Validation showed high internal consistency reliability for both scales: Cronbach’s α = 0.920 and Guttman’s λ2 = 0.923 (M = 111.32, SD = 17.07) for self-confidence, and α = 0.940 and λ2 = 0.942 (M = 80.44, SD = 21.67) for anxiety; and comparative fit index (CFI) of: 0.981 for self-confidence and 0.997 for anxiety. The results revealed a significant and gradual increase in students’ self-confidence (p =.049) as they progressed through the courses, particularly in D2 and D3. Conversely, anxiety was high in the 1st year (M = 81.71, SD = 18.90) and increased in the 3rd year (M = 86.32, SD = 26.38), and significantly decreased only in D3. Work experience positively influenced self-confidence in D2 and D3 but had no effect on anxiety.
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Background
Decision making in nursing is a critical process that all nurses around the world use in their daily practice, involving the assessment of information, the identification of health issues, the establishment of care objectives, and the selection of appropriate interventions to address the patient’s health problems [1, 2]. Nursing professionals must effectively apply their knowledge, skills, and clinical judgment to ensure the delivery of safe and high-quality care within the context of complex and ever-evolving situations [3]. For nearly 25 years, clinical decision-making has been highlighted as one of the key aspects of nursing practice [2, 4].
Decision making in nursing does not follow a linear relationship that culminates in the decision made; instead, it has a circular nature that repeats through data collection, alternative selection, reasoning, synthesis, and testing [5]. Expert nurses, moreover, possess the ability to discern patterns and trends within clinical situations, providing them with a general overview of patient issues and facilitating decision making [6]. In this iterative and dynamic process, a solid knowledge base, clinical experience, reliable information, and a supportive environment are crucial pillars underpinning clinical decisions [7]. Therefore, nursing students, during their educational journey, require the support of others in decision making [4] and adequate training that optimizes their learning opportunities [8]. Clinical decision-making forms the cornerstone of professional nursing practice [9].
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The process of decision making regarding patient care integrates theoretical knowledge with hands-on experience [10]. This practical experience has been instrumental in augmenting analytical skills, intuition, and cognitive strategies essential for determining sound judgment and decision-making in complex situations [11]. Although students’ clinical experience is limited, some of them work as nursing assistants or in support roles. This profile of nursing student is quite common [12]. Hence, prior work experience in healthcare should be considered in nursing students.
This study adopted a quantitative cross-sectional and analytical approach.
Setting and sampling
The study population comprised nursing students from the Faculty of Nursing and Physiotherapy, University of Lleida (Spain). The nursing degree program in Spain consists of 240 European Credit Transfer System (ECTS) credits, approximately equivalent to 6000 h, distributed across 4 academic years (60 ECTS per year, totaling 1500 h per year). One ECTS credit corresponds to 25–30 study hours (Royal Decree 1125/2003). The first year primarily focuses on theoretical training in basic sciences, with more specific nursing sciences covered in higher years. Clinical practices gradually increase, with the fourth year being predominantly practical (1st year 6 ECTS, 2nd year 12 ECTS, 3rd year 24 ECTS, and 4th year 39 ECTS).
Regarding the original instrument, it is noteworthy that it was validated through an exploratory factor analysis (EFA) with 545 pre-licensure nursing students in the United States. The analysis revealed moderate convergent validity and significant correlations between the self-confidence and anxiety variables that constitute two separate sub-scales within the same instrument. The instrument achieved a Cronbach’s α of 0.98 for self-confidence and 0.94 for anxiety [14, 21]. This instrument comprises 27 items and uses a 6-point Likert scale for responses (1 = Not at all; 2 = Only a little; 3 = Somewhat; 4 = Mostly; 5 = Almost completely; 6 = Completely). Scores range from 27 to 162 points. The EFA results confirmed a scale with three dimensions (D1, D2, and D3):
1.
D1 (Using resources to gather information and listening fully) includes statements about recognizing clues or issues and assessing their clinical significance. This dimension comprises 13 items, with a minimum score of 13 and a maximum of 78.
2.
D2 (Using information to see the big picture) includes statements about determining the patient’s primary problem. This dimension contains 7 items, with a minimum score of 7 and a maximum of 42.
3.
D3 (Knowing and acting) includes statements about performing interventions to address the patient’s problem. This dimension consists of 7 items, with a minimum score of 7 and a maximum of 42.
