Marina Pérez-Llorca

Dr. Marina Pérez-Llorca


Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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18 February 2019 in Frontiers in Plant Science
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Journal Article
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MPMarina Pérez-Llorca
Marina Pérez-Llorca
PMPaula Muñoz
Paula Muñoz
MMMaren Müller
Maren Müller
SMSergi Munné-Bosch
Sergi Munné-Bosch
Climacteric and non-climacteric fruits are differentiated by the ripening process, in particular by the involvement of ethylene, high respiration rates and the nature of the process, being autocatalytic or not, respectively. Here, we focus on the biosynthesis, metabolism and function of three compounds (auxin, salicylic acid and melatonin) sharing not only a common precursor (chorismate), but also regulatory functions in plants, and therefore in fruits. Aside from describing their biosynthesis in plants, with a particular emphasis on common precursors and points of metabolic diversion, we will discuss recent advances on their role in fruit ripening and the regulation of bioactive compounds accumulation, both in climacteric and non-climacteric fruits.

1 July 2020 in Plant Science
Verified
Journal Article
Closed access
ASArnon Setsungnern
Arnon Setsungnern
PMPaula Muñoz
Paula Muñoz
MPMarina Pérez-Llorca
Marina Pérez-Llorca
MMMaren Müller
Maren Müller
PTPaitip Thiravetyan
Paitip Thiravetyan
SMSergi Munné-Bosch
Sergi Munné-Bosch

1 January 2020 in Journal of Photochemistry and Photobiology B: Biology
Verified
Journal Article
Closed access
Renan FalcioniRenan Falcioni
Renan Falcioni
TMThaise Moriwaki
Thaise Moriwaki
MPMarina Pérez-Llorca
Marina Pérez-Llorca
SMSergi Munné-Bosch
Sergi Munné-Bosch
Mariana Sversut GibbinMariana Sversut Gibbin
Mariana Sversut Gibbin
WAWerner Antunes
Werner Antunes

Verified
Journal Article
Open access
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MPMarina Pérez-Llorca
Marina Pérez-Llorca
MMMaren Müller
Maren Müller
Plants, like many other living organisms, have an internal timekeeper, the circadian clock, which allows them to anticipate photoperiod rhythms and environmental stimuli to optimally adjust plant growth, development, and fitness. These fine-tuned processes depend on the interaction between environmental signals and the internal interactive metabolic network regulated by the circadian clock. Although primary metabolites have received significant attention, the impact of the circadian clock on secondary metabolites remains less explored. Transcriptome analyses revealed that many genes involved in secondary metabolite biosynthesis exhibit diurnal expression patterns, potentially enhancing stress tolerance. Understanding the interaction mechanisms between the circadian clock and secondary metabolites, including plant defense mechanisms against stress, may facilitate the development of stress-resilient crops and enhance targeted management practices that integrate circadian agricultural strategies, particularly in the face of climate change. In this review, we will delve into the molecular mechanisms underlying circadian rhythms of phenolic compounds, terpenoids, and N-containing compounds.

16 January 2019 in Plant Ecology
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Journal Article
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MPMarina Pérez-Llorca
Marina Pérez-Llorca
JVJulia Sánchez Vilas
Julia Sánchez Vilas
Sexual dimorphism is common in dioecious plant species and is usually attributed to different cost of reproduction associated with male and female functions. Differences in growth and performance between male and female plants may be accentuated under stress, potentially leading to sex-ratio biases and affecting population growth. Environmental stress involves multiple factors that often occur simultaneously. Among different stress combinations that occur in field conditions, competition and herbivory and their interaction are key biotic factors that can affect plant growth and performance. Here, we conducted a glasshouse experiment in Cardiff, UK, using the cultivated spinach, Spinacia oleracea, as a model system to study sexual dimorphism in intra- and inter-specific competitive ability and in response to herbivory by a generalist herbivore Helix aspersa. We found stronger inter- than intra-specific competition: growth (above-ground biomass) and chlorophyll content of male and female plants was reduced when growing with Brassica oleracea, but not when growing with conspecifics. In the absence of herbivory, females growing with same-sex neighbour had greater root biomass than males; whilst herbivory reduced root biomass significantly only in females competing with same sex neighbours. Plant damage caused by herbivores was similar when growing with male or female conspecifics but greater when growing with B. oleracea. Finally, plant damage caused by herbivores did not differ between male and female plants; however, males increased their allocation to roots and reduced their chlorophyll content after damage. Our results showed that sexual dimorphism occurs in S. oleracea, despite being a worldwide crop, selectively bred for its edible leaves. In particular, our results suggest stronger same-sex competition for females and greater tolerance to herbivory in males than in females of S. oleracea..

13 November 2018 in Plant Physiology
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Journal Article
Open access
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MPMarina Pérez-Llorca
Marina Pérez-Llorca
EFErola Fenollosa
Erola Fenollosa
RSRoberto Salguero-Gómez
Roberto Salguero-Gómez
SMSergi Munné-Bosch
Sergi Munné-Bosch
Dear Editor, Although significant advances have been made toward elucidating the most appropriate sample size for studies in many fields ([Meere and Mulchrone, 2003][1]; [Fiske et al., 2008][2]; [McDonald, 2008][3]; [Pérez-Harguindeguy et al., 2013][4]; [Hajian-Tilaki, 2014][5]), choosing the