1. Introduction
Choosing a career represents a pivotal life decision, profoundly shaping an individual’s financial stability, personal fulfillment, and overall well-being (
Hilton, 1962;
Bimrose & Mulvey, 2015;
Kvaskova et al., 2022). For business graduates, this process is particularly intricate, as they navigate a competitive and rapidly evolving job market. This market is continuously reshaped by technological advancements, increasing globalization, and shifting industry demands. Beyond traditional corporate roles, entrepreneurship is increasingly recognized as a vital career option, particularly in developing economies, necessitating a deeper understanding of the psychological constructs that drive students towards such paths (
Kakouris et al., 2024). Successfully transitioning from student life to the professional world necessitates careful consideration of various factors, including personal strengths, prevailing job market trends, long-term career prospects, and financial security (
Garcia-Aracil et al., 2018;
Reitz et al., 2014;
van der Horst et al., 2021).
Traditional career theories suggest that individuals make career decisions through a rational evaluation of their skills, interests, and available opportunities (
Sullivan & Baruch, 2009). However, an expanding body of research challenges this view, indicating that career choices are often influenced by factors beyond pure rationality. Behavioral biases and psychological predispositions frequently shape decision-making, leading individuals to deviate from strictly logical considerations (
Tversky & Kahneman, 1974;
Samuelson & Zeckhauser, 1988). Insights from behavioral economics and psychology reveal that cognitive biases such as overconfidence, social comparison, and status quo bias can significantly influence career decision-making (
Nosek et al., 2002;
Gigerenzer, 2018).
Business students often operate in competitive environments where peer expectations, job prestige, and perceived stability, amplified by herd mentality and optimism bias, overshadow critical self-assessment. These dynamics can lead to decisions based on external perceptions rather than personal alignment, resulting in either initial job satisfaction or later regret and dissatisfaction (
Judge et al., 2005). Suboptimal career choices not only compromise individual fulfillment and mental well-being but also affect organizations through lower productivity, higher turnover rates, and broader inefficiencies in the job market (
Holland, 1997;
Savickas, 2013;
Coetzee & Stoltz, 2015).
The relevance of such biases is particularly acute in Nepal’s high-stakes environment. The Nepalese labor market is characterized by a pronounced mismatch between job demand and supply, set against a youthful demographic where approximately 40% of the population is under 24 years of age (
Central Bureau of Statistics, 2024). This demographic dividend, coupled with increasing educational attainment, paradoxically exacerbates challenges such as brain drain, underemployment, and widespread skill mismatches across key sectors including finance, information technology, tourism, and public services (
Danish Trade Union Development Agency, 2023;
Sharma, 2024). These economic pressures are compounded by the collectivist nature of Nepalese society, where strong familial and social expectations often compel graduates to pursue socially esteemed or high-paying professions, regardless of personal interest or strengths (see
Markus & Kitayama, 1991;
Gautam et al., 2005). Rooted in cultural norms that prioritize family obligation and group harmony over individual agency, these dynamics amplify specific behavioral biases. For instance, a pronounced herd mentality may lead students toward careers that are visibly popular among peers, while social comparison may drive them to emulate the paths of successful relatives, even if misaligned with their own capabilities (
Banerjee, 1992;
Akerlof, 1997;
Bandura, 2001;
Savickas, 2005).
Recent studies have emphasized the nuanced interaction between individual cognition and socio-cultural context in shaping career decisions (
Lent et al., 1994;
Lent & Brown, 2013;
Rogers et al., 2008;
Kulcsár et al., 2020;
Ayob et al., 2022). Both internal processes (e.g., self-efficacy, outcome expectations) and external factors (e.g., cultural values, social norms) play critical roles in determining students’ career intentions, including entrepreneurial aspirations (
Kakouris et al., 2024). Students also often rely on moral or social justifications when choosing industries or roles (
Hannah et al., 2018). These dynamics indicate that behavioral biases do not operate in isolation but are embedded within broader socio-cultural frameworks (
Nisbett et al., 2001). Another important dimension involves students’ rationalization of career decisions, especially when choosing fields that, while financially secure, may carry social stigma. In such cases, individuals may experience internal conflict and seek to reduce cognitive dissonance by appealing to optimism bias or status quo bias (
Ruthig et al., 2007). In Nepal, where economic pressures are high and social narratives strongly influence choices, such rationalization may be widespread.
This study, therefore, aims to empirically examine how such biases influence career decisions among Nepalese business students. It is among the first to explore how these cognitive patterns are shaped and reinforced by prevailing cultural frameworks, potentially revealing culture-specific decision-making mechanisms in the Nepalese context. Findings from this research can help inform policies that promote better alignment between student preferences and labor market needs, whether by shifting societal perceptions or incentivizing less popular yet economically vital sectors. Without such evidence-based interventions, attempts to improve youth employment outcomes may fall short. This study therefore serves as a foundational contribution to Nepal’s educational and economic development discourse.
