Last data update: Dec 02, 2024. (Total: 48272 publications since 2009)
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Query Trace: Conn L[original query] |
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Association between passively collected walking and bicycling data and purposefully collected active commuting survey data-United States, 2019
Soto GW , Webber BJ , Fletcher K , Chen TJ , Garber MD , Smith A , Wilt G , Conn M , Whitfield GP . Health Place 2023 81 103002 Commercially-available location-based services (LBS) data derived primarily from mobile devices may provide an alternative to surveys for monitoring physically-active transportation. Using Spearman correlation, we compared county-level metrics of walking and bicycling from StreetLight with metrics of physically-active commuting among U.S. workers from the American Community Survey. Our strongest pair of metrics ranked counties (n = 298) similarly for walking (rho = 0.53 [95% CI: 0.44-0.61]) and bicycling (rho = 0.61 [0.53-0.67]). Correlations were higher for denser and more urban counties. LBS data may offer public health and transportation professionals timely information on walking and bicycling behavior at finer geographic scales than some existing surveys. |
Developing a granular scale environmental burden index (EBI) for diverse land cover types across the contiguous United States
Owusu C , Flanagan B , Lavery AM , Mertzlufft CE , McKenzie BA , Kolling J , Lewis B , Dunn I , Hallisey E , Lehnert EA , Fletcher K , Davis R , Conn M , Owen LR , Smith MM , Dent A . Sci Total Environ 2022 838 155908 Critical to identifying the risk of environmentally driven disease is an understanding of the cumulative impact of environmental conditions on human health. Here we describe the methodology used to develop an environmental burden index (EBI). The EBI is calculated at U.S. census tract level, a finer scale than many similar national-level tools. EBI scores are also stratified by tract land cover type as per the National Land Cover Database (NLCD), controlling for urbanicity. The EBI was developed over the course of four stages: 1) literature review to identify potential indicators, 2) data source acquisition and indicator variable construction, 3) index creation, and 4) stratification by land cover type. For each potential indicator, data sources were assessed for completeness, update frequency, and availability. These indicators were: (1) particulate matter (PM2.5), (2) ozone, (3) Superfund National Priority List (NPL) locations, (4) Toxics Release Inventory (TRI) facilities, (5) Treatment, Storage, and Disposal (TSD) facilities, (6) recreational parks, (7) railways, (8) highways, (9) airports, and (10) impaired water sources. Indicators were statistically normalized and checked for collinearity. For each indicator, we computed and summed percentile ranking scores to create an overall ranking for each tract. Tracts having the same plurality of land cover type form a 'peer' group. We re-ranked the tracts into percentiles within each peer group for each indicator. The percentile scores were combined for each tract to obtain a stratified EBI. A higher score reveals a tract with increased environmental burden relative to other tracts of the same peer group. We compared our results to those of related indices, finding good convergent validity between the overall EBI and CalEnviroScreen 4.0. The EBI has many potential applications for research and use as a tool to develop public health interventions at a granular scale. |
Cost and effectiveness of reminders to promote colorectal cancer screening uptake in rural Federally Qualified Health Centers in West Virginia
Conn ME , Kennedy-Rea S , Subramanian S , Baus A , Hoover S , Cunningham C , Tangka FKL . Health Promot Pract 2020 21 (6) 891-897 The purpose of this study is to evaluate the effectiveness of the West Virginia Program to Increase Colorectal Cancer Screening in implementing patient reminders to increase fecal immunochemical test (FIT) kit return rates in nine federally qualified health centers (FQHCs). Using process measures and cost data collected, the authors examined the differences in the intensity of the phone calls across FQHCs and compared them with the return rates achieved. They also reported the cost per kit successfully returned as a result of the intervention. Across all FQHCs, 5,041 FIT kits were ordered, and the initial return rate (without a reminder) was 41.1%. A total of 2,201 patients received reminder phone calls; on average, patients received 1.61 reminder calls each. The reminder interventions increased the average FIT kit return rate to 60.7%. The average total cost per FIT kit returned across all FQHCs was $60.18, and the average cost of only the reminders was $11.20 per FIT kit returned. FQHCs achieved an average increase of 19.6 percentage points in FIT kit return rates, and costs across clinics varied. Clinics with high-quality health information systems that enabled tracking of patients with minimal effort were able to implement lower cost reminder interventions. |
Identifying optimal approaches to scale up colorectal cancer screening: an overview of the Centers for Disease Control and Prevention (CDC)'s learning laboratory
Tangka FKL , Subramanian S , Hoover S , Lara C , Eastman C , Glaze B , Conn ME , DeGroff A , Wong FL , Richardson LC . Cancer Causes Control 2018 30 (2) 169-175 Use of recommended screening tests can reduce new colorectal cancers (CRC) and deaths, but screening uptake is suboptimal in the United States (U.S.). The Centers for Disease Control and Prevention (CDC) funded a second round of the Colorectal Cancer Control Program (CRCCP) in 2015 to increase screening rates among individuals aged 50-75 years. The 30 state, university, and tribal awardees supported by the CRCCP implement a range of multicomponent interventions targeting health systems that have low CRC screening uptake, including low-income and minority populations. CDC invited a select subset of 16 CRCCP awardees to form a learning laboratory with the goal of performing targeted evaluations to identify optimal approaches to scale-up interventions to increase uptake of CRC screening among vulnerable populations. This commentary provides an overview of the CRCCP learning laboratory, presents findings from the implementation of multicomponent interventions at four FQHCs participating in the learning laboratory, and summarizes key lessons learned on intervention implementation approaches. Lessons learned can support future program implementation to ensure scalability and sustainability of the interventions as well as guide future implementation science and evaluation studies conducted by the CRCCP learning laboratory. |
