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Understanding flexibility – dimensions of employee behavior flexibility

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INTRODUCTION

Recently, amongst theoreticians and practitioners of management, one can notice a growing interest in the subject of the flexibility of the work environment (among others: Galinsky et al., 2008; Kossek et al., 2015). In a changing, turbulent, unpredictable environment, an organisation must be able to recognise and adapt to new situations. The necessity of a quick response to change, forces the use of an array of solutions, including those aimed at making human capital more flexible. Some of these responses are direct and refer to personnel policy, like flexible working time solutions (Campbell et al., 2012; Koekemoer & Downes, 2011) or changes in the model of career management (Blustein, 2013; Baruch, 2006). Other solutions, while aimed primarily at making the organisation more flexible (eg changes in structure, technology), only affect employees indirectly, though without a doubt change the nature of the employee-organisation relationship (Januszkiewicz, 2018). Solutions that make the work environment more flexible by creating space for flexible organisational behaviour of employees (FOBE) are being increasingly implemented by employers both in relation to the expected productivity growth and the positive impact on work-life relationships (among organisational behaviour, flexibility, and others: Kossek et al., 2015; Pitt-Catsouphes & Matz-Costa, 2008; White et al., 2003; Hill et al., 2008).

Despite the wealth of literature, it seems quite symptomatic that there is no homogeneous terminology in the area discussed. To describe the flexibility of the work environment, authors most often use such categories as workplace flexibility (Hill et al., 2008), flexibility work arrangements (de Sivatte & Gaudamillas, 2013; Kossek et al., 2016; Rau & Hyland, 2002), flexibility policies (Eaton, 2003; Noonan et al., 2007) and flexibility practices (van der Meer & Ringdal, 2009; Lambert, 2008). In addition, the use of a certain type of label has been noted, such as a new work environment, agile work, flexible, wise flexibility (Lake, 2015), and smart work (Lee & Lee, 2012), suggesting a departure from the old, traditional, non-agile, inflexible ways of working characteristic of industrial production towards other, more flexible, solutions.

Analysing the differences in the presented approaches of flexibility, it should be pointed out that this category in the subject literature is treated on the one hand as an organisational feature (see: also: Kalleberg, 2003; Michie & Sheehan-Quinn, 2001), and on the other hand, as a fragmentarily feature of certain organisational solutions. In both perspectives, however, it should be noticed that the lack of attention to relations or connections between particular dimensions of flexibility makes it difficult to conduct deliberations within the discipline. Therefore, on the assumption that flexibility is manifested in various dimensions, in varying degrees, and with different dynamics, it seems justified to build a model that, on the one hand, takes into account these differences and on the other hand, allows for a complete and consistent description of flexibility.

In addition, as Lonti and Verna (2003) note, flexible solutions do not occur by accident or singly, but in clusters that allow for some flexibility in their application, which seems particularly important from the point of view of the theoretical analysis of the phenomenon. The study of organisational solutions in clusters, in contrast to the study of isolated incidents, allows for the emergence of certain patterns and the possibility to capture regularities (Cutcher-Gershenfeld, 1991). According to McDuffie (1995) it also enables a more complete picture of the relationship between organisational solutions and the behaviour of employees. Therefore, it should be assumed that the flexibility of organisational behaviour of employees is related to the flexibility of organisational solutions that occur in qualitatively separated clusters.

Under the above assumptions, the purpose of this article is to present a model of flexible organisational behaviour of empolyees [FOBE], which is a proposal for a consistent description of employee flexibility and its empirical verification.

THEORETICAL FRAMEWORK
Model of Flexibility of Organisational Behaviour of Employees (FOBE)

Through research of the literature, it can be pointed out that the dimensions within which changes in the behaviour of the individual in the organisational space are described (which cover flexibility) in three general categories (amongst others, Hill et al., 2008; Johnson et al., 2008; Rodgers, 1992; Galinsky et al., 2008; Franken et al., 2021; Pitt-Catsouphes & Matz-Costa, 2008; Rau & Hyland, 2002; Christensen, 2013; Thompson, Payne & Taylor, 2015; Berkery et al., 2020; Luu, 2021):

when,

where,

and how an individual does his/her job.

However, the flexibility of time and place of work (Thompson, Payne & Taylor, 2015; Chung & Tijdens, 2013; Baltes et al.,1999; McMenamin, 2007; Schiff, 1983; Groen, 2018) are considered to be the most frequently described and applied solutions to make the organisation more flexible. It should be noted that the qualitative heterogeneity of the described practices is an important premise for making more detailed divisions that allow a better understanding of the phenomenon under investigation. In the work of Kossek, Thompson and Lautsch (2015), flexible solutions offered by organisations to employees are discussed in four categories:

flexitime: choice of organisation of working time;

flexiplace: selection of the workplace (in its entire dimension or part of it);

flexibility of the amount of work: a selection of the amount of work performed;

flexibility of continuity of work: a selection of the degree of involvement in the implementation of the work.