The remainder of this paper is structured as follows.
Section 2 presents the literature review and develops the hypotheses.
Section 3 describes the research methodology.
Section 4 presents an empirical analysis and implications of the findings.
Section 5 concludes the paper with limitations of the study.
3. Research Methodology
3.1. Research Design and Approach
This study adopts a quantitative survey design to systematically investigate the influence of various behavioral biases on career decision-making among business students in Nepal. The quantitative approach allows us to facilitate the measurement of constructs, enable robust statistical analysis, and support the generalization of findings. This methodology provides a structured framework for exploring the hypothesized relationship between specific cognitive predispositions and career choices.
The research specifically delineates five independent variables, each representing a distinct behavioral bias: overconfidence bias, herd mentality, social comparison, status quo bias, and optimism bias. Career decision-making is established as the dependent variable, representing the outcome influenced by these biases. The deliberate selection of these five specific biases signals a focused theoretical grounding for the investigation as outlined in the previous section to pinpoint particular psychological mechanisms influencing vocational choices. This allows for a more nuanced understanding of which biases exert the most significant influence, rather than merely confirming the general impact of cognitive shortcuts. Such specificity enhances the study’s theoretical contribution and its practical applicability, potentially guiding the development of targeted interventions or educational programs aimed at improving career decision-making processes in the Nepalese context.
3.2. Participants and Sampling Procedures
The target population for this study comprised Bachelor of Business Administration (BBA) and Master of Business Administration (MBA) students enrolled at Pokhara University. This institution was strategically chosen as the second-largest university in Nepal by student enrollment, providing a substantial and representative pool of participants for the research. These students are typically in a critical phase of their academic and personal development, actively contemplating and making significant career choices, aligning directly with the objectives of this study.
While the overarching selection process of respondents was random, the recruitment efforts were specifically directed towards business students who were actively engaged in career decision-making processes, such as final-year students or recent graduates. This strategic targeting of individuals currently grappling with career choices is a critical methodological consideration. It ensures that the collected data is not merely from business students in general but from those for whom career decisions are salient and immediate. This approach maximizes the contextual validity and practical utility of the findings, as participants possess current, lived experience with the phenomenon under investigation, thereby providing richer and more authentic insights. This focused targeting enhances the internal validity by reducing noise from irrelevant experiences and directly strengthens the applicability of the findings to the specific context of career guidance and education for graduating students.
Prior to the main data collection, a pilot study was conducted with a sample of 30 respondents. The primary objective of this pilot was to evaluate the clarity, comprehensibility, and reliability of the survey questionnaire items. The results of the pilot study indicated no significant issues with the instrument, thus precluding the need for any modifications before proceeding with the final data collection. The full-scale survey was conducted during January and February 2025. The questionnaire was administered via the internet (online survey) and in-person on the university campus in Pokhara to maximize reach and response rates, accommodating students’ preferences and accessibility.
A total of 387 survey responses were initially received. We excluded 27 surveys due to incomplete responses on questions pertinent to our research hypotheses (see
Table A1), which resulted in a final sample of 360 completed surveys. This final sample size substantially exceeded the minimum threshold determined through an a priori power analysis conducted using G*Power 3.1.9.7. The parameters for this analysis were set at an effect size of 0.7321, a significance level (α) of 0.05, and a desired power level of 0.95. Under these conditions, the analysis indicated that a minimum sample size of 12 would be sufficient to detect the anticipated effect. With 360 valid responses, the achieved sample size ensured excellent statistical power, calculated at 0.9649. This robust statistical power, significantly exceeding the minimum requirement, confirms the dependability and generalizability of the study’s findings. A very low risk of Type II error is implied, making the study’s conclusions highly reliable. This robust sample size contributes significantly to the external validity of the results, thereby strengthening the study’s contribution.
3.3. Measures and Instrumentation
Primary data were collected using a structured questionnaire. The questionnaire utilized a five-point Likert scale, ranging from 1 (strongly disagree) to 5 (strongly agree), to capture respondents’ perceptions and attitudes regarding behavioral biases and career decision-making.
The instrument was designed to measure behavioral biases influencing career decision-making among business students. All constructs were operationalized using validated indicators adapted from prior research to ensure content validity and comparability with existing literature. It ensures that the study is measuring precisely what it intends to measure, grounded in established theoretical frameworks, and reduces the risk of measurement error and enhances confidence that the observed relationships are between the intended constructs, thereby bolstering comparability of the results with other studies in the field. The comprehensive details on the variable operationalization, including constructs, statements, and source references, are detailed in
Table A1.
