No abstract

There is substantial recent interest in the role of oxytocin in social and affiliative behaviors— animal models of depression have suggested a link between oxytocin and mood. We reviewed literature to date for evidence of a potential relationship between peripheral oxytocin concentration and depressive symptoms in humans. Pubmed® and PsychINFO® were searched for biomedical and social sciences literature from 1960 – May 19, 2015 for empirical articles in English involving human subjects focused on the relationship between peripheral oxytocin concentration and depressive symptoms, excluding articles on the oxytocin receptor gene, or involving exogenous (i.e. intranasal) administration of oxytocin. Eight studies meeting criteria were identified and formally reviewed. Studies of pregnant women suggested an inverse relationship between oxytocin level and depressive symptom severity. Findings in non-pregnant women were broadly consistent with the role of oxytocin release in response to stress supported by animal studies. The relationship between oxytocin and depression in men appeared to be in the opposite direction, possibly reflecting the influence of gonadal hormones on oxytocinergic functioning found in other mammalian species. Overall, small sample sizes, heterogeneity in study designs, and other methodological limitations may account for inconsistent findings. Future research utilizing reliable oxytocin measurement protocols including measurements across time, larger sample sizes, and sample homogeneity with respect to multiple possible confounders (age, gender, race and ethnicity, ovarian status among women, and psychosocial context) are needed to elucidate the role of oxytocin in the pathogenesis of depression, and could guide the design of novel pharmacologic agents.

No abstract

The aim of this study was to assess clinically meaningful differences of preoperative lower urinary tract symptoms (LUTS) and quality of life (QoL) before and after robot-assisted radical prostatectomy (RARP). Therefore we identified 5506 RARP patients from 2007 to 2018 with completed International Prostate Symptom Score (IPSS) and -QoL questionnaires before and 12 months after RARP in our institution. Marked clinically important difference (MCID) was defined by using the strictest IPSS-difference of − 8 points. Multivariable logistic regression analyses (LRM) aimed to predict ∆IPSS ≤ − 8 and were restricted to RARP patients with preoperatively moderate (IPSS 8–19) vs. severe (IPSS 20–35) LUTS burden (n = 2305). Preoperative LUTS was categorized as moderate and severe in 37% (n = 2014) and 5.3% of the complete cohort (n = 291), respectively. Here, a postoperative ∆IPSS ≤ − 8, was reported in 38% vs. 90%. In LRM, younger age (OR 0.98, 95%CI 0.97–0.99; p = 0.007), lower BMI (OR 0.94, 95%CI 0.92–0.97; p < 0.001), higher preoperative LUTS burden (severe vs. moderate [REF.] OR 15.6, 95%CI 10.4–23.4; p < 0.001), greater prostate specimen weight (per 10 g, OR 1.12, 95%CI 1.07–1.16; p < 0.001) and the event of urinary continence recovery (OR 1.66 95%CI 1.25–2.21; p < 0.001) were independent predictors of a marked LUTS improvement after RARP. Less rigorous IPSS-difference of − 5 points yielded identical predictors. To sum up, in substantial proportions of patients with preoperative moderate or severe LUTS a marked improvement of LUTS and QoL can be expected at 12 months after RARP. LRM revealed greatest benefit in those patients with preoperatively greatest LUTS burden, prostate enlargement, lower BMI, younger age and the event of urinary continence recovery.

The quality of life (QoL) of men with optimal outcomes after robot-assisted radical prostatectomy (RARP) is largely unexplored. Thus we assessed meaningful changes of QoL measured with the EORTC QLQ-C30 24 months after RARP according to postsurgical Cancer of the Prostate Risk Assessment score (CAPRA-S) and pentafecta criteria. 2871 prostate cancer (PCa) patients with completed EORTC QLQ-C30 were stratified according to CAPRA-S, pentafecta (erectile function recovery, urinary continence recovery, biochemical-recurrence-free survival (BFS), negative surgical margins) and 90-day Clavien–Dindo-complications (CDC) ≤ 3a. Multivariable logistic regression analyses (LRM) aimed to predict improvement of EORTC QoL. Mean preoperative QoL values did not significantly differ between CAPRA-S low- (LR) vs. high-risk (HR, 75.7 vs. 75.2; p = 0.7) and pentafecta vs. non-pentafecta groups (75.6 vs. 75.2; p = 0.6). After RARP, stable QoL rates for CAPRA-S LR vs. HR and pentafecta were 30, 26 and 30%, respectively. Corresponding improved QoL rates were 44, 32 and 47%. In LRM, CAPRA-S and pentafecta criteria were independent predictors of improved QoL. We conclude that most favourable combined outcomes after RARP might confer stable or even improved QoL but up to one third of patients might experience deterioration. This warrants further investigation how to capture the underlying cause and to address and potentially solve these perceived negative effects despite successful RARP.

Purpose:Prostate cancer patients who are scheduled for robot-assisted radical prostatectomy often have a history of transurethral resection or laser enucleation of the prostate as treatment of benign prostatic hyperplasia. We examined if these patients have impaired surgical, functional and oncologic outcomes compared to those who have no symptom burden of moderate to severe benign prostatic hyperplasia and no previous transurethral resection or laser enucleation of the prostate.Materials and Methods:We compared 368 robot-assisted radical prostatectomy patients with previous transurethral resection or laser enucleation of the prostate (group A) to 4,945 robot-assisted radical prostatectomy patients without transurethral resection or laser enucleation of the prostate and without moderate or severe benign prostatic hyperplasia symptoms (group B) at a high-volume robot-assisted radical prostatectomy center. Multivariable Cox regression analyses assessed impact of transurethral resection or laser enucleation of the prostate on erectile function and urinary continence recovery, biochemical recurrence or metastatic progression. Analyses were repeated after propensity score matching.Results:No relevant differences in surgical outcomes, such as surgical margin and 30-day complications rates, were observed. Urinary continence recovery rates at 12 months were 67% vs 74% (group A vs B; p <0.001). Erectile function recovery rates at 24 months were 52% vs 62% (p <0.001). Biochemical recurrence-free rates at 36 months were identical, at 87.3% vs 87.8%. Before and after propensity score matching, transurethral resection or laser enucleation of the prostate negatively affected erectile function recovery (matched HR 0.68, 95% CI 0.53–0.88; p=0.003) in multivariable Cox regression analyses. Similarly, transurethral resection or laser enucleation of the prostate had negative effect on urinary continence recovery (HR 0.84, 95% CI 0.73–0.97; p=0.015) but no effect on biochemical recurrence or metastatic progression.Conclusions:Previous transurethral resection or laser enucleation of the prostate does not negatively impact surgical, complication-related, and oncologic outcomes if the robot-assisted radical prostatectomy is performed by highly experienced surgeons. However, transurethral resection or laser enucleation of the prostate negatively affects erectile function and urinary continence recovery.

No abstract

No abstract