The tool presented by White [14] underwent translation and adaptation, following the guidance provided by Sousa & Rojjanasrirat [23] and Kalfoss [26]. In the forward-translation (English to Spanish) and back-translation phases, two independent bilingual translators participated, who were not part of the research team and who usually work with health-related translations. The back-translated version of the scale was reviewed and approved by the tool’s creator (Dr. White). These steps ensured content validity.
In the expert panel phase, 5 expert nurse educators from our university who were not part of the research team, with a doctoral degree and more than 5 years of teaching experience, assessed content relevancy. The scale proposed by Sousa & Rojjanasrirat [23] (1 = not relevant, 2 = unable to assess relevance, 3 = relevant but needs minor alteration, 4 = very relevant and succinct), along with the Kappa index were used to assess agreement. The educators rated the 27 items between 3 and 4. The concordance analysis yielded a score of 0.850, which, as per Landis & Koch [27], is considered nearly perfect. Only some expressions were modified for better cultural adaptation while retaining the original meaning of the statements. Finally, a pilot test was conducted during the pre-testing phase, involving 20 students, to assess comprehension and completion time. The students encountered no comprehension difficulties, and the average response time was 13 min. Therefore, it was concluded that the questionnaire was feasible in terms of time required taken and clarity of the questions/answers [28].
This validation process concludes with the psychometric testing of the prefinal version of the translated instrument. During this phase, the psychometric properties are established using a sample from the target population, in this case, nursing students [23]. The psychometric characteristics examined include: (1) the reliability of internal consistency (Cronbach’s Alpha coefficient (α) and Guttman split-half coefficients (λ2); (2) criterion validity, where the concurrent validity of the new version of the instrument was assessed against the original version via confirmatory factor analysis (CFA), and (3) for construct and structural validity, exploratory factor analysis (EFA) and CFA were conducted to demonstrate the discriminant validity of the instrument by comparing groups within the sample.
Data collection
Data collection took place between May 2022 and June 2023. The lead researcher in a classroom administered the questionnaire in a paper format. Response times ranged from 10 to 15 min.
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Data analysis
A descriptive statistical analysis of the participants’ study variables was conducted. Reliability was determined using Cronbach’s Alpha coefficient (α) and Guttman split-half coefficients (λ2) for both sub-scales (self-confidence and anxiety) and their respective dimensions (D1, D2, D3). Cronbach’s provides a measure of item internal consistency, while Guttman split-half coefficient assesses the extent to which observed response patterns align with those expected from a perfect scale [29]. Item correspondence was reviewed by repeating the exploratory factor analysis (EFA) using the extraction and rotation methods outlined by the tool’s creator [14, 21]. Factor validity was confirmed through confirmatory factor analysis (CFA), where a value ≥ 0.9 of the fit indices (comparative fit index (CFI), Tucker-Lewis Index (TLI), Bentler-Bonett Non-normed Fit Index (NNFI), and Bollen’s Incremental Fit Index (IFI) indicate reasonable fit [30]. The root mean square error of approximation (RMSEA) and the unweighted least square (ULS) estimator was used Likert ordinal data [31]. Sample adequacy was also reviewed using Kaiser-Meyer-Olkin (KMO), Bartlett’s sphericity test, and average variance extracted (AVE).
Normality tests for self-confidence and anxiety data distribution (N = 301) were performed using Kolmogorov-Smirnov test (K-S = 0.043 and 0.41; p >.05) and multivariable normality (Shapiro-Wilk = 0.993 and 994; p >.05). The results indicated that all dimensions followed a normal distribution. Consequently, parametric tests such as Pearson’s correlation coefficient (r) and group comparison tests (t-Student) were employed. To analyze differences in self-confidence and anxiety among students by academic year (1st, 2nd, 3rd, 4th), the following tests were conducted: analysis of variance (ANOVA) tests, homogeneity of variance tests, and Levene’s test applying Tukey’s post hoc correction to p-values for combined groups correction for combined groups. Effect sizes were determined using Cohen’s d for t-student tests and eta-squared (η²) for ANOVA tests.
Data were analyzed using IBM SPSS Statistics 24 and JASP 0.18.1. A significance level was set at p <.05 for all analyses.