The validity and reliability of the questionnaire were rigorously assessed through several statistical measures. Internal consistency reliability was evaluated using Cronbach’s Alpha (CA) and Composite Reliability (CR), while convergent validity was assessed using Average Variance Extracted (AVE). Acceptable thresholds for these measures were set at CA > 0.70, CR > 0.70, and AVE > 0.50, consistent with established guidelines recommended by
Fornell and Larcker (
1981) and
Hair et al. (
2019). Discriminant validity, which ensures that each construct is conceptually distinct from others, was confirmed using the Fornell-Larcker criterion and the Heterotrait–Monotrait (HTMT) ratio. Addressing both convergent and discriminant validity is also crucial for the integrity of Structural Equation Modeling (SEM) analyses because the quality of the measurement model directly impacts the validity of the structural model. Our comprehensive validation process significantly strengthens the overall credibility of the findings.
3.4. Data Analysis Techniques
This study adopted a two-stage methodological approach, integrating Partial Least Squares Structural Equation Modeling (PLS-SEM) and Artificial Neural Networks (ANN), to comprehensively explore the complex interaction between behavioral biases and career decision-making.
3.4.1. Partial Least Squares Structural Equation Modeling (PLS-SEM)
The first stage of the analysis employed Partial Least Squares Structural Equation Modeling (PLS-SEM), executed using SmartPLS 3.0. In line with existing related studies, PLS-SEM was selected as a robust technique particularly suited for modeling latent constructs in situations where theoretical development is ongoing and the model involves multiple variables and indicators, as highlighted by
Sarstedt et al. (
2021). Its predictive orientation and inherent flexibility in handling non-normal data distributions made it especially appropriate for research involving psychological and behavioral constructs, which frequently exhibit such characteristics. To generate stable estimates of path coefficients and assess the significance of structural relationships, a bootstrap resampling procedure with 5000 iterations was employed, in line with recommended best practices for PLS-SEM from
Hair et al. (
2019) and
Henseler et al. (
2015).
Following the structural model assessment, Importance–Performance Map Analysis (IPMA) was applied. IPMA served to identify the most influential behavioral biases on career decision-making and to highlight areas requiring strategic attention based on their relative importance and performance levels. This analytical step provides actionable insights beyond mere statistical significance, guiding practical implications.
3.4.2. Artificial Neural Networks (ANN)
The second analytical stage incorporated Artificial Neural Networks (ANNs) to address the inherent limitations of linear modeling techniques in capturing the complex, non-linear dynamics often present in individual decision-making processes. ANNs enable the modeling of such non-linear relationships that are frequently undetectable through conventional statistical methods. A multilayer perceptron (MLP) model was constructed using IBM SPSS 26. This model applied a feedforward-backpropagation algorithm with sigmoid activation functions, a common and effective architecture for capturing complex patterns in data. To ensure model reliability and generalizability, ten-fold cross-validation was employed. This technique is crucial for reducing the risk of overfitting and provides a more robust estimate of model performance on unseen data.
3.4.3. Integration of PLS-SEM and ANN
The integration of PLS-SEM and ANN represents a sophisticated and synergistic methodological strategy. While PLS-SEM elucidates the linear, theory-driven relationships between constructs, providing clear insights into the structural pathways, ANN captures complex, data-driven patterns that offer additional, often non-linear, insights into the predictive structure of behavioral influences on career decision-making. Cognitive biases might interact in intricate, non-additive ways, or their influence might only manifest above certain thresholds (
Hogarth, 1987;
Kahneman, 2011). PLS-SEM provides an interpretable structural model, validating theoretical pathways (e.g., demonstrating that a specific bias generally increases a certain outcome). Conversely, ANN, while often considered a ‘black box’ model, can uncover hidden, intricate patterns and interactions that traditional linear models may not be able to capture (see
Bishop, 2006;
Lee et al., 2019). This dual analytical approach provides a more holistic and nuanced understanding of the phenomenon under consideration.
3.5. Ethical Considerations
Ethical approval for this survey was granted by the Research Management Cell, School of Business, Pokhara University, and strict ethical standards were maintained throughout data collection. Informed consent was obtained from all student participants prior to their completion of the questionnaire, ensuring they fully understood the study’s purpose, their role, and their rights. Participation in the study was entirely voluntary, and participants were assured that their anonymity would be fully maintained to protect their identity and privacy. All collected data were used solely for academic research purposes and handled with the utmost confidentiality throughout the analysis and reporting phases.
4. Survey Results and Analysis
This section presents the empirical findings derived from the survey data and the subsequent statistical analyses, including Partial Least Squares Structural Equation Modeling (PLS-SEM) and Artificial Neural Network (ANN) modeling. The results are presented systematically to address the research objectives regarding the influence of behavioral biases on career decision-making.
