Evaluation of Health Insurance Companies’ Working Models: AHP and COPRAS Based Decision Support Approach
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Original Article

Evaluation of Health Insurance Companies’ Working Models: AHP and COPRAS Based Decision Support Approach

Bezmialem Science 2025;13(4):291-301 DOI: 10.14235/bas.galenos.2025.62582
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Abstract

Objective

The aim of this study is to determine the importance of the criteria that influence the working models of health insurance companies and to provide a decision support approach for selecting the most appropriate working model.

Methods

Working models and the criteria influencing them were identified through a literature review. Their weights and rankings were evaluated by 5 experts from the fields of health management, occupational health and safety, management and strategy, banking and insurance, and business administration. The analytical hierarchy process (AHP) method was used to determine the importance of the criteria, and the complex proportional assessment (COPRAS) method was used to rank the study models.

Results

According to the AHP results, the weights of the most important criteria affecting the working models of health insurance companies were found to be 23.04% cost effectiveness, 20.38% customer satisfaction, and 18.84% employee productivity. According to the COPRAS results, the most appropriate working models for health insurance companies were identified as 18.02% hybrid working, 15.76% flexible working, and 14.58% part-time project-based working.

Conclusion

To popularize these models, companies should establish a strong technological infrastructure. Remote work support, cloud systems, virtual private network, video conferencing tools, and project management software should be integrated. Evaluation should focus on work output rather than hours. Data security policies must be clear. An authorized access model should be used. Online project management platforms are needed for team management. Project-based payment systems should be implemented. Companies must analyze their processes. They should match models to departments and tasks. A strategic combination of models can boost employee satisfaction and operational efficiency.

Keywords: Health management, health facilities, health insurance companies, working model, decision-making techniques

Introduction

With the rapid advancement of technology and the increasing impact of digitalization on business, traditional office-based working models are undergoing significant changes. Alternative working styles, such as remote working, hybrid working, and digital nomad models, have become increasingly common, particularly in the wake of the pandemic. Working models have significant impacts not only on the motivation and productivity of employees, but also on companies’ operational processes and customer satisfaction (CS). In a market where innovative technologies and service delivery methods significantly affect consumer decisions, health insurance companies need to adapt their working models to effectively incorporate technology to remain competitive (, ). Integration of different working models into processes is important to create integrated service ecosystems that can better meet the needs of consumers. The decision-making process regarding operating models in health insurance companies is related to various theoretical frameworks as well as their practical importance. When these theories are considered, organizational change theory suggests that organizations need to adapt their structures and processes in response to technological innovations and external environmental pressures (, ). Strategic management theory, which includes concepts such as competitive advantage and cost leadership, explains how operational decisions such as choosing an appropriate operating model are important for maintaining organizational performance and competitiveness (, ). Furthermore, digital transformation theory emphasizes the integration of digital tools and the importance of data security in new operating models, underlining the role of technology in redesigning business operations (, ). These theories provide a basic framework for understanding the criteria evaluated in this study and interpreting empirical findings in a broader organizational and strategic context. Furthermore, decision-making processes in health insurance companies are sometimes influenced by factors such as limited information, time pressure, and managers’ differing interpretations of the external environment. This situation aligns with the theory of bounded rationality. Indeed, the choice of different working models varies depending on factors such as organizational culture, structure, size, resource and talent capital, and external environmental conditions, necessitating a contingency approach. Comparison of different working models in health insurance companies directly affects the performance of employees and organizational structures (, ). In this context, it is thought that examining the working models specific to health insurance companies will make a significant contribution to both academic literature and industry practices. The use of multi-criteria decision-making (MCDM) techniques also allows decision makers in health insurance companies to solve the complex and multi-dimensional problems they face in a more rational and evidence-based way ().

Health insurance companies apply several different working models, each with its pros and cons. Full-time office work is the traditional employment model that asks employees to work standard hours at a central location. This model allows for direct supervision and collaboration among all team members, which means improved communication and teamwork (). Of course, these benefits come at the price of job dissatisfaction because rigidity in schedules and the stress of commuting negatively affect employee morale (). The hybrid working model blends in-person and remote work modalities, allowing employees to choose where and when they work. This flexibility has the potential to improve job satisfaction and work-life balance by making employees feel more valued (). In such models, performance may improve due to increased employee autonomy and satisfaction, but it should not be overlooked that it may also cause difficulties in communication and maintaining corporate culture (). The rise of full-time remote work has occurred in full-time positions, especially after the coronavirus disease 2019 (COVID-19) pandemic. Working remotely allows individuals to save money in some areas, such as commuting and gas, and also makes it easier to maintain a balanced life. Yet, working remotely can lead to the feeling of being disconnected and isolated from the workplace and one’s coworkers. This disconnect can lead to poor communication that might affect remote workers’ teams and the individual remote workers’ health (). There is also a model of work that is for those who wish to travel to different places and work. This model is called the digital nomad model, and it allows for multiple remote work locations. These types of working models allow for a lot of creativity and increased job satisfaction. However, it may cause some operational inefficiencies in terms of sustainable communication and adapting to different time zones (, ). Shift work (SW) can be implemented in health insurance companies that provide 24/7 service. It is valuable in terms of providing uninterrupted and continuous service, but it is also risky in terms of causing employee fatigue and health problems due to working hours (, ). Flexible working models allow employees to modify their working hours in accordance with their demands (, ).

