Comparative transcriptomics of tropical woody plants supports fast and furious strategy along the leaf economics spectrum in lianas
Data files
Jul 19, 2021 version files 3.20 GB
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ANDINE-fl-nt.fasta
27.19 MB
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ANDINE-fl-protein.fasta
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ANDINE.decon.fasta
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ANDINE.Trinity.fasta
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BYRSPI-fl-nt.fasta
13.60 MB
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BYRSPI-fl-protein.fasta
3.79 MB
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BYRSPI.decon.fasta
89.72 MB
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BYRSPI.Trinity.fasta
101.86 MB
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CASARB-fl-nt.fasta
22.41 MB
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CASARB-fl-protein.fasta
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CASARB.decon.fasta
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CASARB.Trinity.fasta
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CASSYL-fl-nt.fasta
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CASSYL-fl-protein.fasta
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CASSYL.decon.fasta
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CASSYL.Trinity.fasta
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CECSCH-fl-nt.fasta
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CECSCH-fl-protein.fasta
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CECSCH.decon.fasta
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CECSCH.Trinity.fasta
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CHIDOM-fl-nt.fasta
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CHIDOM-fl-protein.fasta
9.46 MB
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CHIDOM.decon.fasta
158.07 MB
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CHIDOM.Trinity.fasta
175.61 MB
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COMGLA-fl-nt.fasta
24.53 MB
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COMGLA-fl-protein.fasta
7.28 MB
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COMGLA.decon.fasta
116.26 MB
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COMGLA.Trinity.fasta
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CORBOR-fl-nt.fasta
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CORBOR-fl-protein.fasta
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CORBOR.decon.fasta
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CORBOR.Trinity.fasta
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CROPOE-fl-nt.fasta
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CROPOE-fl-protein.fasta
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CROPOE.decon.fasta
168.84 MB
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CROPOE.Trinity.fasta
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DACEXC-fl-nt.fasta
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DACEXC-fl-protein.fasta
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DACEXC.decon.fasta
143.44 MB
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DACEXC.Trinity.fasta
150.05 MB
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DIOPOL-fl-protein.fasta
9.41 MB
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DIOPOL.decon.fasta
137.68 MB
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DIOPOL.Trinity.fasta
138.85 MB
Apr 14, 2023 version files 13.77 GB
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ANDINE-fl-nt.fasta
27.19 MB
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ANDINE-fl-protein.fasta
8.10 MB
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ANDINE.decon.fasta
135.75 MB
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ANDINE.Trinity.fasta
144.03 MB
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BYRSPI-fl-nt.fasta
13.60 MB
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BYRSPI-fl-protein.fasta
3.79 MB
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BYRSPI.decon.fasta
89.72 MB
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BYRSPI.Trinity.fasta
101.86 MB
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CASARB-fl-nt.fasta
22.41 MB
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CASARB-fl-protein.fasta
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CASARB.decon.fasta
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CASARB.Trinity.fasta
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CASSYL-fl-nt.fasta
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CASSYL-fl-protein.fasta
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CASSYL.decon.fasta
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CASSYL.Trinity.fasta
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CECSCH-fl-nt.fasta
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CECSCH-fl-protein.fasta
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CECSCH.decon.fasta
71.51 MB
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CECSCH.Trinity.fasta
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CHIDOM-fl-nt.fasta
32.44 MB
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CHIDOM-fl-protein.fasta
9.46 MB
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CHIDOM.decon.fasta
158.07 MB
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CHIDOM.Trinity.fasta
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COMGLA-fl-nt.fasta
24.53 MB
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COMGLA-fl-protein.fasta
7.28 MB
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COMGLA.decon.fasta
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COMGLA.Trinity.fasta
122.61 MB
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CORBOR-fl-nt.fasta
36.90 MB
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CORBOR-fl-protein.fasta
10.97 MB
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CORBOR.decon.fasta
143.22 MB
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CORBOR.Trinity.fasta
145.41 MB
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CROPOE-fl-nt.fasta
21.92 MB
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CROPOE-fl-protein.fasta
6.16 MB
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CROPOE.decon.fasta
168.84 MB
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CROPOE.Trinity.fasta