4.1. Demographic Distribution of the Survey Respondents
The study surveyed 360 respondents, providing a comprehensive demographic overview and insights into their career decision-making perspectives. The age distribution within the sample indicates a relatively even spread, with 32.8% of students falling within the 18–22 age range, 30.8% in the 22–26 category, and the largest segment, 36.4%, comprising individuals 26 years and above. The gender composition is nearly balanced, with 52.8% male and 47.2% female respondents. In terms of academic programs, students are almost equally split between BBA (50.6%) and MBA (49.4%). The sample exhibits diverse academic interests, with specializations distributed among marketing (33.3%), finance (32.5%), and human resources (34.2%). Career aspirations also vary, with 33.6% of students aiming for corporate roles, 34.2% planning entrepreneurship, and 32.2% intending to pursue further education. The finding that one-third of respondents indicated entrepreneurship as a career choice, coupled with Nepal’s imperative to develop its entrepreneurial ecosystem for economic growth (
Kakouris et al., 2024), underscores the importance of fostering an entrepreneurial mindset in students through career interventions.
Table 3 provides a detailed demographic profile of the respondents.
When examining factors that influence career decisions, personal interest is the most frequently cited factor (26.4%), underscoring the intrinsic drive many students possess. This is closely followed by peer influence (25.6%), market demand (25%), and family advice (23.1%), indicating a complex interplay of internal aspirations and external pressures shaping their choices among the respondents. The frequency with which students seek career advice presents a varied and insightful picture: 35.3% engage in frequent consultations, 36.1% do so occasionally, yet a notable 28.6% report never seeking formal guidance. This distribution suggests that while a significant portion of students actively seeks career-related insights, a substantial segment remains disengaged from formal career discussions. This group, which reports never seeking guidance, is especially noteworthy.
In terms of career priorities, students consider growth opportunities (28.1%) as the most important factor in choosing a career, followed closely by job stability (27.2%), work–life balance (25.8%), and salary (18.9%). The finding that salary holds low importance for career choice in Nepal, contrary to economic realities, suggests human capital theory has limited applicability there, and a deviation potentially explained by collectivist social norms.
Among the respondents, the biggest challenges in career decision-making include a lack of information (29.7%), difficulty choosing between options (26.1%), uncertainty about skills (22.2%), and pressure from others (21.9%). The relatively high importance of “Peer Influence” (25.6%) as a decision factor, coupled with “lack of information” (29.7%) and “difficulty in choosing between options” (26.1%) as major challenges, points to a potential conflict in student decision-making. Students may consciously aspire to make choices based on personal growth and intrinsic factors, but in the face of uncertainty and a lack of clear direction, they might implicitly default to socially validated paths as postulated in
Ryan and Deci (
2000). This tendency may also stem from Nepal’s weak labor market conditions and collectivist social context.
4.2. Assessment of Measurement Model
The assessment of the measurement model, presented in
Table 4, confirms the reliability and validity of all constructs. Internal consistency reliability was assessed using Cronbach’s Alpha (CA) and Composite Reliability (CR), while convergent validity was evaluated through Average Variance Extracted (AVE) and factor loadings. All constructs met the recommended thresholds (CA and CR > 0.70, AVE > 0.50) as per established guidelines (
Hair et al., 2019;
Fornell & Larcker, 1981).
Delving into the specifics, Career Decision-Making (CDM) demonstrated strong reliability with a Cronbach’s Alpha (CA) of 0.871, a Composite Reliability (CR) of 0.907, and an Average Variance Extracted (AVE) of 0.664, with individual item loadings consistently strong, ranging from 0.673 to 0.887. Herd Mentality (HM) also exhibited high reliability (CA = 0.885, CR = 0.917, AVE = 0.688) with loadings from 0.710 to 0.884. Optimism Bias (OB) achieved excellent reliability (CA = 0.964, CR = 0.972, AVE = 0.873) with high loadings (0.919–0.960). Overconfidence Bias (OCB) similarly showed strong reliability (CA = 0.922, CR = 0.942, AVE = 0.765) with loadings between 0.770 and 0.957. Both Social Comparison (SC) and Status Quo Bias (SQB) met all criteria (CA > 0.87, CR > 0.91, AVE > 0.67), with loadings ranging from 0.678 to 0.921. The consistent high performance across all these psychometric indicators suggests that the survey instrument effectively captured the intended latent constructs. This robust measurement model provides a strong foundation for using structural equation modeling. The graphical representation of the measurement model is provided in
Figure 2.
