic pathway of melatonin. The black arrows identify the pathway in herbaceous and w...
Fig. 6. Diversification of CYP81F enzymes in the Camelineae species.A neighbor-joining tree of CYP81...
Fig. 5. Phylogenetic tree of N-methyltransferase amino acid sequences. Substrates of the enzymes are...
Zhou, Meng-zhen, Rothenberg, Dylan O'Neill, Zeng, Wen, Luo, Li, Yan, Chang-yu, Zeng, Zhen, Huang, Ya...
Fig. 6. N-methyltransferase gene expression patterns in different leaf positions of C. gymnogyna and...
Fig. 3. Gene annotation. (a) Venn diagram; (b) The results of volcano plots of differential genes be...
Fig. 1. Main metabolic pathway for the biosynthesis and biodegradation of Cf. SAM = S-adenosyl- L -m...
Fig. 2. Purine alkaloid content in different leaf positions of C. gymnogyna and other tea plants. Bu...
Fig. 4. Superimposition of residue 204 identity on a maximum-likelihood phylogenetic analysis of N-m...
Fig. 2. Amino acid alignment of Ttps2 sequences of nine studied Thymus species. The four motifs, con...
Fig. 1. The assembly of monoterpenoid indole alkaloids in different plant species involve substrate ...
Fig. 1. Involvement of N-methyltransferases in BIA biosynthesis. Coclaurine N-methyltransferase (CNM...
Fig. 8. IGMT phylogenetic tree is incongruent with the phylogeny of the investigated species. A neig...
Fig. 1. Current state-of-the-art picture of alkaloid biosynthesis in Nicotiana genus. Gene acronyms ...
Fig. 4. Multiple sequence alignment of VcSABATHs with selected known SABATHs. Conserved residues are...
Fig. 7. Biosynthetic pathway of melatonin. The black arrows identify the pathway in herbaceous and w...
Fig. 6. Diversification of CYP81F enzymes in the Camelineae species.A neighbor-joining tree of CYP81...
Fig. 5. Phylogenetic tree of N-methyltransferase amino acid sequences. Substrates of the enzymes are...
Zhou, Meng-zhen, Rothenberg, Dylan O'Neill, Zeng, Wen, Luo, Li, Yan, Chang-yu, Zeng, Zhen, Huang, Ya...
Fig. 6. N-methyltransferase gene expression patterns in different leaf positions of C. gymnogyna and...
Fig. 3. Gene annotation. (a) Venn diagram; (b) The results of volcano plots of differential genes be...
Fig. 1. Main metabolic pathway for the biosynthesis and biodegradation of Cf. SAM = S-adenosyl- L -m...
Fig. 2. Purine alkaloid content in different leaf positions of C. gymnogyna and other tea plants. Bu...
Fig. 4. Superimposition of residue 204 identity on a maximum-likelihood phylogenetic analysis of N-m...
Fig. 2. Amino acid alignment of Ttps2 sequences of nine studied Thymus species. The four motifs, con...
Fig. 1. The assembly of monoterpenoid indole alkaloids in different plant species involve substrate ...
Fig. 1. Involvement of N-methyltransferases in BIA biosynthesis. Coclaurine N-methyltransferase (CNM...
Fig. 8. IGMT phylogenetic tree is incongruent with the phylogeny of the investigated species. A neig...
Fig. 1. Current state-of-the-art picture of alkaloid biosynthesis in Nicotiana genus. Gene acronyms ...
Fig. 4. Multiple sequence alignment of VcSABATHs with selected known SABATHs. Conserved residues are...
Fig. 7. Biosynthetic pathway of melatonin. The black arrows identify the pathway in herbaceous and w...
Fig. 6. Diversification of CYP81F enzymes in the Camelineae species.A neighbor-joining tree of CYP81...