In the above-mentioned categories, reference to the characteristics of the place (where), time (when) and way (how) of performing work can be clearly noticed. The noticeable increase in interest in the latter (how) is associated primarily with the dynamic development of technology. In the literature on the subject, the topics of virtualisation of teamwork (Gibson & Cohen, 2003; Michalak, 2012; Jarvenpaa & Leidner, 1998), the use of smartphones (Lanaj, Johnson & Barnes, 2014; Derks & Bakker, 2014), or more broadly, new technologies at work (Luff, Hindmarsh & Heath, 2000; Bresnahan, Brynjolfsson & Hitt, 2002; Hempell & Zwick, 2008) are subjected to analysis. This category is therefore broadened to include aspects related to the change of the type of tasks performed, and, more specifically, the break with strictly defined ‘position limits’ for their ‘liquidity’ (Iles, Forster & Tinline, 1996).

These elements were included in the work of Skowron-Mielnik (2012), who conducted an analysis of flexible organisational solutions based on four dimensions: working time, workspace, work content and work status. In the case of the first two solutions, references to the time and place of work are clearly visible. The third dimension – content – goes a little beyond the how characteristic, pointing to changes in both the way tasks are implemented and their type. In a similar way, changes in the scope of performed tasks are recognised by Cordery in the works on employee flexibility programs run by the Australian government in the 1980s, the basic assumption of which was to prepare employees to undertake tasks that are changeable in terms of their scope and form (Cordery et al. 1991, 1993).

The dimensions presented above are the most frequently mentioned areas of flexibility in terms of organisational behaviour. This image, however, seems incomplete, since it omits the change in the roles that the individual plays in the organiszation, resulting in some way from the change of time, place, type, and manner of performing tasks. Multitasking, multi-jobbing, and the use of new organisational and management methods, redefine the way of participation in both its formal and informal aspects. In the literature on the subject, relatively little space is devoted to this issue directly. The existing studies are fragmentary, referring eg to the phenomenon of the transformation itself (eg transformation of managerial roles: Brzozowski, 2009; Dozier & Broom, 1995; Gatenby et al., 2015); or in the discussion of new management concepts, the change of the role of employees is indicated somewhat ‘by the way’ (Brown & Cregan, 2008: Czerska, 2002; Pabian, 2011). Despite the fact that the flexibility of the function, as previously mentioned, is not usually the focus of attention of researchers, even though this dimension seems to complement the picture of changes in organisational behaviour in a significant way. Therefore, including it in the organisational behaviour analysis model seems justified.

The results of the literature research presented above confirm that the treatment of flexibility as a homogeneous category is a great simplification and abuse (see Hill et al., 2008). Detailed analysis allows for distinguishing four basic areas in which changes occur (Figure 1).

Figure 1

Model of Flexibility of Organisational Behaviour of Employees (FOBE).

Source: own study.

In the FOBE concept, therefore, it was assumed that within the given dimensions the shift on the scale of constancy in one or several dimensions will refer to the flexibility of organisational behaviour of employees in that dimension:

task-oriented (Task Flexibility TaF): changes in the organisation of the workplace are manifested in the content of the work and/or method of work and/or the functions and characteristics of elements of technological equipment;

functional (Role Flexibility RF): changes in employee behaviour, manifested in the field of organisational roles and/or team roles;

temporal (Time Flexibility TiF): changes in work based on non-standard forms of employment, with one or more employers (formal time flexibility) and/or work based on the atypical organisation of working time (organisational time flexibility);

and spatial (Spatial Flexibility SF): changes manifested as part of the (intra- or interorganisational) position and/or place of work.

INDICATORS OF FOBE

The flexibility of the organisational behaviour of employees should be understood in this approach as a manifested change in behaviour that fosters either a development, or maintains the position of, an employee with regard to his/her potential and the potential of the organisation in which he/she is employed. The frequency of change determines the level of flexibility, while its scope determines the type of flexibility of organisational behaviour of employees (Januszkiewicz, 2018).

Such a conceptual framework for flexibility was the basis for identifying the indicators of flexible behaviour described in the literature and assigning them to individual dimensions (Table 1).

Indicators of FOBE.

Position
TASK FLEXIBILITY
P1.1 Change in type of tasks performed (new/different tasks whilst in the same role)
P1.2 Change in the scope of tasks performed (extension of tasks to-date with other activities, eg planning-, control-, and execution-related)
P1.3 Change in the scope of knowledge, skills, and attitudes at work (the need to extend knowledge, qualification, or changes in behaviour)
P1.4 Change in the method of performing work (performing tasks differently, based on new techniques, methods, processes, procedures, etc.)
P1.5 Change in the manner of performing work (transition from individual to team work or vice versa)
P1.6 Parallel multitasking (performing many tasks at the same time)
P1.7 Reactive change of tasks (unplanned change: a response to the challenges of the environment)
P1.8 Change in technical and technological solutions related to performing tasks (eg change in operating systems, implementation of new technology)
FUNCTIONAL FLEXIBILITY
P2.1 Work in different types of teams (eg project teams)
P2.2 Work in teams but performing different functions (eg opinion giving, advisory, decision making)
P2.3 Work in heterogeneous teams (diverse in terms of gender, age, professional experience, years of work)
P2.4 Playing different organisational roles in parallel (formally defined functions in an organisation)
P2.5 Playing different roles in a number of organisations in parallel
P2.6 Playing different team roles in parallel (team functions not specified formally, eg Initiator, Soul of the Team)
P2.6 Playing multiple roles in the same team
P2.8 Playing a range of roles in various teams
TIME FLEXBILITY
P3.1 Work based on non-standard forms of employment (eg contract work, temporary work, on-call contract, telework, self-employment, weekend work, contract of mandate, contract for a specific work)
P3.2 Work in two or more organisations at the same time (over the previous year)
P3.3 Change in working time (change in the number of hours to be worked in the adopted settlement period)
P3.4 Change in working time arrangements (change in working schedule, workload per day, week, month)
P3.5 Asynchronous (irregular) attendance due to diverse working time
P3.6 Separation of individual working time from the general working time of the organisation (possibility of starting/finishing work at different times)
P3.7 Self-organisation of working time (independent decisions on when and over what period the work will be performed)
SPATIAL FLEXIBILITY
P4.1 Horizontal movements (performing work in a different unit within the organisation without changing position)
P4.2 Diagonal movements: performing work in a different organisational unit and in a different role
P4.3 Work in the same organisation but in a different site (eg affiliate, branch office)
P4.4 Business trips (delegation to work in a different town/country for up to one month)
P4.5 Short-term trips (delegation to work in a different town/country from one to three months)
P4.6 Medium-term trips (delegation to work in a different town/country from 3 to 12 months)
P4.7 Rotation trips: short-regular business trips to perform specific tasks, alternating with working in the home unit
P4.8 Work in a different organisation in a different town/country
P4.9 Performing work outside the workplace (eg at home, mobile office)