4.3. Assessment of Discriminant Validity
The assessment of discriminant validity is crucial for ensuring that each construct in our model measures a unique and distinct concept, rather than overlapping with other constructs (
Fornell & Larcker, 1981;
Henseler et al., 2015). Therefore, we performed the discriminant validity of the constructs using the Fornell-Larcker Criterion and the Heterotrait–Monotrait (HTMT) Ratio, and the test results are presented in
Table 5. Panel A shows that the square root of the Average Variance Extracted (AVE) for each construct (diagonal values) is greater than its correlations with other constructs, thereby satisfying the Fornell–Larcker Criterion and confirming discriminant validity. For example, the square root of AVE for Career Decision-Making (CDM) is 0.815, which is greater than its correlations with Herd Mentality (0.504), Optimism Bias (0.446), Overconfidence Bias (0.473), Social Comparison (0.580), and Status Quo Bias (0.634). This pattern holds true for all constructs, indicating their distinctiveness.
Panel B in
Table 5 presents the HTMT ratios, where all values fall below the recommended threshold of 0.85, further verifying discriminant validity. For instance, the HTMT ratio between Herd Mentality and Career Decision-Making is 0.568, and between Status Quo Bias and Career Decision-Making is 0.724, both well within the acceptable range. The discriminant validity through these two distinct and rigorous methods indicates that we are able to separately capture bias empirically. This is critical in behavioral research, where biases can often be highly correlated or conceptually overlap.
4.4. Assessment of Structural Model
The assessment of the structural model provides insights into the predictive relevance, multicollinearity, and overall fit of the proposed theoretical model.
Table 6 presents the
f2, Variance Inflation Factor (VIF),
R2, and
Q2 values. The
values indicate the effect size of each construct on the dependent variable, Career Decision-Making. Status Quo Bias exhibits the largest effect size (0.143), followed by Social Comparison (0.059) and Optimism Bias (0.050), while Herd Mentality (0.017), and Overconfidence Bias (0.023) show smaller effects. The variance inflation factor (VIF) values, which assess multicollinearity, fall between 1.253 and 1.743. These are well below a threshold of 3.3, confirming the absence of significant multicollinearity in the structural model (see
Kock & Lynn, 2012). The
R2 value of 0.536 indicates that behavioral biases collectively explain 53.6% of the variance in business students’ Career Decision-Making. The model exhibits predictive relevance, evidenced by a
Q2 value of 0.349, exceeding the moderate threshold of 0.15 (
Hair et al., 2022), indicating robust out-of-sample predictive power for Career Decision-Making. The model fit indices of the Saturated Model also indicate an acceptable fit with an SRMR (Standardized Root Mean Square Residual) of 0.069. This value is below the recommended threshold of 0.08, suggesting a good fit. The Chi-Square value is 2358.848, and the NFI (Normed Fit Index) is 0.785, indicating a moderately acceptable model fit (
Henseler et al., 2015).
The hypothesis testing results, presented in
Table 7, confirm that behavioral biases considered in this study have a significant and measurable influence on Career Decision-Making (CDM). Every single one of the five proposed paths (H1 through H5) received robust empirical support, consistently exhibiting positive beta values, high t-statistics, low
p-values (below 0.05), and confidence intervals that exclude zero, thereby confirming the statistical significance of each of the beta estimates.
Figure 3 depicts path analysis with beta coefficient.
The magnitude of the beta coefficients provides a clear and compelling indication of the practical significance of each relationship. A higher beta coefficient indicates greater influence on Career Decision-Making. Among the five biases considered, Status Quo bias has the highest beta coefficient (0.337), followed by Social Comparison (0.219) and Optimism bias (0.171), while Herd Mentality has the lowest beta coefficient (0.116), like the beta estimate (0.128) for Overconfidence bias. This clear hierarchy may represent the psychological imprint of Nepal’s political and economic instability on career decision-making. Decades of a volatile political environment, prolonged underemployment rate
1, and heavy reliance on remittances (through employment abroad) may have created an environment where risk aversion dominates career choices. This potentially explains why Status Quo bias emerges as the strongest predictor, while Social Comparison’s significance may capture Nepal’s collectivist social fabric, where kinship networks facilitate career opportunity access. Meanwhile, Optimism bias may function as a psychological buffer against high youth unemployment, enabling persistence despite systemic barriers. Conversely, the weak influence of Herd Mentality (β = 0.116) and Overconfidence (β = 0.128) reflects how Nepal’s economic precarity punishes conformity and self-assuredness. Given high level of mismatch between labor market demands and graduate competencies (
UNDP, 2020), blind imitation (‘herding’) poses substantial risks.
4.5. Importance–Performance Map Analysis (IPMA)
The Importance–Performance Map Analysis (IPMA) is a valuable tool that integrates the total effect (importance) and performance of constructs to identify critical areas for improvement (
Hair et al., 2022). By prioritizing behavioral biases that most strongly influence career decision-making, this analysis guides targeted interventions where they will yield the greatest practical impact.
