Jesús Romero

Dr. Jesús Romero

orcid

Research Focus & Metrics

Academic Career Length

34Years (1993-Present)

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

Representative Publications

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1 July 2008 in International Journal of Radiation Oncology, Biology, Physics
Verified
Journal Article
Closed access
JGJordi Giralt
Jordi Giralt
JRJosé Perez Regadera
José Perez Regadera
RVRamona Verges
Ramona Verges
JRJesús Romero
Jesús Romero
IFIsabel de la Fuente
Isabel de la Fuente
FGFrancisco Guarner
Francisco Guarner

1 October 1993 in Radiotherapy and Oncology
Verified
Journal Article
Closed access
JRJesús Romero
Jesús Romero
HCH. Cardenes
H. Cardenes
ATA. la Torre
A. la Torre
FVF. Valcarcel
F. Valcarcel
RMR. Magallon
R. Magallon
GAG. Aragon
G. Aragon

1 March 2019 in eClinicalMedicine
Verified
Journal Article
Open access
AGAlessandro Gronchi
Alessandro Gronchi
NADIA HINDINADIA HINDI
NADIA HINDI
JCJosefina Cruz
Josefina Cruz
JBJean-Yves Blay
Jean-Yves Blay
ALAntonio López-Pousa
Antonio López-Pousa
Javier Martin-BrotoJavier Martin-Broto
Javier Martin-Broto
Myxoid liposarcoma (ML) exhibits a special sensitivity to trabectedin (T) and radiation therapy (RT). Preclinical data suggest a synergistic effect. We aimed to study safety, feasibility and activity of the administration of pre-operative concurrent T and RT in patients affected by localized resectable ML. Patients received 3 cycles (C) of T in combination with RT (45 Gy) in 25 fractions (1.8 Gy/fraction). Dose Levels for T were: - 1 (1.1 mg/m2), 0 (1.3 mg/m2) and 1 (1.5 mg/m2). Primary endpoint was safety; antitumor activity was assessed by RECIST and Choi criteria. This study is registered at ClinicalTrials.gov, number NCT02275286. The phase 1 part of the study is complete and phase 2 is ongoing. From February 2015 to May 2016, 14 patients (M/F 7/7), median age 36 years (range 24-70) and median tumor size 12.5 cm (range 7-17 cm), were enrolled. One dose limiting toxicity (G3 transaminitis) occurred at Level 0 and one (sepsis due to catheter infection) at Level 1. All patients completed RT. Five patients achieved PR (36%), 8 SD (57%), 1 distant PD (7%) by RECIST, while 12 achieved PR (86%), 1 SD (7%) and 1 distant PD (7%) by Choi criteria. Twelve patients underwent surgery. Median viable residual tumor was 5% (0-60). T in combination with RT showed a favorable safety profile and antitumor activity in localized ML. T dose of 1.5 mg/m2 is the recommended dose for the phase 2 study, which is ongoing. This study was partially supported by Pharmamar.

1 October 1999 in International Journal of Radiation Oncology, Biology, Physics
Verified
Journal Article
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ATAlejandro de la Torre
Alejandro de la Torre
SRSalvador Ramos
Salvador Ramos
FVFrancisco J Valcárcel
Francisco J Valcárcel
ACArturo Candal
Arturo Candal
CRCarlos A Regueiro
Carlos A Regueiro
GAGregorio Aragón
Gregorio Aragón

30 September 2015 in Clinical Cancer Research
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Journal Article
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CMCoral San Millán
Coral San Millán
BSBeatriz Soldevilla
Beatriz Soldevilla
PMPaloma Martín
Paloma Martín
BGBeatriz Gil-Calderón
Beatriz Gil-Calderón
MCMarta Compte
Marta Compte
GDGemma Domínguez
Gemma Domínguez
Background: The acquired resistance to chemotherapy represents the major limitation in the treatment of cancer. New strategies to solve this failure and improve patients' outcomes are necessary. The cancer preventive effect of β-cryptoxanthin has been widely described in population studies. Few reports support its putative use as an antitumoral compound. Here we focus on the therapeutic potential of β-cryptoxanthin individually or in combination with oxaliplatin in colon cancer and try to decipher the molecular basis underlying its effect. Methods: Apoptosis, viability and proliferation assays, mouse models, and an intervention study in 20 healthy subjects were performed. A PCR array was carried out to unravel the molecular putative basis of the β-cryptoxanthin effect, and further signaling experiments were conducted. Comet Assay was completed to evaluate the genotoxicity of the treatments. Results: β-Cryptoxanthin differentially regulates the expression of the P73 variants in vitro, in vivo, and in a human intervention study. This carotenoid decreases the proliferation of cancer cells and cooperates with oxaliplatin to induce apoptosis through the negative regulation of ΔNP73. The antitumoral concentrations of oxaliplatin decrease in the presence of β-cryptoxanthin to achieve same percentage of growth inhibition. The genotoxicity in peripheral blood mononuclear cells of mice decreased in the combined treatment. Conclusions: We propose a putative novel therapeutic strategy for the treatment of colon cancer based on the combination of β-cryptoxanthin and oxaliplatin. The combined regimen produced more benefit than either individual modality without increasing side effects. In addition, the concentration-limiting toxicity of oxaliplatin is reduced in the presence of the carotenoid. Clin Cancer Res; 21(19); 4398–409. ©2015 AACR.

1 April 2020 in JAMA Oncology
Verified
Journal Article
Open access
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Javier Martin-BrotoJavier Martin-Broto
Javier Martin-Broto
NADIA HINDINADIA HINDI
NADIA HINDI
ALAntonio Lopez-Pousa
Antonio Lopez-Pousa
JPJavier Peinado-Serrano
Javier Peinado-Serrano
RARosa Alvarez
Rosa Alvarez
DMDavid Moura
David Moura
First-line systemic treatment for metastatic soft-tissue sarcomas (STSs) has hardly improved over 40 years, doxorubicin being the standard approach; no significant overall survival (OS) benefit has been demonstrated with combination schemes.1-5 Nevertheless, anthracycline-based polychemotherapy regimens can be recommended if the aim is surgical resection or fast palliation, since they offer a significantly higher probability of tumor shrinkage.6