A Hybrid Technique for Estimating and Forecasting Household Electrical Energy Consumption Utilizing Machine Deep Learning and Fuzzy Wavelet
Subject Areas : OptimizationAbdolreza Rahmanifar 1 , Mehran Khalaj 2 * , Ali Taghizade Herat 3 , Asghar Darigh 4
1 - 1Department of Industrial Engineering, Pa.c., Islamic Azad University, Parand, Iran
2 - 1Department of Industrial Engineering Parand branch, Islamic Azad University, Parand, Iran
3 - Department of Industrial Engineering,Faculty of Parand,Parand Branch,ISLAMIC AZAD UNIVERSITY,PARAND.IRAN
4 - Department of Industrial Engineering, Islamic Azad University, Parand Branch
Keywords: Deep Learning, Neural Network, Fuzzy Wavelet, Households,
Abstract :
This study investigates the electrical consumption of households as a microcosm of a macro society, with the individual appliances inside each home serving as the "electricity consuming units. The goal is to provide an optimal approach for addressing the issue of efficient energy usage. To accomplish this objective, it is essential to divide the total electrical consumption of the home into its component elements, which are the individual signals utilized by every appliance. Likewise, estimating the energy consumption of the appliances is a very efficient means of foreseeing how much energy each device would consume in the future and, if necessary, controlling it. In this research, a Fuzzy Wavelet- and Convolutional Network-based method is established as a way of decomposing the signals generated by individual home appliances from the overall (composite) signal. In addition, the proposed algorithm is employed in conjunction with two well-known and strong algorithms in Time-series data analysis, Long-Short Term Memory (LSTM) and Multilayer Perceptron (MLP). Hence, the proposed approach is compared to the aforementioned two renowned algorithms as well as other techniques from previous studies. The proposed neural network is trained using the Stochastic Gradient Descent (SGD) optimization approach at each stage, and the Nesterov Accelerated Gradient (NAG) optimization method is also investigated. In comparison with previous approaches, the findings demonstrate that the algorithm's prediction accuracy is greater and its error is noticeably lower. It means that the proposed algorithm is a top contender among the existing algorithms for predicting of energy consumption in residential buildings.
1. Y.Liu, S.Yu, Y.Zhu, D.Wang, J.Liu, Modeling, planning, application and management of energy systems for isolated areas: A review, Renewable and Sustainable Energy Reviews, 82 (2018), 460-470.
2. Council, W. E. (2013). World energy scenarios composing energy futures to 2050. PSI, London.
3. M.Sehatpour, A.Kazemi, H.Sehatpour, Evaluation of alternative fuels for light-duty vehicles in Iran using a multi-criteria approach, Renewable and Sustainable Energy Reviews, 72(2017) 295-310.
4. B.Salvi, K.Subramanian, N.Panwar, Alternative fuels for transportation vehicles: a technical review, Renewable and Sustainable Energy Reviews, 25(2013), 404-419.
5. T. Chaudhuri, Y.C. Soh, H. Li, L. Xie, A feedforward neural network based indoor-climate control framework for thermal comfort and energy saving in buildings, Applied Energy, 248 (2019), 44-53.
6. Y. Himeur, A. Alsalemi, F. Bensaali, A. Amira, Robust event-based non-intrusive appliance recognition using multi-scale wavelet packet tree and ensemble bagging tree, Applied Energy, 267 (2020) 114877.
7. A. Wójcik, R. Lukaszewski, R. Kowalik, W. Winiecki, Nonintrusive Appliance Load Monitoring: An Overview, Laboratory Test Results and Research Directions, Sensors, 19 (2019) 3621.
8. R. Usman, P. Mirzania, S.W. Alnaser, P. Hart, C. Long, Systematic Review of Demand-Side Management Strategies in Power Systems of Developed and Developing Countries. Energies, 15 (2022) 7858.
9. G.W. Hart, Nonintrusive appliances load monitoring, Proceedings of the IEEE, 80(1992) 1870-1891.
10. T.K. Nguyen, E. Dekneuvel, G.Jacquemod, Development of a real-time non-intrusive appliance load monitoring system: an application level model, Power Energy System 90(2017) 168–180.
11. C. Puente, R.Palacios, Y.González-Arechavala, E.F. Sánchez-Úbeda,. Non-Intrusive Load Monitoring (NILM) for Energy Disaggregation Using Soft Computing Techniques. Energies, 13(2020) 3117.
12. X. Wu, Y. Gao, D. Jiao, Multi-label classification based on random forest algorithm for non-intrusive load monitoring system, Processes, 7 (2019) 337.
13. B. Yin, Z. Li, J. Xu, Non-intrusive load monitoring algorithm based on household electricity use habits, Neural Computer & Application, 34 (2022) 15273–15291.
14. S. Wu, K.L. Lo, Non-intrusive monitoring algorithm for resident loads with similar electrical characteristic, Processes 8 (2020) 1385.
15. D. Li, S. Dick, Non-intrusive load monitoring using multi-label classification methods. Electr. Eng. 103(2021) 607–619.
16. Y. Liu, Q. Shi, Y. Wang, X. Zhao, S. Gao, X. Huang, An Enhanced Ensemble Approach for Non-Intrusive Energy Use Monitoring Based on Multidimensional Heterogeneity, Sensors 21 (202) 7750.