This increases job satisfaction and commitment and can also be effective in driving down costs and boosting motivation for businesses (). Models that are part-time and project-based allow individuals to work in a manner that is much more temporary and without the fixed hours or commitments that some jobs require. These individuals can also adapt their work to personal responsibilities and interests. This model can potentially drive up job satisfaction, but it also lacks the model’s push toward stability that is associated with traditional employment. Risks can also accumulate under this model that are associated with long-term financial security and employee loyalty to organizations ().

Furthermore, the performance of the work models of health insurance companies is affected by many criteria. These are noteworthy in the literature. CS plays a very important role in the health insurance sector. However, it has been revealed that service quality and the perceived value of health insurance are very important determinants of CS (, ). Similarly, a motivated and productive workforce can improve service delivery and thus promote CS (, ). Indeed, it is emphasized that workplace environments that support work-life balance are strongly associated with increased productivity and employee well-being (-). It shows that a well-established data security infrastructure and crisis management plans can increase operational flexibility and thus facilitate better service delivery and customer retention (, ). It is emphasized that cost efficiency can be increased without compromising service quality with innovations in insurance products and models. Indeed, organizations that adopt data-driven approaches and new technologies tend to effectively reduce increasing operational costs (). Transparent communication regarding costs, benefits, and claim processes increases customer trust and satisfaction (). On the other hand, team communication and collaboration are among the key operational components that can increase overall service efficiency. Effective communication within teams fosters a collaborative environment that can ensure timely decision-making and more effective service delivery (, ). Companies that regularly conduct risk analyses and create contingency plans are better equipped to cope with unexpected disruptions, ensure service continuity, and protect their customer base during crises (, ). It is underlined that these strategies must be integrated into the core operational framework and working models of health insurance companies to ensure long-term sustainability and competitiveness in the insurance market ().

In this direction, this study aimed to determine the importance of the criteria affecting the working models of health insurance companies and to create a decision support approach for the selection of the most appropriate working model. This study is conducted within the context of the Turkish health insurance market, which operates under a mixed system involving both public and private health insurance providers. Although many working models are globally comparable, the organizational structures and regulatory frameworks relevant to health insurance in Türkiye have unique characteristics shaped by the complementary role of private insurance alongside the social security institution. Therefore, the findings are primarily contextualized within the Turkish health insurance sector.

Methods

Type and Design of the Research

This research is a quantitative study conducted to create a decision support approach for the selection of the most appropriate working model for health insurance companies. In the study, the analytical hierarchy process (AHP) and complex proportional assessment (COPRAS) methods, which are MCDM approaches, were used. Therefore, the research design is descriptive and cross-sectional. The research scope focuses on health insurance companies operating in Türkiye. Thus, expert evaluations and data collected in this study reflect the specific characteristics, regulations, and operational conditions of the Turkish health insurance market.

Determination of Working Models and Criteria

In the study, the working models of health insurance companies and the criteria affecting the models were grouped under seven categories as a result of the literature review and are expressed in , with their explanations and sources. The selection of criteria and the use of AHP and COPRAS methods are consistent with organizational change theory, which suggests that systematic decision-making processes are essential for organizations facing complex environmental shifts (), and with strategic management theory, which underlines the strategic importance of operational decisions for competitive advantage (, ).

Table 1. Working models

Working model code

Working models

Working model descriptions

References

DNM

Digital nomad model

Employees work from different parts of the world, constantly changing locations. Geographic flexibility is at the forefront of this model.

17,18

HW

Hybrid work

Employees work from the office on certain days of the week and remotely on certain days.

14,15

FW

Flexible work

Employees determine their working hours and are required to complete their work within a certain period of time.

21-23

SW

Shift work

Employees work in rotation at different time zones of the day. It is frequently applied in sectors that require 24/7 service, such as healthcare.

19,20

FRW

Full-time remote work

Employees conduct all of their work remotely, usually from their homes or other locations.

16

PPBW

Part-time-project based work

Employees work on a limited basis for specific projects or periods, unlike a full-time job.

24

FOW

Full-time office work

Employees work full-time in the company’s physical office during certain working hours.

12,13

Table 2. Criteria affecting working models

Criteria code

Criteria

Criteria descriptions

References

CO

Cost

Low costs in insurance companies are critical for efficient use of resources and sustainable profitability. Low-cost business models increase the company’s competitiveness and reduce financial risks.

34,35

EP

Employee productivity

Employee performance in insurance companies is of critical importance in terms of service quality and the effectiveness of operational processes. Working models that increase employee productivity contribute to faster responses to customer demands by optimizing business processes.

27,28

DS

Data security

Data breaches seriously damage the company’s reputation and customer trust. Secure working models ensure that customer information is protected against cyber-attacks and data leaks.

32,33

CS

Customer satisfaction

It is an indicator of the quality of the services provided by insurance companies and the extent to which they meet customer expectations. Models with high customer satisfaction provide advantages in terms of customer loyalty and long-term success.

25,26

TCC

Team communication and collaboration

In companies that adopt a good communication model, the flow of information accelerates, errors are reduced and customer demands are met more efficiently. Working models that strengthen cooperation also enable more successful interventions in times of crisis.

36,37

WLB

Work-life balance

Working models that protect employees’ work-life balance prevent burnout syndrome and increase employee loyalty in the long term.

29-31

BCCM

Business continuity and crisis management

Providing uninterrupted service, especially in health insurance services, during crises plays a critical role in preventing customer losses.

