BUSCADOR RECOLECTA

Alteration of SAM/SAH ratio transcriptionally regulates Nnmt and HMTs., Peer reviewed

Histone methyltransferases are co-expressed and correlate with NNMT/PEMT orthologues/analogues in C. elegans., Peer reviewed

Highly expressed histone methyltransferase genes are co-expressed., Peer reviewed

NNMT expression anticorrelate globally with levels of specific histone marks genome-wide in cancer cell lines (related to Fig 3)., Peer reviewed

PEMT expression anticorrelate globally with levels of specific histone marks genome-wide in healthy tissues (related to Fig 3)., Peer reviewed

Electronic supplementary material, Figure S1. Box plot of the α-diversity index Observed richness for the bacterial community at each sampling time (0, 15, 30, 50 days after bacterization) of control (CON), V. dahliae-inoculated (Vd), Pseudomonas simiae–treated (PICF7), P. simiae PICF7/V. dahliae-inoculated (PICF7_Vd), P. polymyxa-treated (PIC73) and P. polymyxa/V. dahliae-inoculated (PIC73_Vd) plants. The statistical differences resulted by the Dunn post-hoc test are represented by asterisks (level of significance: *p < 0.05; **p < 0.01; ***p < 0.001). Figure S2. Box plot of the α-diversity indices Observed richness for the fungal community at each sampling time (0, 15, 30, 50 days after bacterization) of control (CON), V. dahliae-inoculated (Vd), Pseudomonas simiae–treated (PICF7), P. simiae/ V. dahliae-inoculated (PICF7_Vd), P. polymyxa-treated (PIC73) and P. polymyxa/ V. dahliae-inoculated (PIC73_Vd) plants. The statistical differences resulted by the Dunn post-hoc test are represented by asterisks (level of significance: *p < 0.05; **p < 0.01; ***p < 0.001). Figure S3. PCoA analysis with the Weighted-Unifrac distance of control (CON), V. dahliae-inoculated (Vd), Pseudomonas simiae–treated (PICF7), P. simiae/ V. dahliae-inoculated (PICF7_Vd), P. polymyxa-treated (PIC73) and P. polymyxa/ V. dahliae-inoculated (PIC73_Vd) plants. Figure S4. PCoA analysis of the bacterial community with the Weighted-Unifrac distance for the bacterial community at each sampling time (0, 15, 30, 50 days after bacterization) of control (CON), V. dahliae-inoculated (Vd), Pseudomonas simiae–treated (PICF7), P. simiae/ V. dahliae-inoculated (PICF7_Vd), P. polymyxa-treated (PIC73) and P. polymyxa/ V. dahliae-inoculated (PIC73_Vd) plants. Figure S5. PCoA analysis with the Weighted-Unifrac distance for the factor “time” considering all the sampling times: zero (0), fifteen (15), thirty (30) and fifty (50) days after bacterization. Figure S6. PCoA analysis with Bray Curtis distance for the factor “time” considering all the sampling times: zero (0), fifteen (15), thirty (30) and fifty (50) days after bacterization. Figure S7. Taxonomy profiles at phylum level of the olive ‘Picual’ root-associated microbiota upon treatment with two biological control agents and in the absence or presence (subsequent inoculation) of Verticillium dahliae. Bacterial (A) and fungal (B) communities at phylum level for the different treatments examined: control (CON), Paenibacillus polymyxa-treated (PIC73), P. polymyxa/V. dahliae-inoculated (PIC73_Vd), Pseudomonas simiae-treated (PICF7), P. simiae/V. dahliae-inoculated (PICF7_Vd) and V. dahliae-inoculated (Vd) plants. Only the phyla with relative abundance > 1% for bacteria and 0.1% for fungi are shown (n = 10). Asterisks indicate the phyla that showed significant differences (ANCOMB p < 0.05) by the taxonomical analysis (see the main text). Figure S8. Taxonomy profiles at phylum level of the olive ‘Picual’ root-associated microbiota upon treatment with two biological control agents and in the absence or presence (subsequent inoculation) of Verticillium dahliae at each sampling time (0, 15, 30, 50 days after bacterization). Bacterial (A) and fungal (B) communities at phylum level for the different treatments examined: control (CON), Paenibacillus polymyxa-treated (PIC73), P. polymyxa/V. dahliae-inoculated (PIC73_Vd), Pseudomonas simiae-treated (PICF7), P. simiae/V. dahliae-inoculated (PICF7_Vd) and V. dahliae-inoculated (Vd) plants. Only the genera with relative abundance > 1% for bacteria and 0.1% for fungi are shown (n = 10). Figure S9. Taxonomic profiles at genus level of the bacterial community at each sampling time (0, 15, 30, 50 days after bacterization) of control (CON), Paenibacillus polymyxa-treated (PIC73), P. polymyxa/V. dahliae-inoculated (PIC73_Vd), Pseudomonas simiae-treated (PICF7), P. simiae/V. dahliae-inoculated (PICF7_Vd) and V. dahliae-inoculated (Vd) plants. Only the genera with a relative abundance > 2% are shown (n = 10). Asterisks indicate the genera that showed significant differences (ANCOMB p < 0.05) by the taxonomical analysis (see the main text). Figure S10. Taxonomic profiles at genus level of the fungal community at each sampling time (0, 15, 30, 50 days after bacterization) of control (CON), Paenibacillus polymyxa-treated (PIC73), P. polymyxa/V. dahliae-inoculated (PIC73_Vd), Pseudomonas simiae-treated (PICF7), P. simiae/V. dahliae-inoculated (PICF7_Vd) and V. dahliae-inoculated (Vd) plants. Only the genera with a relative abundance > 2% are shown (n = 10). Asterisk indicates the genus that showed significant differences (ANCOMB p < 0.05by the taxonomical analysis (see the main text)., Peer reviewed