The nursing study involved 301 participants, mostly women who entered through high school. The sample comprised students from the 1st year of the degree (28.57%, with an average age of 20.43 years), 2nd year (38.54%, with an average age of 21.10 years), 3rd year (3.29%, with an average age of 23.90 years), and 4th year (19.60%, with an average age of 22.92 years). Nearly 2/3 of the participants entered the nursing program from secondary school, and just over 50% had work experience in healthcare. See Table 1 for Sample Characteristics.
Table 1
Characteristics of the sample: number (N) and frequencies (%)
The set of items showed high internal consistency reliability in both sub-scales. In self-confidence, Cronbach’s α = 0.920, and Guttman’s λ2 = 0.923 (M = 111.32, SD = 17.07) and in anxiety the values were α = 0.940 and λ2 = 0.942 (M = 80.44, SD = 21.67). The KMO adequacy measure was 0.921 for self-confidence and 0.946 for anxiety, and Bartlett’s sphericity was highly significant, resulting in a p-value not exceeding 0.05, indicating a significantly different item correlation matrix (self-confidence χ2 = 4250.632, p <.001; anxiety χ2 = 5612.051, p <.001). In addition, the average variance extracted (AVE) index exceeded 0.50, confirming the suitability of the original variables in both sub-scales for structure detection.
To confirm the validity of the factors, agreement of item alignment with the dimensions of the original tool was first examined through EFA (factor loading > 0.4), followed by a confirmatory analysis of the entire scale using CFA. Repeating the EFA, as conducted by White (2011) using alpha factoring extraction and Promax rotation with 3 factors (no eigenvalue), the total variance explained in both scales was 48.30% in self-confidence and 55.30% in anxiety, with an average of 51.80%. The agreement between the items in the resulting factor structure matrix from the EFA and the original matrix were very similar for the anxiety sub-scale (89.90%) but only moderately similar for the self-confidence sub-scale (59.30%), where items did not fall within the same dimensions.
Given the low result, a CFA was conducted based on the dimensions proposed by White (2011). The goodness-of-fit indicators of the model were: (CFI, IFI = 0.981, TLI, NNFI = 0.979, and RMSEA = 0.052) for self-confidence and (CFI, TLI, NNFI, IFI = 0.997 and RMSEA = 0.024) for anxiety. This indicates that the three-factor model retains the description with the original items.
Table 2 shows the estimated factor loadings by dimension and item, illustrating the robust composition of the dimensions with no item elimination. Although items Q5, Q27 and Q11 had factor loadings below 0.60, their KMO values were ≥ 0.80, indicating adequate sampling.
Highly significant correlations were found regarding criterion validity and relevance (p <.001). Correlations within the dimensions within the same scale (D1, D2, D3) were positive, whereas the paired correlations between self-confidence and anxiety were inversely correlated, as increased confidence was associated with decreased anxiety: (D1 r = −.500), (D2 r = −.500) and (D3 r = −.532).
Comparative analysis of self-confidence and anxiety in decision making by academic year
The overall results for self-confidence and anxiety by academic year indicated that students significantly and gradually increased their self-confidence (p =.049) as they progressed from the 1st year (M = 108.22, SD = 14.96) to the 4th year (M = 115.54, SD = 16.28). However, anxiety was higher in the 1st year (M = 81.71, SD = 18.90) and increased in the 3rd year (M = 86.32, SD = 26.38) (Table 3).
Table 3
Overall self-confidence/ anxiety global and academic year (1st, 2nd, 3rd, 4th)
Self-confidence
Anxiety
Year
n
Mean
SD
F
p
η²
Mean
SD
F
p
η²
1st
86
108.22
14.96
2.647
0.049
0.026
81.71
18.60
2.333
0.074
0.023
2nd
116
110.49
18.57
80.22
21.90
3rd
40
114.15
16.90
86.32
26.38
4th
59
115.54
16.28
75.05
21.14
SD = Standard deviation, F, p, η² eta-squared effect size
Table 4 shows statistically significant differences in dimensions D2 and D3 for self-confidence and D3 for anxiety.
Table 4
ANOVA: Dimensions and academic year (1st, 2nd, 3rd, 4th)
Dimension D1 - using resources to collect information and listening carefully
The post hoc Tukey test results indicate no statistically significant differences between academic years in dimension D1 (Table 4). Students in higher academic years did not obtain significantly higher self-confidence or lower anxiety scores (Fig. 1a). The self-confidence means were similar across all 4 groups, while the anxiety mean had varying values. The highest anxiety was observed in the 3rd year (M = 37.67; SD = 14.63), and the lowest was in the 4th year (M = 31.76; SD = 10.82), although the differences were not statistically significant (p =.178).