38,39

In order to determine the weights of the criteria affecting the working models, 5 experts from the fields of health management, occupational health and safety, management and strategy, banking and insurance, and business were consulted through AHP questionnaires. AHP questionnaires consist of questions based on pairwise comparisons with importance levels ranging from 1 to 9. In the next stage, the COPRAS method was used in line with the weighted criteria to determine the most beneficial working models for health insurance companies. provides detailed information about the experts.

Table 3. Expert details

Experts

Area of ​​expertise

Education level

Title

Experience (years)

E1

Health management

PhD.

Assoc. Prof.

14

E2

Occupational health and safety

Master

Expert

12

E3

Management and strategy

PhD.

Prof. Dr.

20

E4

Banking and insurance

PhD.

Prof. Dr.

17

E5

Business

PhD.

Prof. Dr.

22

Statistical Analysis

This study employs a two-stage MCDM approach. In the first stage, the AHP was used to determine the relative importance (weights) of evaluation criteria through pairwise comparisons and consistency checks. The eigenvector weights obtained from AHP represent the ratio scale results expressing the relative importance of the criteria to each other (). In the second stage, the weights obtained from the AHP analysis results were integrated into the COPRAS method, which requires the criterion weights to determine the normalized performance scores of the alternatives. While AHP is based on pairwise comparisons and consistency verification, COPRAS uses a linear additive benefit model. Although AHP and COPRAS differ in their conceptual foundations, the use of the weights obtained from the AHP analysis for COPRAS analysis is theoretically valid under certain conditions. To ensure methodological consistency, the sum of the AHP weights was normalized to be 1 and the ratio scale results were converted to appropriate proportional values ​​for additive models such as COPRAS (, ). In addition, in order for COPRAS to remain on an interval scale in the study, the alternative scores used were independently collected through expert evaluations on a Likert scale in accordance with the weighted addition principle. Some studies in the literature indicate that integrating AHP-derived weights into different MCDM methods, including COPRAS, will yield robust and interpretable results, provided that normalization and scale consistency are managed appropriately (-). The methodological integration in this study was designed by the principles of AHP for reliable criterion weighting and COPRAS for ranking alternatives based on cost-benefit analysis.

Analytical Hierarchy Process

The AHP is a structured decision-making methodology widely used in various fields, including management, engineering, and education, to facilitate complex decision-making by breaking a problem into a hierarchy of subproblems that can be analyzed independently (, ). AHP allows decision makers to systematically evaluate multiple criteria and alternatives, allowing them to prioritize options according to their relative importance (). The AHP methodology includes the following steps ();

Problem Definition and Hierarchical Structuring: The first stage involves clearly defining the decision problem and structuring it into a hierarchy. The decision problem is typically structured into a hierarchy with the main objective at the top, followed by the criteria and subcriteria, and finally the alternatives at the bottom.

Pairwise Comparisons: Decision makers make pairwise comparisons between criteria and alternatives. Each element is compared to all other elements in terms of its contribution to the goal. This is done using a relative importance scale 1 (equal importance) - 9 (extreme importance) that allows for the quantification of subjective judgments.

Calculating Weights and Consistency Ratio: The results of the pairwise comparisons are used to calculate the weights of each criterion and alternative. A consistency ratio (CR) is calculated to ensure that the decisions made are consistent. This can be done using various methods such as the eigenvector method or linear programming approaches.

Synthesizing the Results: Finally, the weighted scores of the alternatives are added to determine the overall ranking. This synthesis provides a clear indication of which alternative is preferred according to the established criteria.

Complex Proportional Assessment

COPRAS is one of the MCDM methods that provide a systematic and effective framework for evaluating alternatives and making informed choices in complex decision-making scenarios (). One of its most basic features is that it gradually ranks alternatives according to their importance and benefit. It compares alternatives with each other and reveals how much better or worse they are than other alternatives as a percentage (). The COPRAS method steps can be expressed as follows ().

Creation of the decision matrix: The decision matrix is ​​created from the 𝑥𝑖𝑗 values. The criteria are in the row section, and the alternatives are in the column section (Equality 1).

Creating the normalized decision matrix: The normalized decision matrix is ​​determined using Equality (2).

Creation of weighted decision matrix: Weighted normalized decision matrix is ​​created with Equality (3). Here, 𝑑𝑖𝑗 is the weighted value, 𝑤𝑗 is the criterion weight. Criterion weights are obtained by AHP method.

Calculation of the optimality function value (benefit-cost): High (max) desired criteria are expressed as “benefit”; low (min) desired criteria are expressed as “cost”. The sum of the values ​​in the weighted normalized decision matrix for benefit and cost criteria is calculated using Equality (4) and Equality (5), respectively.

Calculating the relative importance of alternatives: The relative importance value (𝑄𝑖) is calculated for alternatives with Equality (6). The highest 𝑄𝑖 value obtained represents the best alternative.

Determining the highest relative importance: The one with the largest value among the relative priority values ​​is calculated (Equality 7).

Determining the benefit levels of alternatives: The performance index (𝑃𝑖) is calculated for each alternative using Equality (8).

Ethical Aspects of Research and Consent

The scientific applicability of the research was approved by the Non-Interventional Clinical Research Ethics Committee of a İstanbul Medipol University (decision no: 292, date: 06.03.2025). In addition, experts were informed about the study and signed an informed consent form.

