Literature DB >> 34887031

Nurse faculty perceptions of readiness for practice among new nurses graduating during the pandemic.

Kelly Powers1, James Montegrico2, Kimberly Pate3, Julie Pagel4.   

Abstract

BACKGROUND: The COVID-19 pandemic caused major changes in nursing education, namely a shift to remote learning and significant reduction of clinical practice experience. It is not known how these changes will affect new graduate nurses transitioning to practice.
PURPOSE: To provide guidance to transition-to-practice programs, this study quantitatively described and compared nurse faculty perceptions of readiness for practice among students who graduated pre-pandemic and those who will graduate during the pandemic.
METHODS: A convenience sample of 116 nurse faculty across North Carolina completed surveys online. Surveys collected information on demographics, professional experience, and teaching changes experienced during the pandemic. The Nursing Practice Readiness Tool was used to measure perceptions of readiness for practice.
RESULTS: Nurse faculty reported a wide range of changes due to the pandemic, with limitations in clinical learning prevalent. There was a statistically significant decrease in practice readiness scores for the total scale, six subscales, and all tool items at p < 0.001 for all paired comparisons.
CONCLUSIONS: While there was an overall significant decrease in scores for all competency areas, further analysis of the tool subscales and items can provide guidance for clinical nurses working with new graduates and nurse faculty working with continuing students.
Copyright © 2021 Elsevier Inc. All rights reserved.

Entities:  

Keywords:  COVID-19 pandemic; New graduate nurses; Prelicensure nursing education; Transition-to-practice

Mesh:

Year:  2021        PMID: 34887031      PMCID: PMC8648075          DOI: 10.1016/j.profnurs.2021.09.003

Source DB:  PubMed          Journal:  J Prof Nurs        ISSN: 8755-7223            Impact factor:   2.104


Introduction

The COVID-19 pandemic resulted in unprecedented changes to prelicensure nursing education. In March 2020, nursing programs across the United States (US) had to quickly transition from in-person classes, simulations, and clinical experiences to offering comparable remote learning experiences. During the Fall 2020 semester, many programs had to continue offering didactic classes online. For those that were able to hold some in-person classes and/or simulations, modifications were often needed to adhere to social distancing and room capacity requirements. For clinical learning, the number of hours were often reduced (National Council of State Boards of Nursing, 2020; North Carolina Area Health Education Centers [NC AHEC], 2021). As the Spring 2021 semester began, a surge in COVID-19 cases occurred, and many schools continued to experience limitations to in-person learning. While there was disruption of in-person learning for the final weeks of the May 2020 graduates' education, it is the May 2021 graduates who experienced a much larger loss of in-person learning. It is not known how this will impact their transition-to-practice (TTP) following graduation.

Background

Nursing education is unique in that it is primarily offered in-person, with a reliance on hands-on learning (Michel et al., 2021; Wallace et al., 2021). When the COVID-19 pandemic began in Spring 2020, nursing programs had to rapidly shift from in-person to remote learning due to infection fears and limited personal protective equipment (PPE). Depending on the surge in COVID-19 cases in different geographical areas, complete or partial use of remote learning persisted in Fall 2020 and into Spring 2021. Thus, students graduating in May 2021 could potentially have had reduced in-person learning for three of their four nursing school semesters. The ongoing pandemic trajectory could require continued disruptions in learning for future graduates as well. Currently, there are few published studies on the impact of these changes in nursing education within the US (Michel et al., 2021). A study conducted in December 2020 with undergraduate nursing students from five schools in the US found that students reported high levels of stress (due to school and personal reasons), difficulty learning online, and missed opportunities for hands-on clinical learning (Michel et al., 2021). Another study of new graduate nurses (NGNs) who began a TTP program in July 2020 at a US medical center found that NGNs reported anxiety and feeling less competent due to their several month gap in clinical experience (Smith et al., 2021). These findings suggest a decreased level of practice readiness is likely to be present, and perhaps magnified, for those NGNs who experienced pandemic-related changes to their education for multiple semesters. Even pre-pandemic, the TTP period was known to be a challenging and demanding time (Powers et al., 2019), and the differences between nursing school and professional practice can cause NGNs to experience transition shock (Boychuk Duchscher, 2009). Prior to the pandemic, approximately 25% of NGNs were leaving their position within the first year of practice (NCSBN, n.d), resulting in considerable cost burden for hospitals (Asber, 2019). In response to negative outcomes during the TTP period, the NCSBN conducted a large study to evaluate the effectiveness of a TTP program for NGNs. The sample consisted of over 1000 NGNs at 105 hospitals in three states. Results showed that NGNs participating in a TTP program had fewer negative safety practices, and the turnover rate was significantly lower (Spector et al., 2015). There is a continued need for more research to determine the most effective strategies for bridging the academia-practice gap to promote successful transition of NGNs (Hampton et al., 2020; Kenny et al., 2021). Further, effective TTP programs are even more paramount now due to the ongoing nurse shortage which is being exacerbated by the pandemic because nurses have left their positions due to stress, work conditions, family responsibilities, higher salaries for travel nursing, etc. (Associated Press, 2020; International Council of Nurses, 2021). To help TTP programs meet the needs of NGNs who experienced pandemic-related education modifications, it is essential to determine areas that would benefit from continued learning post-graduation. This requires nurse leaders in academia and practice to share insights and outcomes. We formed a team of nurse faculty and hospital nurse leaders to identify strategies to help promote successful transition of NGNs who learned during the pandemic. The ultimate goal of our partnership is to augment the hospital's TTP program by focusing on specific areas where NGNs may have gained less experience as a result of limitations placed on academia. Due to the recency of the pandemic, there is a lack of literature to guide augmentation of TTP programs; therefore, we sought to first gain the insight of nurse faculty on NGNs' preparedness for professional practice and particular areas of opportunity.