The promise of electronic case reporting
MacKenzie WR , Davidson AJ , Wiesenthal A , Engel JP , Turner K , Conn L , Becker SJ , Moffatt S , Groseclose SL , Jellison J , Stinn J , Garrett NY , Helmus L , Harmon B , Richards CL , Lumpkin JR , Iademarco MF . Public Health Rep 2016 131 (6) 742-746 Public health surveillance is focused on the detection of acute, chronic, and emerging threats to the health of the population to direct disease control and prevention efforts.1 Public health surveillance relies on health care providers to report to public health agencies conditions or outbreaks that may impact the broader population. This case reporting is mandated through laws and regulations at the state and local levels. Notification of cases to the Centers for Disease Control and Prevention (CDC) is facilitated by agreements between states and the federal government.2 Historically, case reporting has been based on paper reports or Internet-based entry of reports to state health department systems, but these reports are often slow or incomplete and place a substantial burden of work on health care providers and public health agencies.3 The future of surveillance is electronic case reporting (eCR), by which cases of reportable conditions are automatically generated from electronic health record (EHR) systems and transmitted to public health agencies for review and action. | eCR holds promise for enhancing the quality and effectiveness of public health surveillance.4 Greater use of eCR could result in (1) more complete and accurate case data in near real time for public health action; (2) earlier detection of cases, permitting earlier intervention and lowered transmission of disease; (3) improved detection of outbreaks to allow earlier investigation and, potentially, earlier identification of risk factors for the spread of disease; and (4) creation of a new infrastructure to support rapid reporting of newly recognized and emerging conditions. In this commentary, we review the promise of eCR and present our vision for a nationally interoperable eCR system that allows for timely reporting to public health and information sharing among jurisdictions. |
Update on progress in electronic reporting of laboratory results to public health agencies - United States, 2014
Lamb E , Satre J , Hurd-Kundeti G , Liscek B , Hall CJ , Pinner RW , Conn L , Zajac J , Smallwood M , Smith K . MMWR Morb Mortal Wkly Rep 2015 64 (12) 328-30 Since 2010, CDC has provided resources from the Prevention and Public Health Fund of the Affordable Care Act to 57 state, local, and territorial health departments through the Epidemiology and Laboratory Capacity for Infectious Diseases cooperative agreement to assist with implementation of electronic laboratory reporting (ELR) from clinical and public health laboratories to public health agencies. To update information from a previous report about the progress in implementing ELR in the United States, CDC examined regular communications between the agency and the 57 health departments during 2012-2014. The results indicated that, as of July 2014, 67% of the approximately 20 million laboratory reports received annually for notifiable conditions were received electronically, compared with 62% in July 2013. These electronic reports were received by 55 of the 57 jurisdictions and came from 3,269 (up from nearly 2,900 in July 2013) of approximately 10,600 reporting laboratories. The proportion of laboratory reports received electronically varied by jurisdiction. In 2014, compared with 2013, the number of jurisdictions receiving >75% of laboratory reports electronically was higher (21 versus 14), and the number of jurisdictions receiving <25% of reports electronically was lower (seven versus nine). National implementation of ELR continues to increase and appears it might reach 80% of total laboratory report volume by 2016. |
Strengthening national laboratory health systems in the Caribbean region
Alemnji GA , Branch S , Best A , Kalou M , Parekh B , Waruiru W , Milstrey E , Conn W , Nkengasong JN , Lecher S . Glob Public Health 2012 7 (6) 648-60 The President's Emergency Plan for AIDS Relief (PEPFAR) programme for the Caribbean Region was established in 2008 to address health system challenges, including fragile laboratory services and systems. The laboratory component of this programme consisted of several phases: assessment of laboratory needs of all 12 countries engaged in the programme; addressing gaps identified during the assessment; and monitoring and evaluation of the progress achieved. After one year of PEPFAR collaboration with national governments and other partners, laboratory services and systems greatly improved. Some of the milestones include: (1) the accreditation of a public laboratory; (2) improved access to HIV diagnosis with faster turnaround time; (3) establishment of capacity for platforms for DNA PCR, viral load and HIV drug resistance; (4) development of the laboratory workforce; and (5) establishment of a framework for implementation of sustainable quality management systems for laboratory accreditation. The progress recorded in strengthening laboratory health systems after one year of initiating this collaboration shows that with a rigorous initial assessment, programme design and intervention and strategic partnership, national laboratory health systems can be greatly enhanced to support programme implementation. Continued collaboration and country leadership is critical to create an integrated and sustainable laboratory network in the Caribbean. |
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