|Year : 2017 | Volume
| Issue : 2 | Page : 43-50
Simulation-based instruction for pharmacy practice skill development: A review of the literature
Syed S Hasan, David W.K Chong, Wong P Se, Suresh Kumar, Syed I Ahmed, Piyush Mittal
Department of Pharmacy Practice, International Medical University, Bukit Jalil, Kuala Lumpur, Malaysia
|Date of Web Publication||17-Apr-2017|
Syed S Hasan
International Medical University, No. 126, Jalan Jalil Perkasa 19, Bukit Jalil 57000, Kuala Lumpur
Source of Support: None, Conflict of Interest: None
Background: Simulation is attractive for its potential for applying a control over learning environment, content complexity, teacher time, costs and risk. Simulation-based instruction (SBI) is poised to expand in pharmacy practice and education. This systematic review synthesises published, SBI in first-degree pharmacy programmes, especially those pertaining to psychomotor or cognitive skill development. Materials and Methods: MEDLINE, Cumulative Index to Nursing and Allied Health Literature, and some education journals were searched for relevant articles published between January 2000 and December 2015. Results: Of 108 articles identified, 12 were included, which were covering four major simulation-based interventions. These simulation-based interventions were diverse, and they covered a range of competencies and outcome measures. Nine studies included medication, and five studies included physical examination/procedure-related competencies as outcome measures. The evidence from nine studies suggested that skills could be improved through interventions involving human patient simulation. Conclusion: Despite improvements in students’ ability to perform, there is a lack of evidence on how this translates to real settings and to patient satisfaction.
Keywords: Cognitive, instruction, pharmacy, psychomotor, simulation, skills
|How to cite this article:|
Hasan SS, Chong DW, Se WP, Kumar S, Ahmed SI, Mittal P. Simulation-based instruction for pharmacy practice skill development: A review of the literature. Arch Pharma Pract 2017;8:43-50
|How to cite this URL:|
Hasan SS, Chong DW, Se WP, Kumar S, Ahmed SI, Mittal P. Simulation-based instruction for pharmacy practice skill development: A review of the literature. Arch Pharma Pract [serial online] 2017 [cited 2019 Jan 20];8:43-50. Available from: http://www.archivepp.com/text.asp?2017/8/2/43/204491
| Introduction|| |
The role of patient care pharmacists is primarily focused on optimising therapeutic outcomes, particularly from pharmacotherapy perspective. Pharmacists are professionally obliged to secure safe, effective and responsible use of medicines by patients, prescribers and populations. The essential role of pharmacy education is to produce competent, ethical, empathic and work-ready graduates. Thus, educators and policy makers must view pharmacy education from the standpoint of fitness for purpose for current as well as evolving, anticipated or aspirational roles and responsibilities.
The goals of clinical education and training can be achieved in real patient care settings, via simulation or a combination of the two. As authentic and rich learning environments, patient care settings provide situated learning, but less control is possible over content than that in a classroom: opportunistic learning can be a limitation, particularly for novices. Other key characteristics of patient care settings that may negatively impact learning are their ‘messy’ nature, competing demands on clinician-teachers and risks associated with entrusting professional activity to students. Simulation has been defined as ‘(an) event or situation made to resemble clinical practice as closely as possible’. Simulation-based instruction (SBI) is used in pharmacy education.,, For example, pharmacy education in the United States has employed simulation-based learning for more than a decade., This has included the use of standardised patients, role-play and skills assessment.
Simulation is attractive for its potential for applying a control over learning environment, content complexity, teacher time, costs and risk. Simulations offer progressive, scaffolded learning in safe, convenient, comfortable, yet convincing learning environments., Depending on the simulation, there is a low or controlled risk to patients, while enabling the improvement of skills that will help protect patients. Simulation-based learning has consistently produced positive outcomes in terms of improvements in knowledge, skills and behaviours., However, the departure from reality can be limiting in itself, and for example, in the potential to inculcate empathy and care-related traits and values through interaction with patients. Intelligent instructional design can, thus, exploit the advantages of both simulation and real patient care settings. Hicks et al. investigating the effect of high-fidelity simulation on nursing students’ knowledge and performance, found that students in a combined simulation/clinical experience group had highest scores in knowledge retention and clinical skills. The authors suggest that the most effective teaching methodology is a combination of simulation with direct patient care experience.