Results

For the criteria affecting the study models, pairwise comparison matrices were obtained by collecting opinions from experts through AHP questionnaires. The integrated decision matrix was determined by taking the geometric averages of the values ​​in the comparison matrices containing the opinions of all experts ().

Table 4. AHP integrated decision matrix

-

CO

EP

DS

CS

TCC

WLB

BCCM

CO

1.00

1.00

5.20

1.00

3.12

2.00

2.00

EP

1.00

1.00

3.00

1.00

1.55

2.50

1.20

DS

0.20

0.33

1.00

0.50

2.50

1.00

3.00

CS

1.00

1.00

2.00

1.00

3.00

2.00

3.00

TCC

0.33

0.67

0.40

0.33

1.00

0.67

2.00

WLB

0.50

0.40

1.00

0.50

1.50

1.00

2.00

BCCM

0.50

0.83

0.33

0.33

0.50

0.50

1.00

Total

4.53

5.23

12.93

4.66

13.17

9.67

14.20

AHP: Analytical hierarchy process, CO: Cost, EP: Employee productivity, DS: Data security, CS: Customer satisfaction, TCC: Team communication and collaboration, WLB: Work-life balance, BCCM: Business continuity and crisis management

The column totals of the values ​​in the integrated decision matrix were taken, and each value was divided by the column total to create a normalized matrix. Then, the row averages of the normalized matrix values ​​were taken to determine the eigenvector (weight) values ​​of the criteria ().

Table 5. AHP normalized matrix

-

CO

EP

DS

CS

TCC

WLB

BCCM

Eigenvector (weight)

CO

0.22

0.19

0.40

0.21

0.24

0.21

0.14

0.2304

EP

0.22

0.19

0.23

0.21

0.12

0.26

0.08

0.1884

DS

0.04

0.06

0.08

0.11

0.19

0.10

0.21

0.1137

CS

0.22

0.19

0.15

0.21

0.23

0.21

0.21

0.2038

TCC

0.07

0.13

0.03

0.07

0.08

0.07

0.14

0.0841

WLB

0.11

0.08

0.08

0.11

0.11

0.10

0.14

0.1042

BCCM

0.11

0.16

0.03

0.07

0.04

0.05

0.07

0.0750

AHP: Analytical hierarchy process, CO: Cost, EP: Employee productivity, DS: Data security, CS: Customer satisfaction, TCC: Team communication and collaboration, WLB: Work-life balance, BCCM: Business continuity and crisis management

To calculate the CR, the integrated decision matrix values ​​were multiplied by the eigenvector values, the row sums were taken, and the eigenvalue scores were found. The average CR was found to be 0.071. Criteria weights and rankings are given in .

Table 6. AHP criteria weights and rankings

Criteria code

Criteria

Eigenvector (weight)

Ranking

CO

Cost

0.2304

1

CS

Customer satisfaction

0.2038

2

EP

Employee productivity

0.1884

3

DS

Data security

0.1137

4

WLB

Work-life balance

0.1042

5

TCC

Team communication and collaboration

0.0841

6

BCCM

Business continuity and crisis management

0.0750

7

AHP: Analytical hierarchy process

According to , the most important criterion to be used in the evaluation of the working models of health insurance companies was found to be cost with a normalized weight score of 23.04%. This was followed by CS (20.38%) and employee productivity (18.84%). Business continuity and crisis management was determined as the least important criterion with a weight of 7.50%.

According to the method, the benefit criterion indicates that higher values ​​indicate a better situation in reaching the goal. The cost criterion represents that lower values ​​indicate a better situation in reaching the goal. In this direction, the maximization of all criteria except cost in the study is a benefit. The high value of these criteria has a positive effect on the alternative selection. A survey form was prepared according to the 5-point Likert scale by considering the 7 criteria in for the working models in . This survey form was evaluated by 5 experts whose details are shown in .

The decision matrix created by averaging the expert evaluations is shown in .

Table 7. COPRAS decision matrix

Working models

Criteria code

CO

EP

DS

CS

TCC

WLB

BCCM

DNM

4.8

2.8

2.4

4.8

3.0

3.8

4.0

HW

3.8

4.8

4.8

4.2

4.2

4.8

3.8

FW

2.2

3.8

2.8

3.0

3.6

2.8

3.2

SW

2.4

2.8

2.2

1.2

3.6

1.2

1.6

FRW

3.8

2.8

3.0

3.0

2.8

1.8

2.2

PPBW

3.8

4.8

3.8

3.2

4.0

2.2

2.2

FOW

3.8

4.2

2.8

2.8

2.8

3.8

3.2

Total

24.6

26

21.8

22.2

24

20.4

20.2

COPRAS: Complex proportional assessment, DNM: Digital nomad model, HW: Hybrid work, FW: Flexible work, SW: Shift work, FRW: Full-time remote work, PPBW: Part-time-project based work, FOW: Full-time office work, CO: Cost, EP: Employee productivity, DS: Data security, CS: Customer satisfaction, TCC: Team communication and collaboration, WLB: Work-life balance, BCCM: Business continuity and crisis management

The normalized decision matrix was obtained using Equation (2) ().

Table 8. COPRAS normalized matrix

-

Criteria

Min.

Max.

Max.

Max.

Max.

Max.

Max.

