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Dive into the research topics where Tyler H. Gums is active.

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Featured researches published by Tyler H. Gums.


Pharmacotherapy | 2014

Physician–Pharmacist Collaborative Management of Asthma in Primary Care

Tyler H. Gums; Barry L. Carter; Gary Milavetz; Lucinda M. Buys; Kurt A. Rosenkrans; Liz Uribe; Christopher S. Coffey; Eric J. MacLaughlin; Rodney Young; Adrienne Z. Ables; Nima M. Patel-Shori; Angela M. Wisniewski

To determine if asthma control improves in patients who receive physician–pharmacist collaborative management (PPCM) during visits to primary care medical offices.


Contemporary Clinical Trials | 2015

A centralized cardiovascular risk service to improve guideline adherence in private primary care offices

Barry L. Carter; Barcey T. Levy; Brian M. Gryzlak; Elizabeth A. Chrischilles; Mark W. Vander Weg; Alan J. Christensen; Paul A. James; Carol A. Moss; Christopher P. Parker; Tyler H. Gums; Rachel J. Finkelstein; Yinghui Xu; Jeffrey D. Dawson; Linnea A. Polgreen

BACKGROUND Many large health systems now employ clinical pharmacists in team-based care to assist patients and physicians with management of cardiovascular (CV) diseases. However, small private offices often lack the resources to hire a clinical pharmacist for their office. The purpose of this study is to evaluate whether a centralized, web-based CV risk service (CVRS) managed by clinical pharmacists will improve guideline adherence in primary care medical offices in rural and small communities. METHODS This study is a cluster randomized prospective trial in 12 primary care offices. Medical offices were randomized to either the CVRS intervention or usual care. The intervention will last for 12 months and all subjects will have research visits at baseline and 12 months. Primary outcomes will include adherence to treatment guidelines and control of key CV risk factors. Data will also be abstracted from the medical record at 30 months to determine if the intervention effect is sustained after it is discontinued. CONCLUSIONS This study will enroll subjects through 2015 and results will be available in 2018. This study will provide information on whether a distant, centralized CV risk service can improve guideline adherence in medical offices that lack the resources to employ clinical pharmacists.


Hypertension | 2016

Physician–Pharmacist Collaborative ManagementNovelty and Significance: Narrowing the Socioeconomic Blood Pressure Gap

Maxwell D. Anderegg; Tyler H. Gums; Liz Uribe; Christopher S. Coffey; Paul A. James; Barry L. Carter

Physician–pharmacist collaboration improves blood pressure, but there is little information on whether this model can reduce the gap in healthcare disparities. This trial involved 32 medical offices in 15 states. A clinical pharmacist was embedded within each office and made recommendations to physicians and patients in intervention offices. The purpose of the present analysis was to evaluate whether the pharmacist intervention could reduce healthcare disparities by improving blood pressure in high-risk racial and socioeconomic subjects compared with the control group. The analyses in minority subjects were prespecified secondary analyses, but all other comparisons were secondary, post hoc analyses. The 9-month visit was completed by 539 patients: 345 received the intervention, and 194 were in the control group. Following the intervention, mean systolic blood pressure was found to be 7.3 mm Hg (95% confidence interval 2.4, 12.3) lower in subjects from racial minority groups who received the intervention compared with the control group (P=0.0042). Subjects with ⩽12 years of education in the intervention group had a systolic blood pressure 8.1 mm Hg (95% confidence interval 3.2, 13.1) lower than the control group with lower education (P=0.0001). Similar reductions in blood pressure occurred in patients with low incomes, those receiving Medicaid, or those without insurance. This study demonstrated that a pharmacist intervention reduced racial and socioeconomic disparities in the treatment of blood pressure. Although disparities in blood pressure were reduced by the intervention, there were still nonsignificant gaps in mean systolic blood pressure when compared with intervention subjects not at risk. Clinical Trial Registration— URL: http://clinicaltrials.gov. Unique identifier: NCT00935077.Physician–pharmacist collaboration improves blood pressure, but there is little information on whether this model can reduce the gap in healthcare disparities. This trial involved 32 medical offices in 15 states. A clinical pharmacist was embedded within each office and made recommendations to physicians and patients in intervention offices. The purpose of the present analysis was to evaluate whether the pharmacist intervention could reduce healthcare disparities by improving blood pressure in high-risk racial and socioeconomic subjects compared with the control group. The analyses in minority subjects were prespecified secondary analyses, but all other comparisons were secondary, post hoc analyses. The 9-month visit was completed by 539 patients: 345 received the intervention, and 194 were in the control group. Following the intervention, mean systolic blood pressure was found to be 7.3 mm Hg (95% confidence interval 2.4, 12.3) lower in subjects from racial minority groups who received the intervention compared with the control group ( P =0.0042). Subjects with ≤12 years of education in the intervention group had a systolic blood pressure 8.1 mm Hg (95% confidence interval 3.2, 13.1) lower than the control group with lower education ( P =0.0001). Similar reductions in blood pressure occurred in patients with low incomes, those receiving Medicaid, or those without insurance. This study demonstrated that a pharmacist intervention reduced racial and socioeconomic disparities in the treatment of blood pressure. Although disparities in blood pressure were reduced by the intervention, there were still nonsignificant gaps in mean systolic blood pressure when compared with intervention subjects not at risk. Clinical Trial Registration— URL: . Unique identifier: [NCT00935077][1]. # Novelty and Significance {#article-title-37} [1]: /lookup/external-ref?link_type=CLINTRIALGOV&access_num=NCT00935077&atom=%2Fhypertensionaha%2F68%2F5%2F1314.atom