The concept of experiential learning, a key element in medical and pharmacy education is getting complicated, costly and impractical in certain regions of the world. Challenges that make it difficult for students to gain real-world experience include increasing patient insight, a growing emphasis on patient protection, decreased faculty resources, and competition for clinical teaching sites. Thus, more institutions are now implementing simulation-based active and adult learning theories and concepts in different parts of the world. In the US, the Accreditation Council on Pharmacy Education has approved the use of simulation in Introduction to Pharmacy Practice Experiences for up to 20% of the total experiential education requirement.
One of the most commonly implemented simulations is the use of standardised patients, who are volunteer individuals trained to act as patients. Generally, standardised patients are required to present history, exhibit emotions and project personality. Standardised patients are readily available, and their use is more economical than the use of technically advanced simulation such as high-fidelity patient simulators or mannequin. The most important limitation of simulation is that it is not real. However, the success of any simulation-based intervention depends on the level of student engagement and participation. Where there is full engagement and commitment to the simulation, participants benefit from the learning experience.
SBI is generally used in cognitive (knowledge) and affective (communication) domains. However, SBI can also cover high-order learning and the psychomotor domain., There is growing body of evidence for the usefulness of SBI in improving psychomotor skills in undergraduate pharmacy education. Previous reviews have addressed similar issues but not focussed on psychomotor skills., We evaluated published evidence to determine which instructional formats were effective in improving psychomotor skills, and to identify gaps in the evidence to inform future research. To the best of our knowledge, this is the first review of the use of simulation-based teaching strategies for developing clinical pharmacy skills. The purpose of this review is, thus, to evaluate the usefulness of SBI for skills application, enhancing performance and improving confidence among pharmacy students.
| Materials and Methods|| |
Scope of review: eligibility criteria
We screened abstracts for articles published in English (a) addressing simulation and skills, (b) reporting performance-based or skills-based findings and (c) reporting skills assessment and/or outcome measures. We excluded studies focussed on assessing knowledge; cognitive and affective assessment and evaluation of student satisfaction with simulation-based learning. We included longitudinal studies, those measuring pre- and post-simulation performance, and post-simulation performance.
MEDLINE, Cumulative Index to Nursing and Allied Health Literature (CINAHL) and some education journals were searched for relevant articles published between January 1, 2000 and December 31, 2015. Reference lists were scanned for additional potentially eligible publications. These were put through the same eligibility evaluation.
Our search strategy identified a research on simulation-based interventions involving pharmacy students. Search terms were constructed using a population (P), intervention (I) and outcome (O) model that took the following form: ’ (pharmacy student* OR final-year* OR senior pharmacy student*) AND (simulation/simul*) AND (psychomotor skills OR performance-based OR competency-based OR instruction-based OR clinical pharmacy skills OR clinical pharmacy training OR clinical experience* OR pharmacy practice experience*)’. Titles and abstracts were screened to remove studies that were clearly irrelevant to the aim of the review. The full texts of the remaining studies were then examined to determine eligibility.
After possible studies were identified, all retrieved titles were screened by one of the four investigators to decide whether titles appear potentially relevant to the study area. Two investigators assessed the abstracts independently against four criteria: (i) studies involving SBI; (ii) psychomotor or cognitive skill development; (iii) any study design and (iv) included pharmacy students from any year of study. We included studies on pharmacy students, in any year of study, undertaking first-degree programmes leading to eligibility for professional registration with national pharmacy regulators. Globally, these are primarily Bachelor of Pharmacy (BPharm), Doctor of Pharmacy (PharmD) and Master of Pharmacy (MPharm) programmes. We clarified any ambiguity with authors. Full papers from potential studies were assessed independently by the two investigators for their suitability.