Weights

0.2304

0.1884

0.1137

0.2038

0.0841

0.1042

0.0750

Working models

CO

EP

DS

CS

TCC

WLB

BCCM

DNM

0.1951

0.1076

0.1100

0.2162

0.1250

0.1862

0.1980

HW

0.1544

0.1846

0.2201

0.1891

0.1750

0.2352

0.1881

FW

0.0894

0.1461

0.1284

0.1351

0.1500

0.1372

0.1584

SW

0.0975

0.1076

0.1009

0.0540

0.1500

0.0588

0.0792

FRW

0.1544

0.1076

0.1376

0.1351

0.1166

0.0882

0.1089

PPBW

0.1544

0.1846

0.1743

0.1441

0.1666

0.1078

0.1089

FOW

0.1544

0.1615

0.1284

0.1261

0.1166

0.1862

0.1584

COPRAS: Complex proportional assessment, DNM: Digital nomad model, HW: Hybrid work, FW: Flexible work, SW: Shift work, FRW: Full-time remote work, PPBW: Part-time-project based work, FOW: Full-time office work, CO: Cost, EP: Employee productivity, DS: Data security, CS: Customer satisfaction, TCC: Team communication and collaboration, WLB: Work-life balance, BCCM: Business continuity and crisis management

Equality (3) was applied using the criterion weights obtained as a result of the AHP analysis, and a weighted normalized matrix was created ().

Table 9. COPRAS weighted normalized matrix

Working models

Criteria no

CO

EP

DS

CS

TCC

WLB

BCCM

DNM

0.0449

0.0202

0.0125

0.0440

0.0105

0.0194

0.0148

HW

0.0356

0.0347

0.0250

0.0385

0.0147

0.0245

0.0141

FW

0.0206

0.0275

0.0146

0.0275

0.0126

0.0143

0.0118

SW

0.0224

0.0202

0.0114

0.0110

0.0126

0.0061

0.0059

FRW

0.0356

0.0202

0.0156

0.0275

0.0098

0.0091

0.0081

PPBW

0.0356

0.0347

0.0198

0.0293

0.0140

0.0112

0.0081

FOW

0.0356

0.0304

0.0146

0.0257

0.0098

0.0194

0.0118

COPRAS: Complex proportional assessment, DNM: Digital nomad model, HW: Hybrid work, FW: Flexible work, SW: Shift work, FRW: Full-time remote work, PPBW: Part-time-project based work, FOW: Full-time office work, CO: Cost, EP: Employee productivity, DS: Data security, CS: Customer satisfaction, TCC: Team communication and collaboration, WLB: Work-life balance, BCCM: Business continuity and crisis management

The values ​​of  for benefit criteria and  for cost criteria were determined using Equations (4) and (5). The relative importance values ​​(Qi) for each study model were calculated using Equation (6). In the next stage, the highest relative importance Qmax and the benefit degrees (Pi) of the study models were determined using Equations (7) and (8) and the final rankings were made ().

Table 10. Importance values and final ranking for working models

Working Models

-

-

-

-

Ranking

DNM

0.1216

0.0449

0.1442

80.019

4

HW

0.1517

0.0356

0.1802

100

1

FW

0.1085

0.0206

0.1576

87.47

2

SW

0.0674

0.0224

0.1125

62.43

7

FRW

0.0906

0.0356

0.1191

66.10

6

PPBW

0.1174

0.0356

0.1458

80.95

3

FOW

0.1118

0.0356

0.1403

77.86

5

DNM: Digital nomad model, HW: Hybrid work, FW: Flexible work, SW: Shift work, FRW: Full-time remote work, PPBW: Part-time-project based work, FOW: Full-time office work

According to ; hybrid work with a performance index of 100%, symbolized as  is the most beneficial working model. Flexible work with a performance index of 87.47% and part-time-project-based work with a performance index of 80.95% are also among the most common models. The least beneficial working model was determined as SW with a performance index value of 62.43%.

Discussion

Within the scope of the study, the most beneficial working models for health insurance companies were determined as hybrid working, flexible working and, part-time-project-based working, respectively.

When the hybrid working model with the highest performance index (100%) is examined, there are studies in the literature that support this opinion. Khatatbeh et al. () emphasized in their study that the hybrid working model would reduce burnout and increase job satisfaction by encouraging a better balance between personal and professional lives. Similarly, Siddika () stated in his study that the implementation of the hybrid working model during the COVID-19 outbreak enabled employees to re-evaluate their work-life balance and achieve better health outcomes and productivity as a result of the commute-related stress reduction. Buick et al. () stated in their study that with the transition to hybrid structures, resource use would be optimized, and companies could reduce costs associated with physical office spaces by offering more flexible working options. Indeed, Kajwang () pointed out that as job seekers increasingly prioritized work-life balance and health benefits in their employment decisions, the flexibility provided by hybrid models would lead to higher employee retention and lower recruitment costs for health insurers.

The working model with the second-highest performance index (87.47%) is flexible working. Menezes and Kelliher () emphasized that flexible working not only increased job satisfaction but also contributed positively to individual performance by meeting employees’ needs for autonomy and work-life integration. Timms et al. () also emphasized the positive relationship between flexible working and the reduction of chronic stress, stating that flexible working was an important step in promoting a healthier and more productive workforce. Similarly, Ghali-Zinoubi et al. () emphasized that flexible working hours contributed to the reduction of work-life conflict and significantly increased employee satisfaction by allowing individuals to better manage their professional and personal lives.

