Activity

The 5-year survival rate of patients who underwent DP and DP-CAR were 50.6% and 41.1%, respectively (median survival time, 65.9 vs 37.0 months). For all 134 patients, pretreatment serum CA19-9 levels (P<0.001), adjuvant chemotherapy (P<0.001), and lymph node status (P=0.035) were independent prognostic factors of overall survival by multivariate analysis.

DP-CAR following neoadjuvant chemotherapy for patients with borderline resectable or locally advanced pancreatic body carcinoma may bring the same survival impact as DP, despite increased morbidity.

DP-CAR following neoadjuvant chemotherapy for patients with borderline resectable or locally advanced pancreatic body carcinoma may bring the same survival impact as DP, despite increased morbidity.Mesotrypsin is a low-abundance human trypsin isoform with a unique evolutionary mutation that conferred resistance to trypsin inhibitors and restricted substrate specificity. Mesotrypsin degrades the serine protease inhibitor Kazal type 1 (SPINK1) and thereby might increase risk for pancreatitis. Here, we report a mouse model designed to test the role of mesotrypsin in pancreatitis. We introduced the human mesotrypsin evolutionary signature mutation into mouse cationic trypsinogen (isoform T7), resulting in a Gly to Arg change at the corresponding position 199. In biochemical experiments using purified proteins, the p.G199R T7 mutant recapitulated all salient features of human mesotrypsin. T7G199R mice developed normally with no spontaneous pancreatitis or other obvious phenotypic changes. Cerulein-induced acute pancreatitis in C57BL/6N and T7G199R mice showed similar severity with respect to inflammatory parameters and acinar cell necrosis while plasma amylase activity was higher in T7G199R mice. Neither SPINK1 degradation nor elevated intrapancreatic trypsin activation was apparent in T7G199R mice. The results indicate that in T7G199R mice the newly created mesotrypsin-like activity has no significant impact on cerulein-induced pancreatitis. The observations suggest that human mesotrypsin is unimportant for pancreatitis; a notion that is consistent with published human genetic studies.

The use of exclusive guide-wire cannulation (e-GW) instead of contrast injection reduces post-ERCP pancreatitis (PEP) and pre-cutting and increases cannulation rate. Herein, we intend to compare e-GW with the hybrid technique (GW-C and/or contrast injection).

Prospective single-center randomized comparative study, which included all patients referred to ERCP to our unit. Patients with non-naïve papilla; previous ERCP; direct infundibulotomy, ampullectomy, Billroth II gastrectomy or pancreatic sphincterotomy and patients lost to follow up were excluded.

727 consecutive patients were assessed. Of these, 588 naïve papilla patients were included and randomized to receive e-GW (n = 299) or GW-C (n = 289) for selective biliary cannulation. The mean age was 60.3 years and 60.5% were women. PEP occurred in 15(5%) cases in e-GW group and 9(3.1%) in the GW-C group (p = 0.29). Time to reach deep cannulation was faster in the latter group (75% < 5 min vs. 50.2% < 5 min, p<0.001). RP-6306 research buy > 10 min until cannulation was observed in 21% vs. 10% of the ERCPs (groups e-GW and GW-C, respectively, p < 0.001). Total ERCP time was also shorter in the GW-C group (12 vs. 10 min; p < 0.001). Pre-cut (23.8 vs.11.8%, p < 0.001) and pancreatic sphincterotomy as a pre-cut technique (15.8 vs. 5.6%, p < 0.001) were used more frequently in the e-GW group.

Compared to exclusive G-W- assisted biliary cannulation, the hybrid technique did not significantly reduce the PEP rate, however it promoted faster cannulation and, consequently, reduced the total procedure time and the use of pre-cut techniques.

Compared to exclusive G-W- assisted biliary cannulation, the hybrid technique did not significantly reduce the PEP rate, however it promoted faster cannulation and, consequently, reduced the total procedure time and the use of pre-cut techniques.

Cell-based therapies of pulmonary diseases with mesenchymal stromal cells (MSCs) are increasingly under experimental investigation. In most of these, MSCs are administered intravenously or by direct intratracheal instillation. A parallel approach is to administer the cells into the lung by endoscopic atomization (spraying). In a previous study, the authors developed a flexible endoscopic atomization device that allows administration of respiratory epithelial cells in the lungs with high survival.

In this study, the authors evaluated the feasibility of spraying MSCs with two different endoscopic atomization devices (air and pressure atomization). Following atomization, cell viability was evaluated with live/dead staining. Subsequent effects on cytotoxicity, trilineage differentiation and expression of MSC-specific markers as well as on MSC metabolic activity and morphology were analyzed for up to 7 days.

MSC viability immediately after spraying and subsequent metabolic activity for 7 days was not influenzation in intrapulmonary MSC-based cell therapies, as it is a feasible and easily utilizable approach based on clinically available equipment.The renin-angiotensin-aldosterone (RAAS) system and its effects on blood pressure and the regulation of water and electrolyte balance have been studied focusing on the cardiovascular and renal system. The activation of RAAS in other organs has local and systemic repercussions by modeling the macro- and microvasculture of peripheral organs. The brain RAAS influence on systemic blood pressure through the sympathetic nervous system. The angiotensin converting enzyme/angiotensin II/angiotensin 1 receptor axis (ACE/AngII/AT1), classical pathway, and angiotensin converting enzyme type 2/angiotensin (1-7)/Mas receptor (ACE2/Ang (1-7)/MasR), non-classical pathway, are involved in the modulation of the sympathetic response. The imbalance of these two axes with subsequently Ang II accumulation promote neurogenic hypertension and other vascular pathologies. The aminopeptidase/angiotensin IV/angiotensin 4 receptor (AMN/Ang IV/AT4) axis, which is exclusive of the brain, acts on cerebral microvasculature and participates in cognition, memory, and learning.