Chronic Pain Resilience Across Clinical Populations: A Concept Analysis.

BACKGROUND: Chronic pain resilience is a concept that is frequently used in research but lacks theoretical clarity. Understanding chronic pain resilience is germane to developing interventions to improve it and the overall quality of life among individuals with chronic pain. AIMS: To uncover and clarify the unique characteristics of the concept of chronic pain resilience. DESIGN: A concept analysis using Rodgers' evolutionary method. METHODS: Full-text articles published after 2000 in English were used to inform the concept analysis. Scopus, PubMed, PsychINFO, Embase, and CINAHL Plus with Full Text were utilized for literature searches. Rodgers' evolutionary approach was used to clarify the attributes, antecedents, and consequences. RESULTS: The search yielded 31 articles that were used in the analysis. The key attributes of chronic pain resilience included engagement in meaningful activities despite pain, maintaining positive psychological homeostasis, buffering against negative mental outcomes, seeking support, and self-empowerment. After considering surrogate terms, antecedents, attributes, and consequences, chronic pain resilience may be defined as the development of the capacity to successfully adapt to chronic pain. This adaptation results in a move toward optimal social, physical, mental, and behavioral functioning by balancing negative and positive psychosocial factors, despite the additional challenges brought about by living with chronic pain.

The Pace of Biological Aging Predicts Nonspecific Chronic Low Back Pain Severity.

This study aimed to determine if and how the pace of biological aging was associated with nonspecific chronic low back pain (cLBP) and compare what measure of epigenetic age acceleration most strongly predicts cLBP outcomes. We used the Dunedin Pace of Aging from the Epigenome (DunedinPACE), Horvath's, Hannum's, and PhenoAge clocks to determine the pace of biological aging in 69 cLBP, and 49 pain-free controls (PFCs) adults, ages 18 to 85 years. On average, participants with cLBP had higher DunedinPACE (P < .001) but lower Horvath (P = .04) and Hannum (P = .02) accelerated epigenetic age than PFCs. There was no significant difference in PhenoAge acceleration between the cLBP and PFC groups (P = .97). DunedinPACE had the largest effect size (Cohen's d = .78) on group differences. In univariate regressions, a unit increase in DunedinPACE score was associated with 265.98 times higher odds of cLBP than the PFC group (P < .001). After controlling for sex, race, and body mass index (BMI), the odds ratio of cLBP to PFC group was 149.62 (P < .001). Furthermore, among participants with cLBP, DunedinPACE scores positively correlated with pain severity (rs = .385, P = .001) and interference (rs = .338, P = .005). Epigenetic age acceleration from Horvath, Hannum, and PhenoAge clocks were not significant predictors of cLBP. The odds of a faster pace of biological aging are higher among adults with cLBP, and this was associated with greater pain severity and disability. Future interventions to slow the pace of biological aging may improve cLBP outcomes. PERSPECTIVE: Accelerated epigenetic aging is common among adults with nonspecific cLBP. Higher DunedinPACE scores positively correlate with pain severity and interference, and better predict cLBP than other DNA methylation clocks. Interventions to slow the pace of biological aging may be viable targets for improving pain outcomes.

Heat Islands and Chronic Disease: Could African Americans Be More Vulnerable to Heat-Related Health Impacts?

Global warming and environmental heat stress are public health concerns. Urban heat islands, metropolitan areas with higher temperatures compared to their surrounding rural areas, compound the effects of increased environmental heat. In addition to acute heat-related illness, increased environmental heat is linked to exacerbation of chronic diseases. The purpose of this narrative review is to provide an overview of heat islands and how the effects of heat stress intersect with chronic diseases in the African American (AA) community. Across the United States, AAs are more likely to reside in heat islands, resulting in greater exposure to environmental heat. Unfortunately, chronic diseases exacerbated by increased environmental heat disproportionately impact the AA community. Due to the intersection of these disparities, heat-related health risks are likely higher for the AAs. The increased health risks posed by urban heat island exposure on AAs have significant implications for nursing practice, research, and policy.