The third highest performance index (80.95%) was found to be part-time project-based work. When looking at the studies in the literature, Zeng et al. () argued that project-based companies optimized resource management and increased their ability to respond quickly to market changes by aligning their workforce with project demands. They also stated that this situation provided a significant competitive advantage in the sector. Similarly, Aziz et al. () revealed the prevalence of adopting part-time project work models, especially during periods of uncertainty such as economic recession or epidemics, and stated that the flexibility offered by project-based employment structures allowed organizations to maintain operational continuity even in turbulent times and to adapt more easily to the potential risks of subsequent crises. Similarly, Suryanto et al. () and Kimani and Kungu () argued in their studies that the dynamic nature of competition in the market required insurers to adopt innovative business development strategies that were effectively executed through project-based methodologies.

The findings of this study are open to evaluation with different theoretical frameworks. The trend towards hybrid and flexible working models in health insurance companies shows that companies adapt their structures and processes in response to environmental and technological changes. This situation overlaps with the organizational change theory (). The determination of cost and CS as the most prioritized evaluation criteria intersects with the need for organizations to balance operational efficiency with service quality to maintain their competitive advantage in strategic management theory (). On the other hand, the emphasis on data security and technological infrastructure, which constitute the basic dynamics of modern working models, can be associated with the implications of the digital transformation theory (, ). Integrating these theoretical perspectives not only provides a deeper understanding of the empirical results but also enhances the practical implications of the study for strategic decision-making in health insurance companies.

Study Limitations

This study has several limitations that should be acknowledged. The criteria affecting the study models were obtained through a literature review. These criteria can be created based on qualitative data collection methods, such as in-depth interviews with experts and focus group discussions. The inclusion of additional or alternative criteria could influence the outcomes. Moreover, the evaluations were conducted in a cross-sectional manner, meaning that they did not account for dynamic changes in organizational needs, workforce preferences, or technological developments over time. Secondly, for the AHP and COPRAS methods, five experts from specific fields were consulted. Although these individuals were selected for their expertise, representativeness could be increased by adding opinions from participants from different fields.

Conclusion

Working models with different advantages and disadvantages can be applied in business processes for health insurance companies. It has been determined within the scope of the study that the most beneficial working model is hybrid working. The implementation of both remote and face-to-face working options can provide the opportunity to tap into a broader talent pool, including individuals who may face geographical or transportation restrictions and potential employees for health insurance companies. This model also allows employees to save time and transportation costs, increases work-life balance, and contributes to employee satisfaction. For days when working remotely, distractions in the office environment can be removed, and a more focused working order can be created. Expenses such as energy, transportation, and office supplies decrease. This situation also contributes to the sustainability goals of companies by reducing carbon emissions from transportation. It allows business continuity to be ensured, and a rapid transition to remote working can be made in crisis and extraordinary situations (pandemic, natural disasters, etc.). The applicability of this model also brings with it a strong technological infrastructure that supports remote working. The use of tools such as cloud-based systems, virtual private network solutions, video conferencing tools, and project management software should be integrated into the process. In addition, as in every representative of the health sector, the protection of personal data is a matter of particular importance in health insurance companies. In this regard, cybersecurity measures must be increased more than ever. In order to provide a more productive environment on days when working in the office, work areas should be optimized, and rearrangements such as open office areas or quiet study rooms should be made. In addition, it is recommended that managers be trained on remote team management and communication skills in terms of measuring and monitoring staff performance.

On the other hand, the flexible working model allows employees to work during the periods when they are most productive. For this reason, an evaluation system that focuses on work output rather than working hours should be established. In this model, trust in the time management and self-discipline skills of employees is essential. In this direction, employees should be given training to increase their skills in time management and motivation. Automatic call forwarding systems and digital assistants should definitely be put into operation so that flexible remote employees can respond quickly to customer demands. Working conditions from home should be improved by providing digital office support.

Finally, part-time project-based employees are more cost-effective than full-time employees. This model offers a cost-efficient solution for insurance companies operating under limited project budgets. The quality and efficiency of project outputs also increase as it ensures that employees with a specific area of ​​expertise are included in the project. It also provides scalability of workload for insurance companies. When project intensity increases, more employees can be hired, and when it decreases, the number of employees can be reduced. Indeed, when the project is completed, the employment relationship of the employees ends, which reduces long-term costs. For this model, employees’ data security policies can be clearly defined, and an authorized access model can be created. It should be clearly stated which tasks employees should complete and when, and job analyses should be performed. Online project management platforms should be used for effective management of teams, and project-based progress payment systems should be put into effect.

In this context, it is important for health insurance companies to first analyze their business processes and determine which model is more suitable for which department or task. By blending these models with a strategic approach, companies can both increase employee satisfaction and ensure operational efficiency. In this way, it will be easier for them to achieve long-term growth and sustainability goals. While the results offer valuable insights into working model prioritization, the applicability of the findings may vary in other countries depending on regulatory, cultural, and economic factors. Future studies can expand this research by comparing health insurance companies across different national contexts.

Footnotes

Ethics

Ethics Committee Approval: The scientific applicability of the research was approved by the Non-Interventional Clinical Research Ethics Committee of a İstanbul Medipol University (decision no: 292, date: 06.03.2025).

Informed Consent: Experts were informed about the study and signed an informed consent form.

Financial Disclosure: The author  declared that this study received no financial support.