Fig. 1
Comparison graphics of different dimensions of different Academic years (a) D1. Using resources to collect information and listening carefully: Post Hoc Comparisons Academic year (1st, 2nd, 3rd, 4th) (b) D2. Using information to see the big picture: Post Hoc Comparisons Academic year (1st, 2nd, 3rd, 4th). (c) D3. Knowing and acting: Post Hoc Comparisons Academic year (1st, 2nd, 3rd, 4th)
×
Dimension D2 - using information to see the big picture
Students in the higher academic years (3rd and 4th) obtained significantly higher self-confidence scores (M = 28.69; SD = 5.44) compared to the lowest, which is from the 1st year (M = 25.40; SD = 5.33) (Table 4; Fig. 1b). There was a downward trend in anxiety in the later years, but it was not significant. Once again, the highest mean anxiety was observed in the 3rd year (M = 23.42; SD = 6.80) and the lowest in the 4th year (M = 20.44; DS = 6.39).
Dimension D3 - knowing and acting
This is the only dimension where a balance was maintained: self-confidence increased with academic years, while anxiety decreased. Significant differences in self-confidence scores were observed between the 1st year (M = 23.70; SD = 4.85) and the 4th year (M = 27.13; SD = 5.47). At the same time, anxiety significantly decreased between the 1st year (M = 25.93; SD = 5.90) and the 4th year (M = 22.85; SD = 6.36) (Table 4; Fig. 1c).
Effect of students’ work experience on their decision-making processes
A comparative test was conducted between groups based on work experience to identify explanatory variables regarding the extent of self-confidence and anxiety (Table 5). Two significant differences were found, indicating that students with work experience, as opposed to students without experience, had higher self-confidence in D2 (M = 27.66, SD = 5.43 vs. M = 26.63, SD = 5.61) and D3 (M = 26.24, SD = 5.52 vs. M = 24.58, SD = 5.10). Meanwhile, the level of anxiety was similar in both groups.
Table 5
Independent T-Test. Work experience (yes = 169, no = 132) by self-confidence/anxiety dimensions
T
Df
P
Cohen’s d
SE Cohen’s d
D1 - Self confidence
0.271
299
0.787
0.031
0.116
D2 - Self confidence
2.244
299
0.026
0.261
0.117
D3 - Self confidence
2.665
299
0.008
0.310
0.117
D1– Anxiety
0.211
299
0.833
0.025
0.116
D2– Anxiety
-1.033
299
0.302
− 0.12
0.116
D3– Anxiety
-1.389
299
0.166
− 0.161
0.116
Student’s t-test, Cohen’s effect size
Furthermore, when contrasting individual items, 7 specific items showed significant differences in self-confidence and 2 in anxiety based on students’ work experience (Table 6).
Table 6
Comparison of self-confidence and anxiety with and without experience across items
Item
Self-confidence
Anxiety
t
p
Experience
M ± SD
No experience
M ± SD
t
p
Experience
M ± SD
No experience
M ± SD
I1
2.298
0.022
4.10 ± 0.98
3.83 ± 1.04
-2.378
0.018
2.96 ± 1.15
3.30 ± 1.26
I5
2.707
0.007
3.53 ± 0.71
3.30 ± 0.77
I7
2.465
0.014
4.00 ± 1.12
3.67 ± 1.22
I14
2.695
0.007
3.95 ± 1.14
3.59 ± 1.13
-2.056
0.041
3.38 ± 1.28
3.69 ± 1.33
I15
2.132
0.034
4.10 ± 0.98
3.86 ± 1.00
I17
1.988
0.048
3.71 ± 1.25
3.42 ± 1.30
I20
2.131
0.034
3.79 ± 1.32
3.47 ± 1.23
Student’s t-test, M = Median, SD = Standard Deviation
Two items belong to D2- Using information to see the big picture, where experienced students exhibited greater self-confidence in detecting important patient information patterns in I1 (M = 4.10 vs. M = 3.98) and experienced less anxiety (M = 2.96 vs. M = 3.30), and simultaneously evaluated their decisions better with patient laboratory results in I7 (M = 4.00 vs. M = 3.67).
