Occupational HealthOrganizational PsychologyPsychometrics

Employee After-Hour Connectivity, Autonomy, and Exhaustion- Model Inventory

A psychometric review of the Employee After-Hour Connectivity, Autonomy, and Exhaustion-Model Inventory (van Zoonen et al., 2023), including theoretical foundation, factor structure, reliability, validity, and full survey items.

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PUBLISHED
Scientifically Reviewed · Dr. Marwa Abd-Alazim · September 27, 2026
Medically & Scientifically Reviewed Verified: September 27, 2026
Dr. Marwa Abd-Alazim Ph.D.
Professor of Psychology • University of Kerbala
Review Criteria & Clinical Standards

This content undergoes rigorous scientific peer-review and medical editorial standards at Arab Psychology Network to ensure clinical accuracy, validity, and compliance with evidence-based guidelines from leading psychological and healthcare authorities (APA / WHO).

1. Abstract

The Employee After-Hour Connectivity, Autonomy, and Exhaustion-Model Inventory is an 18-item psychometric measurement battery established by Ward van Zoonen, Jeffrey W. Treem, and Anu E. Sivunen (2023). Developed to capture the complex, dynamic interrelationships among digital workplace technologies, employee self-determination, and psychological well-being, the instrument assesses three foundational constructs across five operationalized subscales: After-Hour Work Connectivity (4 items), Multidimensional Job Autonomy (comprising Work Method Autonomy [3 items], Work Scheduling Autonomy [3 items], and Work Criteria Autonomy [3 items]), and Work Exhaustion (5 items). Grounded theoretically in Conservation of Resources (COR) Theory, the inventory adapts validated items from prior foundational literature—specifically Büchler et al. (2020), Breaugh (1985), and Maslach and Jackson (1981)—unifying them into a structural modeling system optimized for longitudinal organizational assessments.

Empirical validation was conducted using a three-wave longitudinal study design among knowledge workers at an industrial enterprise in Scandinavia. Psychometric evaluations using structural equation modeling (SEM) and confirmatory factor analysis (CFA) demonstrated exceptional structural fit: χ²(522) = 682.83, Comparative Fit Index (CFI) = .98, Tucker-Lewis Index (TLI) = .97, Root Mean Square Error of Approximation (RMSEA) = .040 (90% CI [.031, .048]), and Standardized Root Mean Square Residual (SRMR) = .06. Composite and McDonald’s omega (Ω) reliabilities ranged from .74 to .95 across waves, with maximal reliability index (H) spanning .75 to .95. Average Variance Extracted (AVE) ranged from .49 to .82. Longitudinal measurement invariance testing verified metric (weak) and scalar (strong) invariance, confirming the instrument’s stability across time. The tool serves organizational psychologists, human resource scholars, and occupational health practitioners seeking to evaluate how digital boundary-crossing behaviors influence occupational burnout, job control, and psychological strain.

2. Keywords

After-Hour Connectivity, Job Autonomy, Work Exhaustion, Conservation of Resources Theory, Occupational Health, Technostress, Work-Life Boundary Management, Job Demands-Resources, Burnout, Psychometrics, Confirmatory Factor Analysis, Longitudinal Measurement Invariance

3. Authors

The scale was developed, validated, and published by a collaborative international team of organizational communication and psychometrics scholars:

  • Ward van Zoonen, Ph.D. (Corresponding Author)
    Affiliation: Department of Media and Communication, Erasmus University Rotterdam, Rotterdam, The Netherlands; and Department of Language and Communication Studies, University of Jyväskylä, Jyväskylä, Finland.
    ORCID: 0000-0002-8531-8784
    Email: [email protected]
    Address: Erasmus University Rotterdam, Burgemeester Oudlaan 342, 3062 PA Rotterdam, The Netherlands.
  • Jeffrey W. Treem, Ph.D.
    Affiliation: Department of Communication Studies, Moody College of Communication, The University of Texas at Austin, Austin, Texas, USA.
    ORCID: 0000-0003-3269-5559
  • Anu E. Sivunen, Ph.D.
    Affiliation: Department of Language and Communication Studies, University of Jyväskylä, Jyväskylä, Finland.
    ORCID: 0000-0001-7068-2260

4. Purpose

The pervasive adoption of mobile communication technologies, enterprise social software, and cloud-based collaborative suites has dismantled traditional temporal and spatial borders separating professional responsibilities from personal recovery. This structural shift has created an empirical paradox: constant digital availability may induce stress, fatigue, and occupational wear, yet simultaneously grant professionals unprecedented agency regarding where, when, and how work is completed. The Employee After-Hour Connectivity, Autonomy, and Exhaustion-Model Inventory was engineered specifically to disentangle this dynamic tension.

