Akram Faisal, Gragnoli Claudia, Raheja Uttam K, Snitker Soren, Lowry Christopher A, Stearns-Yoder Kelly A, Hoisington Andrew J, Brenner Lisa A, Saunders Erika, Stiller John W, Ryan Kathleen A, Rohan Kelly J, Mitchell Braxton D, Postolache Teodor T
Mood and Anxiety Program, University of Maryland School of Medicine, Baltimore, MD, USA; Saint Elizabeths Hospital, DC Department of Behavioral Health, Washington, DC, USA.
Division of Endocrinology, Sidney Kimmel Medical College, Thomas Jefferson University, Philadelphia, PA, USA; Public Health Sciences, Penn State College of Medicine, Hershey, PA, USA; Molecular Biology Laboratory, Bios Biotech Multi-Diagnostic Health Center, Rome, Italy.
J Psychiatr Res. 2020 Mar;122:97-104. doi: 10.1016/j.jpsychires.2019.12.016. Epub 2020 Jan 2.
Overlapping pathways between mood and metabolic regulation have increasingly been reported. Although impaired regulation of adiponectin, a major metabolism-regulating hormone, has been implicated in major depressive disorder, its role in seasonal changes in mood and seasonal affective disorder-winter type (SAD), a disorder characterized by onset of mood impairment and metabolic dysregulation (e.g., carbohydrate craving and weight gain) in fall/winter and spontaneous alleviation in spring/summer, has not been previously studied. We studied a convenience sample of 636 Old Order Amish (mean (± SD), 53.6 (±14.8) years; 50.1% males), a population with self-imposed restriction on network electric light at home, and low prevalence of total SAD (t-SAD = syndromal + subsyndromal). We calculated the global seasonality score (GSS), estimated SAD and subsyndromal-SAD after obtaining Seasonal Pattern Assessment Questionnaires (SPAQs), and measured overnight fasting plasma adiponectin levels. We then tested associations between plasma adiponectin levels and GSS, t-SAD, winter-summer difference in self-reported sleep duration, and self-reported seasonal weight change, by using analysis of co-variance (ANCOVA) and linear regression analysis after adjusting for age, gender, and BMI. Participants with t-SAD (N = 14; 2.2%) had significantly lower plasma adiponectin levels (mean ± SEM, 8.76 ± 1.56 μg/mL) than those without t-SAD (mean ± SEM, 11.93 ± 0.22 μg/mL) (p = 0.035). In addition, there was significant negative association between adiponectin levels and winter-summer difference in self-reported sleep duration (p = 0.025) and between adiponectin levels and self-reported seasonal change in weight (p = 0.006). There was no significant association between GSS and adiponectin levels (p = 0.88). To our knowledge, this is the first study testing the association of SAD with adiponectin levels. Replication and extension of our findings longitudinally and, then, interventionally, may implicate low adiponectin as a novel target for therapeutic intervention in SAD.
越来越多的研究报告了情绪调节与代谢调节之间存在重叠途径。尽管脂联素(一种主要的代谢调节激素)的调节受损与重度抑郁症有关,但其在情绪季节性变化和季节性情感障碍-冬季型(SAD)中的作用此前尚未得到研究。SAD的特征是在秋冬季节出现情绪障碍和代谢失调(如渴望碳水化合物和体重增加),并在春夏季节自发缓解。我们对636名旧秩序阿米什人进行了一项便利样本研究(平均年龄(±标准差)为53.6(±14.8)岁;男性占50.1%),这是一个在家中自行限制使用网络电灯且SAD总患病率较低(t-SAD = 综合征性 + 亚综合征性)的人群。我们计算了全球季节性评分(GSS),在获得季节性模式评估问卷(SPAQs)后估计了SAD和亚综合征性SAD,并测量了过夜空腹血浆脂联素水平。然后,我们通过协方差分析(ANCOVA)和线性回归分析,在调整年龄、性别和BMI后,测试了血浆脂联素水平与GSS、t-SAD、自我报告的睡眠时间的冬夏差异以及自我报告的季节性体重变化之间的关联。患有t-SAD的参与者(N = 14;2.2%)的血浆脂联素水平(平均±标准误,8.76 ± 1.56 μg/mL)显著低于未患t-SAD的参与者(平均±标准误,11.93 ± 0.22 μg/mL)(p = 0.035)。此外,脂联素水平与自我报告的睡眠时间的冬夏差异之间存在显著负相关(p = 0.025),与自我报告的季节性体重变化之间也存在显著负相关(p = 0.006)。GSS与脂联素水平之间无显著关联(p = 0.88)。据我们所知,这是第一项测试SAD与脂联素水平之间关联的研究。对我们的研究结果进行纵向复制和扩展,然后进行干预性研究,可能会表明低水平的脂联素是SAD治疗干预的一个新靶点。