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DACEXC-fl-nt.fasta
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DACEXC-fl-protein.fasta
7.96 MB
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DACEXC.decon.fasta
143.44 MB
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DACEXC.Trinity.fasta
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DIOPOL-fl-nt.fasta
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DIOPOL-fl-protein.fasta
9.41 MB
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DIOPOL.decon.fasta
137.68 MB
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DIOPOL.Trinity.fasta
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DOLUNG-fl-nt.fasta
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DOLUNG-fl-protein.fasta
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DOLUNG.decon.fasta
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DOLUNG.Trinity.fasta
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DRYGLA-fl-nt.fasta
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DRYGLA-fl-protein.fasta
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DRYGLA.decon.fasta
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DRYGLA.Trinity.fasta
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EUGSTA-fl-nt.fasta
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EUGSTA-fl-protein.fasta
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EUGSTA.decon.fasta
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EUGSTA.Trinity.fasta
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GNEMON-fl-nt.fasta
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GNEMON-fl-protein.fasta
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GNEMON.decon.fasta
172.93 MB
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GNEMON.Trinity.fasta
170.97 MB
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GONSPI-fl-nt.fasta
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GONSPI-fl-protein.fasta
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GONSPI.decon.fasta
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GONSPI.Trinity.fasta
56.79 MB
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GUAGUI-fl-nt.fasta
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GUAGUI-fl-protein.fasta
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GUAGUI.decon.fasta
191.86 MB
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GUAGUI.Trinity.fasta
195.99 MB
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HETLAU-fl-nt.fasta
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HETLAU-fl-protein.fasta
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HETLAU.decon.fasta
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HETLAU.Trinity.fasta
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HOMRAC-fl-nt.fasta
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HOMRAC-fl-protein.fasta
8.16 MB
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HOMRAC.decon.fasta
178.51 MB
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HOMRAC.Trinity.fasta
192.26 MB
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INGVER-fl-nt.fasta
19.26 MB
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INGVER-fl-protein.fasta
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INGVER.decon.fasta
88.42 MB
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INGVER.Trinity.fasta
88.61 MB
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IXOFER-fl-nt.fasta
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IXOFER-fl-protein.fasta
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IXOFER.decon.fasta
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IXOFER.Trinity.fasta
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MANBID-fl-nt.fasta
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MANBID-fl-protein.fasta
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MANBID.decon.fasta
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MANBID.Trinity.fasta
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MATDOM-fl-nt.fasta
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MATDOM-fl-protein.fasta
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MATDOM.decon.fasta
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MATDOM.Trinity.fasta
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MICRAC-fl-nt.fasta
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MICRAC-fl-protein.fasta
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MICRAC.decon.fasta
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MICRAC.Trinity.fasta
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OCOLEU-fl-nt.fasta
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OCOLEU-fl-protein.fasta
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OCOLEU.decon.fasta
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OCOLEU.Trinity.fasta
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ORMKRU-fl-nt.fasta
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ORMKRU-fl-protein.fasta
8.83 MB
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ORMKRU.decon.fasta
130.14 MB
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ORMKRU.Trinity.fasta
135.93 MB
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PALRIP-fl-nt.fasta
27.51 MB
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PALRIP-fl-protein.fasta
8.24 MB
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PALRIP.decon.fasta
168.14 MB
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PALRIP.Trinity.fasta
169.31 MB
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PASCAE-assembly.fa
44.15 MB
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PASCAE-fl-nt.fasta
16 MB
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PASCAE-fl-protein.fasta
5.26 MB
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PASCAE.decon.fasta
44.39 MB
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PAUPIN-fl-nt.fasta
30.21 MB
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PAUPIN-fl-protein.fasta
9.02 MB
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PAUPIN.decon.fasta
106.81 MB
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PAUPIN.Trinity.fasta
107.86 MB
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PIPGLA-fl-nt.fasta
32.59 MB
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PIPGLA-fl-protein.fasta
9.21 MB
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PIPGLA.decon.fasta
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PIPGLA.Trinity.fasta