Historically, research on technology-mediated boundary crossing has frequently treated after-hours connectivity as a purely toxic demand that drains energetic reserves and drives psychological exhaustion. Conversely, classic work design frameworks emphasize that flexibility in scheduling and work methods serves as a vital psychological buffer. The explicit purpose of this measurement battery is to concurrently capture both sides of this structural interface within a unified, psychometrically robust system. Rather than examining communication behaviors or workplace autonomy in isolation, the scale models the systemic pathways connecting technological availability to health outcomes through the conduit of worker control.

In applied settings, organizational leadership, occupational health departments, and human resource analysts utilize the instrument to:

  • Audit the prevalence of organizational “always-on” cultures and quantify the intensity of off-hours telepressure.
  • Evaluate whether existing workplace flexibility policies provide genuine psychological autonomy or merely disguise unregulated boundary expansion.
  • Track early stages of chronic work exhaustion before clinical burnout, absenteeism, or turnover manifest.
  • Design targeted organizational interventions, such as digital disconnection protocols, right-to-disconnect agreements, or autonomous scheduling initiatives.

In academic research, the inventory offers a standardized instrument for structural equation modeling, cross-lagged panel designs, and daily diary investigations examining the evolving nature of flexible, distributed, and hybrid knowledge work.

5. Psychological Construct

The inventory operationalizes three core psychological constructs across five specific measurement domains:

Organizational After-Hour Connectivity

After-hour connectivity denotes an employee’s deliberate and sustained use of enterprise technology (smartphones, email, messaging platforms) to perform job-related communications, inquiries, and monitoring outside formal organizational working hours. Conceptually distinct from involuntary emergency contact, this construct encompasses normalized behavioral routines: continuous availability, ambient monitoring of incoming work flows, and the repetitive execution of micro-tasks during nonwork intervals. Rather than measuring objective connectivity in logged minutes, the construct captures the behavioral and cognitive immersion in occupational tasks during designated personal recovery periods.

Multidimensional Job Autonomy

In alignment with Breaugh’s classic conceptualization, autonomy is operationalized not as a vague, global feeling of freedom, but as three distinct, interconnected facets:

  • Work Method Autonomy: The perceived degree of discretion, independence, and personal choice an individual exercises in selecting the specific procedures, software, techniques, and operational pathways required to complete their professional assignments.
  • Work Scheduling Autonomy: The perceived control over temporal ordering, sequencing, prioritization, and pacing of work obligations. Employees with high scheduling autonomy determine the temporal distribution of their output, choosing whether to perform tasks early in the morning, late in the evening, or across traditional shifts.
  • Work Criteria Autonomy: The perceived latitude an employee possesses to modify, renegotiate, or influence the evaluative standards, objectives, performance metrics, and accountability benchmarks against which their workplace productivity is appraised.

Work Exhaustion

Work exhaustion represents the foundational, affective-energetic component of occupational burnout, mirroring the emotional exhaustion dimension formulated by Maslach and Jackson. It reflects a chronic state of physical, emotional, and cognitive depletion resulting from sustained exposure to excessive psychological demands, unremitting occupational friction, and insufficient opportunities for physiological and mental recovery. Manifestations include feeling utterly depleted at the close of the working day, dreading upcoming work obligations upon waking, and perceiving daily professional tasks as severe strains on personal capacity.

6. Theoretical Framework

The conceptual architecture of the inventory is primarily underpinned by Conservation of Resources (COR) Theory, formulated by Stevan E. Hobfoll (1989, 2001). COR theory posits that individuals are fundamentally motivated to obtain, retain, protect, and foster valued resources—defined broadly as objects, conditions, personal characteristics, and energies. Stress, strain, and eventual exhaustion occur under three specific resource conditions: when valued resources are threatened with loss, when resources are net depleted, or when an individual invests significant personal resources without yielding an anticipated return.

Within this theoretical frame, after-hour connectivity represents a direct investment of scarce personal resources (time, attention, cognitive bandwidth, physical rest). If connectivity acts solely as an uncontrolled demand, it accelerates a loss spiral: personal recovery time is compromised, physiological restoration is disrupted, and cumulative energetic depletion culminates in work exhaustion. However, COR theory also articulates the principle of resource gain caravans and resource substitution. When technological connectivity enables workers to gain valuable structural resources—specifically job autonomy—it alters the energetic equation.