Video utilitzat a la tesi Avaluació de l’efectivitat d’un programa d’intervenció basat en marxa virtual i exercici terapèutic en la funció motora, el to i el dolor de persones amb lesió medul·lar incompleta.

Video utilitzat a la tesi Avaluació de l’efectivitat d’un programa d’intervenció basat en marxa virtual i exercici terapèutic en la funció motora, el to i el dolor de persones amb lesió medul·lar incompleta.

The invasive mealybug Delottococcus aberiae De Lotto (Hemiptera: Pseudococcidae) has become a key pest in Mediterranean citrus. This mealybug species excretes honeydew that can be consumed by ants, which may give rise to mutualistic relationships and increase the invasibility of this exotic pest. Here, we studied the interaction between D. aberiae and ants in 16 citrus orchards located in the main citrus-growing area of Spain (Valencia) during two consecutive years. The aim of the present research was to study the interactions between D. aberiae and ant species in Spanish citrus orchards to determine whether these interactions can accelerate the invasion by this mealybug species. For this, 16 citrus orchards were sampled during two consecutive years to: i) identify the ant species that attend D. aberiae; ii) determine the level and density-dependence of ant-attendance; and finally, iii) evaluate the correlation between ant activity and D. aberiae density. The data set includes information on the abundance of mealybugs, ants, and predators in different parts of citrus trees from the orchards sampled in spring, summer, and autumn of 2020 and 2021., This dataset is associated to the published paper “Native ants facilitate the invasion by Delottococcus aberiae in Mediterranean citrus”. In this paper, the mutualistic relationship between Mediterranean ants and the invasive mealybug Delottococcus aberiae in citrus orchards from eastern Spain is described.

This collection brings together the different datasets used to generate the paper "Do hyperparasitoids disrupt the biological control of Pseudococcus longispinus in persimmon?". In this paper, we tested whether hyperparasitoids disrupt the biological control of P. longispinus in Mediterranean persimmon. For this purpose, we sampled 16 orchards over two consecutive years. In these orchards, we first identified the primary parasitoids and hyperparasitoids that attack P. longispinus in persimmon and measured the rates of parasitism and hyperparasitism. Then, we evaluated whether parasitism and/or hyperparasitism rates affect the population growth rate of P. longispinus. Finally, we determined whether hyperparasitoids emerged from mealybug hosts of similar size than females of the primary parasitoids. These and other biological traits of the primary parasitoids and hyperparasitoids were analyzed to better understand their coexistence and their effects on P. longispinus. The collection includes two files that contains data used for the different sections explained in detail in the methodology of the paper. It also includes a README file explaining the structure of the data., This dataset is associated to the published paper “Do hyperparasitoids disrupt the biological control of Pseudococcus longispinus in persimmon?”. We tested whether hyperparasitoids hinder the biological control of P. longispinus in Mediterranean persimmon. For this aim, we sampled 16 orchards across two consecutive years and measured the impact of primary parasitoids and hyperparasitoids on P. longispinus. The collection includes several files that contains data used for the different sections explained in detail in the methodology of the paper.