Methodology

Design and purpose

Using a survey design, this descriptive, correlational study sought to compare nurse faculty perceptions of readiness for practice among NGNs who graduated pre-pandemic and those who will graduate during the pandemic. We also administered open-ended questions to further explore faculty perceptions of the impact of the pandemic on learning outcomes and recommendations for TTP programs, and these findings will be published separately.

Sample and setting

Convenience sampling was used to obtain a sample of faculty teaching in prelicensure nursing programs across the state of North Carolina. There were no exclusion criteria with regard to faculty employment status (full-time, part-time), program type (BSN, ADN, LPN), content areas taught (medical, surgical, pediatrics, maternity, etc.), or teaching settings (classroom, online, laboratory, simulation, clinical). Recruitment occurred by emailing all directors of prelicensure nursing programs in North Carolina. The email contained a short description of the study with a survey link and a statement requesting they forward the email to all nurse faculty teaching prelicensure students in their program. A priori power analysis calculation using G*Power software for t-test analysis, medium effect size, alpha 0.05, and power 0.80 revealed a sample of 128 participants was needed to detect statistically significant differences. Recruitment was aided by offering the first 100 participants who fully completed the survey the option to enter their email address to receive a $25 gift card. There were 136 individuals who accessed the survey site, and 135 consented to participate. An overall response rate could not be calculated, as it is unknown how many directors forwarded the recruitment email to nurse faculty in their programs. However, one survey item did identify that nurse faculty from across the state participated. Of the 135 who consented to participate, 116 nurse faculty completed items to collect data on readiness for practice, resulting in a final sample of N = 116 (85.9% completion rate).

Measurement tools

The survey began with items to collect demographic, professional, and pandemic teaching experience information. Three items collected basic demographic information (age, gender, race/ethnicity), and one item was administered to determine geographic area of participants (to assess for statewide representation). Next, seven items collected professional information (years of nursing and teaching experience, degree and certifications, faculty position title, employment status, and additional work in a clinical setting). Remaining items asked for information about teaching in the past year. Participants reported type of program, level of students, teaching settings, and courses they taught (could select more than one response). Three items then collected data on the amount of student absenteeism in the past year (due to illness, quarantine, etc.) in didactic, laboratory/simulation, and clinical courses. Response options were no issue, students absent infrequently, sometimes, often, and very often. Lastly, four items asked participants to select options to describe changes that occurred due to the pandemic in their didactic, laboratory, simulation, and clinical courses. The response options varied for each item and were created based on changes observed by the research team and changes discussed in online nurse faculty listservs/discussion boards. Examples of response options were didactic classes moved from classroom to online, laboratory classes repeated so small amount of students attend at one time, simulations moved from simulation lab to online/virtual simulations, and clinical rotations changed to have less hours per clinical day. Participants could also type in specific changes not captured in the provided response options. To collect nurse faculty perceptions of readiness for practice among NGNs, the Nursing Practice Readiness Tool (NPRT) was administered with permission received from the Nursing Executive Center, The Advisory Board Company (www.advisory.com). The NPRT asks participants to report satisfaction with their graduating students' proficiency level for 36 entry-level nursing competencies using a 6-point Likert scale (response options: 1 = Strongly disagree; 2 = Disagree; 3 = Tend to disagree; 4 = Tend to agree; 5 = Agree; 6 = Strongly agree). The 36 tool items are grouped into six subscales: clinical knowledge, technical skills, critical thinking, communication, professionalism, and management of responsibilities. Thus, mean scores can be calculated for each item, the six subscales, and the total scale, with higher mean scores indicating greater satisfaction with NGN competency proficiency level and readiness for practice. The original NPRT had a Cronbach's alpha coefficient of 0.97, and a revised version was reported to have a reliability coefficient of 0.98, indicating high reliability of the tool (Gregg, 2020). For this study, the NPRT was administered twice. Participants were first asked to rate their satisfaction with the proficiency level of their pre-pandemic graduates and then to rate those who will graduate during the pandemic (example provided was May 2021 graduates).