Pharmacotherapy | 2015

A Cluster-Randomized Trial of a Centralized Clinical Pharmacy Cardiovascular Risk Service to Improve Guideline Adherence

Barry L. Carter; Christopher S. Coffey; Elizabeth A. Chrischilles; Gail Ardery; Dixie Ecklund; Brian M. Gryzlak; Mark W. Vander Weg; Paul A. James; Alan J. Christensen; Christopher P. Parker; Tyler H. Gums; Rachel J. Finkelstein; Liz Uribe; Linnea A. Polgreen

Numerous studies have demonstrated the value of including pharmacists in team‐based care to improve adherence to cardiovascular (CV) guidelines, medication adherence, and risk factor control. However, there is limited information on whether these models can be successfully implemented more widely in diverse settings and populations. The purpose of this study is to evaluate whether a centralized, web‐based cardiovascular risk service (CVRS) managed by clinical pharmacists will improve guideline adherence in multiple primary care medical offices with diverse geographic and patient characteristics.


Hypertension | 2016

Physician–Pharmacist Collaborative Management: Narrowing the Socioeconomic Blood Pressure Gap

Maxwell D. Anderegg; Tyler H. Gums; Liz Uribe; Christopher S. Coffey; Paul A. James; Barry L. Carter

Physician–pharmacist collaboration improves blood pressure, but there is little information on whether this model can reduce the gap in healthcare disparities. This trial involved 32 medical offices in 15 states. A clinical pharmacist was embedded within each office and made recommendations to physicians and patients in intervention offices. The purpose of the present analysis was to evaluate whether the pharmacist intervention could reduce healthcare disparities by improving blood pressure in high-risk racial and socioeconomic subjects compared with the control group. The analyses in minority subjects were prespecified secondary analyses, but all other comparisons were secondary, post hoc analyses. The 9-month visit was completed by 539 patients: 345 received the intervention, and 194 were in the control group. Following the intervention, mean systolic blood pressure was found to be 7.3 mm Hg (95% confidence interval 2.4, 12.3) lower in subjects from racial minority groups who received the intervention compared with the control group (P=0.0042). Subjects with ⩽12 years of education in the intervention group had a systolic blood pressure 8.1 mm Hg (95% confidence interval 3.2, 13.1) lower than the control group with lower education (P=0.0001). Similar reductions in blood pressure occurred in patients with low incomes, those receiving Medicaid, or those without insurance. This study demonstrated that a pharmacist intervention reduced racial and socioeconomic disparities in the treatment of blood pressure. Although disparities in blood pressure were reduced by the intervention, there were still nonsignificant gaps in mean systolic blood pressure when compared with intervention subjects not at risk. Clinical Trial Registration— URL: http://clinicaltrials.gov. Unique identifier: NCT00935077.Physician–pharmacist collaboration improves blood pressure, but there is little information on whether this model can reduce the gap in healthcare disparities. This trial involved 32 medical offices in 15 states. A clinical pharmacist was embedded within each office and made recommendations to physicians and patients in intervention offices. The purpose of the present analysis was to evaluate whether the pharmacist intervention could reduce healthcare disparities by improving blood pressure in high-risk racial and socioeconomic subjects compared with the control group. The analyses in minority subjects were prespecified secondary analyses, but all other comparisons were secondary, post hoc analyses. The 9-month visit was completed by 539 patients: 345 received the intervention, and 194 were in the control group. Following the intervention, mean systolic blood pressure was found to be 7.3 mm Hg (95% confidence interval 2.4, 12.3) lower in subjects from racial minority groups who received the intervention compared with the control group ( P =0.0042). Subjects with ≤12 years of education in the intervention group had a systolic blood pressure 8.1 mm Hg (95% confidence interval 