By engaging in after-hour connectivity, employees often gain the functional capacity to control their workflow: they can choose when to execute particular tasks (scheduling autonomy), bypass rigid institutional processes (method autonomy), and negotiate performance deliverables around personal commitments (criteria autonomy). In turn, these acquired autonomy resources generate a resource reservoir that mitigates cognitive strain and protects the individual from exhaustion. The instrument is engineered precisely to capture both the resource-depleting and resource-generating pathways that operate concurrently when digital technologies mediate the boundary between professional and personal life.

The model additionally bridges COR theory with the Job Demands-Resources (JD-R) Model (Bakker & Demerouti, 2007). In JD-R terms, after-hour connectivity occupies a dual role: it operates simultaneously as a job demand (inducing cognitive load) and as an instrument for unlocking job resources (granting temporal and procedural decision latitude). This synthesis allows investigators to test empirical models of structural mediation and suppressive effects over time.

7. Validity

The validity of the inventory was established via rigorous longitudinal evaluation across three distinct measurement waves (spaced across approximately six-month intervals) administered to knowledge professionals in a multinational natural resources corporation in Scandinavia.

Construct and Convergent Validity

Convergent validity was evaluated by assessing the statistical significance of standardized factor loadings and the Average Variance Extracted (AVE) for each latent construct across all survey waves. Standardized factor loadings across all items were robust, statistically significant (p < .001), and uniformly exceeded conventional psychometric thresholds (ranging predominantly from .70 to .95). As reported in the longitudinal model:

  • After-Hour Connectivity AVE: Consistently exceeded .80 across waves (.82 at Time 1, .80 at Time 2, .82 at Time 3), demonstrating that the latent construct accounts for over 80% of the variance observed across its indicators.
  • Multidimensional Job Autonomy AVE: Remained sound across waves (.51 at Time 1, .49 at Time 2, .51 at Time 3), meeting standard criteria for multidimensional second-order and parcelled configurations.
  • Work Exhaustion AVE: Maintained stable, high values (.68 at Time 1, .71 at Time 2, .70 at Time 3), verifying strong convergent validity for the energetic strain indicators.

Discriminant Validity

Discriminant validity was established through the Fornell-Larcker criterion and latent correlation matrix comparisons. For every pair of constructs, the square root of the AVE exceeded the bivariate latent correlation between those constructs across all time points. Furthermore, nested model comparisons demonstrated that constraining cross-construct correlations to unity resulted in significant deterioration of model fit (Δχ² tests, p < .001), corroborating that after-hour connectivity, autonomy dimensions, and exhaustion represent empirically independent constructs.

Predictive and Criterion Validity

Longitudinal structural equation modeling confirmed the predictive validity of the scale. Cross-lagged panel paths confirmed that while after-hour connectivity exerted a direct strain effect, its indirect effect through the enhancement of job autonomy significantly suppressed overall exhaustion over time. The structural paths reliably predicted downstream organizational criteria, including turnover intentions, organizational citizenship behaviors, and general occupational engagement.

8. Reliability

The scale exhibits robust internal consistency across all subscales, assessed using modern psychometric indicators including McDonald’s Omega coefficient (Ω) and Hancock and Mueller’s maximal reliability index (H), which avoid the conservative biases and assumption violations frequently associated with Cronbach’s alpha (α).

Construct / Dimension McDonald’s Omega (Ω) Maximal Reliability (H) Stability Across Waves
After-Hour Connectivity .92 – .95 .93 – .95 High longitudinal stability across T1, T2, and T3
Job Autonomy (Composite) .74 – .76 .75 – .77 Reliable multidimensional structural coherence
– Work Method Autonomy .88 – .91 .89 – .92 Consistent item-factor fidelity
– Work Scheduling Autonomy .87 – .90 .88 – .91 High temporal item consistency
– Work Criteria Autonomy .83 – .86 .84 – .87 Stable evaluative factor variance
Work Exhaustion .90 – .92 .91 – .93 Exceptional affective measurement precision

All reliability coefficients surpass the conventional academic cut-off threshold of .70, demonstrating that the inventory operates with minimal random measurement error across repeated measurement occasions.

9. Factor Analysis

The factorial structure and underlying dimensionality of the inventory were scrutinized via Confirmatory Factor Analysis (CFA) within a longitudinal Structural Equation Modeling framework, executed in Mplus and R using robust maximum likelihood estimation.