Source: own study based on literature studies (amongst others: Bielski 2002; Iles, Forster & Tinline, 1996; Pearn & Kandola, 1988; Ribera et al., 2003; Padzik, 2002; Michalak, 2012; Król, 2014; Skowron-Mielnik, 2012; Oleksyn, 2008; Purgał-Popiela, 2011; Pocztowski, 2012; Sladek & Hollander, 2009; Kossek et al., 2015).

The qualitative diversity of indicators assigned to particular dimensions of behaviour flexibility raises three basic questions:

are the indicators of flexible behaviour related to each other?

what is the significance of the individual dimensions of flexibility for the general category of the flexibility of organisational behaviour of employees?

whether the dimensions of flexibility highlighted on the basis of literature research are consisted?

The answer to such questions requires an empirical study that will allow verification of the FOBE theoretical model.

METHOD

The validation study was conducted among 322 randomly selected employees, as a part of a research project carried out in 2018–2020. The sample was diversified in terms of basic social and demographic features: gender (61.2% women, 38.2% men, 0.6% no data) and age (at least 19 years, max = 67 years, M = 31. 22 years, Me = 27 years, Q1 = 25 years, Q3 = 38 years, SD = 8.58 years, skew rate = 1.070, Kr = 0.796) Also taken into account was the situation at the workplace: the period of employment in the current workplace (less than 1 year: 24.8%,; 1–3 years: 30.1%; 3–5 years: 11.5%; 5 10 years: 15.8%; over 10 years: 17.7%); position held (managerial: 23.9%; non-managerial: 76.1%); employment sector (services: 43.8%; sales: 20.5%; production / industry: 9.6%; other: 26.1 %). The respondents considered each of the 32 indicators of behavioural flexibility (Table 1), on a four-level scale, indicating how often the given situation occurred in their case. The variables analysed were measured on an ordinal scale. Each of their variants has been coded numerically: 1 corresponds to the variant less than once; 2: from two to three times; 3: from four to five; and 4: more than five.

RESULTS

Assessment of the homogeneity of positions – in total and across four separate dimensions – was made using Cronbach’s alpha. Cronbach’s alpha for the general scale of elasticity reaches 0.891, and each of the items is valid in it (none of the variables interferes with the assessment of flexibility, that is, removal does not improve the value of the reliability coefficient). With a full, prior proposed set of variables, the Cronbach’s alpha coefficient reaches 0.819 for task flexibility, 0.831 for functional flexibility, 0.734 for time flexibility, and 0.757 for spatial flexibility.

The results of the research also showed that the individual indicators are correlated, and it is mostly a statistically significant and positive correlation (Table 2). It should be noted that within theoretically isolated blocks, correlations are important for each pair of variables (the only exception is block 3, in which the P3.7 variable is not significantly related to P3.1 and P3.2, while it is significantly correlated with all items in blocks 1 and 2). The strongest relations are observed within block 2 (functional flexibility). The individual functional flexibility indicators are also quite strongly related to the task flexibility indicators; similar relations are observed between the time and spatial flexibility indicators. Significantly weaker relations are observed between the time and spatial flexibility indicators and task flexibility. For a few pairs of variables (apart from the blocks indicated in the theory) correlation coefficients are even negative, although they were not statistically significant.

Evaluation of correlation between individual indicators of flexibility dimensions.