Procedures

Ethics review approvals were granted by Atrium Health and the University of North Carolina at Charlotte, and completion of surveys conveyed consent to participate. The survey was distributed online in Qualtrics. The email invitation, with a brief description of the study and request to forward the survey link to faculty, was sent to directors of nursing programs across North Carolina on March 24, 2021. A second reminder to forward the email invitation to faculty was sent on April 7, 2021. Data were collected for 1 month after the first email was sent. Upon receiving the email, interested nurse faculty clicked on the link to open the Qualtrics site where the study was explained in detail. Those who chose to participate clicked forward to complete survey items. Upon completion of all survey items, participants could opt to enter their email address for a gift card.

Data analysis

After 1 month of data collection, the data were transferred from Qualtrics to SPSS version 26 for statistical analyses, which were conducted by the two nurse faculty on the research team. Descriptive statistics were used to describe sample demographics, professional information, and teaching experiences within the past year. Analysis of the NPRT data used descriptive statistics to evaluate item, subscale, and total scale mean scores. The data were determined to violate assumptions of normality; therefore, Wilcoxon signed rank tests were used to evaluate for differences in NPRT scores for students who graduated pre-pandemic and during the pandemic. Mann-Whitney and Kruskal-Wallis tests were used to determine differences in NPRT scores according to demographic and professional variables. Spearman rho correlation was used to determine the relationship of demographic and professional variables and NPRT scores. Significance was set at p < 0.05.

Results

Demographic and professional information

Most of the 116 participants were female (91.4%), white, non-Hispanic (87.9%), and 40–59 years old (52.6%). Almost half (44.8%) reported 21 to 40 years of nursing experience, and more than 70% had less than 10 years of teaching experience. For highest degree earned, the majority of participants (67.3%) held a Master's Degree in Nursing and 25.9% held a Doctorate Degree in Nursing and other related disciplines. Almost all reported being full-time faculty members (89.3%) and about half reported no additional work in a clinical setting (50.9%) (see Table 1 ). There were no significant differences in NRPT scores when participants were grouped according to highest degree held [H(6) = 1.49, p = 0.960], title or position [H(8) = 7.98, p = 0.436], employment (U = 587, p = 0.384), and additional work in a clinical setting [H(2) = 4.14, p = 0.126].
Table 1

Demographic and professional information.

n%
Age
Less than 30 years old65.2%
30–39 years old2420.7%
40–49 years old2925.0%
50–59 years old3227.6%
60–69 years old2420.7%
70 years or older10.9%



Gender
Male108.6%
Female10691.4%



Race/Ethnicity
White, non-Hispanic10287.9%
Hispanic or Latino32.6%
Black/African American86.9%
Asian10.9%
American Indian & Alaska Native00.0%
Native Hawaiian & Other Pacific Islander00.0%
Multiple or Other Race10.9%



Years of nursing experience
Less than 5 years32.6%
5–10 years1412.1%
11–15 years2017.2%
16–20 years1613.8%
21–30 years2925.0%
31–40 years2319.8%
More than 40 years119.5%



Years of teaching experience
Less than 5 years3731.9%
5–10 years3328.4%
11–15 years2521.6%
16–20 years86.9%
21–30 years119.5%
31–40 years10.9%
More than 40 years10.9%



Highest degree held
Associate Degree in Nursing (ADN)10.9%
Bachelor of Science in Nursing (BSN)76.0%
Master of Science in Nursing (MSN)7867.3%
Doctor of Nursing Practice (DNP)1613.8%
Doctor of Philosophy (PhD)108.6%
Doctor of Education (EdD) or PhD in Education43.5%



Certificationsa
Certified Nurse Educator (CNE)2319.8%
Certified Nurse Educator-Clinical (CNE-Cl)10.9%
Certified Healthcare Simulation Educator (CHSE)65.2%
Nurse Practitioner Certification (FNP, AGACNP, etc.)97.8%
Clinical Nurse Leader (CNL) or Clinical Nurse Specialist (CNS)21.7%
Various clinical practice certifications2421.6%



Job position/Title
Professor1513.0%
Clinical professor32.6%
Associate professor97.8%
Clinical associate professor32.6%
Assistant professor108.6%
Clinical assistant professor54.3%
Lecturer1512.9%
Adjunct or part-time faculty member119.5%
Nursing Program Director or Chair76.0%
Faculty member or instructor or educator2926.1%
Simulation/Laboratory coordinator and instructor54.5%
Other43.5%



Employment status (in past year)
Part-time1613.8%
Full-time9985.3%
Missing10.9%



Additional work in clinical setting
Yes, providing direct patient care4639.7%
Yes, not providing direct patient care119.5%
No5950.9%

Could select more than 1 option. Percentages do not total 100%.