The other five items correspond to D3- Knowing and acting, where nursing students with prior nursing experience felt more self-confidence when deciding the best priority alternative for the patient’s problem in I5 (M = 3.53 vs. M = 3.30), more confidence in implementing an intuition-based intervention in I14 (M = 3.95 vs. M = 3.59) with less anxiety (M = 3.38 vs. M = 3.69), more confidence in analyzing the risks associated with interventions I15 (M = 4.10 vs. M = 3.86) a better ability to make autonomous clinical decisions in I17 (M = 3.71 vs. M = 3.42), and to implement a specific intervention in an emergency in I20 (M = 3.79 vs. M = 3.47).
The observed correlations between the dimensions of self-confidence and anxiety provide valuable and interesting insight. The results indicate an inverse relationship between the two, suggesting that strengthening self-confidence can have a positive impact on reducing anxiety. This aspect was corroborated by the original study by White [21] and Bektas et al. [13], demonstrating that metacognitive awareness increases nursing students’ self-confidence in clinical decision-making and reduces anxiety.
Assessment of self-confidence and anxiety in nursing students
The results of the comparative study among nursing students across different academic years reveal an intriguing dynamic between self-confidence and anxiety throughout their academic progression. While self-confidence increases as students advance through their courses due to the acquisition of knowledge and skills, anxiety shows variations over time. Regarding confidence perception, some authors [37] claim that confident students learn better and that this self-confidence increases with experience, leading to improved knowledge [13].
One factor that might explain the difference in anxiety levels is that in the initial academic years (first and second), clinical practices are conducted in a more guided and supervised manner. In the third, and especially in the fourth year, clinical practices increase in terms of hours and complexity, requiring students to take on more responsibility and autonomy. This factor might account for the higher levels of anxiety in the third year, when students begin to engage in more autonomous practices and specialized units [38, 39]. This stage could induce anxiety due to the increased responsibility and potential consequences in patient care. In other words, even though students become more secure in their skills, they may also experience anxiety due to the weight of their clinical practice decisions in the knowledge that they will soon be certified professional nurses caring for patients. This duality is understandable in a context where decision-making has direct implications for patient health and the potential consequences of their actions in patient care. However, this situation is rectified in the fourth or final year, when anxiety decreases, and self-confidence increases. Clinical experience helps students develop skills and self-confidence, which, in turn, reduces anxiety [15, 40]. Just as in the case of nurses, the benefits of experience in decision-making are evident in students [3]. However, some researchers [41] emphasize the need to reinforce training in aspects such as situational awareness and cognitive apprenticeship to develop decision-making skills in senior students. There is evidence linking emotion and cognition to clinical decision-making [42].
Results from this study allow for a more detailed analysis by dimensions (D1, D2, D3) across academic years. Dimension 1 - Using resources to gather information and listening fully (D1) is the only dimension that does not show significant differences by year in either self-confidence or anxiety. This dimension includes fundamental aspects of assessment and information gathering (verbal and non-verbal communication, the ability to review the literature, and information provided by others, among others) [14]. In Dimension 2 - Using information to see the big picture (D2), self-confidence significantly increases, and anxiety decreases, although the latter is not statistically significant. This dimension encompasses aspects related to interpreting information to identify the patient’s actual problem, filtering out irrelevant information, and applying knowledge to the detected problem [14]. Finally, Dimension 2 - Knowing and acting (D3) - is the only dimension that behaves as hypothesized, with increasing self-confidence and decreasing anxiety. This dimension includes aspects related to training in addressing the problem and detecting the repercussions of the interventions performed, as well as the student’s autonomous ability to address the detected problem [14].
The results indicate that although students demonstrate skills in applying knowledge and performing interventions (D2 and D3), there appears to be a lack of training proficiency in the comprehensive assessment of the patient as an individual with specific needs (D1). This shortcoming is likely caused by various factors, including lack of experience, inadequate training skills, and the complexity of the assessment process. Understanding the patient is a complex task, as nurses must consider not only physiological indicators. Therefore, this requires time and experience [3] This implies that students tend to focus more on pathology and standardized care rather than on the patient as a unique individual with specific needs and characteristics.
In contrast, in the case of nurses, when patients do not align with their prior experience, nurses are more motivated to assess the patient and facilitate decision making [3]. The need for a proper and personalized patient assessment emerges as a crucial point for improvement in the education of nursing students [43]. Therefore, an educational intervention focused on strengthening the skill of patient assessment throughout the nursing degree program could favor the development of nursing students as future professionals. Such an intervention could include the implementation of more effective assessment tools and the promotion of careful observation of all aspects of the patient. It should extend beyond nursing-specific procedures involving the development of cognitive skills [44]. Importantly, it should be implemented not only in the academic context but also in the clinical setting. Given that education alone is not an ideal measure [3], this clinical involvement is essential based on patient-centered health care ( [45].
