CC BY-NC-ND 4.0 · Sleep Sci 2018; 11(04): 281-289
DOI: 10.5935/1984-0063.20180044
ORIGINAL ARTICLE

A nonparametric methodological analysis of rest-activity rhythm in type 2 diabetes

Paula Cavalcanti-Ferreira
1   Loma Linda University, Physical Therapy - Loma Linda - CA - United States.
2   California State University, Northridge - CA - United States.
,
Lee Berk
1   Loma Linda University, Physical Therapy - Loma Linda - CA - United States.
,
Noha Daher
1   Loma Linda University, Physical Therapy - Loma Linda - CA - United States.
,
Tania Campus
3   Universidade Federal do Rio Grande do Norte, Physical Therapy - Natal - RN - Brazil.
,
John Araujo
3   Universidade Federal do Rio Grande do Norte, Physical Therapy - Natal - RN - Brazil.
,
Jerrold Petrofsky
1   Loma Linda University, Physical Therapy - Loma Linda - CA - United States.
,
Everett Lohman
1   Loma Linda University, Physical Therapy - Loma Linda - CA - United States.
› Author Affiliations

The purpose of this study was to analyze the rest-activity rhythm of type 2 diabetics mellitus (T2DM) and compare it to healthy controls using the nonparametric analytic approach. Twenty-one diabetics and 21 healthy subjects matched for gender and age were recruited to participate in the study. Data were analyzed using the Independent t-test, Mann-Whitney U test, and Spearmans correlation. T2DM subjects demonstrate lower interdaily stability (IS) (p=.03), higher intradaily variability (p=.046) and lower rhythm amplitude (p=.02) when compared to healthy controls. Also, there was a positive correlation between IS and most active 10 hr (M10) in the average of 24 hours pattern (r =.44; p=.046) in the diabetes group and a negative correlation between IV and M10 in the healthy group (r =-.57; p=.007). These data together suggest that T2DM exhibits a dysfunction in the rest-activity rhythm due to alterations in the circadian function as well as in the homeostatic capacity to maintain sleep; mainly characterized by less consistency across days of the daily circadian signal, higher rhythm fragmentation and lower rhythm amplitude. Future approaches may be developed considering the influence of circadian glucose variations throughout the day on the coupling of the rest-activity rhythm to zeitgeber and rhythm fragmentation.



Publication History

Received: 29 July 2017

Accepted: 27 August 2018

Article published online:
16 October 2023

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