Demographic and professional information. Could select more than 1 option. Percentages do not total 100%.

Teaching experience in the past year

The majority of participants taught in an Associate Degree in Nursing program (60.4%), and 35.3% taught in a traditional Bachelor of Science in Nursing program. Most taught students at the beginning of the program (64.7%) and taught didactic (82.8%) and clinical (77.7%) courses. The most frequently taught courses were medical-surgical nursing (69%) and nursing care - concepts focused (46.6%) (see Table 2 ).
Table 2

Teaching experience in the past year.

n%
Pre-licensure/Undergraduate degree program(s) taughta
Licensed Practical Nurse (LPN) program2017.2%
Diploma in Nursing program32.7%
Associate Degree in Nursing (ADN) program7060.4%
Bachelor of Science in Nursing (BSN) program (traditional)4135.3%
Accelerated Bachelor of Science in Nursing (BSN) program86.9%



Level of students taughta
Students at beginning of nursing program7564.7%
Students in middle of nursing program7262.1%
Students near end of nursing program6354.3%



Teaching settingsa
Didactic (i.e. classroom, may be currently online due to pandemic)9682.8%
Laboratory/Skills7766.4%
Simulation7362.9%
Clinical9077.7%
Online6858.6%



Courses taughta
Pharmacology3328.4%
Pathophysiology1714.7%
Introduction to nursing/Fundamentals4841.5%
Health assessment43.5%
Medical or Surgical adult nursing8069.0%
Pediatric nursing1714.7%
Maternity nursing2420.7%
Mental health nursing2723.3%
Community nursing2017.2%
Nursing care - concepts focused5446.6%
Other86.9%

Could select more than 1 option. Percentages do not total 100%.

Teaching experience in the past year. Could select more than 1 option. Percentages do not total 100%.

Changes due to the pandemic

More than half of the participants reported student absenteeism as very often, often, and sometimes during the pandemic. Absenteeism was mostly seen in clinical courses (54.3%), followed by didactic (53.4%) and laboratory or simulation courses (48.2%). Most reported their didactic courses moved to online/remote learning (86.2%), while laboratory (65.5%) and simulation courses (51.7%) were often taught in repeated sessions with a smaller number of students at one time. More than half of the participants reported that clinical courses were fully moved to online virtual simulations (51.7%); and interestingly, about 31% reported complete cancellation of clinical courses, without any alternate format provided (see Table 3 ).
Table 3

Changes due to the pandemic.

n%
Absenteeism: didactic courses
Students absent very often86.9%
Students absent often1512.9%
Students absent sometimes3933.6%
Students absent infrequently2118.1%
Absenteeism has not been an issue2118.1%
Did not teach didactic course1210.3%



Absenteeism: Laboratory/Simulation courses
Students absent very often76.0%
Students absent often1311.2%
Students absent sometimes3631.0%
Students absent infrequently3025.9%
Absenteeism has not been an issue2219.0%
Did not teach laboratory or simulation course65.2%
Missing21.7%



Absenteeism: clinical courses
Students absent very often32.6%
Students absent often1916.4%
Students absent sometimes4135.3%
Students absent infrequently2824.1%
Absenteeism has not been an issue2017.2%
Did not teach clinical course43.4%
Missing10.9%



Changes in didactic teachinga
Didactic classes moved from classroom to online10086.2%
Didactic classes taught hybrid (half of students in classroom, the other half online)5043.1%
Didactic classes taught in more than 1 room (teacher in one classroom with students and video projection of teaching to students in another room)2017.2%
Didactic classes repeated so small amount of students attend at 1 time2118.1%
Other didactic class changes (written changes: moved to larger classrooms; classes online but testing on campus)1311.1%



Changes in laboratory teachinga
Laboratory classes moved from lab to online4236.2%
Laboratory classes taught hybrid (half of students in lab, the other half online)2723.3%
Laboratory classes taught in more than 1 room (teacher in one lab room with students and video projection of teaching to students in another room)2319.8%
Laboratory classes repeated so small amount of students attend at 1 time7665.5%
Laboratory classes cancelled/not offered during pandemic119.5%
Other laboratory changes (written changes: enhanced PPE)1311.2%