17. Y. Hu, Y. Lin, C. Lin, Artificial intelligence accelerated in parallel computing and applied to nonintrusive appliance load monitoring for residential demand-side management in a smart grid: A comparative study, Appl. Sci., 10 (2020).
18. X. Wu, D. Jiao, Y. Du, Automatic implementation of a self-adaption non-intrusive load monitoring method based on the convolutional neural network, Processes 8 (2020) 704.
19. X. Wu, Y. Gao, D. Jiao, Multi-label classification based on random forest algorithm for non-intrusive load monitoring system, Processes 7 (2019) 337.
20. İ.H. Çavdar, V. Faryad, New design of a supervised energy disaggregation model based on the deep neural network for a smart grid, Energies 12 (2019) 1217.
21. Y. Lin, Y. Hu, Electrical energy management based on a hybrid artificial neural network-particle swarm optimization-integrated two-stage non-intrusive load monitoring process in smart homes, Processes 6 (2018) 236.
22. S. Alotaibi, “Advancing energy performance efficiency in residential buildings for sustainable design: Integrating machine learning and optimized explainable AI (AIX),” Int. J. Energy Res., Article ID 6130634, 2024.
23. Z. Azim, H. Pooyafar, B. A. Naieri, D. P. Khiabani, and A. M. Bazargan, “Prediction of energy consumption for residential buildings based on the behavior of its residents using artificial intelligence neural network method in Tabriz city,” Strategic Soc. Energy Stud., vol. 11, no. 1, pp. 1–20, 2024.
24. M. Khodadadi, L. Riazi, and S. Yazdani, “A novel ensemble deep learning model for building energy consumption forecast,” Int. J. Eng., vol. 37, no. 6, pp. 1067–1075, 2024.
25. M. Neshat, M. Thilakaratne, M. El-Abd, S. Mirjalili, A. H. Gandomi, and J. Boland, “Smart buildings energy consumption forecasting using adaptive evolutionary ensemble learning models,” arXiv preprint, 2025. [Online]. Available: https://doi.org/10.48550/arXiv.2506.11864
26. S. Alam, “Deep learning applications for residential energy demand forecasting,” AI, IoT and the Fourth Industrial Revolution Review, vol. 14, no. 2, pp. 27–38, 2024.
27. J. Kelly, W. Knottenbelt, The UK-DALE dataset, domestic appliance-level electricity demand and whole-house demand from five UK homes, Scientific data, 2 (2015) 1-14.
28. B. Zhao, H. Song, Fuzzy Shannon wavelet finite element methodology of coupled heat transfer analysis for clearance leakage flow of single screw compressor. Engineering with Computers, (2021) 1-11.
29. A. Kulkarni, D.Chong, F. A. Batarseh, Foundations of data imbalance and solutions for a data democracy, Data Democracy, 5 (2020) 83-106.
30. A. Faustine, L. Pereira, H. Bousbiat, S. Kulkarni, UNet-NILM: A deep neural network for multi-tasks appliances state detection and power estimation in NILM, In Proceedings of the 5th International Workshop on Non-Intrusive Load Monitoring, (2020) 84-88.
31. K. Yan, X. Wang, Y. Du, N. Jin, H. Huang, H. Zhou,. Multi-step short-term power consumption forecasting with a hybrid deep learning strategy. Energies, 11 (2018) 3089.
32. S. Singh A. Yassine, Big data mining of energy time series for behavioral analytics and energy consumption forecasting, Energies, 11 (2018) 452.
33. C. Zhang, M. Zhong, Z. Wang, N. Goddard, C. Sutton, Sequence-to-point learning with neural networks for non-intrusive load monitoring. In Proceedings of the AAAI Conference on Artificial Intelligence (2018) Vol. 32, No. 1.
34. H. Kim, S. Lim,. Temporal Patternization of Power Signatures for Appliance Classification in NILM. Energies, 14 (2021) 2931.
35. Y.C. Hu, Y. H. Lin, H.L. Gururaj, Partitional Clustering-Hybridized Neuro-Fuzzy Classification Evolved through Parallel Evolutionary Computing and Applied to Energy Decomposition for Demand-Side Management in a Smart Home, Processes, 9 (2021) 1539.
36. J. Kelly, W. Knottenbelt, Neural NILM: Deep neural networks applied to energy disaggregation, In Proceedings of the 2nd ACM International Conference on Embedded Systems for Energy-Efficient Built Environments (2015) 55–64.
37. P. Franco, J.M. Martínez, Y.C. Kim, M.A. Ahmed, IoT based approach for load monitoring and activity recognition in smart homes, IEEE Access, 9 (2021) 45325-45339.
38. Y. Himeur, A. Alsalemi, F. Bensaali, A. Amira, Smart non-intrusive appliance identification using a novel local power histogramming descriptor with an improved k-nearest neighbors classifier, Sustainable Cities and Society, 67 (2021) 102764.
39. X. Zhou, J. Feng, Y. Li, Non-intrusive load decomposition based on CNN–LSTM hybrid deep learning model. Energy Reports, 7 (2021) 5762-5771.