Figure 4 presents the IPMA based on PLS-SEM results, plotting the importance and performance of each behavioral bias affecting career decision-making. Status Quo Bias demonstrates the highest importance (0.337) but only moderate performance (55.351%), establishing it as the top priority for intervention. Social Comparison also exhibits substantial importance (0.219) with relatively higher performance (68.166%), indicating its active influence warrants continued monitoring. Optimism Bias shows moderate importance (0.171) coupled with the lowest performance (54.222%), revealing a significant unmet need for attention. Conversely, Overconfidence Bias has lower importance (0.128) despite high performance (71.772%), suggesting limited relevance for improvement efforts. Similarly, Herd Mentality displays low importance (0.116) and the highest performance (75.772%), confirming its minimal strategic priority.
Collectively, the IPMA underscores Status Quo Bias as the most influential yet inadequately addressed factor in Career Decision-Making. This analysis extends beyond statistical significance by offering a resource-allocation perspective: Biases with high importance but low-to-moderate performance (e.g., Status Quo Bias and Optimism Bias) represent high-leverage intervention points, as students currently manage them poorly despite their strong impact. In contrast, biases with lower importance but high performance (e.g., Herd Mentality and Overconfidence Bias) are either effectively managed by students or inherently less consequential, making them lower-priority targets. For career counseling and educational programs, IPMA provides an evidence-based framework to concentrate resources on developing strategies that counter Status Quo and Optimism Biases, maximizing improvements in career decision quality.
4.6. Artificial Neural Network (ANN) Analysis
To capture the complex and non-linear associations between behavioral biases and career decision-making, this study employed an ANN model.
Figure 5 displays the ANN diagram where the cognitive biases are ‘Input Neurons’ and Career Decision-Making is the ‘Output Neuron’, with hidden layers anticipated as cognitive biases. While PLS-SEM is effective for estimating linear relationships and direct paths among latent constructs, it may not adequately account for the intricate, dynamic interactions often observed in human behavioral processes. Since behavioral biases often interact in ways that are not straightforward, ANN was seen as a better fit, as it does not rely on fixed formulas or assumptions and learns patterns directly from the data.
The model applied a feed-forward-backward-propagation (FFBP) method using multiple layers of nodes (perceptrons) and sigmoid functions. These features help the model adjust and improve its predictions by learning from errors over many cycles. A ten-fold cross-validation approach was used during the analysis, where the data was divided into ten parts, and the model was trained on nine parts and tested on the remaining one. This process was repeated until every part had been tested once, helping to avoid overfitting and ensuring that the results are more reliable and trustworthy across different data samples.
Table 8 presents the Root Mean Square Error (RMSE) values across ten neural networks (NN I to NN X), demonstrating the model’s fit. The training RMSE ranged from 0.4423 to 0.5641 (mean = 0.5110, SD = 0.0192), while the testing RMSE varied between 0.3360 and 0.4955 (mean = 0.4592, SD = 0.0689). These relatively low RMSE values indicate strong predictive performance, confirming the ANN model’s reliability.
Figure 6 visually represents the error distribution, showing a steady reduction in prediction error across iterations. The effectiveness of 10-fold cross-validation in producing consistently low and comparable RMSE values for both training and testing sets is a strong indicator that the ANN model has learned generalizable patterns from the data rather than simply memorizing the training examples. This significantly enhances confidence in the model’s ability to predict Career Decision-Making based on behavioral biases in new, unseen data, validating the choice of a non-linear approach for capturing complex behavioral dynamics. This robust predictive performance means that the findings derived from the ANN’s sensitivity analysis, particularly regarding the relative importance of biases in a non-linear context, are highly credible. It suggests that even if some biases do not show strong linear relationships, their complex, indirect, or interactive effects are effectively captured, offering a more complete and nuanced understanding of their influence on career choices than linear models alone.
The sensitivity analysis, assessing the relative importance of each behavioral bias in the ANN model, is summarized in
Table 9. Status Quo Bias (SQB) showed the highest influence (100%), followed by Social Comparison (81.19%) and Herd Mentality (72.87%), indicating their strong predictive relevance in Career Decision-Making. Overconfidence Bias (70.43%) and Optimism Bias (65.54%) also contributed significantly, although to a lesser extent. These findings support the critical role of behavioral biases in shaping career choices, with SQB emerging as the most dominant factor. We also found that Status Quo Bias and Social Comparison consistently emerge as the most dominant factors in both linear and non-linear models (PLS-SEM and ANN). The robust results suggest that their influence on career decisions is pervasive and robust, regardless of the complexity or linearity of the underlying relationships. Their impact is not merely a direct, simple effect but also manifests through complex, potentially indirect, or interactive pathways. This dual confirmation from two distinct modeling approaches significantly strengthens the evidence for the critical role of Status Quo Bias and Social Comparison in shaping the career choices of business students in Nepal. The results also imply that interventions targeting these two biases are likely to be effective across a broader spectrum of student decision-making scenarios, solidifying their position as primary targets for educational and counseling efforts aimed at fostering more autonomous and informed career decisions.