Data collection process
One investigator extracted data on a data extraction form (in table format). Another reviewer checked extracted data. Abstracted data included the name of the first author; country; publication year; study design; number of subjects; type of intervention; description of intervention; outcome measured and impact of intervention [Table 1]. The purpose, study design, number of participants, description of intervention, outcome measures and validity together with reliability of outcome measures were recorded. The impact of interventions reported by the included studies was also presented.
|Table 1: Simulation-based instruction for pharmacy practice skill development|
Click here to view
Data items/study characteristics
Intervention: We assessed simulation-based interventions aimed at improving psychomotor skills. These interventions potentially included: simulation with real patients; human patient simulation; use of electronic medical records (EMRs) and use of standardised or simulated patients.
Outcome: Outcome measures included medication-related outcomes (e.g., device technique), medical record utilisation and patient-related outcomes [e.g., blood pressure (BP) monitoring]. Studies were included if they reported at least one primary outcome measure or at least one secondary outcome measure.
Each included study was evaluated against a quality checklist to estimate a quality index that would serve to rank the studies. Two review authors assessed the internal validity of each included study. Each included observational study was evaluated against a quality checklist for observational studies to rank studies in terms of deficiencies.
| Results|| |
Search results and study characteristics
The search yielded 77 unique abstracts from MEDLINE, 23 unique abstracts from CINAHL, and eight from pharmacy and medical education journals. Of these, 65 studies were excluded for reasons such as qualitative data were presented. Of the remaining 43 studies, 31 were excluded for reasons such as studies measured communications skills, satisfaction and knowledge retention. A total of 12 studies were reviewed [Figure 1].
The reviewed 12 studies evaluated the effectiveness of SBI to improve the psychomotor skills of undergraduate pharmacy students. These studies used the following study designs: six pre- and post-tests; four descriptive with post-test only; one descriptive with repeated measures and one longitudinal research approach. [Table 1] presents the design characteristics of the studies.
All studies involved undergraduate pharmacy students. The participating students were mainly from second to final year, and from PharmD programmes (in the US). Of the 12 studies, nine of those were conducted in the US, as well as one each in the United Kingdom, Jordan and Japan. Basheti studied 109 final-year students, Branch studied 127 second-year students, Robinson et al. studied 82 second-year students, Tofil et al. studied 42 third-year pharmacy students, Tokunaga et al. studied 124 second-year students, Seybert et al. studied 102 second-year students, Seybert and Barton studied 95 second-year students, Kirwin et al. studied 135 third-year students, Frenzel studied 99 final-year students, Zagar and Baggarly studied 18 pharmacy students and Raney studied 250 pharmacy students.
The majority used a combination of active learning strategies. At least three studies reported a combination of didactic lectures followed by simulation-based learning, including high-fidelity training such as demonstration to recognise a medical condition or measurement of vital signs. One study evaluated the effect of counselling real asthma patients on students’ demonstration skills of inhalers using simulated scenario. Another longitudinal study, with follow-up at 3 and 6 months, evaluated the effect of simulated, out-of-hospital cardiac arrest management using automated, external defibrillators. Kirwin et al. and Frenzel evaluated the use of EMRs in improving patient care skills. See [Table 1] for details.
The vast majority of competencies and outcome measures were investigated. Outcomes were diverse with differing definitions, methods of data collection, varying time points and different reporting methods. The competencies measured included the correct technique of using inhalers, vital signs measurements, medication review and medication management in patients with low-vision.
Nine studies included medication-related competencies as an outcome measure.,,,,,,,, Basheti reported demonstration skill of correct device technique. Tofil et al. reported administration of inhaler with spacer and recommended dose of adenosine. Robinson et al. reported patient assessment techniques. Seybert et al. reported drug management of cardiac dysrhythmia. Tokunaga et al. reported identification of the correct route of administration and administration of drugs accurately. Frenzel reported patient-centred care planning. Kirwin et al. reported hospital pharmacy skills assessment. Zagar and Baggarly reported identification of medication management difficulties in low-vision patients [Table 1].