Research Article
Designing a Green Human Resource Management Model with the Approach of Strategic Human Resource Management Systems
Adel Niknejad1 | Malihe-Sadat Malek Jafariyan2 |
1. PhD Student of Human Resources Management,Fi.C., Islamic Azad University, Firoozkooh, Iran, Email: adel.niknezhad@gmail.com (Corresponding Author) |
2. Faculty MSc in Mathematical Statistics, Semnan University, Iran, Email: malek.malihe@yahoo.com |
ABSTRACT
| DOR: https://doi.org/10.71584/MGMT.2025.1198109 | |
Article Info: | Abstract: The main purpose of this research is to design a green human resource management model with the approach of strategic human resource management systems by using the foundation's data approach. To get the goal, the qualitative research method of grounded theory and paradigm model has been used to develop the aforementioned research model. The statistical population of this research was fourteen professors in the field of human resources management, the purposeful sampling method and the data collection method was semi-structured interviews, which continued until theoretical saturation was reached. At first (open coding), the researcher has obtained the components based on the data obtained from in-depth interviews and their processing and categorization by modeling the theory of grounded theory. The results of the present research led to the identification of 74 sub-categories and 19 main sub-categories using the data base approach of Corbin and Strauss, 4th edition, and in order to design the paradigm model of green employment, personality factors, design of green processes as Causal conditions, technological conditions and implementation of waste management system as background conditions, management weaknesses, stakeholder support, green intellectual capital, green communication, organizational support as intervening conditions, green energy consumption management, safety and health management Green, economic factors and improvement of green performance were identified as the consequences and central category including green human resource management. Keywords: Green Human Resources, Green Management, Strategic Management, Foundation Data Theory | |
Received Date: 2025/01/31 Accepted Date: 2025/07/22
Published Online: 2025/08/31 |
1. Introduction
In recent decades, there has been a significant rise in environmental issues and challenges across various parts of the world, which has placed considerable pressure on organizations (Ghaffari Ashtiani & Ghiassabadi Farahani, 2017). The world is now entering and experiencing a green economy—an economy in which human resources and intellectual capital, as the central pillars of economic growth, increasingly outweigh physical capital. Survival in such an economy requires attention to consumer demands and future changes in jobs, where environmental concerns and sustainable development are among the top priorities. Human resource management, by focusing on human resources and environmental management programs and integrating them into its operations, introduces Green Human Resource Management (GHRM). This provides unique opportunities and conditions for all stakeholders and investors to engage in such programs, thereby improving the organization's environmental performance, aligning with sustainable development policies, and creating mutually beneficial relationships (Al-Suwaidi et al., 2021). Green management, by optimizing resources and reducing energy waste, is transitioning from industry-based financial systems to a talent- and capacity-based economy (Seyedjavadein et al., 2021).
With growing public awareness and knowledge about social welfare and environmental importance, environmental concerns have become a serious issue for the public (Ghiassabadi Farahani & Ghaffari Ashtiani, 2018). Over the past two decades, attention to environmental, social, and economic sustainability has increased in management activities and research. In alignment with this trend, Human Resource Management has evolved from a strategic to a sustainability-oriented approach. Green Human Resource Management, as a branch of sustainable HRM, is a modern topic in the HRM field that emphasizes environmental sustainability (Mohammadnejad Shourkaei et al., 2016; Farrokhi et al., 2017; Tavakoli et al., 2018). Public concern over the long-term consequences of environmental degradation and climate change is growing. Due to these rising concerns and the associated threats to profitability and economic growth, companies worldwide have taken serious steps toward improved environmental responsibility (Motamedi et al., 2014).
On one hand, the growing environmental challenges, and on the other hand, the neglect of a sustainable approach to human resources in domestic studies and the ambiguity of this concept for local researchers, prompted the researcher to conduct a qualitative study to provide a framework for Green HRM. Today, the rapid development of societies has led to excessive use of natural resources, environmental degradation, various types of pollution, etc., posing a serious threat to sustainable development (Mohammadzadeh Khalil Abad & Ramazani, 2015).
In fact, green employee behavior is defined as measurable individual behavior that contributes to environmental sustainability in the workplace. According to Kirkwood and Walton (2014), green organizational practices include recycling programs, environmental policies in the workplace, reuse, waste minimization, energy conservation through technological changes, operational plans to reduce energy use, minimizing water consumption, reducing carbon emissions, maintaining environmentally responsible supply chains, conducting lifecycle analyses, measuring environmental impact, having an environmental management system, and addressing energy issues. The concept of proactive green behavior refers to the degree of employee participation in pro-environmental activities beyond their formal job duties. Some scholars argue that there is a distinction between employees’ green behavior and their voluntary green behavior: green behavior within the scope of assigned duties is called employee green behavior, whereas green behavior stemming from personal initiative beyond organizational expectations is called voluntary green behavior (Hassanpour et al., 2017). Humans are considered both the main drivers and primary victims of environmental crises (Ghiassabadi Farahani & Ghaffari Ashtiani, 2017). Human Resource Management includes standard procedures and actions such as recruitment, selection and hiring, retention, innovation, performance appraisal, career path management, reward and compensation systems, training, and development (Farhadi et al., 2016).
Therefore, organizations, in line with the goals of the 20-Year Vision of the Islamic Republic of Iran and based on the legal mandates of urban and rural company formations and their environmental protection responsibilities—such as providing clean water and ensuring its proper collection, transfer, and treatment—can, by relying on green human capital (qualified, efficient, and technologically adept workforce), offer the most effective, greenest, and most economical services. These services should be provided while fulfilling legal commitments and social responsibilities, aiming to protect the environment and promote productivity, with customer-centric principles. Thus, the central question of this study is: How can a model for Green Human Resource Management with a strategic HRM systems approach be designed using the grounded theory method?
