Development of a communication-based virtual patient counseling objective structured clinical examination (OSCE) for first year student pharmacists.

Objective: This text seeks to describe a framework for delivering and executing a virtual patient counseling OSCE and compare student performance to the in-person alternative. Methods: A communication-based virtual patient counseling objective structured clinical examination (OSCE) was created to fulfill the educational outcomes of a previously held in-person OSCE in response to the COVID-19 pandemic. The virtual nature of this OSCE simulated a telehealth encounter, which has increased in utilization since the beginning of the COVID-19 pandemic. This OSCE was offered twice in one semester - once as a formative assessment and once as a summative assessment. Student performance was mapped to learning outcomes and compared the previous year's in person performance. Results: The described virtual framework for executing the OSCE successfully decreased the time required and saw <1% change in overall performance from students when compared to the previous year in person which was not statistically significant. Conclusion: This framework for a virtual communication-based OSCE reduces time with a negligible impact on student performance compared to the in person alternative. Innovation: This work describes a telehealth virtual patient counseling model to replace the traditional patient counseling OSCE in pharmacy education with comparable outcomes.

Academic Pharmacy Fellowship Programs are an Innovative Solution to Improve the Faculty Pipeline.

Academic pharmacy fellowship programs can offer an innovative training solution to help prepare pharmacists for successful careers as clinical faculty members. However, there is no well-defined program blueprint or recommendations for what a successful program should include. This commentary describes the program overview for the academic pharmacy fellowship at the University of Houston College of Pharmacy and discusses the implications of incorporating a similar program at a college of pharmacy. The purpose of the fellowship program is to prepare pharmacists for a career in pharmacy education through training in teaching, curriculum development, college service, mentoring, scholarship, and clinical practice. A structured program with monthly rotations in key academic areas, teaching experience and mentorship (didactics and skills labs), committee service, and leading a research project make up the core structure of the program. These experiences, coupled with significant student interaction, can prepare fellowship graduates to transition effectively into clinical faculty roles.

A Review of Hypertension Management in Black Male Patients.

Hypertension affects approximately 85 million Americans, or almost 1 in 3 adults. Black men have disproportionately higher rates of hypertension and are more likely to experience complications of hypertension, including stroke, myocardial infarction, and death. In addition, hypertensive black men are less likely to achieve optimal blood pressure (BP) than women and persons of other races. In light of this, we performed a literature search for articles published from January 1, 1966, to December 31, 2018, using terms including hypertension, blood pressure, black male, and African American male. Studies were selected for inclusion according to their relevance regarding hypertensive management in black men. Subsequent findings indicated that targeted identification (ie, barbershops), medication management, and close follow-up resulted in greater control of BP. Also, a reduction of systolic blood pressure greater than 20 mm Hg occurred with the use of pharmacists following algorithms specifically for the management of hypertension in black men. Continued emphasis to identify strategies to improve control of BP and outcomes in this population is needed.

Buffer Standards for the Biological pH of the Amino Acid N-[2 hydroxyethyl]piperazine-N'-[3-propanesulfonic acid], HEPPS, From (278.15 to 328.15) K.

For the HEPPS buffer under investigation, there are seven buffer solutions without NaCl and eight buffer solutions that contain Cl(-) and have an ionic strength (I = 0.16 mol·kg(-1)), which is similar to that of blood plasma. These buffer solutions have been evaluated in the temperature range of (278.15 to 328.15) K using the extended Debye- Hückel equation and the Bates-Guggenheim convention. The previously determined E(j) values have been used to determine the operational pH values of HEPPS buffer solutions at (298.15 and 310.15) K. These are recommended as secondary standard reference solutions for pH measurements in saline media with an isotonic ionic strength of I = 0.16 mol·kg(-1).

Buffer Standards for the Physiological pH of the Zwitterionic Compound, DIPSO from 5 to 55 degrees C.