3.2, 13.1) lower than the control group with lower education ( P =0.0001). Similar reductions in blood pressure occurred in patients with low incomes, those receiving Medicaid, or those without insurance. This study demonstrated that a pharmacist intervention reduced racial and socioeconomic disparities in the treatment of blood pressure. Although disparities in blood pressure were reduced by the intervention, there were still nonsignificant gaps in mean systolic blood pressure when compared with intervention subjects not at risk. Clinical Trial Registration— URL: . Unique identifier: [NCT00935077][1]. # Novelty and Significance {#article-title-37} [1]: /lookup/external-ref?link_type=CLINTRIALGOV&access_num=NCT00935077&atom=%2Fhypertensionaha%2F68%2F5%2F1314.atom


International Journal of Clinical Pharmacy | 2015

Cluster randomized trials for pharmacy practice research

Tyler H. Gums; Barry L. Carter; Eric Foster

Introduction Cluster randomized trials (CRTs) are now the gold standard in health services research, including pharmacy-based interventions. Studies of behaviour, epidemiology, lifestyle modifications, educational programs, and health care models are utilizing the strengths of cluster randomized analyses. Methodology The key property of CRTs is the unit of randomization (clusters), which may be different from the unit of analysis (individual). Subject sample size and, ideally, the number of clusters is determined by the relationship of between-cluster and within-cluster variability. The correlation among participants recruited from the same cluster is known as the intraclass correlation coefficient (ICC). Generally, having more clusters with smaller ICC values will lead to smaller sample sizes. When selecting clusters, stratification before randomization may be useful in decreasing imbalances between study arms. Participant recruitment methods can differ from other types of randomized trials, as blinding a behavioural intervention cannot always be done. When to use CRTs can yield results that are relevant for making “real world” decisions. CRTs are often used in non-therapeutic intervention studies (e.g. change in practice guidelines). The advantages of CRT design in pharmacy research have been avoiding contamination and the generalizability of the results. A large CRT that studied physician–pharmacist collaborative management of hypertension is used in this manuscript as a CRT example. The trial, entitled Collaboration Among Pharmacists and physicians To Improve Outcomes Now (CAPTION), was implemented in primary care offices in the United States for hypertensive patients. Limitations CRT design limitations include the need for a large number of clusters, high costs, increased training, increased monitoring, and statistical complexity.


The American Journal of Pharmaceutical Education | 2014

Outcomes of Individualized Formative Assessments in a Pharmacy Skills Laboratory

Tyler H. Gums; Erika L. Kleppinger; Benjamin Y. Urick

Objective: To determine the effectiveness of an individualized teaching method in a pharmacy skills laboratory. Design: All third-year students enrolled in an Accreditation Council for Pharmacy Education (ACPE) accredited doctor of pharmacy program (n=150) received an individual formative assessment from clinical pharmacists on communication skills and clinical competency after the students counseled standardized mock glaucoma patients during a laboratory focused on alternative dosing formulations. Objective structured clinical examination (OSCE) scores for this station from the 2012 and 2013 classes were compared before and after the intervention. Assessment: Ophthalmic OSCE station scores were higher after the individual formative feedback intervention. Students in 2013 had a mean score of 83.2 ± 8.3% compared to a mean of 74.3 ± 12.9% in 2012 for this OSCE station. The percentage of students receiving an “A” on the OSCE station increased from 8.1% to 31.3% after the intervention. Conclusion: Individualized formative teaching methods benefited students in both their communication skills and clinical assessment. Future research should focus on wider implementation and overcoming obstacles, such as increased facilitator needs.