Finally, in relation to students with work experience, those who work as nursing assistants during their nursing education exhibit more self-confidence and less anxiety in various items: seeing patterns in patient information (I1) and implementing interventions based on gut feeling or intuition (I14). They also demonstrate higher self-confidence when making a decision about the ‘best’ priority decision option for the patient’s problem (I5), evaluating whether their clinical decision improved the patient’s laboratory results (I7), analyzing the risks of the interventions (I15), making independent clinical decisions to solve the patient’s problem (I17), and implementing a specific intervention in case of an urgent problem (I20). It can be affirmed that experienced students show more self-confidence in having a holistic view of the patient (D2) and in their knowledge and patient-related actions (D3). Other studies [46] detail the benefits of work experience in emotional control and stress reduction among students. Moreover, students’ prior work experience contributes to decision making, as it provides them with a more realistic understanding of the role and responsibilities of the nursing profession [47].
Limitations
Due to its cross-sectional design, this study prevents the establishment of causal relationships between self-confidence and anxiety. The study sample was limited to a specific group of students from a single Spanish-speaking university. Similar to the study by Bektas [24] only voluntary students participated in this study. It is pertinent to acknowledge potential biases in interpreting differences by academic year, as the sample is disproportional in one of the strata (with 9% margin of error), attributed to the absence of third-year students engaged in mobility programs and clinical practices. Moreover, the present study did not evaluate organizational and nursing practice factors, which could explore nursing students’ perceptions regarding clinical decision-making. Finally, even though the availability of the SNASC-CDM will facilitate its use in other Spanish-speaking countries, it is advisable to conduct specific studies to ensure its validity in a cultural context different from Spain.
Implications for nursing education
Nursing degree programs should prioritize the development of students’ self-confidence and the management of their anxiety. This could involve implementing educational interventions, including clinical simulation and reflective teaching that incorporate elements of metacognition. Collaboration across different subjects is essential to foster the integration of skills and knowledge. It is also vital that nursing programs provide students with opportunities to develop their clinical and communication skills. This will help students feel more secure in their abilities and reduce anxiety in challenging clinical settings.
The findings of this study suggest that nursing students face challenges in assessing patients, which can be attributed to various factors, including lack of time, insufficient training, and limited experience. To address this issue, an educational intervention is proposed for nursing students. This intervention would focus on conducting a comprehensive and holistic patient assessment with the support of practicing nurses and involving the patients themselves in identifying problems and needs. Such an intervention should include discussing the significance of considering the patient’s physical, emotional, spiritual, and social needs. It should also emphasize the importance of building a trusting relationship with the patient.
Self-confidence increases as students progress through their academic years due to knowledge and skills acquisition, while anxiety shows variations over time. Specifically, anxiety tends to increase in the third year, when students transition to more autonomous practices and specialized health care units. However, diverse perceptions are identified depending on the dimension. The only dimension that achieves a positive balance in self-confidence and anxiety is D3 (Knowing and acting). Nevertheless, the findings reveal deficiencies in D1 (Using resources to gather information and listening fully) regarding assessing and detecting problems.
The authors wish to acknowledge the students and experts who assisted us in the validation process. We also wish to acknowledge the translator of this article, Mark Lodge.
Declarations
Ethics approval and consent to participate
This study received authorization from the Research Commission of the Faculty of Nursing and Physiotherapy (FIF) of the University of Lleida (UdL). It was approved by the Research and Transfer Ethics Committee (CERT) of the University of Lleida (nº CERT13_31052023) and the data protection officer of the UdL Data Protection Delegate. Data were collected anonymously. Participants were duly informed about the study, and their written consent was obtained before they completed the questionnaire. Participation was voluntary, and the lead researcher of the study securely held the data. Students were informed that their participation or non-participation would have no impact on the course grade or standing at the university. The study conformed to the standards of the Declaration of Helsinki, the Spanish Biomedical Research Act 14/2007 and data processing was covered by EU Regulation 2016/679.
Consent for publication
Not applicable.
Competing interests
The authors declare no competing interests.
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