References

1

Mamun AA, Rahman MK, Munikrishnan UT, Permarupan PY. Predicting the intention and purchase of health insurance among Malaysian working adults. Sage Open. 2021;1-18.

2

Dave HS, Patwa JR, Pandit NB. Facilitators and barriers to participation of the private sector health facilities in health insurance & government-led schemes in India. Clin Epidemiol Glob Health. 2021;10:100699.

3

Burnes B. Managing change. 7 th ed. Harlow: Pearson Education Limited; 2017.

4

Armenakis AA, Harris SG. Reflections: our journey in organizational change research and practice. J Change Manag. 2009;9:127-42.

5

Porter ME, Heppelmann JE. How smart, connected products are transforming competition. Harv Bus Rev. 2014;92:64-88.

6

Bharadwaj A, El Sawy OA, Pavlou PA, Venkatraman N. Digital business strategy: toward a next generation of insights. MIS Q. 2013;37:471-82.

7

Vial G. Understanding digital transformation: a review and a research agenda. J Strateg Inf Syst. 2019;28:118-44.

8

Hess T, Matt C, Benlian A, Wiesböck F. Options for formulating a digital transformation strategy. MIS Q Exec. 2016;15:123-39.

9

Sukartini T, Arifin H, Kurniawati Y, Pradipta RO, Nursalam N, Acob JRU. Factors associated with national health insurance coverage in Indonesia. F1000Res. 2021;10:563.

10

McClurkin MA, Yingling LR, Ayers C, Cooper-McCann R, Suresh V, Nothwehr A, et al. Health insurance status as a barrier to ideal cardiovascular health for U.S. adults: data from the national health and nutrition examination survey (NHANES). PLoS One. 2015;10:e0141534.

11

Mourmouris J, Poufinas T. Multi-criteria decision-making methods applied in health-insurance underwriting. Health Syst (Basingstoke). 2022;12:52-84.

12

Wohlers C, Hertel G. Choosing where to work at work - towards a theoretical model of benefits and risks of activity-based flexible offices. Ergonomics. 2017;60:467-86.

13

Babapour Chafi M, Hultberg A, Bozic Yams N. Post-pandemic office work: perceived challenges and opportunities for a sustainable work environment. Sustainability. 2021;14:294.

14

Eddleston K, Mulki JP. Toward understanding remote workers’ management of work–family boundaries: the complexity of workplace embeddedness. Group Organ Manag. 2015;42:346-87.

15

Bjärntoft S, Hallman DM, Mathiassen SE, Larsson J, Jahncke H. Occupational and individual determinants of work-life balance among office workers with flexible work arrangements. Int J Environ Res Public Health. 2020;17:1418.

16

Carvalho VS, Estreder Y, Chambel MJ. Navigating boundaries: daily dynamics of work-personal life relationship among digital nomads. Preprint 2024.

17

Prester J, Ćećez-Kecmanović D, Schlagwein D. Toward a theory of identity performance in unsettled digital work: the becoming of ‘digital nomads’. J Inf Technol. 2023;38:442-58.

18

İli B, Büyükbaykal GN. A bibliometric analysis of digital nomad researches. Nevşehir Hacı Bektaş Veli Univ SBE Derg. 2022;12:306-19.

19

Edwards S. ‘If you can work from anywhere, why work anywhere else?’: flexible citizenship, regimes of mobility, and the discourse of digital nomadism. AoIR Sel Pap Internet Res. 2021.

20

Fujishiro K, Hibert EL, Schernhammer E, Rich-Edwards JW. Shift work, job strain and changes in the body mass index among women: a prospective study. Occup Environ Med. 2017;74:410-6.

21

Sekhar C, Patwardhan M. Flexible working arrangement and job performance: the mediating role of supervisor support. Int J Product Perform Manag. 2023;72:1221-38.

22

Kelliher C, De Menezes LM. Flexible working in organisations: a research overview. Routledge; 2019.

23

Yıldırım Ö, Tengilimoğlu D. The effect of flexible working arrangement applies during the pandemic period on employees job satisfaction and motivation: a field research. Fırat Üniv Sos Bilim Derg. 2022;32:625-33.

24

Kurniasari MI, Isbah MF, Azca MN. The emerging workcation trend in Indonesia: a preliminary study on the demographic profiles, motivations, and experiences of workcationers. J Ilmu Sosial. 2022;21:75-97.

25

Ahmad MJ, Farhan M, Fareed M. Service continuance intention in the health insurance setting: a PLS-SEM approach. Pak J Humanit Soc Sci Res. 2019;2:82-108.

26

Ramadhan AG, Soegoto DS. The factor influencing customer satisfaction in health insurance companies. Atlantic Press. 2020;112:117-21.

27

Fattah FAMA, Dahleez KA, Darwazeh RN, Alawi AMMA. Influence of service quality on consumer loyalty: a mediation analysis of health insurance. TQM J. 2021;33:1787-1805.

28

Kaigorodova G, Mustafina A, Alyakina D. Directions of improving information system of insurance company. J Phys Conf Ser. 2018;1015:042016.

29

Agyei J, Sun S, Penney EK, Abrokwah E, Ofori-Boafo R. Linking CSR and customer engagement: the role of customer-brand identification and customer satisfaction. SAGE Open. 2021;11.

30

Do TD, Mai TH. A study for Hanoi on how perceived value and service quality affect customer satisfaction in healthcare insurance. J Econ Finance Manag Stud. 2023;6:5262-6.