2. Theoretical Foundations
Green Human Resource Management (GHRM)
Green human resource management refers to the formulation and implementation of strategies to raise awareness among employees and managers about green practices to enhance and pursue environmental sustainability activities. This helps organizations in becoming green entities. On the other hand, GHRM encompasses all activities involved in developing, implementing, and maintaining a system aimed at building a green workforce within the organization. This HRM role is accomplished by transforming ordinary employees into green employees and refers to policies, practices, and systems that motivate employees to act in environmentally friendly ways that benefit individuals, society, the natural environment, and the business itself (Aravha & Kaul, 2020; Bag, 2019).
Proper and effective utilization of human resources contributes to promoting environmental actions within organizations and increasing employee commitment and awareness of environmental issues (Lloyd et al., 2016). In green organizations, one of the most critical roles in instilling green thinking among employees is that of HR managers and specialists, who must turn employees into environmentally committed individuals. To achieve environmental goals, environmental concerns must be embedded in various HR practices such as recruitment and selection, training, performance evaluation, and rewards (Muita, 2019).
Green Human Resource Management and Environmental Performance
Previous research has shown that HRM practices play a major role in the success of environmental performance programs. Environmental performance refers to “an organization's commitment to protecting the environment and demonstrating measurable operational parameters that fall within prescribed environmental care standards” (Roscoe et al., 2019; Patil, 2018). It is defined as “the environmental outcome of an organization's activities aimed at reducing negative impacts on the environment” (He et al., 2019). Green training enables employees to understand environmental issues and take appropriate actions in the workplace, which can enhance organizational green performance. When employees receive green training, their skills, abilities, knowledge, commitment, and attitudes toward the environment are improved. Organizations that emphasize green employee participation provide opportunities for employees to use their green knowledge and skills in environment-related tasks, carry out green initiatives in the workplace, and present innovative green solutions to minimize waste. This enhances resource efficiency and supports environmental protection (Fan et al., 2020).
Green Reward Management
This refers to a system of financial and non-financial rewards aimed at attracting, retaining, and motivating employees to contribute to environmental goals (Tang et al., 2018). Financial and non-financial incentives guide employees’ attitudes and behaviors toward environmentally friendly activities, thereby enhancing their tacit knowledge in performing eco-friendly tasks (Kim et al., 2019).
Green Training and Development
Providing environmental training to organizational members (employees and managers) to develop necessary skills and knowledge is a key function of green HRM. This is useful in implementing environmental management programs in companies. Training promotes recycling and waste management, supports flexible work programs and remote work, and reduces long-distance business travel—all beneficial in minimizing environmental harm. It is also a good method for instilling core environmental values among employees and their families (Muita, 2019; Hussain, 2018; Akhtar & Islam, 2019).
Green Performance Appraisal
Performance management systems assess employee performance in achieving desired environmental outcomes by measuring employee contributions to improved environmental performance. This ensures the effectiveness of green management practices over time and protects environmental management initiatives from deterioration (Masri et al., 2017; Arulrajah et al., 2015; Tang et al., 2018). From an environmental management perspective, the organization evaluates the environmental outcomes of employees throughout operational processes to assess their contributions to organizational goals (Kim et al., 2019).
Green Recruitment and Selection
Organizations should focus on selecting and hiring employees who support and are interested in environmental causes. To attract increasingly environmentally conscious talent, organizations must build green images and branding that reflect environmental concern (Kapil, 2016; Arulrajah et al., 2015). Green recruitment and selection involve three aspects: green awareness in candidate selection, green employer branding, and green criteria for attracting candidates (Tang et al., 2017). Organizations can attract and select candidates committed to environmental issues. Green recruitment and selection are considered key components of green HRM practices. Green awareness of candidates is a core element and includes personality traits aligned with the organization’s environmental objectives (Tang et al., 2017; Iqbal et al., 2018). The priority for organizations with green HRM is to select environmentally sensitive and committed candidates, using internal and external hiring and reducing candidate numbers through various testing methods (Kim et al., 2019).
Research Background
Haldorri et al. (2022), in their study titled Top Management Green Commitment and Green Intellectual Capital as Enablers of Hotel Environmental Performance: The Mediating Role of Green Human Resources, found that top management’s green commitment and green intellectual capital have a direct impact on green HRM and hotel environmental performance.
Wuen et al. (2022) conducted a quantitative analysis on strategic human resource management and organizational learning and concluded that these factors significantly influence the organizational performance of service-based small and medium-sized enterprises.
The findings of Darvishmotlagh et al. (2022), in their study Green Human Resource Management, Environmental Awareness, and Green Behavior, showed that environmental awareness positively affects green HRM. However, servant leadership does not moderate the relationship between task-related and green HRM.
Aburamadan and Karatepe (2021), in their study Green Human Resource Management, Perceived Green Organizational Support, and Their Effects on Employee Behavioral Outcomes, found that green HRM enhances hotel employees’ perceptions of green organizational platforms. In other words, effective implementation of green HRM signals a perceived green organizational system.
The study by Adi et al. (2021), titled Green Employee Empowerment? Barriers to Green Employee Performance, demonstrated that green communication—communication between employees, supervisors, and the environment—greatly influences the sustainability of employee performance. To become green-oriented, an organization must foster green commitment, which values employee health and environmental safety, acting as a key motivator for green loyalty and positive productivity.