P3.1 P3.2 P3.3 P3.4 P3.5 P3.6 P3.7 P4.1 P4.2 P4.3 P4.4 P4.5 P4.6 P4.7 P4.8 P4.9
P1.1 0.228** 0.050 0.211** 0.155** 0.172** 0.171** 0.249** 0.265** 0.091 0.150** 0.130* 0.097 0.101 —0.035 0.078 0.163**
P1.2 0.160** −0.008 0.147** 0.186** 0.087 0.187** 0.254** 0.267** 0.052 0.093 0.088 0.076 0.063 −0.002 0.082 0.153**
P1.3 0.048 0.005 0.162** 0.207** 0.129* 0.200** 0.195** 0.173** 0.154** 0.113* 0.140* 0.068 0.092 0.005 0.107 0.129*
P1.4 0.045 0.001 0.033 0.082 0.097 0.217** 0.265** 0.167** 0.155** 0.185** 0.183** 0.138* 0.158** 0.096 0.086 0.122*
P1.5 0.069 0.050 0.137* 0.129* 0.119* 0.181** 0.206** 0.216** 0.150** 0.164** 0.199** 0.096 0.117* 0.078 0.115* 0.127*
P1.6 0.013 0.032 0.055 0.170** 0.103 0.201** 0.358** 0.219** 0.012 0.042 0.175** 0.053 0.010 0.076 0.024 0.221**
P1.7 −0.021 0.069 0.014 0.154** 0.119* 0.263** 0.291** 0.161** 0.064 0.102 0.186** 0.072 0.014 0.132* 0.029 0.189**
P1.8 0.037 0.094 0.099 0.131* 0.032 0.198** 0.147** 0.181** 0.185** 0.170** 0.139* 0.232** 0.227** 0.106 0.169** 0.023
P2.1 0.074 0.161** 0.106 0.163** 0.142* 0.211** 0.219** 0.238** 0.174** 0.167** 0.261** 0.202** 0.178** 0.129* 0.194** 0.178**
P2.2 0.070 0.172** 0.078 0.117* 0.152** 0.196** 0.195** 0.249** 0.298** 0.270** 0.274** 0.285** 0.253** 0.164** 0.183** 0.159**
P2.3 0.039 0.114* 0.118* 0.183** 0.148** 0.263** 0.276** 0.107 0.064 0.087 0.177** 0.080 0.066 0.040 0.066 0.184**
P2.4 0.116* 0.178** 0.188** 0.319** 0.261** 0.260** 0.269** 0.222** 0.184** 0.153** 0.217** 0.195** 0.180** 0.172** 0.190** 0.320**
P2.5 0.098 0.343** 0.136* 0.201** 0.155** 0.165** 0.161** 0.208** 0.211** 0.160** 0.085 0.214** 0.224** 0.102 0.230** 0.122*
P2.6 −0.012 0.063 0.041 0.291** 0.163** 0.213** 0.290** 0.227** 0.188** 0.177** 0.205** 0.189** 0.136* 0.147** 0.104 0.254**
P2.7 −0.025 0.046 0.037 0.215** 0.027 0.082 0.169** 0.234** 0.109 0.139* 0.146** 0.139* 0.128* 0.051 0.053 0.142*
P2.8 0.082 0.105 0.064 0.158** 0.061 0.183** 0.183** 0.165** 0.194** 0.189** 0.189** 0.126* 0.154** 0.047 0.142* 0.126*
P3.1 1.000 0.377** 0.376** 0.234** 0.238** 0.176** 0.062 0.144** 0.214** 0.159** 0.138* 0.149** 0.231** 0.065 0.290** 0.125*
P3.2 0.377** 1.000 0.262** 0.185** 0.241** 0.217** 0.084 0.105 0.194** 0.238** 0.165** 0.252** 0.249** 0.289** 0.375** 0.145**
P3.3 0.376** 0.262** 1.000 0.501** 0.377** 0.172** 0.124* 0.176** 0.230** 0.139* 0.088 0.148** 0.306** 0.070 0.175** 0.123*
P3.4 0.234** 0.185** 0.501** 1.000 0.482** 0.351** 0.307** 0.111* 0.221** 0.147** 0.193** 0.141* 0.178** 0.082 0.162** 0.310**
P3.5 0.238** 0.241** 0.377** 0.482** 1.000 0.540** 0.364** 0.133* 0.156** 0.276** 0.271** 0.189** 0.277** 0.181** 0.184** 0.363**
P3.6 0.176** 0.217** 0.172** 0.351** 0.540** 1.000 0.502** 0.097 0.132* 0.244** 0.250** 0.172** 0.152** 0.176** 0.238** 0.361**
P3.7 0.062 0.084 0.124* 0.307** 0.364** 0.502** 1.000 0.112* 0.106 0.180** 0.242** 0.129* 0.056 0.190** 0.126* 0.457**
P4.1 0.144** 0.105 0.176** 0.111* 0.133* 0.097 0.112* 1.000 0.378** 0.360** 0.206** 0.314** 0.307** 0.181** 0.190** 0.189**
P4.2 0.214** 0.194** 0.230** 0.221** 0.156** 0.132* 0.106 0.378** 1.000 0.293** 0.194** 0.401** 0.475** 0.227** 0.366** 0.113*
P4.3 0.159** 0.238** 0.139* 0.147** 0.276** 0.244** 0.180** 0.360** 0.293** 1.000 0.405** 0.396** 0.311** 0.308** 0.329** 0.264**
P4.4 0.138* 0.165** 0.088 0.193** 0.271** 0.250** 0.242** 0.206** 0.194** 0.405** 1.000 0.289** 0.280** 0.261** 0.237** 0.270**
P4.5 0.149** 0.252** 0.148** 0.141* 0.189** 0.172** 0.129* 0.314** 0.401** 0.396** 0.289** 1.000 0.647** 0.333** 0.455** 0.207**
P4.6 0.231** 0.249** 0.306** 0.178** 0.277** 0.152** 0.056 0.307** 0.475** 0.311** 0.280** 0.647** 1.000 0.286** 0.479** 0.149**
P4.7 0.065 0.289** 0.070 0.082 0.181** 0.176** 0.190** 0.181** 0.227** 0.308** 0.261** 0.333** 0.286** 1.000 0.268** 0.319**
P4.8 0.290** 0.375** 0.175** 0.162** 0.184** 0.238** 0.126* 0.190** 0.366** 0.329** 0.237** 0.455** 0.479** 0.268** 1.000 0.244**
P4.9 0.125* 0.145** 0.123* 0.310** 0.363** 0.361** 0.457** 0.189** 0.113* 0.264** 0.270** 0.207** 0.149** 0.319** 0.244** 1.000