Changes in simulation teachinga
Simulations moved from simulation lab to online/virtual simulations5648.3%
Simulations taught hybrid (half of students in simulation lab, the other half online)2118.1%
Simulations taught in more than 1 room (teacher in one simulation room with students and video projection of simulation to students in another room)1412.1%
Simulations repeated more frequently so smaller amount of students attend at 1 time6051.7%
Simulations conducted in-person but pre-brief and/or debrief changed to online1714.7%
Simulations cancelled/not offered during pandemic1512.9%
Other simulation changes (written changes: resumed simulation in lab in late Fall 2020; enhanced PPE; simulations to replace clinical hours)1210.3%



Changes in clinical teachinga
Clinical rotations cancelled (not offered in another format)3631.0%
Clinical rotations changed to fully in-person simulations1714.7%
Clinical rotations changed to fully virtual/online simulations6051.7%
Clinical rotations changed to fully case study completion other non-simulation activity3126.7%
Clinical rotations changed to have smaller groups of students attend at 1 time4538.8%
Clinical rotations changed to have less hours per clinical day2017.2%
Clinical rotations changed to have less clinical hours for semester, augmented by more simulation/laboratory time3933.6%
Other clinical changes (written changes: strict PPE; clinical evolved as the pandemic changed; returned to clinical in Fall 2020 or Spring 2021; moved to different units/facilities than originally assigned; unable to rotate to other hospital areas; post-conferences online; split groups so half in clinical or simulation for 4 h then switched; virtual simulation used in place of clinical for ill/quarantined students)2723.3%

Could select more than 1 option. Percentages do not total 100%.

Changes due to the pandemic. Could select more than 1 option. Percentages do not total 100%.

Nursing practice readiness tool results

There was a statistically significant decrease in NPRT scores from pre-pandemic to during the pandemic for the total scale, all six subscales, and all 36 individual items, with all paired comparisons p < 0.001, indicating nurse faculty felt NGN competency proficiency level and readiness for practice had decreased for those who learned during the pandemic. The mean score for the total scale was high for pre-pandemic graduates at 5.10 (Agree) and dropped to 4.39 (Tend to agree) for those graduating during the pandemic. Faculty participants consistently rated NGN readiness higher on the technical, professionalism, and clinical knowledge subscales than on the management of responsibilities, critical thinking, and communication subscales, both before and during the pandemic. Although there was a significant drop in all subscale mean scores from pre- to during the pandemic, the largest differences were for technical skills, critical thinking, management of responsibilities, and communication (see Table 4 ).
Table 4

Nursing practice readiness tool results.

ItemsPre-pandemic mean (SD)During pandemic mean (SD)Mean differenceZ score
Clinical knowledge
1 Understanding of the principles of evidence-based practice5.25 (0.699)4.80 (1.05)−0.45−5.02
2 Knowledge of pathophysiology of patient conditions5.21 (0.752)4.77 (0.935)−0.44−5.78
3 Knowledge of pharmacological implications of medications5.07 (0.743)4.59 (1.02)−0.48−5.32
4 Interpretation of physician and interprofessional orders5.17 (0.748)4.55 (0.926)−0.62−6.64
5 Compliance with legal/regulatory issues relevant to nursing practice5.12 (0.751)4.76 (0.919)−0.36−4.48
6 Understanding of quality improvement methodologies4.88 (0.870)4.50 (0.927)−0.38−5.03
Clinical knowledge subscale5.12 (0.622)4.66 (0.834)−0.46−6.86



Technical skills
7 Conducting patient assessments (including history, physical exam, vital signs)5.37 (0.852)4.55 (0.964)−0.82−7.53
8 Documentation of patient assessment data5.23 (0.872)4.52 (0.992)−0.71−7.38
9 Performing clinical procedures (e.g., sterile dressing, IV therapy, etc.)5.14 (0.887)4.17 (1.03)−0.97−7.46
10 Utilization of clinical technologies (e.g. IV Smart Pumps, medical monitors, etc.)5.12 (0.751)4.17 (0.944)−0.95−7.32
11 Administration of medication5.39 (0.734)4.41 (0.913)−0.98−8.17
12 Utilization of information technologies (e.g., computers, EMRs, etc.)5.37 (0.612)4.56 (0.981)−0.81−7.30
Technical skills subscale5.27 (0.682)4.40 (0.862)−0.87−8.42



Critical thinking
13 Recognition of changes in patient status5.08 (0.774)4.17 (1.03)−0.91−7.72
14 Ability to anticipate risk4.84 (0.904)4.06 (1.05)−0.78−7.17
15 Interpretation of assessment data (e.g., history, exam, lab testing, etc.)5.02 (0.772)4.26 (1.04)−0.76−6.77
16 Decision making based on the nursing process5.05 (0.759)4.35 (1.07)−0.70−6.52
17 Recognition of when to ask for assistance5.27 (0.717)4.57 (1.07)−0.70−6.53
18 Recognition of unsafe practices by self and others5.17 (0.741)4.47 (1.05)−0.70−6.80
Critical thinking subscale5.07 (0.679)4.31 (0.957)−0.76−8.12