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PREMON-fl-nt.fasta
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PREMON-fl-protein.fasta
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PREMON.decon.fasta
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PREMON.Trinity.fasta
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PSYBRA-fl-nt.fasta
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PSYBRA-fl-protein.fasta
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PSYBRA.decon.fasta
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PSYBRA.Trinity.fasta
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PSYDEF-fl-nt.fasta
24.12 MB
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PSYDEF-fl-protein.fasta
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PSYDEF.decon.fasta
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PSYDEF.Trinity.fasta
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RHEPOR-fl-nt.fasta
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RHEPOR-fl-protein.fasta
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RHEPOR.decon.fasta
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RHEPOR.Trinity.fasta
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ROYBOR-fl-nt.fasta
25.14 MB
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ROYBOR-fl-protein.fasta
7.36 MB
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ROYBOR.decon.fasta
130.92 MB
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ROYBOR.Trinity.fasta
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SAPLAU-fl-nt.fasta
30.42 MB
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SAPLAU-fl-protein.fasta
8.36 MB
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SAPLAU.decon.fasta
213.77 MB
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SAPLAU.Trinity.fasta
220.90 MB
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SCHMOR-fl-nt.fasta
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SCHMOR-fl-protein.fasta
5.76 MB
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SCHMOR.decon.fasta
70.91 MB
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SCHMOR.Trinity.fasta
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SCHPAR-assembly.fa
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SCHPAR-fl-nt.fasta
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SCHPAR-fl-protein.fasta
7.93 MB
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SCHPAR.decon.fasta
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SECVIR-fl-nt.fasta
35.35 MB
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SECVIR-fl-protein.fasta
10.29 MB
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SECVIR.decon.fasta
140.98 MB
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SECVIR.Trinity.fasta
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SIMAMA-fl-nt.fasta
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SIMAMA-fl-protein.fasta
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SIMAMA.decon.fasta
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SIMAMA.Trinity.fasta
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SLOBER-fl-nt.fasta
23.81 MB
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SLOBER-fl-protein.fasta
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SLOBER.decon.fasta
96.87 MB
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SLOBER.Trinity.fasta
101.07 MB
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SMICOR-fl-nt.fasta
20.16 MB
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SMICOR-fl-protein.fasta
5.61 MB
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SMICOR.decon.fasta
129.13 MB
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SMICOR.Trinity.fasta
139.48 MB
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SMISIE-fl-nt.fasta
27.35 MB
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SMISIE-fl-protein.fasta
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SMISIE.decon.fasta
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SMISIE.Trinity.fasta
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SYZJAM-fl-nt.fasta
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SYZJAM-fl-protein.fasta
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SYZJAM.decon.fasta
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SYZJAM.Trinity.fasta
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TABHET-fl-protein.fasta
3.30 MB
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TABHET.decon.fasta
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TABHET.Trinity.fasta
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TETBAL-fl-nt.fasta
5.62 MB
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TETBAL-fl-protein.fasta
1.99 MB
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TETBAL.decon.fasta
39.45 MB
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TETBAL.Trinity.fasta
39.88 MB
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TRIPAL-fl-nt.fasta
53.08 MB
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TRIPAL-fl-protein.fasta
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TRIPAL.decon.fasta
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TRIPAL.Trinity.fasta
215.88 MB
Abstract
Lianas, climbing woody plants, influence the structure and function of tropical forests. Climbing traits have evolved multiple times, including ancestral groups such as gymnosperms and pteridophytes, but the genetic basis of the liana strategy is largely unknown. Here, we use a comparative transcriptomic approach for 47 tropical plant species, including ten lianas of diverse taxonomic origins, to identify genes that are consistently expressed or downregulated only in lianas. Our comparative analysis of full-length transcripts enabled the identification of a core interactomic network common to lianas. Sets of transcripts identified from our analysis reveal features related to functional traits pertinent to leaf economics spectrum in lianas, including upregulation of genes controlling epidermal cuticular properties, cell wall remodeling, carbon concentrating mechanism, cell cycle progression, DNA repair and a large suit of downregulated transcription factors and enzymes involved in ABA-mediated stress response as well as lignin and suberin synthesis. Altogether, these genes are known to be significant in shaping plant morphologies through responses such as gravitropism, phyllotaxy and shade avoidance.
