Browsing by Author "Soldatović, I. (35389846900)"
Now showing 1 - 4 of 4
- Results Per Page
- Sort Options
- Some of the metrics are blocked by yourconsent settings
Publication Etiology of Hypopituitarism in Adult Patients: The Experience of a Single Center Database in the Serbian Population(2017) ;Doknić, M. (6603478362) ;Pekić, S. (6602553641) ;Miljić, D. (6505968542) ;Soldatović, I. (35389846900) ;Popović, V. (57294508600) ;Stojanović, M. (58191563300)Petakov, M. (7003976693)There are only a few published studies related to the population-based etiology of hypopituitarism. New risks for developing hypopituitarism have been recognized in the last 10 years. Aim. To present data regarding the etiology of hypopituitarism collected in a tertiary center over the last decade. This is a cross-sectional database study. Patients and Methods. We included 512 patients (pts) with hypopituitarism, with a mean age of 45.9 ± 1.7 yrs (range: 18-82; male: 57.9%). Results. Nonfunctional pituitary adenomas were presented in 205 pts (40.5%), congenital causes in 74 pts (14.6%), while acromegaly and prolactinomas were presented in 37 (7.2%) and 36 (7.0%) patients, respectively. Craniopharyngiomas were detected in 30 pts (5.9%), and head trauma due to trauma brain injury-TBI and subarachnoid hemorrhage-SAH in 27 pts (5.4%). Survivors of hemorrhagic fever with renal syndrome (HFRS) and those with previous cranial irradiation were presented in the same frequency (18 pts, 3.5% each). Conclusion. The most common causes of hypopituitarism in our database are pituitary adenomas. Increased awareness of the other causes of pituitary dysfunction, such as congenital, head trauma, extrapituitary cranial irradiation, and infections, is the reason for a higher frequency of these etiologies of hypopituitarism in the presented database. © 2017 M. Doknić et al. - Some of the metrics are blocked by yourconsent settings
Publication Etiology of Hypopituitarism in Adult Patients: The Experience of a Single Center Database in the Serbian Population(2017) ;Doknić, M. (6603478362) ;Pekić, S. (6602553641) ;Miljić, D. (6505968542) ;Soldatović, I. (35389846900) ;Popović, V. (57294508600) ;Stojanović, M. (58191563300)Petakov, M. (7003976693)There are only a few published studies related to the population-based etiology of hypopituitarism. New risks for developing hypopituitarism have been recognized in the last 10 years. Aim. To present data regarding the etiology of hypopituitarism collected in a tertiary center over the last decade. This is a cross-sectional database study. Patients and Methods. We included 512 patients (pts) with hypopituitarism, with a mean age of 45.9 ± 1.7 yrs (range: 18-82; male: 57.9%). Results. Nonfunctional pituitary adenomas were presented in 205 pts (40.5%), congenital causes in 74 pts (14.6%), while acromegaly and prolactinomas were presented in 37 (7.2%) and 36 (7.0%) patients, respectively. Craniopharyngiomas were detected in 30 pts (5.9%), and head trauma due to trauma brain injury-TBI and subarachnoid hemorrhage-SAH in 27 pts (5.4%). Survivors of hemorrhagic fever with renal syndrome (HFRS) and those with previous cranial irradiation were presented in the same frequency (18 pts, 3.5% each). Conclusion. The most common causes of hypopituitarism in our database are pituitary adenomas. Increased awareness of the other causes of pituitary dysfunction, such as congenital, head trauma, extrapituitary cranial irradiation, and infections, is the reason for a higher frequency of these etiologies of hypopituitarism in the presented database. © 2017 M. Doknić et al. - Some of the metrics are blocked by yourconsent settings
Publication Survivin, cyclin D1, and p21hras in keratocystic odontogenic tumors before and after decompression(2016) ;Brajić, I. (57060499200) ;Škodrić, S. (15726145200) ;Milenković, S. (57220419015) ;Tepavčević, Z. (16302346500) ;Soldatović, I. (35389846900) ;Čolić, S. (6508049451) ;Milašin, J. (6603015594)Andrić, M. (20435687400)Objectives: The aim of this study was to investigate survivin, cyclin D1, and p21hras expression in keratocystic odontogenic tumors before and after decompression, as well as in pericoronal follicles. A potential correlation between the expression levels of these proteins was also investigated. Materials and methods: We analyzed eighteen keratocystic tumors treated by decompression and subsequent enucleation along with seven pericoronal follicles using immunohistochemistry. Results: Keratocystic tumor samples, both before and after decompression, were positive for each of the investigated proteins. In pericoronal follicles, survivin exhibited cytoplasmic staining in contrast to nuclear staining in keratocystic tumors. Cyclin D1 expression was negative in pericoronal follicles, and p21hras expression was similar in both groups. Survivin showed significantly higher expression after decompression, while cyclin D1 and p21hras remained unchanged (P = 0.039, P = 0.255, P = 0.913, respectively). There was no correlation between these proteins neither before nor after decompression. Conclusions: Within the limits of the study, we can conclude that following decompression, keratocystic odontogenic tumors preserve distinct immunohistochemical profiles of cyclin D1 and p21hras expression, despite substantial reduction in size of the lesions. Significant increase of survivin expression after decompression might be attributed to higher level of epithelial proliferation caused by this procedure. © 2016 John Wiley & Sons A/S. - Some of the metrics are blocked by yourconsent settings
Publication Survivin, cyclin D1, and p21hras in keratocystic odontogenic tumors before and after decompression(2016) ;Brajić, I. (57060499200) ;Škodrić, S. (15726145200) ;Milenković, S. (57220419015) ;Tepavčević, Z. (16302346500) ;Soldatović, I. (35389846900) ;Čolić, S. (6508049451) ;Milašin, J. (6603015594)Andrić, M. (20435687400)Objectives: The aim of this study was to investigate survivin, cyclin D1, and p21hras expression in keratocystic odontogenic tumors before and after decompression, as well as in pericoronal follicles. A potential correlation between the expression levels of these proteins was also investigated. Materials and methods: We analyzed eighteen keratocystic tumors treated by decompression and subsequent enucleation along with seven pericoronal follicles using immunohistochemistry. Results: Keratocystic tumor samples, both before and after decompression, were positive for each of the investigated proteins. In pericoronal follicles, survivin exhibited cytoplasmic staining in contrast to nuclear staining in keratocystic tumors. Cyclin D1 expression was negative in pericoronal follicles, and p21hras expression was similar in both groups. Survivin showed significantly higher expression after decompression, while cyclin D1 and p21hras remained unchanged (P = 0.039, P = 0.255, P = 0.913, respectively). There was no correlation between these proteins neither before nor after decompression. Conclusions: Within the limits of the study, we can conclude that following decompression, keratocystic odontogenic tumors preserve distinct immunohistochemical profiles of cyclin D1 and p21hras expression, despite substantial reduction in size of the lesions. Significant increase of survivin expression after decompression might be attributed to higher level of epithelial proliferation caused by this procedure. © 2016 John Wiley & Sons A/S.