4.7. Comparative Analysis of PLS-SEM and ANN Results
The comparative analysis of PLS-SEM and ANN results, presented in
Table 10, reveals both convergence and divergence in how behavioral biases predict Career Decision-Making.
Both methods consistently identified Status Quo Bias as the most influential predictor of Career Decision-Making (PLS-SEM: β = 0.337, rank 1; ANN: 100.00 percent, rank 1) and Social Comparison as the second strongest factor (PLS-SEM: β = 0.219, rank 2; ANN: 81.19 percent, rank 2). This strong agreement suggests a stable and significant influence of these two biases on students’ career decisions.
However, notable differences emerged for other behavioral constructs. Optimism Bias ranked third in PLS-SEM (β = 0.171) but was the least important in the ANN model (65.54 percent, rank 5), suggesting its influence may be predominantly linear and less impactful in complex, non-linear patterns. Conversely, Herd Mentality showed the least linear impact in PLS-SEM (β = 0.116, rank 5), yet ranked third in ANN importance (72.87 percent), indicating it may exert significant influence through non-linear mechanisms undetectable by PLS-SEM. Overconfidence Bias maintained moderate importance across both methods, though its ANN rank (4th, 70.43%) was slightly higher than in SEM (4th, β = 0.128).
This specific divergence is a critical theoretical and practical observation. It suggests that behavioral biases do not operate uniformly. Optimism Bias might have a more direct, straightforward effect on career decisions (e.g., directly influencing risk-taking in career choices), which is well-captured by linear models. In contrast, Herd Mentality might exert its influence through more complex, indirect, or interactive pathways (e.g., amplifying the effects of social comparison or subtly shaping perceptions of career paths over time), which are better captured by the non-linear capabilities of ANN. This differentiation implies that interventions should be tailored not just to the type of bias, but also to the nature of its influence. For biases with predominantly linear effects, direct educational or cognitive restructuring techniques might be effective. For biases with strong non-linear effects, more experiential, systemic, or context-aware interventions might be necessary to address their subtle and complex manifestations, leading to more sophisticated and effective career guidance strategies.
4.8. Further Discussions and Implications
In our survey, we found that a substantial segment of respondents (students) remain disengaged from formal career discussions. Their disengagement from formal career support could stem from various underlying factors, such as high self-efficacy, a strong preference for independent decision-making, or a lack of awareness regarding available resources. Crucially, this group might be more susceptible to unaddressed biases precisely because they lack external perspectives or structured information. This observation suggests that a singular approach to career support may be ineffective, and targeted outreach or alternative engagement formats, such as embedding guidance within academic courses or peer-led initiatives, might be necessary to equip these students for career navigation, especially given that “lack of information” is identified as the leading challenge (29.7%) in career decision-making.
The survey highlights a fascinating disconnect: while 26.4% of respondents identified “personal interest” as the most important factor influencing their career decisions, a much larger 52% reported a lack of information or uncertainty about their skills as their biggest challenge. This suggests a potential cognitive dissonance. Students may consciously value intrinsic factors like personal growth and interest, but implicitly or subconsciously, they might be more swayed by external pressures or a lack of self-awareness regarding their capabilities. This underscores the critical need for comprehensive career guidance that can help students reconcile their stated aspirations with the practical realities and underlying influences driving their career choices.
Furthermore, the PLS-SEM analysis reveals that Status Quo bias has a large effect size
, and the largest path coefficient, suggesting that intervention efforts focusing on mitigating Status Quo Bias are likely to yield the most substantial overall impact on improving career decision-making quality. The analysis also reveals that the cognitive biases considered collectively explain more than 50% of the variations in career decision-making among the business students. In social and behavioral sciences, an R-squared value exceeding 0.50 is considered to represent a strong explanatory power for a model (
Hair et al., 2022). This indicates that the set of behavioral biases examined in this study is not merely a minor influence but is indeed a central and highly impactful determinant of how students make career choices. This finding elevates the importance of a behavioral perspective in career development theory and practice. This high explanatory power suggests that interventions specifically targeting these behavioral biases could yield significant improvements in the quality and autonomy of students’ career decisions. It implies that traditional career guidance approaches, which may focus solely on skills, interests, and market information, might be overlooking a crucial psychological dimension that accounts for over half of the variability in decision outcomes.