P3.1 P3.2 P3.3 P3.4 P3.5 P3.6 P3.7 P4.1 P4.2 P4.3 P4.4 P4.5 P4.6 P4.7 P4.8 P4.9

P1.1 0.228** 0.050 0.211** 0.155** 0.172** 0.171** 0.249** 0.265** 0.091 0.150** 0.130* 0.097 0.101 −0.035 0.078 0.163**

P1.2 0.160** −0.008 0.147** 0.186** 0.087 0.187** 0.254** 0.267** 0.052 0.093 0.088 0.076 0.063 −0.002 0.082 0.153**

P1.3 0.048 0.005 0.162** 0.207** 0.129* 0.200** 0.195** 0.173** 0.154** 0.113* 0.140* 0.068 0.092 0.005 0.107 0.129*

P1.4 0.045 0.001 0.033 0.082 0.097 0.217** 0.265** 0.167** 0.155** 0.185** 0.183** 0.138* 0.158** 0.096 0.086 0.122*

P1.5 0.069 0.050 0.137* 0.129* 0.119* 0.181** 0.206** 0.216** 0.150** 0.164** 0.199** 0.096 0.117* 0.078 0.115* 0.127*

P1.6 0.013 0.032 0.055 0.170** 0.103 0.201** 0.358** 0.219** 0.012 0.042 0.175** 0.053 0.010 0.076 0.024 0.221**

P1.7 −0.021 0.069 0.014 0.154** 0.119* 0.263** 0.291** 0.161** 0.064 0.102 0.186** 0.072 0.014 0.132* 0.029 0.189**

P1.8 0.037 0.094 0.099 0.131* 0.032 0.198** 0.147** 0.181** 0.185** 0.170** 0.139* 0.232** 0.227** 0.106 0.169** 0.023

P2.1 0.074 0.161** 0.106 0.163** 0.142* 0.211** 0.219** 0.238** 0.174** 0.167** 0.261** 0.202** 0.178** 0.129* 0.194** 0.178**

P2.2 0.070 0.172** 0.078 0.117* 0.152** 0.196** 0.195** 0.249** 0.298** 0.270** 0.274** 0.285** 0.253** 0.164** 0.183** 0.159**

P2.3 0.039 0.114* 0.118* 0.183** 0.148** 0.263** 0.276** 0.107 0.064 0.087 0.177** 0.080 0.066 0.040 0.066 0.184**

P2.4 0.116* 0.178** 0.188** 0.319** 0.261** 0.260** 0.269** 0.222** 0.184** 0.153** 0.217** 0.195** 0.180** 0.172** 0.190** 0.320**

P2.5 0.098 0.343** 0.136* 0.201** 0.155** 0.165** 0.161** 0.208** 0.211** 0.160** 0.085 0.214** 0.224** 0.102 0.230** 0.122*

P2.6 −0.012 0.063 0.041 0.291** 0.163** 0.213** 0.290** 0.227** 0.188** 0.177** 0.205** 0.189** 0.136* 0.147** 0.104 0.254**

P2.7 −0.025 0.046 0.037 0.215** 0.027 0.082 0.169** 0.234** 0.109 0.139* 0.146** 0.139* 0.128* 0.051 0.053 0.142*

P2.8 0.082 0.105 0.064 0.158** 0.061 0.183** 0.183** 0.165** 0.194** 0.189** 0.189** 0.126* 0.154** 0.047 0.142* 0.126*

P3.1 1.000 0.377** 0.376** 0.234** 0.238** 0.176** 0.062 0.144** 0.214** 0.159** 0.138* 0.149** 0.231** 0.065 0.290** 0.125*

P3.2 0.377** 1.000 0.262** 0.185** 0.241** 0.217** 0.084 0.105 0.194** 0.238** 0.165** 0.252** 0.249** 0.289** 0.375** 0.145**

P3.3 0.376** 0.262** 1.000 0.501** 0.377** 0.172** 0.124* 0.176** 0.230** 0.139* 0.088 0.148** 0.306** 0.070 0.175** 0.123*

P3.4 0.234** 0.185** 0.501** 1.000 0.482** 0.351** 0.307** 0.111* 0.221** 0.147** 0.193** 0.141* 0.178** 0.082 0.162** 0.310**

P3.5 0.238** 0.241** 0.377** 0.482** 1.000 0.540** 0.364** 0.133* 0.156** 0.276** 0.271** 0.189** 0.277** 0.181** 0.184** 0.363**

