PUMA
Istituto di Fisiologia Clinica     
Tinelli A., Vergara D., Leo G., Malvasi G., Casciaro S., Leo E., Montinari M. R., Maffia M., Marsigliante M., Lorusso V. Human papillomavirus genital infection in modern gynecology: genetic and genomic aspects. In: European Clinics in Obstetrics and Gynaecology, vol. 3 pp. 1 - 6. SpringerLink, 2007.
 
 
Abstract
(English)
HPV (human papillomavirus) is a virus responsible for many female and male genital tract diseases. It is a small nonenveloped virus with icosahedral symmetry that contains a double-stranded DNA genomes of approximately 7,900 bp. Approximately 200 different HPVs have been characterized, classified in mucosal and cutaneous viruses, responsible for a wide spectrum of clinical conditions, from simple feet and hands warts to genital cancer. Their genome is functionally distinct in three regions. The condition of the host immune system is one of the factors that can strongly influence the natural history of HPV infection. The primary response to viral infection is cell-mediated, so conditions that compromise the immune system increase the viral infection risk. The molecular mechanisms involved in the onset of the cervical carcinoma are well defined, and they are mainly associated to the ability of the proteins E6 and E7 to neutralize the activity of p53 and retinoblastoma protein, respectively. The infection of HPV is mainly diagnosed through molecular methods. Several assays have been developed for the simultaneous identification of HPV types, the majority of which are polymerase chain reaction-based assays. Side by side with these assays, the emerging technology of the DNA chip may offer a reliable diagnostic tool for discriminating easily between many HPV genotypes.
Subject Human papilloma virus
Genital cancer
Cervical carcinoma
Genital infections


Icona documento 1) Download Document PDF


Icona documento Open access Icona documento Restricted Icona documento Private

 


Per ulteriori informazioni, contattare: Librarian http://puma.isti.cnr.it

Valid HTML 4.0 Transitional