The values of the second dissociation constant, pK(2), and related thermodynamic quantities of 3-[N,N-bis (2-hydroxyethyl)amino]-2-hydroxypropanesulfonic acid (DIPSO) have already been reported over the temperature range 5 to 55 degrees C including 37 degrees C. This paper reports the pH values of four NaCl-free buffer solutions and four buffer composition containing NaCl salt at I = 0.16 mol.kg(-1). Conventional pa(H) values are reported for all eight buffer solutions. The operational pH values have been calculated for four buffer solutions recommended as pH standards, at 25 and 37 degrees C after correcting the liquid junction potentials with the flowing junction cell.

Buffer Standards for the Biochemical pH of 3-(N-morpholino)-2-hydroxypropanesulfonic Acid from (278.15 to 328.15) K.

The values of the second dissociation constant pK(2) and related thermodynamic quantities of the ampholyte 3-(N-morpholino)-2-hydroxypropanesulfonic acid (MOPSO) have been previously determined at temperatures from (278.15 to 328.15) K. In this study, the pH values of two buffer solutions without NaCl and three buffer solutions with NaCl having ionic strengths (I = 0.16 mol·kg(-1)) similar to those in blood plasma, have been evaluated at 12 temperatures from (278.15 to 328.15) K using an extended form of the Debye-Hückel equation, since the Bates-Guggenheim convention is valid up to I = 0.1 mol·kg(-1). The liquid junction potentials (E(j)) between the buffer solutions of MOPSO and saturated KCl solution of the calomel electrode at (298.15 and 310.15) K have been estimated by measurement with a flowing junction cell. These values of E(j) have been used to ascertain the operational pH values at (298.15 and 310.15) K. Three buffer solutions of MOPSO are recommended as useful reference solutions for pH measurements in saline media of ionic strength I = 0.16 mol·kg(-1).

Buffer Standards for pH Measurement of N-(2-Hydroxyethyl)piperazine-N'-2-ethanesulfonic Acid (HEPES) for I = 0.16 mol.kg from 5 to 55 degrees C.

The values of the second dissociation constant, pK(2) of N-(2-hydroxyethyl) piperazine-N'-2-ethanesulfonic acid (HEPES) have been reported at 12 temperatures over the temperature range 5 to 55 degrees C, including 37 degrees C. This paper reports the results for the pa(H) of eight isotonic saline buffer solutions with an I = 0.16 mol*kg(-1) including compositions: (a) HEPES (0.01 mol*kg(-1)) + NaHEPES (0.01 mol*kg(-1)) + NaCl (0.15 mol*kg(-1)); (b) HEPES (0.02 mol*kg(-1)) + NaHEPES (0.02 mol*kg(-1)) + NaCl (0.14 mol*kg(-1)); (c) HEPES (0.03 mol*kg(-1)) + NaHEPES (0.03 mol*kg(-1)) + NaCl (0.13 mol*kg(-1)); (d) HEPES (0.04 mol*kg(-1)) + NaHEPES (0.04 mol*kg(-1)) + NaCl (0.12 mol*kg(-1)); (e) HEPES (0.05 mol*kg(-1)) + NaHEPES (0.05 mol*kg(-1)) + NaCl (0.11 mol*kg(-1)); (f) HEPES (0.06 mol*kg(-1)) + NaHEPES (0.06 mol*kg(-1)) + NaCl (0.10 mol*kg(-1)); (g) HEPES (0.07 mol*kg(-1)) + NaHEPES (0.07 mol*kg(-1)) + NaCl (0.09 mol*kg(-1)); and (h) HEPES (0.08 mol*kg(-1)) + NaHEPES (0.08 mol*kg(-1)) + NaCl (0.08 mol*kg(-1)). Conventional pa(H) values, for all eight buffer solutions from 5 to 55 degrees C have been calculated. The operational pH values with liquid junction corrections, at 25 and 37 degrees C have been determined based on the NBS/NIST standard between the physiological phosphate standard and four buffer solutions. These are recommended as pH standards for physiological fluids in the range of pH 7.3 to 7.5 at I = 0.16 mol*kg(-1).