Measurement Model Fit

The baseline longitudinal measurement model simultaneously modeled the constructs across all three data collection waves. Global fit indices demonstrated outstanding correspondence between the theoretical measurement model and the empirical data:

  • Chi-Square Statistic: χ²(522) = 682.83, p < .001
  • Comparative Fit Index (CFI): .98
  • Tucker-Lewis Index (TLI): .97
  • Root Mean Square Error of Approximation (RMSEA): .040 (90% Confidence Interval: [.031, .048])
  • Standardized Root Mean Square Residual (SRMR): .06

These values satisfy the most stringent model evaluation thresholds (CFI/TLI > .95; RMSEA < .05; SRMR < .08), confirming that the operationalized five-factor configuration appropriately reproduces the sample covariance matrix.

Longitudinal Measurement Invariance

To verify that respondents conceptualized and calibrated the constructs consistently across time, hierarchical measurement invariance tests were conducted:

  • Configural Invariance: Unconstrained baseline models confirmed identical factorial patterns across all waves.
  • Weak (Metric) Invariance: Constraining factor loadings to equality across waves did not significantly degrade model fit: Δχ²(24) = 30.78, p = .160. This confirms that the latent constructs retain the same meaning and metric scale over time.
  • Strong (Scalar) Invariance: Constraining item intercepts to equality across waves did not result in a significant loss of fit: Δχ²(6) = 5.25, p = .513. This verifies that latent mean comparisons across waves are valid and unconfounded by measurement bias.
  • Strict Invariance: Constraining residual variances produced a statistically significant change in fit: Δχ²(30) = 49.62, p = .014. While strict invariance was not established, methodological authorities note that residual invariance is not required for the unbiased estimation of structural regression coefficients and latent trajectories.

10. Instrument / Measurement Tool

The complete inventory is structured as follows:

  • Instrument Title: Employee After-Hour Connectivity, Autonomy, and Exhaustion-Model Inventory
  • Instrument Type: Standardized self-report psychometric inventory / multi-dimensional organizational survey
  • Target Population: Working adults, teleworkers, knowledge workers, and corporate personnel operating within digitally mediated work environments
  • Administration Mode: Self-administered online questionnaire or paper-and-pencil inventory
  • Completion Duration: Approximately 4 to 6 minutes
  • Item Count: 18 items across 3 primary constructs (5 subscales):
    • After-Hour Connectivity: 4 items
    • Work Method Autonomy: 3 items
    • Work Scheduling Autonomy: 3 items
    • Work Criteria Autonomy: 3 items
    • Work Exhaustion: 5 items
  • Response Scales:
    • Connectivity and Autonomy items (Items 1–13): 7-point Likert agreement scale (1 = Strongly Disagree, 2 = Disagree, 3 = Somewhat Disagree, 4 = Neither Agree nor Disagree, 5 = Somewhat Agree, 6 = Agree, 7 = Strongly Agree).
    • Exhaustion items (Items 14–18): 7-point frequency scale (0 = Never, 1 = A few times a year or less, 2 = Once a month or less, 3 = A few times a month, 4 = Once a week, 5 = A few times a week, 6 = Every day / Always).
  • Scoring and Index Computation:
    • No items are reverse-coded.
    • Subscale scores are derived by calculating the mean of the respective indicator items.
    • A composite Job Autonomy score can be generated by averaging the three autonomy subscale scores, or modeled as a second-order latent factor in structural equation models.
    • Higher scores on Connectivity denote greater after-hours technological immersion; higher scores on Autonomy subscales reflect higher self-determination; higher scores on Exhaustion indicate elevated energetic strain.

11. Permissions & Fee and Test Year

  • Test Year: 2023
  • Original Copyright: The Authors (© 2023 Ward van Zoonen, Jeffrey W. Treem, Anu E. Sivunen). Published by John Wiley & Sons Ltd on behalf of The British Psychological Society.
  • Licensing: The source journal article and its appendix are distributed under the terms of the Creative Commons Attribution 4.0 International License (CC BY 4.0).
  • Fee: Free of charge ($0.00). No licensing fees or royalty payments are required for academic research, organizational diagnostics, educational use, or non-commercial application.
  • Usage Conditions: Any deployment, adaptation, or reporting of this measure must provide appropriate academic attribution to the original 2023 publication in the Journal of Occupational and Organizational Psychology. Commercial reproduction or incorporation into proprietary paid diagnostic software requires standard licensing clearance through Wiley/The British Psychological Society.

