| Literature DB >> 33255309 |
Gabriella M McLoughlin1,2, Eric M Wiedenman1,2, Sarah Gehlert3,4, Ross C Brownson1,2.
Abstract
Although innovative and impactful interventions are necessary for the primary prevention of breast cancer, the factors influencing program adoption, implementation, and sustainment are key, yet remain poorly understood. Insufficient attention has been paid to the primary prevention of breast cancer in state and national cancer plans, limiting the impact of evidence-based interventions on population health. This commentary highlights the state of primary prevention of breast cancer and gaps in the current literature. As a way to enhance the reach and adoption of cancer prevention policies and programs, the utility of dissemination and implementation (D&I) science is highlighted. Examples of how D&I could be applied to study policies and programs for chronic disease prevention are described, in addition to needs for future research. Through application of D&I science and a strong focus on health equity, a clearer understanding of contextual factors influencing the success of prevention programs will be achieved, ultimately impacting population health.Entities:
Keywords: breast cancer; dissemination and implementation; policy; translational research
Mesh:
Year: 2020 PMID: 33255309 PMCID: PMC7727708 DOI: 10.3390/ijerph17238720
Source DB: PubMed Journal: Int J Environ Res Public Health ISSN: 1660-4601 Impact factor: 4.614
Breast cancer risk factors.
| Factors | Impact on Breast Cancer (BC) Risk |
|---|---|
|
| |
| Age | Increase in risk with increase in age [ |
| Age at first birth | Older age increases overall risk and breast cancer density risk [ |
| Age at menarche | Earlier age increases overall risk [ |
| Age at menopause | Later age increases overall risk [ |
| Breast density | Increases overall risk [ |
| Family history | Increases overall risk [ |
| Race/Ethnicity | Strongly associated with behavioral factors in addition to age at first birth, age at menarche, education, income, obesity, tobacco use, and breast density [ |
| Alcohol consumption | Increases overall risk; identified as leading modifiable risk factor [ |
| Mediterranean/Low glycemic index diet | Associated with decreased overall risk [ |
| Weight management | Increases overall risk as age increases, especially after menopause [ |
|
| |
| Breastfeeding | Decreases overall incidence [ |
| Parity | Decreases breast density and overall risk [ |
| Obesity | Moderately associated with postmenopausal BC risk Inverse or no association for premenopausal BC risk [ |
| Physical activity | Decreases overall risk, as well as risk for obesity [ |
| Tobacco use | Increases overall risk [ |
| Exposure to light at night/sleep loss | Increases overall risk through disruption of sleep cycle, hormone release [ |
| Total suspended particles (TSP) | Increases overall risk [ |
| Chemical exposures (gasoline, exhaust, PCB, DDT, PAH, EDC) | Increases overall risk [ |
| Windows of susceptibility (WOS) | Commonly identified as prenatal, pubertal, pregnancy, and menopausal time frames. Epidemiologic data support that medications, medical conditions, and environmental exposures during these times may increase BC risk [ |
| Education | Higher levels of education are associated with increased breast feeding (protective factor), income, physical activity, and age at first birth, as well as decreased tobacco use [ |
| Socioeconomic status (SES) | Low SES is associated with increased tobacco and alcohol use, obesity, decreased physical activity, and overall poor outcomes for cancer treatment [ |
| Psychological factors | High stress, anxiety and depression are associated with severity of cancer diagnosis as well as potential survivorship rates [ |