BL-MOL-AR Project, Preliminary Results about Liquid Biopsy: Molecular Approach Experience and Research Activity in Oncological Settings
Alessandro Pancrazzi, Francesco Bloise, Alice Moncada, Roberta Perticucci, Stefania Vecchietti, Francesca Pompili, Francesca Ricciarini, Silvia Lenzi, Cristina Gatteschi, Sabrina Giusti, Maria Pia Rosito, Sabrina Del Buono, Paola Belardi, Alessandra Bruni, Filippo Borri, Andrea Campione, Lorella Laurini, Rossella Occhini, Loretta Presenti, Viviana Viticchi, Maja Rossi, Sara Bardi, Antonio D'Urso, Simona Dei, Duccio Venezia, Raffaele Scala, Carmelo Bengala, Nicola Libertà Decarli, Andrea Carnevali, Carlo Milandri, Agostino Ognibene
BL-MOL-AR Project, Preliminary Results about Liquid Biopsy: Molecular Approach Experience and Research Activity in Oncological Settings
Background Liquid biopsy is mainly used to identify tumor cells in pulmonary neoplasms. It is more often used in research than in clinical practice. The BL-MOL-AR study aims to investigate the efficacy of next-generation sequencing (NGS) and clinical interpretation of the circulating free DNA (cfDNA) levels. This study reports the preliminary results from the first samples analyzed from patients affected by various neoplasms: lung, intestinal, mammary, gastric, biliary, and cutaneous.
Methods The Biopsia Liquida-Molecolare-Arezzo study aims to enroll cancer patients affected by various malignancies, including pulmonary, intestinal, advanced urothelial, biliary, breast, cutaneous, and gastric malignancies. Thirty-nine patients were included in this preliminary report.
At time zero, a liquid biopsy is executed, and two types of NGS panels are performed, comprising 17 genes in panel 1, which is already used in the routine tissue setting, and 52 genes in panel 2. From the 7th month after enrollment, 10 sequential liquid biopsies are performed up to the 17th month. The variant allele frequency (%) and cfDNA levels (ng/mL) are measured in every plasmatic sample.
Results The NGS results obtained by different panels are similar even though the number of mutations is more concordant for lung pathologies. There are no significant differences in the actionability levels of the identified variants. Most of the molecular profiles of liquid biopsies reflect tissue data.
Conclusions Preliminary data from this study confirm the need to clarify the limitations and potential of liquid biopsy beyond the lung setting. Overall, parameters related to cfDNA levels and variant allele frequency could provide important indications for prognosis and disease monitoring.
liquid biopsy / cfDNA / NGS
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