Pharmacotherapy | 2018

Pharmacist Intervention for Blood Pressure Control in Patients with Diabetes and/or Chronic Kidney Disease

Maxwell D. Anderegg; Tyler H. Gums; Liz Uribe; Eric J. MacLaughlin; James D. Hoehns; Oralia V. Bazaldua; Timothy J. Ives; David L. Hahn; Christopher S. Coffey; Barry L. Carter

The objectives of this study were to determine if hypertensive patients with comorbid diabetes mellitus (DM) and/or chronic kidney disease (CKD) receiving a pharmacist intervention had a greater reduction in mean blood pressure (BP) and improved BP control at 9 months compared with those receiving usual care; and compare Seventh Report of the Joint National Committee on Prevention, Detection, Evaluation, and Treatment of High Blood Pressure (JNC 7) guideline and 2014 guideline (JNC 8) BP control rates in patients with DM and/or CKD.


Hypertension | 2016

Physician–Pharmacist Collaborative Management

Maxwell D. Anderegg; Tyler H. Gums; Liz Uribe; Christopher S. Coffey; Paul A. James; Barry L. Carter

Physician–pharmacist collaboration improves blood pressure, but there is little information on whether this model can reduce the gap in healthcare disparities. This trial involved 32 medical offices in 15 states. A clinical pharmacist was embedded within each office and made recommendations to physicians and patients in intervention offices. The purpose of the present analysis was to evaluate whether the pharmacist intervention could reduce healthcare disparities by improving blood pressure in high-risk racial and socioeconomic subjects compared with the control group. The analyses in minority subjects were prespecified secondary analyses, but all other comparisons were secondary, post hoc analyses. The 9-month visit was completed by 539 patients: 345 received the intervention, and 194 were in the control group. Following the intervention, mean systolic blood pressure was found to be 7.3 mm Hg (95% confidence interval 2.4, 12.3) lower in subjects from racial minority groups who received the intervention compared with the control group (P=0.0042). Subjects with ⩽12 years of education in the intervention group had a systolic blood pressure 8.1 mm Hg (95% confidence interval 3.2, 13.1) lower than the control group with lower education (P=0.0001). Similar reductions in blood pressure occurred in patients with low incomes, those receiving Medicaid, or those without insurance. This study demonstrated that a pharmacist intervention reduced racial and socioeconomic disparities in the treatment of blood pressure. Although disparities in blood pressure were reduced by the intervention, there were still nonsignificant gaps in mean systolic blood pressure when compared with intervention subjects not at risk. Clinical Trial Registration— URL: http://clinicaltrials.gov. Unique identifier: NCT00935077.Physician–pharmacist collaboration improves blood pressure, but there is little information on whether this model can reduce the gap in healthcare disparities. This trial involved 32 medical offices in 15 states. A clinical pharmacist was embedded within each office and made recommendations to physicians and patients in intervention offices. The purpose of the present analysis was to evaluate whether the pharmacist intervention could reduce healthcare disparities by improving blood pressure in high-risk racial and socioeconomic subjects compared with the control group. The analyses in minority subjects were prespecified secondary analyses, but all other comparisons were secondary, post hoc analyses. The 9-month visit was completed by 539 patients: 345 received the intervention, and 194 were in the control group. Following the intervention, mean systolic blood pressure was found to be 7.3 mm Hg (95% confidence interval 2.4, 12.3) lower in subjects from racial minority groups who received the intervention compared with the control group ( P =0.0042). Subjects with ≤12 years of education in the intervention group had a systolic blood pressure 8.1 mm Hg (95% confidence interval 3.2, 13.1) lower than the control group with lower education ( P =0.0001). Similar reductions in blood pressure occurred in patients with low incomes, those receiving Medicaid, or those without insurance. This study demonstrated that a pharmacist intervention reduced racial and socioeconomic disparities in the treatment of blood pressure. Although disparities in blood pressure were reduced by the intervention, there were still nonsignificant gaps in mean systolic blood pressure when compared with intervention subjects not at risk. Clinical Trial Registration— URL: . Unique identifier: [NCT00935077][1]. # Novelty and Significance {#article-title-37} [1]: /lookup/external-ref?link_type=CLINTRIALGOV&access_num=NCT00935077&atom=%2Fhypertensionaha%2F68%2F5%2F1314.atom