Communication
19 Rapport with patients and families5.36 (0.691)4.59 (1.03)−0.77−6.80
20 Communication with interprofessional team5.22 (0.673)4.38 (1.01)−0.84−7.21
21 Communication with physicians4.82 (0.812)3.97 (1.05)−0.85−7.00
22 Patient education5.09 (0.812)4.36 (1.04)−0.73−.87
23 Conflict resolution4.76 (0.833)4.11(1.11)−0.65−5.95
24 Patient advocacy5.17 (0.783)4.63 (1.03)−0.54−5.68
Communication subscale5.07 (0.656)4.34 (0.911)−0.73−7.86



Professionalism
25 Ability to work independently4.99 (0.884)4.09 (1.18)−0.90−6.19
26 Ability to work as part of a team5.21 (0.755)4.50 (0.992)−0.71−6.48
27 Ability to accept constructive criticism4.95 (0.907)4.35 (1.13)−0.60−5.59
28 Customer service5.21 (0.707)4.67 (1.04)−0.54−5.70
29 Accountability for actions5.06 (0.911)4.33 (1.22)−0.73−6.46
30 Respect for diverse cultural perspectives5.30 (0.713)4.89 (1.03)−0.41−5.04
Professionalism subscale5.12 (0.719)4.47 (0.941)−0.65−7.77



Management of responsibilities
31 Ability to keep track of multiple responsibilities4.90 (0.917)4.14 (1.15)−0.76−6.43
32 Ability to prioritize4.91 (0.854)4.10 (1.15)−0.81−6.99
33 Delegation of tasks4.72 (0.978)4.11 (1.06)−0.61−5.80
34 Completion of individual tasks within expected time frame5.04 (0.788)4.25 (1.09)−0.79−6.60
35 Ability to take initiative4.98 (0.795)4.27 (1.15)−0.71−6.15
36 Conducting appropriate follow-up5.00 (0.795)4.29 (1.08)−0.71−6.50
Management of responsibilities subscale4.93 (0.771)4.19 (1.02)−0.74−7.37
Total scale scores5.10 (0.624)4.39 (0.837)−0.71−8.59

Significant at p < 0.001 level.

Nursing practice readiness tool results. Significant at p < 0.001 level. As there was a statistically significant decrease in perceived NGN readiness for all 36 competency areas, further analysis of individual items was conducted to help provide tangible areas for augmentation in TTP programs. First, items with a decrease in mean scores to less than 4.50 for during the pandemic graduates were identified as areas of opportunity for TTP augmentation. There were 21 items in which mean scores decreased to <4.50, with “Communication with physicians” rated lowest. Next, items in which mean scores decreased the most (>0.70 decrease in mean score) from pre- to during the pandemic were also identified as areas of opportunity for TTP augmentation. Again, there were 21 items that had a mean score decrease greater than 0.70, with the largest decrease noted for “Administration of medication” (see Table 5 ; an asterisk denotes items that both decreased to mean score < 4.50 and had a change in mean score > 0.70).
Table 5

Items with lowest mean score and largest change in mean score

Items that decreased to mean Score < 4.50During pandemic meanItems with mean score decrease > 0.70Mean difference
21 Communication with physiciansa3.9711 Administration of medicationa−0.98
14 Ability to anticipate riska4.069 Performing clinical procedures (e.g., sterile dressing, IV therapy, etc.)a−0.97
25 Ability to work independentlya4.0910 Utilization of clinical technologies (e.g., IV Smart Pumps, medical monitors, etc.)a−0.95
32 Ability to prioritizea4.1013 Recognition of changes in patient statusa−0.91
23 Conflict resolution4.1125 Ability to work independentlya−0.90
33 Delegation of tasks4.1121 Communication with physiciansa−0.85
31 Ability to keep track of multiple responsibilitiesa4.1420 Communication with interprofessional teama−0.84
9 Performing clinical procedures (e.g., sterile dressing, IV therapy, etc.)a4.177 Conducting patient assessments (including history, physical exam, vital signs)−0.82
10 Utilization of clinical technologies (e.g. IV Smart Pumps, medical monitors, etc.)a4.1712 Utilization of information technologies (e.g., computers, EMRs, etc.)−0.81
13 Recognition of changes in patient statusa4.1732 Ability to prioritizea−0.81
34 Completion of individual tasks within expected time framea4.2534 Completion of individual tasks within expected time framea−0.79
15 Interpretation of assessment data (e.g., history, exam, lab testing, etc.)a4.2614 Ability to anticipate riska−0.78
35 Ability to take initiativea4.2719 Rapport with patients and families−0.77
36 Conducting appropriate follow-upa4.2915 Interpretation of assessment data (e.g., history, exam, lab testing, etc.)a−0.76
29 Accountability for actionsa4.3331 Ability to keep track of multiple responsibilitiesa−0.76
16 Decision making based on the nursing process4.3522 Patient educationa−0.73
27 Ability to accept constructive criticism4.3529 Accountability for actionsa−0.73
22 Patient educationa4.368 Documentation of patient assessment data−0.71
20 Communication with interprofessional teama4.3826 Ability to work as part of a team−0.71
11 Administration of medicationa4.4135 Ability to take initiativea−0.71
18 Recognition of unsafe practices by self and others4.4736 Conducting appropriate follow-upa−0.71