Physical examination and medical procedure
Five studies included physical examination and procedure as an outcome measure., Branch reported recognition of drug-induced dyspepsia. Tokunaga et al. reported monitoring of vital signs to identify drug treatment and adverse events. Kopacek et al. reported delivery of shock using automated external defibrillator. Seybert and Barton reported an accurate BP measurement. Raney reported assessment of vital signs reinforcement.
Because of the heterogeneity of interventions, outcomes and measurements, it was deemed inappropriate to conduct a meta-analysis. The effectiveness of the interventions is described below.
Basheti found evidence of improvement in demonstrating correct device technique to real asthma patients. Tofil et al. tested students’ performance in outpatient and inpatient setting and found paediatric patient simulators can improve pharmacy students’ knowledge, especially in application of material. Seybert et al. examined critical thinking and problem-solving abilities and found improvement in knowledge and ability to resolve patient treatment-related problems. Frenzel investigated students patient-centred care skills and found improvement in pharmacy students’ ability to perform patient-centred care. Kirwin et al. found evidence of improvement in student confidence and abilities to perform hospital pharmacist duties. Zagar and Baggarly found simulation activity with low-vision goggles effective in identifying medication management difficulties encountered by low-vision patients.
Physical examination and medical procedure
Branch tested the clinical competence of students in identifying the drug-induced dyspepsia and associated symptoms and found significant improvements in students. Tokunaga et al. assessed students’ ability to monitor vital signs to identify drug treatment and adverse events and found successful preparation of pharmacy students to monitor vital signs to identify treatment-related problems. Kopacek et al. found evidence of successful shock delivery using defibrillator by pharmacy students. Seybert and Barton tested students’ ability to measure BP accurately and found evidence of significant improvement in students’ ability to accurately determine BP following simulation sessions.
| Discussion|| |
The outcomes were medication-related outcomes, physical examination and medical procedure. There was substantial evidence of an effect of the interventions on students’ ability to resolve medication-related problems as well as to perform medication review, physical examination and medical procedure. At least two publications have described instructional activities using EMRs. Frenzel described the use of an electronic medical record in a pharmaceutical care laboratory course, where final-year students were assigned to formulate a treatment plan and document their recommendations. The authors concluded that implementation of disease state management activities involving EMRs improved students’ ability to perform patient-centred care. Kirwin et al. described the process undertaken by faculty members in a Pharmaceutical Care laboratory course to evaluate hospital pharmacy skills using EMR. The paper demonstrated that laboratory simulation can improve skills required in hospital pharmacy practice such as medication review, drug monitoring and medication reconciliation.
Zagar and Baggarly used students to role play patients to help students gain a personal understanding of the medication management difficulties of patients with a variety of impaired vision conditions. The study claimed that this enabled students to devise ways to improve vital access to prescription information and to help minimise the risk of medication errors in this population. Another study designed to review a mock medical record and role-play a follow-up anticoagulation clinic visit using a standardised patient. In one study in pharmacy education, in which specific skills were assessed, students’ ability to accurately determine BP significantly improved following completion of practical sessions using a high-fidelity manikin. One study evaluated the effect of an in-class simulation on the assessment and education of real asthma patients in their inhaler use.
All the studies reported positive outcomes of simulation-based education, the major finding being observable improvement in students’ clinical skills. Given the complex learning tasks and diversity of simulation-based interventions, identifying educational intervention or component of simulation-based interventions (didactic component or simulated exercise, or the debriefing) that are the most beneficial could be difficult. The multifaceted SBI experiences, including identifying drug-induced dyspepsia, medical emergencies, paediatric pharmacy needs and application of critical thinking and problem solving skills in the management of the dysrhythmia, accurately measuring BP, monitoring of vital signs and drug administration.
Simulation is more commonly used in nursing and medical education than in pharmacy education for learning and practicing clinical skills and procedures., However, there is some growing evidence suggesting the use of SBI in pharmacy education to assess psychomotor skills., This shift in teaching strategy and use of simulation are narrowing the differences between the role of pharmacists and the roles of more procedure-oriented disciplines such as nursing or medicine. For example, the use of automated external defibrillators and measurement of BP by pharmacy students.
