Roberta Bove

Roberta Bove

*This is an algorithmically generated author record based on publicly available information.

Current Organizations / Institutes

The organizations/institutes from the scholar's latest article

Previous Organizations / Institutes

The organizations / institutes from the scholar's other articles in the past ten years


Roberta Bove has a total of 34 co-authors. Here are the top co-authors by number of shared publications:


Latest Publications

  • Open Access

    Collagen stiffness shapes the stromal microenvironment architecture in pancreatic cancer in vitro models

    by Federica Carnevali, Stefania Forciniti, Anna Chiara Siciliano, Valentina Onesto, Roberta Bove, Donatella Delle Cave, Giuseppe Gigli, Enza Lonardo, Loretta L. del Mercato

  • Open Access

    Melanoma treatment in the era of nanotechnology and precision medicine

    by Anderson Fraga da Cruz, Francesco Colella, Giuliana Grasso, Valentina Onesto, Stefania Forciniti, Beatriz B. Ortiz, Federica Carnevali, Anna Chiara Siciliano, Roberta Bove, Jacqueline Gonçalves dos Santos, et al.

    Imagine the future where melanoma, one of the most lethal types of skin cancer, is not a frightful diagnosis anymore but a challenge met with tailored prec


  • Open Access

    CD26 Is Differentially Expressed throughout the Life Cycle of Infantile Hemangiomas and Characterizes the Proliferative Phase

    by Bruno Lorusso, Antonella Nogara, Rodanthi Fioretzaki, Emilia Corradini, Roberta Bove, Giovanni Roti, Andrea Gherli, Anna Montanaro, Gregorio Monica, Filippo Cavazzini, et al.

    Infantile hemangiomas (IHs) are benign vascular neoplasms of childhood (prevalence 5–10%) due to the abnormal proliferation of endothelial cells. IHs are characterized by a peculiar natural life cycle enclosing three phases: proliferative (≤12 months), involuting (≥13 months), and involuted (up to 4–7 years). The mechanisms underlying this neoplastic disease still remain uncovered. Twenty-seven IH tissue specimens (15 proliferative and 12 involuting) were subjected to hematoxylin and eosin staining and a panel of diagnostic markers by immunohistochemistry. WT1, nestin, CD133, and CD26 were also analyzed. Moreover, CD31pos/CD26pos proliferative hemangioma–derived endothelial cells (Hem-ECs) were freshly isolated, exposed to vildagliptin (a DPP-IV/CD26 inhibitor), and tested for cell survival and proliferation by MTT assay, FACS analysis, and Western blot assay. All IHs displayed positive CD31, GLUT1, WT1, and nestin immunostaining but were negative for D2-40. Increased endothelial cell proliferation in IH samples was documented by ki67 labeling. All endothelia of proliferative IHs were positive for CD26 (100%), while only 10 expressed CD133 (66.6%). Surprisingly, seven involuting IH samples (58.3%) exhibited coexisting proliferative and involuting aspects in the same hemangiomatous lesion. Importantly, proliferative areas were characterized by CD26 immunolabeling, at variance from involuting sites that were always CD26 negative. Finally, in vitro DPP-IV pharmacological inhibition by vildagliptin significantly reduced Hem-ECs proliferation through the modulation of ki67 and induced cell cycle arrest associated with the upregulation of p21 protein expression. Taken together, our findings suggest that CD26 might represent a reliable biomarker to detect proliferative sites and unveil non-regressive IHs after a 12-month life cycle.