Yousef et al. (2020), in their research Top Management Commitment, Corporate Social Responsibility, and Green HRM, found a positive and significant relationship between top management commitment, CSR, and all dimensions of green HRM.
In another study, Latan et al. (2018), titled The Effects of Environmental Strategy, Environmental Uncertainty, and Top Management Commitment on Corporate Environmental Performance: The Role of Environmental Management Accounting, showed that organizational resources (including environmental strategy, top management commitment, and environmental uncertainty) significantly influence the company’s environmental performance, which in turn enhances overall performance.
Kim et al. (2019), in their study The Effect of Green Human Resource Management on Pro-Environmental Employee Behavior and Hotel Environmental Performance, found that green HRM improves organizational commitment, eco-friendly behavior of employees, and the environmental performance of hotels.
Iqbal et al. (2018), in their study Employee Green Behavior for Environmental Sustainability, showed a direct and positive relationship between employee green behavior and environmental sustainability.
Masri et al. (2017), in their research titled Evaluating Green HRM Practices in the Manufacturing Sector, found a significant relationship between green HRM practices (such as green recruitment and selection, training and development, green performance management, green rewards and compensation, employee empowerment and participation, and green organizational culture) and green performance.
The study by Dumont et al. (2017), The Effects of Green Human Resource Management on Employee Work through Green Behavior, found that green HRM directly and indirectly affects work outcomes through green behavior, but has a more prominent effect indirectly.
In domestic studies, Sabkroo et al. (2021) found in their study The Impact of Green HRM on Environmental Performance: The Mediating Role of Green Organizational Culture, Organizational Commitment, and Environmental Behavior, that green HRM positively affects employee commitment, enabling a green organizational culture and eco-friendly behavior. Additionally, green HRM positively influences environmental performance through the mediating variables of organizational commitment and environmental behavior.
In another study, Tavakoli et al. (2018), titled Proposing a Structural Model of Green HRM Based on HRM Systems, the predictive variables in achieving green HRM were identified in order of importance as maintenance, compensation, performance management, and HR development, all significantly related to green HRM.
Finally, Farrokhi et al. (2017), in their research Providing a Green Human Resource Management Framework in the Steel Industry, concluded that green HRM impacts individual, organizational, and group outcomes. Due to the necessity of internalizing environmental values and changing the attitudes of employees and managers at Mobarakeh Steel Company, the most important strategy for this change is education and increasing environmental knowledge.
3. Research Methodology
This study was conducted by using a qualitative research approach and employed the grounded theory strategy based on Corbin and Strauss’s fourth edition (2015). The grounded theory methodology is particularly suitable for presenting and explaining a theory about a process and includes procedures for testing and refining theory derived from data (Corbin & Strauss, 2015).
Given the emphasis of grounded theory on incorporating diverse perspectives, fourteen participants were selected from among faculty members specializing in human resource management. They were chosen through purposive sampling, and this process continued until theoretical saturation was reached.
Table 1. Characteristics of Participants in the Research
Gender | Education Level | Field of Study | Work Experience |
Male | PhD | Public Administration | 10 years |
Female | Bachelor’s | Public Administration | 7 years |
Male | PhD | Human Resource Management | 23 years |
Female | Master’s | Management | 16 years |
Male | PhD | Management | 14 years |
Male | Master’s | Environmental Studies | 17 years |
Male | Master’s | Public Administration | 15 years |
Female | PhD | Environmental Studies | 10 years |
Male | Bachelor’s | Management | 19 years |
Male | Master’s | Public Administration | 14 years |
Female | PhD | Public Administration | 15 years |
Male | Bachelor’s | Management | 10 years |
Female | Master’s | Environmental Studies | 12 years |
Male | Master’s | Public Administration | 17 years |
The study was implemented with the participation of these individuals, and the data collected using semi-structured interviews. The sampling method employed was theoretical sampling, which continued until no new characteristics emerged.
Initially, to gain a deeper understanding of the research topic, data were collected through both library and field methods. After thoroughly reviewing the literature in this area, in-depth semi-structured interviews were conducted to gather data. A total of 14 interviews were carried out. Data saturation began to appear from the tenth interview onward, but interviews continued to the fourteenth to ensure comprehensiveness—interviews 13 and 14 yielded fully repetitive data.
Interview durations ranged from 45 to 60 minutes and were conducted with the mutual consent of both parties. The central interview question was: “What are the key factors influencing green human resource management based on strategic HRM systems?” Other questions were derived from respondents’ answers within the framework of the paradigm model and the informational needs of its categories.
All interviews were recorded and transcribed, then repeatedly reviewed to extract insights. To ensure internal validity, techniques such as member checking (feedback to interviewees), peer debriefing (colleague notes on findings), and bracketing researcher biases and assumptions were used.
After each interview, the emerging model was shared with participants. If they had input, it was discussed. For external validity, constant comparative analysis, avoiding premature assumptions, and triangulation through multiple data sources were employed. Codes were reviewed by several experts who provided feedback on the coding and labeling processes.
Data reliability was ensured by clearly documenting all decisions and providing access to raw data, analyzed data, codes, categories, the research process, initial objectives, and questions to faculty reviewers. After auditing by experts, all research steps were validated.
Additionally, inter-coder reliability was tested with the help of a PhD student. Three interviews were independently coded, and an intra-subjective agreement rate of 78% was achieved—well above the minimum acceptable threshold of 34%, confirming the reliability of the coding process.
