Abstract 4147601: Associations between Accelerated Aging Phenotypes with Cancer-Specific and Cardiovascular-Specific Mortality in Long-Term Cancer Survivorship

Background: The consequences of cancer and anti-cancer treatments are often described as representing an “accelerated aging” phenotype. However, little is known about how the “accelerated aging” phenotype affects mortality risks in long-term cancer survivors. Purpose: To investigate the association between accelerated aging phenotype and cause-specific mortality in a sample of long-term cancer survivors Methods: Data for cancer survivors (CS) were extracted from the National Health and Nutrition Examination Survey between the years 1999-2010. Participants missing vital data and those diagnosed with multiple cancers, childhood cancers, cancer within the previous 5 years, or skin cancer were excluded. Mortality outcomes were collected from the National Death Index through December 2019. The Phenotype Age score was derived from blood biochemistry measures such as albumin, creatinine, and c-reactive protein. Accelerated Aging (AA) was defined as a Phenotype Age greater than the participants’ chronological age. CS were grouped by time since diagnosis: 5-10, 10-15, 15-20, and ≥20 years. Within each group, hazard ratios (HR) were derived from competing-risk hazard regression for the AA phenotype association with cancer-specific and cardiovascular-specific mortality. Regressions were modeled with participant age as the time-scale to account for the predictive nature of chronological age. Results: A total of 875 CS (65.6±12.9 years, 62% female, 31% non-white, 15.6±9.4 years from cancer diagnosis) were included. The most common cancer types were prostate (16%) and breast (21%) cancer. There were 107 cancer and 113 cardiovascular deaths over a 10.8±4.6 year follow-up. The AA phenotype was significantly associated with cardiovascular-specific mortality in each survivor group (all p<0.05). Conversely, the AA phenotype was only significantly associated with cancer-specific mortality in the 5-10 years of survivorship group (p=0.01). Results are displayed in Figure 1, along with cubic splines fit to the HR of each survivorship group. Conclusions: Present results suggest that the AA phenotype may demonstrate time-dependent associations with cancer-specific and cardiovascular-specific risks, two leading causes of death in CS.

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Journal
Circulation
Published
2024-11-11
DOI
https://doi.org/10.1161/circ.150.suppl_1.4147601
Primary Topic
Cardiovascular Health and Risk Factors
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article
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article

Abstract 4147601: Associations between Accelerated Aging Phenotypes with Cancer-Specific and Cardiovascular-Specific Mortality in Long-Term Cancer Survivorship

Carl J. Ade, Britton Scheuermann
Circulation
Cardiovascular Health and Risk Factors
article

Abstract 4147601: Associations between Accelerated Aging Phenotypes with Cancer-Specific and Cardiovascular-Specific Mortality in Long-Term Cancer Survivorship

Carl J. Ade, Britton Scheuermann
article en

Abstract

Background: The consequences of cancer and anti-cancer treatments are often described as representing an “accelerated aging” phenotype. However, little is known about how the “accelerated aging” phenotype affects mortality risks in long-term cancer survivors. Purpose: To investigate the association between accelerated aging phenotype and cause-specific mortality in a sample of long-term cancer survivors Methods: Data for cancer survivors (CS) were extracted from the National Health and Nutrition Examination Survey between the years 1999-2010. Participants missing vital data and those diagnosed with multiple cancers, childhood cancers, cancer within the previous 5 years, or skin cancer were excluded. Mortality outcomes were collected from the National Death Index through December 2019. The Phenotype Age score was derived from blood biochemistry measures such as albumin, creatinine, and c-reactive protein. Accelerated Aging (AA) was defined as a Phenotype Age greater than the participants’ chronological age. CS were grouped by time since diagnosis: 5-10, 10-15, 15-20, and ≥20 years. Within each group, hazard ratios (HR) were derived from competing-risk hazard regression for the AA phenotype association with cancer-specific and cardiovascular-specific mortality. Regressions were modeled with participant age as the time-scale to account for the predictive nature of chronological age. Results: A total of 875 CS (65.6±12.9 years, 62% female, 31% non-white, 15.6±9.4 years from cancer diagnosis) were included. The most common cancer types were prostate (16%) and breast (21%) cancer. There were 107 cancer and 113 cardiovascular deaths over a 10.8±4.6 year follow-up. The AA phenotype was significantly associated with cardiovascular-specific mortality in each survivor group (all p<0.05). Conversely, the AA phenotype was only significantly associated with cancer-specific mortality in the 5-10 years of survivorship group (p=0.01). Results are displayed in Figure 1, along with cubic splines fit to the HR of each survivorship group. Conclusions: Present results suggest that the AA phenotype may demonstrate time-dependent associations with cancer-specific and cardiovascular-specific risks, two leading causes of death in CS.

CirculationVol. 150(Suppl_1)
Kansas State University (US)
Good health and well-being
Openalex Percentile: Top 63%
Cardiovascular Health and Risk Factors
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