Items were on both lists: Mean score < 4.50 and Mean difference > 0.70.

Items with lowest mean score and largest change in mean score Items were on both lists: Mean score < 4.50 and Mean difference > 0.70.

Correlations

The correlations between the participants' demographic and professional characteristics and the NPRT subscales and total scale means were very weak (0.012 to 0.092) and did not show any statistically significant correlations (p = 0.260 to 0.897). The NPRT post-scale means were not correlated with the participants' age (rs = −0.072, p = 0.447), gender (rs = −0.046, p = 0.631), race or ethnicity (rs = 0.025, p = 0.790), years as a nurse (rs = −0.029, p = 0.757), years as a nurse faculty member (rs = −0.085, p = 0.370), highest degree held (rs = 0.026, p = 0.784), job title or position (rs = 0.107, p = 0.260), employment status (rs = −0.083, p = 0.386), and additional work in a clinical setting (rs = 0.062, p = 0.515).

Discussion

We gained a sample of 116 faculty who teach in various prelicensure nursing programs across the state of North Carolina. Faculty reported that students' education was modified or limited during the pandemic in several ways. Most didactic classes, simulations, and clinical experiences were initially moved online. To accomplish this, virtual simulation was often used to replace clinical learning time (51.7%) and laboratory-based simulation learning time (48.3%). For almost one-third of participants, clinical rotations were abruptly cancelled in Spring 2020 and were not replaced with comparable learning. When some in-person learning could resume in Fall 2020 and Spring 2021, modifications were prevalent. This often involved repeated simulation/laboratory sessions and smaller clinical groups to ensure adequate distancing and adherence to agency requirements. However, many also reported that clinical learning hours were reduced, and students spent more time in simulation. Experiential learning is paramount to helping students apply theoretical knowledge to patient care (Herron et al., 2016). Simulation provides experiential learning, and studies have shown it results in positive learning outcomes. Thus, even pre-pandemic, the NCSBN stated that high-quality simulation could be utilized for up to 50% of students' required clinical hours (Hayden et al., 2014). However, this statement was based on research that involved laboratory-based simulations (Hayden et al., 2014), and evidence on the effectiveness of using virtual simulation is still evolving (Foronda et al., 2020). Meanwhile, clinical learning is recognized as essential for developing nursing students' clinical reasoning and other vital competencies such as psychomotor skill performance, team communication, and time management (Oermann & Gaberson, 2017). Thus, students' loss of clinical learning during the pandemic is an important consideration when planning strategies to meet NGNs' needs in a TTP program. According to our NPRT results, faculty felt students who learned during the pandemic will be overall less prepared for professional practice upon graduating. Further, we found no statistically significant correlations between reported faculty work characteristics and NPRT scores, indicating the sample of nurse faculty uniformly felt NGNs' competency proficiency level and readiness for practice had decreased. There were significant decreases in mean scores for the NPRT total scale, all six subscales, and all 36 items. While we hypothesized there would be significant decreases for several of the items and subscales, we did not expect statistically significant decreases for all of them. On initial review, our results indicate that all areas require heightened attention in TTP programs; whereas, we'd hoped to provide more tangible results to help TTP programs prepare for the most pressing needs of their upcoming NGNs. Further examination of the results was then performed to help achieve this goal. The subscales that had the highest decrease in mean scores were technical skills, critical thinking, management of responsibilities, and communication. Thus, TTP programs may benefit from augmenting NGN learning in these areas. Conversely, subscale mean scores indicate that, overall, faculty felt knowledge and professionalism were less affected by the changes to students' education. Our additional analysis of individual items may also provide helpful guidance to TTP programs. There were 21 items whose mean score decreased to less than 4.50. One of these items decreased to a mean score of 3.97, indicating communicating with physicians requires particular attention. Next, we identified items that sustained a mean score decrease of greater than 0.70. The three items with the highest decrease in mean score fell under technical skills (medication administration, performing psychomotor skills, and using clinical technology), likely reflecting decreased practice within clinical settings. The items that had both a drop in mean score to less than 4.50 and a mean score decrease greater than 0.70 may also be helpful to augment in TTP programs. In total, there were 16 items that were included on both lists. These identified items indicate that NGNs may have particular needs for additional learning and practice with interprofessional