P3.6 0.176** 0.217** 0.172** 0.351** 0.540** 1.000 0.502** 0.097 0.132* 0.244** 0.250** 0.172** 0.152** 0.176** 0.238** 0.361**

P3.7 0.062 0.084 0.124* 0.307** 0.364** 0.502** 1.000 0.112* 0.106 0.180** 0.242** 0.129* 0.056 0.190** 0.126* 0.457**

P4.1 0.144** 0.105 0.176** 0.111* 0.133* 0.097 0.112* 1.000 0.378** 0.360** 0.206** 0.314** 0.307** 0.181** 0.190** 0.189**

P4.2 0.214** 0.194** 0.230** 0.221** 0.156** 0.132* 0.106 0.378** 1.000 0.293** 0.194** 0.401** 0.475** 0.227** 0.366** 0.113*

P4.3 0.159** 0.238** 0.139* 0.147** 0.276** 0.244** 0.180** 0.360** 0.293** 1.000 0.405** 0.396** 0.311** 0.308** 0.329** 0.264**

P4.4 0.138* 0.165** 0.088 0.193** 0.271** 0.250** 0.242** 0.206** 0.194** 0.405** 1.000 0.289** 0.280** 0.261** 0.237** 0.270**

P4.5 0.149** 0.252** 0.148** 0.141* 0.189** 0.172** 0.129* 0.314** 0.401** 0.396** 0.289** 1.000 0.647** 0.333** 0.455** 0.207**

P4.6 0.231** 0.249** 0.306** 0.178** 0.277** 0.152** 0.056 0.307** 0.475** 0.311** 0.280** 0.647** 1.000 0.286** 0.479** 0.149**

P4.7 0.065 0.289** 0.070 0.082 0.181** 0.176** 0.190** 0.181** 0.227** 0.308** 0.261** 0.333** 0.286** 1.000 0.268** 0.319**

P4.8 0.290** 0.375** 0.175** 0.162** 0.184** 0.238** 0.126* 0.190** 0.366** 0.329** 0.237** 0.455** 0.479** 0.268** 1.000 0.244**

P4.9 0.125* 0.145** 0.123* 0.310** 0.363** 0.361** 0.457** 0.189** 0.113* 0.264** 0.270** 0.207** 0.149** 0.319** 0.244** 1.000

The table lists the Spearman rho values.

statistically significant relationship at α = 0.01,

dependence statistically significant at α = 0.05. To facilitate the analysis, the yellow background highlights correlations within a given block, whereas the grey colour highlights correlations between selected different blocks.

Source: own study.

With respect to detailed analyses, it should be pointed out that in the dimension of task flexibility, P1.1 and P1.2 are most closely related to each other; the greater the flexibility in changing the type of tasks performed, the more flexibility regarding their scope (and vice versa): rho = 0.575. In addition, the greater the flexibility in parallel multitasking, the greater, on average, the openness to the reactive change of tasks (and vice versa) – rho = 0.569. In turn, flexibility in the scope of changing technical and technological solutions related to the performance of tasks goes, to a small extent, hand in hand with flexibility regarding the type of tasks performed (rho = 0.161).

In the case of the functional flexibility dimension, particularly striking is the relationship between work flexibility in different types of teams as well as in teams performing various functions (rho = 0.612) and between the flexibility of performing different team roles in the same team and performing different team roles in parallel (formally unspecified functions in the team, eg Initiator, Team Soul) (rho = 0.606) and performing different team roles in different teams (rho = 0.531).

In the time flexibility dimension, the strongest relationship is observed between the separation of individual working time from the overall working time of the organisation versus asynchronous presence at work due to different working hours (rho = 0.540) and self-organisation of working time (rho = 0.502) and also between the change in working time and its distribution (rho = 0.501).

However, in the dimension of spatial flexibility, the relationship between the frequency of short- and medium-term trips is clearly distinguishable (rho = 0.647). The relationship between flexibility in working in another town/country and short- and medium-term trips is quite strong (rho 0.455 and 0.479, respectively).

It is also worth noting that the performance of tasks outside the workplace (P4.9) is strongly related also to the items from block 3, especially with self-organisation of working time (P3.7), asynchronous presence at work (P3.5), separation of individual working time from the general work time of the organisation (P3.6), and change of the working time distribution (P3.4). Self-organisation is quite strongly related to parallel multitasking (P1.6). The performance of different organisational roles in parallel in several organisations (P2.5) is in turn quite strongly related to the work in two or more organisations at the same time (P3.2). In the course of further work, the compliance of the obtained data with the value of the latent variable to be described was subjected to empirical verification. The assessment of theoretical accuracy by means of factor analysis requires that the sample size should not be less than 50 elements (Sapnas & Zeller, 2002). Tabachnick (2007) suggests that the sample should have at least 300 elements. Another determinant in this respect is STV, ie the relationship between the number of variables and the sample size was at a level not lower than 5:1 (Costello, Osborne, 2005). In this case both conditions are met: n = 322 (thus even the strictest Tabachnick criterion is met), while STV = 32/322 = 9.9. Factor analysis also requires that the variables analyzed, measuring the latent variable in a synthetic way (here, employee flexibility), are strongly correlated with each other, which is assessed on the basis of the correlation coefficients between variables and in particular on the basis of the KMO measure (Kaiser-Meyer-Olkin) and Bartlett’s sphericity test. It is recommended that the KMO should have a value not lower than 0.5, while the H0 hypotheses are tested in the sphericity test: the correlation matrix is the unit matrix, for H1 : H0 (and therefore it is expected that p < α) (Field, 2000). In this study, KMO is high (0.856), and the sphericity test is significant (χ2 = 3893.3, df = 496, p < 0.001 *). In addition, for each variable the coefficient on the diagonal of the matrix of inverse image correlation significantly exceeds the threshold value of 0.5, and the correlation matrix determinant is close to 0. As mentioned earlier, in the adopted set of 32 variables there is not one that would be irrelevant to most other items (Table 2). This confirms the legitimacy of conducting the factor analysis based on the extracted list of flexibility indicators.