Hypertension | 2016

Physician–Pharmacist Collaborative ManagementNovelty and Significance

Maxwell D. Anderegg; Tyler H. Gums; Liz Uribe; Christopher S. Coffey; Paul A. James; Barry L. Carter

Physician–pharmacist collaboration improves blood pressure, but there is little information on whether this model can reduce the gap in healthcare disparities. This trial involved 32 medical offices in 15 states. A clinical pharmacist was embedded within each office and made recommendations to physicians and patients in intervention offices. The purpose of the present analysis was to evaluate whether the pharmacist intervention could reduce healthcare disparities by improving blood pressure in high-risk racial and socioeconomic subjects compared with the control group. The analyses in minority subjects were prespecified secondary analyses, but all other comparisons were secondary, post hoc analyses. The 9-month visit was completed by 539 patients: 345 received the intervention, and 194 were in the control group. Following the intervention, mean systolic blood pressure was found to be 7.3 mm Hg (95% confidence interval 2.4, 12.3) lower in subjects from racial minority groups who received the intervention compared with the control group (P=0.0042). Subjects with ⩽12 years of education in the intervention group had a systolic blood pressure 8.1 mm Hg (95% confidence interval 3.2, 13.1) lower than the control group with lower education (P=0.0001). Similar reductions in blood pressure occurred in patients with low incomes, those receiving Medicaid, or those without insurance. This study demonstrated that a pharmacist intervention reduced racial and socioeconomic disparities in the treatment of blood pressure. Although disparities in blood pressure were reduced by the intervention, there were still nonsignificant gaps in mean systolic blood pressure when compared with intervention subjects not at risk. Clinical Trial Registration— URL: http://clinicaltrials.gov. Unique identifier: NCT00935077.Physician–pharmacist collaboration improves blood pressure, but there is little information on whether this model can reduce the gap in healthcare disparities. This trial involved 32 medical offices in 15 states. A clinical pharmacist was embedded within each office and made recommendations to physicians and patients in intervention offices. The purpose of the present analysis was to evaluate whether the pharmacist intervention could reduce healthcare disparities by improving blood pressure in high-risk racial and socioeconomic subjects compared with the control group. The analyses in minority subjects were prespecified secondary analyses, but all other comparisons were secondary, post hoc analyses. The 9-month visit was completed by 539 patients: 345 received the intervention, and 194 were in the control group. Following the intervention, mean systolic blood pressure was found to be 7.3 mm Hg (95% confidence interval 2.4, 12.3) lower in subjects from racial minority groups who received the intervention compared with the control group ( P =0.0042). Subjects with ≤12 years of education in the intervention group had a systolic blood pressure 8.1 mm Hg (95% confidence interval 3.2, 13.1) lower than the control group with lower education ( P =0.0001). Similar reductions in blood pressure occurred in patients with low incomes, those receiving Medicaid, or those without insurance. This study demonstrated that a pharmacist intervention reduced racial and socioeconomic disparities in the treatment of blood pressure. Although disparities in blood pressure were reduced by the intervention, there were still nonsignificant gaps in mean systolic blood pressure when compared with intervention subjects not at risk. Clinical Trial Registration— URL: . Unique identifier: [NCT00935077][1]. # Novelty and Significance {#article-title-37} [1]: /lookup/external-ref?link_type=CLINTRIALGOV&access_num=NCT00935077&atom=%2Fhypertensionaha%2F68%2F5%2F1314.atom

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