Methods
Sample Set
The Luquillo transcriptomic set included six lianas (DIO) Dioscorea poligonoides (Dioscoreaceae), (HET) Heteropterys laurifolia (Malpighiaceae), (PAU) Paulinia pinnata (Sapindaceae), (SEC) Securidaca virgata (Polygonaceae), (SMI) Smilax coriaceae (Smilaceae), (DOL) Dolichandra unguis-cati (Bignoniaceae). We also included four more liana species from National Center for Biotechnology Information’s Sequence Read Archive (NCBI-SRA) and One Thousand Plant Genomes (1KP) dataset (Matasci et al. 2014, 1KP 2019) with the following accessions (GNE) Gnetum montanum (Gnetaceae) SRR5908685, (SMISIE) Smilax sieboldii (Smilacae) SRR5134200, (PASCAE) Passiflora caerulea (Passifloraceae) 1KP id:SIZE, (SCHPAR) Schlegelia parasitica (Schlegeliaceae) 1KP id:GAKQ. A full list including non-liana species can be found in the supplementary (SI Appendix Dataset S1, SI Appendix Fig. S1,).
Sample Collection and RNA Library Construction
To analyze the transcriptomes, we chose healthy and fully developed leaves from seedlings of tree and liana species distributed between 350 and 450 m in elevation from the Luquillo Experimental Forest (LEF) in the north eastern part of Puerto Rico. For each species, approximately 5 grams of leaf tissue was collected and placed in a 50 mL polypropylene conical tube with RNAlater (Thermo Fisher Scientific, Waltham, MA, USA). Explants were cut with a razor blade prior to being placed in the tube to allow the RNAlater to penetrate the mesophyll quickly. Samples were then frozen at -80ºC within two days. Rneasy Plant Mini Kit (Qiagen, Valencia, CA, USA) was used for RNA extraction. RNA quantification and quality metrics were carried out using a NanoDrop 2000 spectrophotometer (NanoDrop Products, Wilmington, DE, USA) and an Agilent Bioanalyzer 2100 (Agilent Technologies, Santa Clara, CA, USA) RNAseq library preparations and sequencing were performed at the Beijing Genomics Institute, Shenzhen, China on Illumina Hiseq 2000 sequencer generating 100 bp paired-end reads.
Usage notes
The dataset in this submission is in three parts:
[1] A multi-tab Excel spreadsheet that includes species list; analysis results of QUAST quality control; validation of assembled transcriptomes by Bowtie2 alignments; measures of completeness by BUSCO analysis; results of gProfiler analysis for enriched genes, domains and categories.
[2] A Cytoscape generated network used in Figure 1. For reproducible results we recommend selecting "Ripple" as the visual style and "Preset" as layout to retain formatting used in the manuscript. Source Cytoscape file (Liana-L5-L2.DRYAD.cys).
[3] Four fasta formatted files for each species:
(a) TRINITY assembled unfiltered transcripts (SPECIES.Trinity.fasta).
(b) EnTAP filtered transcripts for non-plant contaminant sequences (SPECIES.decon.fasta).
(c) EnTAP filtered translated/frame-selected full-length protein sequences (SPECIES-fl-protein.fasta).
(d) EnTAP filtered full-length transcript nucleotide sequences (SPECIES-fl-nt.fasta).