4. Research Findings
In this section, the researcher presents the connection between the concepts derived from the interviews (initial coding) and the fundamental foundations of the research (grounded theory analysis of customer experience based on managers' experiences). The aim is to create a comprehensive, complete, and integrated link between these categories, which then forms the basis for axial coding. Ultimately, the researcher seeks to propose a model related to customer experience based on the experiences of managers.
The codes extracted from the raw data (open coding), through a contextual analysis mechanism, led to the formation of more abstract concepts and categories. As the process progressed into analysis, interactions and reactions were linked to various outcomes, relationships were explained, and the categories were structured around the central phenomenon—Green Human Resource Management (GHRM) with a focus on Strategic Human Resource Management Systems (SHRMS).
During the open coding phase, 442 open codes were extracted from 14 interviews. Repetitive and closely related items were removed during coding. After reviewing the extracted codes and re-evaluating the initial concepts, extra and similar items were removed. The remaining concepts were then categorized and grouped into common categories.
The analysis in this section is structured around the factors affecting Green Human Resource Management using a Strategic HRM Systems approach. The proposed model is presented as a process composed of the following stages: Causal, Contextual, Central Phenomenon, Intervening, Strategic Actions, and Consequences. At each stage, axial and selective coding were conducted based on data extracted from in-depth interviews, memos, and schematics. Finally, the findings are explained within a model of Green HRM with a Strategic HRM Systems approach.
Based on Grounded Theory, the main research question is answered through the following six phases:
Causal Conditions Coding
In this study, based on the perspectives of the participants, the following categories were identified as causal factors in the formulation of the Green Human Resource Management model. This part of the interview data analysis seeks to identify the factors that influence Green HRM from a strategic systems approach. After analyzing the interviews, 3 selective codes and 10 axial codes were extracted from 64 open codes. The results are summarized in the following table:
Table 2. Coding of Causal Conditions
Role of Extracted Codes | Selective Code | Axial Code |
Causal Conditions | Green Recruitment | Green Awareness |
Interest in Environmental Activities | ||
Employee Personality Traits | Green Behavior | |
Environmental Commitment | ||
Employee Environmental Attitude | ||
Environmental Protection Skills | ||
Green Process Design | Use of Modern Technology | |
Green Outcomes | ||
Green Innovation | ||
Development and Promotion of Green HR |
Coding of Contextual Conditions
This section aims to identify the factors that influence the selection of appropriate strategies under current circumstances. Through qualitative analysis, two selective codes—Technological Conditions and Implementation of a Waste Management System—were extracted from 5 axial codes and 15 open codes. These contextual conditions provide the foundational environment in which strategic choices are made and highlight the technological and regulatory infrastructure that supports or hinders green human resource management practices.
Table 3. Coding of Contextual Factors
Role of Extracted Codes | Selective Code | Axial Code |
Contextual Conditions | Technological Conditions | Outdated Equipment |
Improper Use of Technology | ||
Waste Management System | Establishing Green Regulations | |
Adopting Environmental Behaviors | ||
Penalties for Non-compliance with Green Goals |
Coding of Intervening Conditions
Intervening conditions refer to general contextual factors that influence strategic responses. These conditions may emerge unexpectedly and vary depending on specific circumstances, thus requiring flexible and situational responses. Intervening factors represent overarching influences on the strategies chosen by individuals or organizations.
The qualitative data analysis led to the identification of five selective codes—Managerial Weaknesses, Green Intellectual Capital, Green Communication, Green Organizational Culture, and Organizational Support—which were derived from 20 axial codes and 109 open codes. The detailed results are summarized in the following table.
Table 4. Coding of Intervening Factors
Role of Extracted Codes | Selective Code | Axial Code |
Intervening Conditions | Managerial Weaknesses | Lack of Green Management Stability |
Lack of Incentives for Eco-friendly Employees | ||
Poor Environmental Protection | ||
Absence of Green Organizational Goals | ||
Lack of Telework Infrastructure | ||
Green Organizational Culture | Strengthening Green Performance | |
Understanding Green Values | ||
Eco-friendly Behavior | ||
Green Intellectual Capital | Green Relational Capital | |
Green Human Capital | ||
Social Responsibility | ||
Green Communication | Promoting Energy-saving Culture | |
Research for Environmental Protection | ||
Suggestion Committees for Optimization | ||
Participation in Environmental Forums & Research | ||
Organizational Support | Green Compensation and Rewards | |
Motivation Creation | ||
Green Support | ||
Green Workplace | ||
Providing Free Bicycles |
Coding of Strategies
This section reflects the behavioral strategies and tactics adopted by actors as a result of causal conditions. It highlights the actions and approaches they employ, along with the measures and techniques selected in response to the contextual circumstances in which they operate.
The analysis of interview transcripts in this section seeks to identify the interactions and responses emerging from the central concept. The qualitative analysis led to the extraction of four selective codes—Green Training, Green Participation, Green Compensation and Rewards, and Employee Empowerment and Attitudes—from 23 axial codes and 124 open codes. The resulting insights are presented in the following table.