team communication, using clinical reasoning and judgement, and performance of technical skills; all of which have potential ramifications for patient safety. Interestingly, the NPRT scores provided by faculty were quite high to begin with. For NGNs pre-pandemic, the mean score for the total NPRT was 5.10 (Agree) out of 6.00, with subscale means ranging from 4.93 (management of responsibilities) to 5.27 (technical skills). Yet, prior research has shown that nurses in clinical practice report NGN performance of the competencies on the NPRT much lower. For example, Berkow et al. (2008) found that less than 50% of over 5700 clinical nursing leaders Agreed (5.00) or Strongly agreed (6.00) with 34 of the 36 items. Further, there were 14 NPRT items in which less than 25% of clinical nursing leaders Agreed or Strongly agreed that NGNs were performing satisfactorily (Berkow et al., 2008). More recently, Gregg (2020) found mean total NPRT scores of 4.05 reported by nurse managers and 4.07 reported by nurse preceptors working with NGNs, with subscale mean scores ranging from 3.69 (management of responsibilities) to 4.45 (technical skills). These mean scores are lower than ours for both pre-pandemic and during the pandemic graduates, indicating a mismatch between perceptions of nurse faculty and clinical nurses working with NGNs. Such score differences should be taken into consideration by TTP programs when planning to help NGNs transition during the pandemic. Future studies should evaluate NGN and clinical nurse (preceptors, educators, managers) perceptions of practice readiness among those who learned during the pandemic. Additionally, it will be important for clinical nursing leaders who augment their TTP programs for NGNs graduating during the pandemic to evaluate outcomes such as retention rates. Strategies to effectively combat the ongoing and exacerbated nurse shortage are paramount as turnover can cause an overburden of remaining staff (risk for burnout and unsafe care) and high cost for hospitals who hire travel nurses to fill vacated positions (Associated Press, 2020; International Council of Nurses, 2021). Finally, our findings are also important for nurse faculty. The widespread loss and subsequent reduction in clinical learning should be considered by nurse faculty who are working with continuing nursing students. Students who are continuing their studies as the pandemic continues and/or improves will likely have experienced a loss of hands-on clinical learning in the earlier parts of their education. Further, the trajectory of the pandemic could necessitate continued restrictions to students' education. Our NPRT subscale and item results can be used to help faculty identify particular areas to work on with their continuing students. By addressing the identified areas of opportunity, faculty can help promote successful transition for future NGNs also affected by pandemic-related education changes. Lastly, our results can help nurse faculty and clinical nursing leaders to plan for future pandemics or other situations that could disrupt student learning.

Limitations

The sample size is a limitation of this study. A priori analysis indicated 128 participants were needed to detect statistically significant differences, and we achieved a sample size of N = 116. Despite the sample size, we were able to detect statistically significant differences in mean scores for the total scale, all subscales, and all items. Another limitation was drawing the sample of nurse faculty from only the state of North Carolina. The pandemic has been associated with varying severity and dates of patient case surges according to geographical area. Therefore, nurse faculty in other states may have experienced different educational restrictions than our sample. Finally, we retrospectively evaluated faculty perceptions of NGN readiness for practice pre-pandemic, and this is a study limitation.

Conclusion

Promoting a successful transition for students who learned during the pandemic is important to ensure an adequate nursing workforce that is well-prepared to provide care to those in need. Due to the substantial changes the pandemic caused for prelicensure nursing education, including a shift to remote learning and loss of clinical practice experience, we evaluated nurse faculty perceptions of NGN readiness for practice, and compared readiness scores for pre-pandemic graduates to those graduating during the pandemic. Results showed a statistically significant decrease in faculty perceptions of NGN practice readiness overall. To help TTP programs better utilize our results, we identified the subscales and tool items (competencies) that demonstrated the greatest decreases in mean scores. Clinical nursing leaders, educators, and preceptors can utilize our results to augment TTP programs to help facilitate successful transition from student to professional nurse. Likewise, nurse faculty can utilize results to help continuing nursing students who also have been affected by the pandemic to be prepared for professional practice upon graduation.

Funding

This work was supported by the at Charlotte School of Nursing Pilot Data Award.

Declaration of competing interest

None.
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