In nursing and medicine, the use of SBI is not restricted to students but is used in higher training. For instance, Barsuk et al. used SBI to train internal medicine residents to insert central venous catheters. They reported that the incidence of intensive care unit (ICU) catheter-related blood stream infections was reduced, when residents were trained using simulation, compared to another ICU in the same institution, in which residents were not trained using simulation. Another skills-based study that evaluated medication error rates in a cardiac ICU concluded that simulation-based learning by nurses significantly reduced medication error rates. In contrast, medication error rates did not decrease in the institution’s medical intensive care unit where a control group of nurses had completed traditional classroom lecture-based education about medication errors and error rates. These studies are compelling, because they evaluate the use of SBI for education and training of health care professionals in the workplace and evaluate important patient outcomes. This extended role can also present unique research and scholarship opportunities for teaching faculty in clinical setting.
Standardised patients are integral to simulation, which aims to present a consistent medical history and presentation of symptoms to learners. However, there is a new trend of using real patients in a simulated educational environment in the health sciences, and it has yielded positive results. Basheti evaluated the effect of an in-class simulation scenario on the assessment/education of real asthma patients using inhaler devices and found evidence of improvement in students’ demonstration skills.
We tried to minimise bias by conducting an extensive literature search and screening studies included published systematic reviews. The review was limited to publications in English. We could not draw robust conclusions because of significant heterogeneity in study design, educational intervention, outcomes and competencies. Only one study was longitudinal; its short follow-up period might have limited the detection of effects on outcomes. Only one study used a single-blinded repeated measure design.
A major limitation of the evidence was the diversity of outcome measures and simulation types, and differences in study method, data collection and analysis. Because there is a lack of valid tools for evaluating simulation, almost all studies reported their findings qualitatively. The overall quality of the evidence for the outcomes reported was judged to be average and therefore, there is uncertainty about the education impact. In summary, the studies reflect a lack of rigour in study design; for example, studies had small sample sizes and/or used post-test-only evaluation. The evaluation tools lacked key components to measure the effectiveness of performance and focussed mainly on satisfaction. In summary our review found great heterogeneity in study design and outcome measures in the small number of studies, which met the eligibility criteria.
The simulation-based interventions discussed improved students’ ability to perform psychomotor skills. In addition, evidence from nine studies suggested that the skills could be improved through interventions involving human patient simulation. Despite the improvements in students’ ability to perform, there is a lack of evidence on how this translates to real settings and to patient satisfaction. Most simulation-based interventions required significant funding and support, particularly those involving human patient simulation. Like nursing and medicine, a blend of both simulated and real-life clinical experiences should be incorporated into pharmacy education. Rigorous comparative studies are needed to evaluate the effectiveness of different simulation types. Further work is required to develop consensus on identifying, defining, measuring, reporting and analysing important learning outcomes of SBI.
Financial support and sponsorship
Conflicts of interest
There are no conflicts of interest.
| References|| |
Rauen CA. Simulation as a teaching strategy for nursing education and orientation in cardiac surgery. Crit Care Nurse 2004;24:46-51.
Kane-Gill SL, Smithburger PL. Transitioning knowledge gained from simulation to pharmacy practice. Am J Pharm Educ 2011;75:210.
Seybert AL, Kobulinsky LR, McKaveney TP. Human patient simulation in a pharmacotherapy course. Am J Pharm Educ 2008;72:37.
Vyas D, Bray BS, Wilson MN. Use of simulation-based teaching methodologies in US colleges and schools of pharmacy. Am J Pharm Educ 2013;77:53.
Bray BS, Schwartz CR, Odegard PS, Hammer DP, Seybert AL. Assessment of human patient simulation-based learning. Am J Pharm Educ 2011;75:208.
Jeffries PR. A framework for designing, implementing and evaluating simulations used as teaching strategies in nursing. Nurs Educ Perspect 2005;26:96-103.
Ostergaard D, Dieckmann P. Simulation-based medical education. In: Dent JA, Harden RM, editors. A Practical Guide for Medical Teachers. 4th ed. London: Churchill Livingstone Elsevier; 2013. p. 207-20.