The resources of shared variability can be estimated using various methods, the most popular being the maximum likelihood factor analysis (MLFA) and the principal axis factoring (PAF) method, as well as – most often used – the adaptation of Hotelling’s classic method of main components for factor analysis (Walesiak & Gatnar, 2009; de Winter & Dodou, 2012). The main component method was used in this study. The communalities (ZZW) – and therefore a part of the common variance presented by a given index – are quite high for most variables, the exceptions being P1.8, P3.1, P3.3, P4.1, P4.4, and P4. 7 (ZZW does not even exceed 0.3; see Table 3). This may mean the need to eliminate the abovementioned variables from the final catalogue of flexibility indicators. In the case of other variables, the results confirm their significant discriminant power.

Communalities for individual FOBE items.

Communalities Communalities Communalities Communalities
P1.1 0.523 P2.1 0.455 P3.1 0.222 P4.1 0.297
P1.2 0.487 P2.2 0.437 P3.2 0.371 P4.2 0.530
P1.3 0.532 P2.3 0.395 P3.3 0.242 P4.3 0.382
P1.4 0.430 P2.4 0.533 P3.4 0.452 P4.4 0.293
P1.5 0.474 P2.5 0.493 P3.5 0.625 P4.5 0.622
P1.6 0.454 P2.6 0.683 P3.6 0.534 P4.6 0.626
P1.7 0.400 P2.6 0.659 P3.7 0.530 P4.7 0.260
P1.8 0.292 P2.8 0.564 P4.8 0.504
P4.9 0.490

Source: own study.

The next step in verifying the validity of the model is to determine whether within the 32 theorems examined the four areas, in accordance with the assumptions, should be distinguished. For this purpose, mainly, the Kaiser criterion (factors for which the eigenvalue is greater than 1 were selected) and the Cattell criterion (in the scree plot, the number of factors is determined on the basis of the “scree” slope) were used (Wiktorowicz, 2016). The Kaiser Criterion points to as many as eight factors (components) that explain a total of 61.9% of the variance of the latent variable, while the last four factors explain it in only for 3%–5%, and additionally, generate factors consisting of single variables. The scree plot confirms the legitimacy of distinguishing four dimensions of the flexibility of organisational behaviour of employees. These factors explain in total 46.2% of the variance of the latent variable, of which the first factor, corresponding to the task flexibility (EZ) explains 23.7%; the second, spatial flexibility (EP), 9.9%; the third, functional flexibility (EF), 6.5%; and the last one, temporal flexibility (EC), in 6.1% (Table 4).

Results of factor analysis of behavioural flexibility indicators.

Item Component
TF SF FF Temp F
P1.3. Change in the scope of knowledge, skills, and attitudes used during work 0.717 0.033 0.047 0.119
P1.1. Change in the type of tasks performed 0.703 0.027 −0.070 0.154
P1.2. Change in the scope of tasks performed 0.682 0.005 0.022 0.145
P1.5. Change in the manner of performing work 0.665 0.091 0.153 0.025
P1.4. Change in the method of performing work 0.633 0.136 0.082 0.073
P2.1. Work in various types of teams 0.612 0.180 0.205 0.086
P1.6. Parallel multitasking 0.556 −0.056 0.311 0.215
P1.7. Reactive change in tasks 0.545 −0.062 0.245 0.197
P2.2. Work in teams exercising various functions 0.487 0.276 0.355 −0.001
P2.3. Work in heterogeneous teams 0.475 −0.001 0.357 0.210
P1.8. Change in technical and technological solutions related to task performance 0.466 0.219 0.156 −0.066
P4.6. Medium-term trips 0.067 0.786 0.052 0.008
P4.5. Short-term trips 0.040 0.777 0.127 0.038
P4.2. Diagonal movements 0.113 0.707 0.127 −0.036
P4.8. Work in a different organisation in a different town/country 0.033 0.705 0.016 0.076
P3.2. Work in two or more organisations at the same time −0.024 0.573 0.101 0.178
P4.3. Work in the same organisation but in a different town 0.106 0.550 0.077 0.246
P4.1. Horizontal movements 0.252 0.457 0.141 0.075
P4.7. Rotational trips −0.099 0.425 0.114 0.234
P3.1. Work based on non-standard forms of employment 0.122 0.373 −0.170 0.205
P2.7. Playing various roles in the same team 0.136 −0.012 0.798 0.054
P2.6. Playing various roles in teams in parallel 0.215 0.040 0.769 0.212
P2.8. Playing various roles in various teams 0.228 0.161 0.696 0.034
P2.5. Playing different roles in a number of organisations in parallel 0.089 0.264 0.636 0.064
P2.4. Playing different roles in a number of organisations one after another 0.238 0.153 0.615 0.274
P3.5. Asynchronous attendance due to diverse working time 0.013 0.181 0.004 0.770
P3.6. Separation of individual working time from the general working time of the organisation 0.197 0.128 0.060 0.689
P4.9. Performing tasks outside the workplace 0.054 0.130 0.155 0.667
P3.7. Self-organisation of working time 0.250 0.015 0.169 0.661
P3.4. Change in working time arrangements 0.107 0.107 0.182 0.631
P4.4. Business trips 0.167 0.349 0.121 0.358
P3.3. Change in working time 0.163 0.296 −0.063 0.356
Degree of explained variance (%) 23.7 9.9 6.5 6.1