Table 5. Coding of Strategic Factors
Role of Extracted Codes | Selective Code | Axial Code |
---|---|---|
Strategies | Use of Green Professional Training | Learning Green Skills |
Education on Environmental Degradation & Its Importance | ||
Education on Social Development | ||
Strengthening Green Participation Culture | Human Factors Guidance | |
Coordination | ||
Green Participatory Planning | ||
Teamwork and Personal Development | ||
Green Employee Empowerment | Environmental Activities | |
Employees' Environmental Responsibility | ||
In-service Green Training | ||
Green Design | ||
Enhancing Green Rewards | Monetary Rewards | |
Non-monetary Rewards | ||
Motivation for Encouraging Green Activities | ||
Raising Awareness & Attitude | Environmental Attitude | |
Environmental Activities | ||
Use of Green Resources | ||
Paper Consumption Reduction | ||
Use of Natural Light | ||
Green Knowledge | ||
Use of Plants for Clean Air | ||
Green Thinking and Ideas | ||
Green Culture Development |
Coding of Outcomes
Wherever a specific action or interaction is carried out—or not carried out—in response to an issue or in order to manage or sustain a situation by an individual or group, certain outcomes will arise. Some of these outcomes are intentional, while others are unintended (Strauss & Corbin, 1997). The implementation of selected strategies inevitably leads to outcomes. The analysis of interview transcripts led to the identification of four key outcomes:
1. Management-related factors,
2. Economic factors,
3. Green health and safety management, and
4. Improvement of green performance.
These were derived from 16 axial codes and 67 open codes. Each of these factors was repeatedly mentioned in the interviews, indicating their significance. The relative importance of these outcomes cannot be distinctly separated from one another, as it varies based on current conditions and the specific work environment. The results are presented in the following table.
Table 6. Coding of Results
Role of Extracted Codes | Selective Code | Axial Code |
Consequences | Optimized Energy Management | Green Consumption Management |
Environmental Reporting | ||
Waste Reduction | ||
Sustainable Development | ||
| Green HRM Capabilities | |
Green Safety and Health Management | Ensuring a Green Work Environment | |
Reducing Employee Stress | ||
Green Safety Management | ||
Reducing Environmental Damage | ||
Economic Factors | Reducing Organizational Costs | |
Green Productivity | ||
Financial Support | ||
Green Purchasing for the Organization | ||
Improved Green Performance | Green Strategy Evaluation | |
Green Planning | ||
Green Competitive Advantage |
Central Category Coding
The central phenomenon of this study is Green Human Resource Management (GHRM). Undoubtedly, the central category in this research—similar to other studies—is composed of various dimensions. Through the analysis of interview data, one key dimension has been the emphasis on GHRM. Among six axial codes and thirty open codes, the results are presented as follows.
Table 7. Coding of the Central Category
Role of Extracted Codes | Selective Code | Axial Code |
Central Category | Green Human Resource Management | Green Recruitment & Selection |
Green Training | ||
Green Performance Management | ||
Green Recruitment & Selection (repeated) | ||
Green Participation | ||
Green Rewards & Compensation |
Figure 1. Paradigm model of Green Human Resource Management with a Strategic Approach
5. Conclusion
The evolution of Green Human Resource Management (GHRM) depends heavily on employee relations and organizational management activities. In GHRM, employee relations and organizational support (particularly regarding the workforce) are critical to implementation. Some companies adopt environmental management initiatives and programs such as joint consultations, information sharing, and recognizing employees as key stakeholders in environmental management. Gaining the support of labor unions for corporate environmental management plans is truly a good practice to enhance the environmental performance of the organization.
To address the main research question—What is the paradigm model of Green Human Resource Management with a strategic approach?—in-depth semi-structured interviews were conducted with fourteen participants, including national-level faculty members. Based on the analysis, 442 initial codes were identified. After grouping them by similarity and semantic proximity, 74 subcategories and 19 main categories were defined using the Corbin and Strauss (fourth edition) grounded theory approach.
To design the green recruitment paradigm model:
· Causal conditions included green personality factors and the design of green processes.
· Contextual conditions were technological circumstances and implementation of a waste management system.
· Intervening conditions were managerial weaknesses, stakeholder support, green intellectual capital, green communication, and organizational support.
· Consequences included green energy consumption management, green safety and health management, economic factors, and improved green performance.
· The central category was identified as Green Human Resource Management (GHRM).
Ultimately, the final model of the study was developed to extend the theory of GHRM based on strategic management systems, marking a key innovation of this research.
A comparison with previous studies (e.g., Haldor et al., 2022; Wuon et al., 2022; Dervishmotoli et al., 2022; Aburamadon & Karatepe, 2021; Adi et al., 2021; Yusef et al., 2020; Latan et al., 2018; Kim et al., 2019; Iqbal et al., 2018; Messeri et al., 2017; Dumont et al., 2017; Sabkru et al., 2021; and Farrokhi et al., 2017) confirms the alignment of this study with the existing literature.
This study is among the first to take a holistic view of GHRM using strategic HR management systems and to model it within a paradigm framework. Therefore, future research could:
· Use alternative qualitative methods such as dynamic modeling or expert-based simulation.
· Expand this model to broader sectors like international organizations or public interest companies.
· Include other influencing variables for more robust theory development.
Limitations included the geographic dispersion of experts, which made data collection time-consuming, as well as the experts’ busy schedules that risked deprioritizing the interviews. Additionally, bureaucratic hurdles in coordinating interviews and completing the self-interaction matrix led to significant time loss in the study.
References
Aktar, A., & Islam, Y. (2019). Green Human Resource Management Practices and Employee Engagement: Empirical Evidence from RMG sector in Bangladesh. Available at SSRN 3363860.