Akaile M, Fukutomi M, Nagamune M, Fujimoto A, Tsuji A, Ishida K et al.
Simulation-based medical education in clinical skills laboratory. J Med Invest 2012;59:28-35.
Cook DA, Hatala R, Brydges R, Zendejas B, Szostek JH, Wang AT et al.
Technology-enhanced simulation for health professions education: A systematic review and meta-analysis. JAMA 2011;306:978-88.
Hicks FD, Coke L, Li S. Report of Findings From the Effect of High-Fidelity Simulation on Nursing Students’ Knowledge and Performance: A Pilot Study. Final Report. Chicago, IL: National Council State Boards of Nursing; June 2009.
ACPE Board Approves Changes to Professional Degree Program Policies and Procedures ACPE Update: Assuring and Advancing Quality in Pharmacy Education. Volume 8, Issue 2; 2010. Available from: http://www.acpe-accredit.org/pdf/ACPE_Update.pdf
. [Last accessed on 2016 Jun 14].
Okuda Y, Bryson EO, DeMaria S Jr, Jacobson L, Quinones J, Shen B et al.
The utility of simulation in medical education: What is the evidence? Mt Sinai J Med 2009;76:330-43.
Lin K, Travlos DV, Wadelin JW, Vlasses PH. Simulation and introductory pharmacy practice experiences. Am J Pharm Educ 2011;75:209.
Seybert AL. Patient simulation in pharmacy education. Am J Pharm Educ 2011;75:187.
Basheti IA. The effect of using simulation for training pharmacy students on correct device technique. Am J Pharm Educ 2014;78:177.
Branch C. Pharmacy students’ learning and satisfaction with high-fidelity simulation to teach drug-induced dyspepsia. Am J Pharm Educ 2013;77:30.
Robinson JD, Bray BS, Willson MN, Weeks DL. Using human patient simulation to prepare student pharmacists to manage medical emergencies in an ambulatory setting. Am J Pharm Educ 2011;75:3.
Tofil NM, Benner KW, Worthington MA, Zinkan L, White ML. Use of simulation to enhance learning in a pediatric elective. Am J Pharm Educ 2010;74:21.
Tokunaga J, Takamura N, Ogata K, Yoshida H, Setoguchi N, Matsuoka T et al.
Vital sign monitoring using human patient simulators at pharmacy schools in Japan. Am J Pharm Educ 2010;74:132.
Kopacek KB, Dopp AL, Dopp JM, Vardeny O, Sims JJ. Pharmacy students’ retention of knowledge and skills following training in automated external defibrillator use. Am J Pharm Educ 2010;74:109.
Seybert AL, Barton CM. Simulation-based learning to teach blood pressure assessment to doctor of pharmacy students. Am J Pharm Educ 2007;71:48.
Kirwin JL, DiVall MV, Guerra C, Brown T. A simulated hospital pharmacy module using an electronic medical record in a pharmaceutical care skills laboratory course. Am J Pharm Educ 2013;77:62.
Frenzel JE. Using electronic medical records to teach patient-centred care. Am J Pharm Educ 2010;74:71.
Zagar M, Baggarly S. Simulation-based learning about medication management difficulties of low-vision patients. Am J Pharm Educ 2010;74:146.
Raney EC. Assessment of anticoagulation management in a simulated ambulatory care clinic. Am J Pharm Educ 2007;71:97.
Barsuk JH, Cohen ER, Feinglass J. Use of simulation-based education to reduce the incidence of catheter-related blood stream infections. Arch Intern Med 2009;169:1420-3.
Ford DG, Seybert AL, Smithberger PL. Impact of simulation based learning on medication error rates in critically ill patients. Intensive Care Med 2010;36:1526-31.
Ferrel B. Clinical performance assessment using standardized patients: A primer. Fam Med 1995;27:14-9.
Clever SL, Dudas RA, Soloman BS, Yeh HC, Levine D, Bertram A et al.
Medical students and faculty perceptions of volunteer outpatients versus simulated patients in communication skills training. Acad Med 2011;86:1437-42.