31

Gautam B. Claim settlement excellence: keys to customer satisfaction in health insurance. SSRN Electron J. 2024;2:247-52.

32

Lekkala LR. Cloud technologies and its impact on the US health insurance claims process. Voice of the Publisher. 2023;9:323-33.

33

Mavundla K, Thakur S. Analysing health insurance customer dataset to determine cross-selling potential. Int Conf Artif Intell Appl. 2023:219-26.

34

Anand P. Health insurance costs and employee compensation: evidence from the national compensation survey. Health Econ. 2017;26:1601-16.

35

Andranurviza AY, Mulyati H, Munnadar JM. The impact of digital application usage on customer experience, satisfaction, and loyalty in a life insurance company. Bus Rev Case Stud. 2022;3:1-12.

36

Yang CC. Health care reform, efficiency of health insurers, and optimal health insurance markets. North Am Actuar J. 2014;18:478-500.

37

Awofeso N. Improving efficiency and reducing fraud in UAE’s health insurance market. J Finance Mark. 2017;1:7-16.

38

Banerjee R, Cohen‐Cole E. Competition and the cost of health care. Appl Econ. 2012;44:1201-7.

39

Geng J, Chen X, Shi J, Bao H, Chen Q, Yu H. Assessment of the satisfaction with public health insurance programs by patients with chronic diseases in China: a structural equation modeling approach. BMC Public Health. 2021;21:1886.

40

Cole CR, Yang CC, Lin H. The (mis)alignment of health insurers’ efficiency measures from different perspectives and their (un)linkage with financial ratios and asset allocation. J Insur Regul. 2017.

41

Saaty TL. Decision making with the analytic hierarchy process. Int J Serv Sci. 2008;1:83-98.

42

Mardani A, Jusoh A, Nor KMD, Khalifah Z, Zakwan N, Valipour A. Multiple criteria decision-making techniques and their applications – A review of the literature from 2000 to 2014. Econ Res-Ekon Istraživanja. 2015;28:516-71.

43

Zavadskas EK, Turskis Z, Kildienė S. State of art surveys of overviews on MCDM/MADM methods. Technol Econ Dev Econ. 2016;22:165-200.

44

Chatterjee P, Athawale VM, Chakraborty S. Materials selection using complex proportional assessment and graph theory. Mater Des. 2011;32:851-60.

45

Esen H. Analytical hierarchy process problem solution. in: analytic hierarchy process: models, methods, concepts, and applications. IntechOpen; 2023.

46

Zhang X, Liao H. Intuitionistic fuzzy analytic hierarchy process. IEEE Trans Fuzzy Syst. 2014;22:749-61.

47

Taherdoost H, Mohebi A. A Comprehensive guide to the COPRAS method for multi-criteria decision making. J Manag Sci Eng Res. 2024;7:1-14.

48

Kaklauskas A, Zavadskas EK, Binkyte-Veliene A, Kuzminske A, Cerkauskas J, Cerkauskiene A, et al. Multiple criteria evaluation of the EU country sustainable construction industry lifecycles. Appl Sci. 2020;10:3733.

49

Sarıçalı G, Kundakçı N. Evaluation of hotel alternatives with AHP and COPRAS methods. Int Rev Econ Manag. 2016;4:45-66.

50

Khatatbeh IN, Alshurafat H, Shbail MOA, Jamaani F. Factors affecting employees use and acceptance of remote working during the COVID-19 pandemic: evidence from the Jordanian insurance sector. Sage Open. 2023;13:1-15.

51

Siddika BA. Hybrid working, well-being and gender: a study on a public sector organization during the COVID-19 pandemic. Asian J Soc Sci Stud. 2023;8:25.

52

Buick F, Williamson S, Weeratunga V, Taylor H. Adopting a purposeful approach to hybrid working integrating notions of place, space and time. Policy Q. 2024;20:40-9.

53

Kajwang B. An analysis of crucial skills required in the modern workplace by insurance sector employers. Eur J Technol. 2021;5:35-41.

54

Menezes LMD, Kelliher C. Flexible working, individual performance, and employee attitudes: comparing formal and informal arrangements. Hum Resour Manage. 2016;56:1051-70.

55

Timms C, Brough P, Chan XW. Employees’ psychological health and the impact of flexible working arrangements. In: Flexible Work. New York: Routledge; 2020:35-47.

56

Ghali-Zinoubi Z, Amari A, Jaoua F. E-learning in era of COVID-19 pandemic: impact of flexible working arrangements on work pressure, work-life conflict and academics’ satisfaction. Vision. 2021;28:621-32.

57

Zeng Y, Lu Y, Skibniewski MJ. Enterprise resource planning systems for project-based firms: benefits, costs & implementation challenges. J Adv Perform Inf Value. 2012;4:85.

58

Aziz R, Parwoto P, Iqbal M. The influence of flexible working arrangements on turnover intention and productivity through job satisfaction on the millennial generation of private companies in Jakarta in 2022. Int J Soc Serv Res. 2022;2:863-80.

59

Suryanto T, Dimasqy D, Ronaldo R, Ekananda M, Dinata TH, Tumbelaka I. The influence of liberalization on innovation, performance, and competition level of insurance industry in Indonesia. Sustainability. 2020;12:10620.

60

Kimani IW, Kungu P. Differentiation strategy and the performance of medical insurance companies in Kenya. Int J Bus Manag Entrep Innov. 2024;6:69-90.