The comparative analysis of the results from PLS-SEM and ANN implies that while PLS-SEM effectively captures linear and theory-driven relationships among variables, ANN is capable of identifying complex, non-linear patterns that may not be evident through traditional statistical approaches. The convergence on Status Quo Bias and Social Comparison, coupled with the divergence on Optimism Bias and Herd Mentality, empirically validates the necessity of employing multiple analytical paradigms in similar behavioral research. A single method would have provided an incomplete or potentially misleading picture. This demonstrates that human decision-making is multifaceted, involving both direct, theory-driven relationships and complex, emergent patterns. The integration of both techniques provides a more robust and comprehensive understanding of the underlying factors shaping individuals’ career choices. This finding serves as a strong methodological recommendation for future research in behavioral economics, psychology, and related fields. To truly capture the intricate dynamics of human behavior, researchers should increasingly consider adopting hybrid analytical approaches that combine the interpretability of traditional statistical models with the predictive power of machine learning techniques. This will lead to more robust theoretical models and more effective, evidence-based interventions.
Moreover, the contrasting importance of Herd Mentality and Optimism Bias across both models highlights the need for multidimensional guidance. While Herd Mentality appeared less significant in linear SEM models, its high non-linear influence in ANN reveals that some biases may exert their effects in more subtle, indirect ways. This calls for comprehensive strategies that balance quantitative self-insight tools with scenario-based experiential learning, allowing students to recognize and reflect on hidden patterns in their behavior. Additionally, although Overconfidence Bias and Optimism Bias can positively fuel motivation, unchecked expressions of these tendencies can lead to impractical expectations and poor readiness. Yet, a balanced level of optimism, as discussed in entrepreneurial psychology, is likely a crucial trait for students considering the inherent risks of starting a business. Understanding how optimism bias operates in this context could inform interventions aimed at encouraging realistic entrepreneurial ambitions (
Kakouris et al., 2024). Counseling strategies should, therefore, include realistic goal setting, risk awareness, and adaptive planning techniques to strike a balance between ambition and feasibility. Altogether, these findings hold considerable implications for enhancing student readiness, satisfaction, and alignment with long-term career goals.
5. Summary and Conclusions
This study conducted a survey of 360 business students from Pokhara University in Nepal to examine how behavioral biases influence students’ career decisions. The survey data reveals that the students’ career choice is largely guided by their personal interests and peer influence, and they place more value on the growth opportunities and job stability for choosing a career. But they find a lack of information and uncertainty about their skills as the biggest challenges in their career decision.
To test the hypotheses of our study, we implemented a two-stage PLS-ANN approach, allowing us to capture both linear and non-linear relationships between the cognitive biases and Career Decision-Making. The PLS-SEM analysis shows that while all biases have a significant influence on Career Decision-Making, the status quo bias and social comparison have greater influence. The importance of these two biases is also confirmed in the ANN analysis. The ANN analysis, however, ranked differently from other biases in the hierarchy. Therefore, this study concludes that behavioral biases strongly influence students’ career choices, and the integrated approach of PLS-ANN helps to unfold both linear and non-linear relationships between Career Decision-Making and cognitive biases. The robust results from this study suggest that traditional career guidance frameworks need to embed behavioral perspectives (biases). Addressing these biases can help students align their career paths with their strengths, aspirations, and long-term goals, moving beyond external pressures or cognitive tendencies. Ensuring awareness and intervention strategies can ultimately lead to more confident, well-prepared graduates entering the workforce. And future career guidance frameworks should explicitly incorporate behavioral science principles, diagnostic tools for identifying biases, and intervention techniques designed to mitigate their negative effects, thereby fostering greater autonomy and self-alignment in students’ career choices.
Despite the valuable insights derived from the two-stage PLS-ANN analytical approach, this study is subject to certain limitations. Firstly, the sample is restricted to students from a specific educational context, potentially limiting the generalizability of the findings across different spatial or institutional settings. Future studies should expand the sample across diverse geographic and academic backgrounds to enhance external validity. Secondly, the cross-sectional design precludes any causal inference; longitudinal data could offer a deeper understanding of how biases evolve over time and influence long-term career trajectories. Additionally, while ANN provides valuable non-linear insights, it lacks the transparency of SEM in explaining theoretical linkages, limiting interpretability for theoretical development. Moreover, this study focused solely on behavioral biases; future research could explore the interaction of these biases with emotional, environmental, or socioeconomic factors, which may further contextualize decision-making behavior. Employing hybrid methods such as integrating qualitative interviews alongside SEM and ANN models could also enrich the understanding of underlying cognitive processes. Lastly, future studies may consider examining intervention-based models, evaluating the effectiveness of career counseling programs specifically designed to mitigate these biases.