Carlota Delso

Ms. Carlota Delso

University of Zaragoza, PhD student
orcid

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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1 January 2019 in Algal Research
Verified
Journal Article
Closed access
JRJuan Manuel Martínez Rodríguez
Juan Manuel Martínez Rodríguez
CDCarlota Delso
Carlota Delso
IÁIgnacio Álvarez
Ignacio Álvarez
JRJavier Raso
Javier Raso

1 June 2018 in Innovative Food Science & Emerging Technologies
Verified
Journal Article
Closed access
JRJuan Manuel Martínez Rodríguez
Juan Manuel Martínez Rodríguez
CDCarlota Delso
Carlota Delso
JAJavier Angulo
Javier Angulo
IÁIgnacio Álvarez
Ignacio Álvarez
JRJavier Raso
Javier Raso

1 February 2019 in Food Research International
Verified
Journal Article
Closed access
JRJuan Manuel Martínez Rodríguez
Juan Manuel Martínez Rodríguez
CDCarlota Delso
Carlota Delso
MMMarcos Maza
Marcos Maza
IÁIgnacio Álvarez
Ignacio Álvarez
JRJavier Raso
Javier Raso

1 August 2018 in Food Microbiology
Verified
Journal Article
Closed access
JRJuan Manuel Martínez Rodríguez
Juan Manuel Martínez Rodríguez
CDCarlota Delso
Carlota Delso
DMDiederich Enrique Aguilar Machado
Diederich Enrique Aguilar Machado
GCGuillermo Cebrián
Guillermo Cebrián
IÁIgnacio Álvarez
Ignacio Álvarez
JRJavier Raso
Javier Raso

6 January 2023 in Foods
Verified
Journal Article
Open access
PDF file
CDCarlota Delso
Carlota Delso
ABAlejandro Berzosa
Alejandro Berzosa
JSJorge Sanz
Jorge Sanz
IÁIgnacio Álvarez
Ignacio Álvarez
JRJavier Raso
Javier Raso
New techniques are required to replace the use of sulfur dioxide (SO2) or of sterilizing filtration in wineries, due to those methods’ drawbacks. Pulsed electric fields (PEF) is a technology capable of inactivating microorganisms at low temperatures in a continuous flow with no detrimental effect on food properties. In the present study, PEF technology was evaluated for purposes of microbial decontamination of red wines after alcoholic and malolactic fermentation, respectively. PEF combined with SO2 was evaluated in terms of microbial stability and physicochemical parameters over a period of four months. Furthermore, the effect of PEF on the sensory properties of red wine was compared with the sterilizing filtration method. Results showed that up to 4.0 Log10 cycles of S. cerevisiae and O. oeni could be eradicated by PEF and sublethal damages and a synergetic effect with SO2 were also observed, respectively. After 4 months, wine treated by PEF after alcoholic fermentation was free of viable yeasts; and less than 100 CFU/mL of O. oeni cells were viable in PEF-treated wine added with 20 ppm of SO2 after malolactic fermentation. No detrimental qualities were found, neither in terms of oenological parameters, nor in the sensory parameters of wines subjected to PEF after storage time.

25 June 2021 in Foods
Verified
Journal Article
Open access
PDF file
CVCristian Vaquero
Cristian Vaquero
ILIris Loira
Iris Loira
JRJavier Raso
Javier Raso
IÁIgnacio Álvarez
Ignacio Álvarez
CDCarlota Delso
Carlota Delso
Antonio MorataAntonio Morata
Antonio Morata
New nonthermal technologies, including pulsed electric fields (PEF), open a new way to generate more natural foods while respecting their organoleptic qualities. PEF can reduce wild yeasts to improve the implantation of other yeasts and generate more desired metabolites. Two PEF treatments were applied; one with an intensity of 5 kV/cm was applied continuously to the must for further colour extraction, and a second treatment only to the must (without skins) after a 24-hour maceration of 17.5 kV/cm intensity, reducing its wild yeast load by up to 2 log CFU/mL, thus comparing the implantation and fermentation of inoculated non-Saccharomyces yeasts. In general, those treated with PEF preserved more total esters and formed more anthocyanins, including vitisin A, due to better implantation of the inoculated yeasts. It should be noted that the yeast Lachancea thermotolerans that had received PEF treatment produced four-fold more lactic acid (3.62 ± 0.84 g/L) than the control of the same yeast, and Hanseniaspora vineae with PEF produced almost three-fold more 2-phenylethyl acetate than the rest. On the other hand, 3-ethoxy-1-propanol was not observed at the end of the fermentation with a Torulaspora delbrueckii (Td) control but in the Td PEF, it was observed (3.17 ± 0.58 mg/L).