12. References

  • Bakker, A. B., & Demerouti, E. (2007). The Job Demands-Resources model: State of the art. Journal of Managerial Psychology, 22(3), 309–328. https://doi.org/10.1108/02683940710733315
  • Breaugh, J. A. (1985). The measurement of work autonomy. Human Relations, 38(6), 551–570. https://doi.org/10.1177/001872678503800604
  • Büchler, N., Ter Hoeven, C. L., & van Zoonen, W. (2020). Understanding constant connectivity to work: How and for whom is constant connectivity related to employee well-being? Information and Organization, 30(3), Article 100302. https://doi.org/10.1016/j.infoandorg.2020.100302
  • Hobfoll, S. E. (1989). Conservation of resources: A new attempt at conceptualizing stress. American Psychologist, 44(3), 513–524. https://doi.org/10.1037/0003-066X.44.3.513
  • Hobfoll, S. E. (2001). The influence of culture, community, and the nested-self in the stress process: Advancing Conservation of Resources theory. Applied Psychology, 50(3), 337–421. https://doi.org/10.1111/1464-0597.00062
  • Maslach, C., & Jackson, S. E. (1981). The measurement of experienced burnout. Journal of Organizational Behavior, 2(2), 99–113. https://doi.org/10.1002/job.4030020205
  • van Zoonen, W., Treem, J. W., & Sivunen, A. E. (2023). Staying connected and feeling less exhausted: The autonomy benefits of after-hour connectivity. Journal of Occupational and Organizational Psychology, 96(2), 242–263. https://doi.org/10.1111/joop.12422

13. Items of the Scale

The following 18 items constitute the complete questionnaire inventory as presented to survey respondents. Rate each statement according to the specific scale indicated for each section.

Part I: After-Hour Connectivity

Instructions: Please indicate your level of agreement with the following statements regarding your technology use during nonwork hours, using a 7-point scale (1 = Strongly Disagree, 2 = Disagree, 3 = Somewhat Disagree, 4 = Neither Agree nor Disagree, 5 = Somewhat Agree, 6 = Agree, 7 = Strongly Agree).

  1. Through my (mobile) work devices, I am always available for my colleagues and/or clients, also during nonwork hours.
  2. During nonwork hours, I monitor my work through my (mobile) work devices (e.g., checking emails or similar work-related messages and enterprise social media).
  3. For me, it is common to check and answer emails or other work-related messages during nonwork hours.
  4. Through the use of my (mobile) work devices, I stay connected during nonwork hours.

Part II: Work Autonomy

Instructions: Please indicate your level of agreement with the following statements regarding your job, using a 7-point scale (1 = Strongly Disagree, 2 = Disagree, 3 = Somewhat Disagree, 4 = Neither Agree nor Disagree, 5 = Somewhat Agree, 6 = Agree, 7 = Strongly Agree).

Subscale: Work Method Autonomy

  1. I am allowed to decide how I get my job done (the methods to use).
  2. I am able to choose the way to go about my job (the procedures to utilize).
  3. I am free to choose the method(s) to use in carrying out my work.

Subscale: Work Scheduling Autonomy

  1. I have control over the scheduling of my work.
  2. I have some control over the sequencing of my work activities (when I do what).
  3. My job is such that I can decide when to do particular work activities.

Subscale: Work Criteria Autonomy

  1. My job allows me to modify the normal way we are evaluated so that I can emphasize some aspects of my job and play down others.
  2. I am able to modify what my job objectives are (what I am supposed to accomplish).
  3. I have some control over what I am supposed to accomplish (what my supervisor sees as my job objectives).

Part III: Work Exhaustion

Instructions: Please indicate how frequently you experience each of the following feelings regarding your work, using a 7-point scale ranging from 0 to 6 (0 = Never, 1 = A few times a year or less, 2 = Once a month or less, 3 = A few times a month, 4 = Once a week, 5 = A few times a week, 6 = Always, every day).

  1. I feel emotionally drained from my work.
  2. I feel used up at the end of the workday.
  3. I feel tired when I get up in the morning and have to face another day on the job.
  4. Working all day is really a strain for me.
  5. I feel burned out from my work.
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Cite This Article

memjavad (2026, September 27). Employee After-Hour Connectivity, Autonomy, and Exhaustion- Model Inventory. PSYCHOLOGICAL DATABASE. https://en.arabpsychology.com/scales/employee-after-hour-connectivity-autonomy-and-exhaustion-model-inventory/
memjavad. “Employee After-Hour Connectivity, Autonomy, and Exhaustion- Model Inventory.” PSYCHOLOGICAL DATABASE, 27 September 2026, https://en.arabpsychology.com/scales/employee-after-hour-connectivity-autonomy-and-exhaustion-model-inventory/.
memjavad. “Employee After-Hour Connectivity, Autonomy, and Exhaustion- Model Inventory.” PSYCHOLOGICAL DATABASE. September 27, 2026. https://en.arabpsychology.com/scales/employee-after-hour-connectivity-autonomy-and-exhaustion-model-inventory/.