Al-Swidi, A. K., Gelaidan, H. M., & Saleh, R. M. (2021). The joint impact of green human resource management, leadership and organizational culture on employees’ green behaviour and organisational environmental performance. Journal of Cleaner Production, 316, 128112.
Arora, M., & Kaul, A. (2020). Green Human Resource Management: An Empirical Study of India.
Arulrajah, A. A., Opatha, H. H. D. N. P., & Nawaratne, N. N. J. (2015). Green human resource management practices: A review. Sri Lankan Journal of Human Resource Management, 5(1).
Bag, P. (2019). Impact of Green HRM Practices Towards Organizational Sustainability Growth. Siddhant-A Journal of Decision Making, 19(3), 163-170.
Dumont, J., Shen, J., & Deng, X. (2017). Effects of green HRM practices on employee workplace green behavior: The role of psychological green climate and employee green values. Human resource management, 56(4), 613-627.
Fan, D., Zhu, C. J., Timming, A. R., Su, Y., Huang, X., & Lu, Y. (2020). Using the past to map out the future of occupational health and safety research: where do we go from here?. The International Journal of Human Resource Management, 31(1), 90-127.
Farokhi, M., Nasrisfahani, A., Safari, A. (2016). Green framework Human Resources Management in the Steel Industry (Case study: Isfahan Mobarakeh Steel Company.), Human Resource Management Researches., 9(4): 153-179. (Persian)
Ghafari Ashtiani, P., Ghiasabadi Farahani, M. (2016). Investigating the determinants of environmentally friendly strategy on green competitive advantage and green export performance, business management, 35(4): 124-139. (Persian)
Ghiasabadi Farahani, M., Ghafari Ashtiani, P. (2017). Environmentally friendly export marketing strategy with the mediating role of Porter's competitive advantages. business reviews, 16(88): 53-62. (Persian)
Hassanpoor, A., Abtahi, S. A., & Khamoie, F. (2018). Identifying and prioritizing Green training needs of staff using network analysis process (ANP). Environmental Education and Sustainable Development, 6(2), 9-24. (Persian)
He, L., Zhang, L., Zhong, Z., Wang, D., & Wang, F. (2019). Green credit, renewable energy investment and green economy development: Empirical analysis based on 150 listed companies of China. Journal of cleaner production, 208, 363-372.
Hussain, A. (2018). Green human resource management (GHRM) practices in organizations: a comprehensive literature survey. Journal of Management Research and Analysis (JMRA), 05 (02 (1)), 112, 117.
Iqbal, Qaisar; Siti Hasnah, Hassan; Akhtar, Sohail; Khan, Shahid, 2018, Employee's green behavior for environmental sustainability: a case of banking sector in Pakistan, World Journal of Science, Technology and Sustainable Development, Vol. 15, No. 2, pp. 118-130.
Kapil, P. (2015). Green HRM-Engaging Human Resource in reducing carbon footprint and enhancing environment sustainability: A case study based approach. International Journal of Engineering Technology Science and Research, 2(5), 14.
Kim, Yong Joong; Kim, Woo Gon; Choi, Hyung-Min; Phetvaroon, Kullada, 2019, The effect of green human resource management on hotel employees’ eco-friendly, International Journal of Hospitality Management, Vol. 76, pp. 83-93.
Lloyd, C, Harris, M & Andrew, C. (2016), the greening of organizational culture, Management views on the depth, degree and diffusion of change. Journal of Organizational Change Management, 15(3): 214 – 234.
Masri, H. A., & Jaaron, A. A. (2017). Assessing green human resources management practices in Palestinian manufacturing context: An empirical study. Journal of cleaner production, 143, 474-489.
Mohammadnejad shourkaei, M., Seyd Javadin, R., Shah Hoseini, M.A., (2015). Providing a framework for Green HRM., Journal of Public Administration., 8(4): 691-710. (Persian)
Mwita, K. M. (2019). Conceptual Review of Green Human Resource Management Practices. East African Journal of Social and Applied Sciences (EAJ-SAS), 1(2), 13-20.
PATIL, M. P. (2018, February). Environmental management information system (emis) for sustainable organizational development a literature review. In Proceedings of International Conference on Advances in Computer Technology and Management (ICACTM) in Association with Novateur Publications IJRPET, February 23rd and 24th, 2018.
Roscoe, S., Subramanian, N., Jabbour, C. J., & Chong, T. (2019). Green human resource management and the enablers of green organisational culture: Enhancing a firm's environmental performance for sustainable development. Business Strategy and the Environment, 28(5), 737-749.
Saokro, M., Saeida Ardakani, S., Kaydiyan, A. (2021). The effect of green human resource management on environmental performance through the mediation of enabling factors of green organizational culture, organizational commitment and environmental behavior., Tourism and development. Accepted for online publication. (Persian)
Seyd Javadin, R., Hasangholi Pour, T., Maniyan, A., (2021). Designing a human resources management model in start-up companies., Human resource management research., 13(1): 131-170. (Persian)
Tang, Guiyao; Chen, Yang; Jiang, Yuan; Paille, Pascal; Jia, Jin, 2017, Green human resource management practices: scale development and validity, Asia Pacific Journal of Human Resources, pp. 1-25.
Tavakoli, A., Hashmi, A., Sabet, A., & Razeghi, S. (2018). Proposing a green human resource management model on the basis of human resource management. Journal of Research in Human Resources Management, 10(1), 77-104. (Persian)
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