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Data Paper . 2026
License: CC BY
Data sources: Datacite
ZENODO
Data Paper . 2026
License: CC BY
Data sources: Datacite
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Gallic acid-responsive microRNAs reprogram lignification during drought acclimation process in spearmint

Authors: Pepe, Gerardo;

Gallic acid-responsive microRNAs reprogram lignification during drought acclimation process in spearmint

Abstract

FOLDER: SmallRNA-20220826T155446Z-001 M2_S2_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT plants (replicate 2) M8_S8_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT-DS plants (replicate 1) M9_S9_R2_001 – smallRNA sequencing raw data from Mentha spicata leaf collected from CNT-DS plants (replicate 2) M9_S9_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT-DS plants (replicate 1) M11_S11_R2_001 – smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA-DS plants (replicate 2) FOLDER: SmallRNA-20220826T155446Z-003 M1_S1_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT plants (replicate 1) M1_S1_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT plants (replicate 2) M3_S3_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT plants (replicate 2) M5_S5_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA plants (replicate 2) M6_S6_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA plants (replicate 1) M6_S6_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA plants (replicate 2) FOLDER: SmallRNA-20220826T155446Z-002 M2_S2_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT plants (replicate 1) M3_S3_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT plants (replicate 1) M4_S4_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA plants (replicate 1) M4_S4_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA plants (replicate 2) M8_S8_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT-DS plants (replicate 2) M10_S10_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA-DS plants (replicate 1) M10_S10_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA-DS plants (replicate 2) M11_S11_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA-DS plants (replicate 1) M12_S12_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA-DS plants (replicate 1) M12_S12_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA-DS plants (replicate 2) FOLDER: SmallRNA-20220826T155446Z-004 M5_S5_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from 50 µM GA plants (replicate 1) M7_S7_R1_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT-DS plants (replicate 1) M7_S7_R2_001 - smallRNA sequencing raw data from Mentha spicata leaf collected from CNT-DS plants (replicate 2) GENERAL EXPERIMENTAL CONDITIONS One-month-old spearmint plants (Mentha spicata subsp. spicata L.) were divided into two groups: control (CNT) and test. Pure gallic acid (GA) was mixed with the mineral soil of the test plants (8.50 mg per Kg of soil; henceforth, 50 µM GA). A set of control and test plants (henceforth, CNT and 50 µM GA) were irrigated daily to maintain a water level equal to 85% of the field capacity (FC), while another set was subjected to a regime of drought stress (henceforth, DS; CNT-DS and 50 µM GA-DS) consisting in a suboptimal watering (42.5% FC). The experiment was carried out for 21 days (temperature: 22 °C; photoperiod 14 h light/10 h dark; homogeneous light intensity: 120 μmol m-2 s-1); after that microRNAs were extracted from leaf tissues.

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selected citations
These citations are derived from selected sources.
This is an alternative to the "Influence" indicator, which also reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
BIP!Citations provided by BIP!
popularity
This indicator reflects the "current" impact/attention (the "hype") of an article in the research community at large, based on the underlying citation network.
BIP!Popularity provided by BIP!
influence
This indicator reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
BIP!Influence provided by BIP!
impulse
This indicator reflects the initial momentum of an article directly after its publication, based on the underlying citation network.
BIP!Impulse provided by BIP!
0
Average
Average
Average
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