Source: own study.

The determined values of factor loadings (using Promax’s slanted rotation) indicate the degree of connection of a given item with a specific factor. Rotation is used to simplify and refine the data structure (Malarska, 2005). There are two groups of rotation methods: orthogonal (assuming lack of correlation of factors: Varimax, Quartimax, Equamax) and diagonal, recommended when factors are correlated (Promax, Oblimin, Geomin). In the absence of a correlation of factors, both methods lead to analogous results. This was also the case with this study. As emphasised earlier, items within particular blocks were poorly correlated with items in other areas. This could indicate the orthogonal rotation method (Varimax was used). Simultaneously, the diagonal method Promax (with kappa = 4) was used, which showed a relatively low degree of linkage of the isolated factors (the highest correlation coefficient applied to blocks 1 and 4, task and spatial flexibility, and the correlation coefficient of these factors was the highest at 0.455). However, the factor structure, determined using both methods, was analogous; hence, the results were finally presented using Varimax rotation (Tab. 4).

The results presented confirm the importance of task-based flexibility, decisive for the overall flexibility of employees, as this factor is the main component, explaining 23% of its variance. This group also includes those theorems treated in the theoretical model as elements of functional flexibility (P2.1, P2.2 and P2.3; their factor loadings for the EF component are also quite high). Nevertheless, three of the items included here (P2.2 and P2.3, as well as P1.8) obtained factor loadings lower than 0.5. The most important factor for the flexibility of employees is the change in the scope of competencies used during work, the type and scope of tasks performed, and the manner and methods of performing work. These are followed by work in various types of teams, parallel multitasking, and reactive change of tasks (Table 4).

The second factor, explaining about 10% of the total variance of flexibility, includes a total of nine variables from block 4 (spatial flexibility). This area is, therefore, the second most important for the overall flexibility of employees (with short- and medium-term trips, diagonal displacement, work in another organisation in another town or country being at the top of this particular factor). This group also included work in two or more organisations at the same time and work in the same organisation but in another town. Amongst the variables treated in the model as indicators of spatial flexibility, the low values of factor loadings should be noted for P4.1 and P4.7, as well as the ambiguous identification (associated with several factors) of P.3.1, work based on non-standard forms of employment (Table 4).

The next most important area of behaviour flexibility is functional flexibility. Amongst the eight indicators of flexibility taken into account in this dimension (in the light of factor analysis), it seems appropriate to include five: performing in the same team or parallel different team roles (these two elements are the most important), as well as performing in parallel different team/organisational roles in different teams or organisations (P2.4, P2.5, P2.6, P2.7 and P2.8).

In the last group, including theorems regarding temporal flexibility, in the light of factor analysis, five indicators seem to be justified: asynchronous presence at work due to differentiated working time, separation of individual working time from the general working time of the organisation, self-organisation of working time, and change of working time distribution. P4.9 was also included in this group, performing tasks outside the workplace, which, in accordance with assumptions, is an element of spatial flexibility. Factor loadings are also quite high for other dimensions of flexibility, although on a statistical basis this variable is most strongly associated with time flexibility. Guided by theoretical premises, however, we decided to include this item in the dimension of spatial flexibility.

At the next stage of research, confirmatory factor analysis (CFA), belonging to the class of structural equation models that allows for verification of a specific theoretical model, was used. The assumed measurement model was characterised by satisfying adjustment measures in the light of the most frequently accepted criteria: χ2 / df = 2.73; RMSEA = 0.073; p (RMSEA < 0.05); CFI = 0.837. The obtained standardised regression coefficients were interpreted as factor loadings of the indicator for each of the separate dimensions. The test results confirmed that all indicators reach values above 0.4. Thus, it can be concluded that the four separate dimensions are well reflected by their indicators; moreover, the results confirm the factorial accuracy and internal coherence of the distinguished dimensions of behaviour flexibility.

DISCUSSION

In accordance with the assumptions adopted, the empirical analysis in this work covered the dimensions of flexibility described with the help of clusters of indicators, not separate incidents of behaviour. With respect to the first research question:

the findings confirmed the existence of links between the behavioural indicators assigned to individual dimensions of flexibility. In most cases, this is a statistically significant and positive correlation (virtually for each pair of variables).

However, the strength of relationships between indicators in individual dimensions is diverse, and in addition, trans-dimensional statistical dependencies have also been noted. Such a state may result, among others, from the fact that diverse behaviours may have a common source in a specific organisational solution. For example, employee mobility programs change not only the scope of tasks performed (task flexibility), but also the roles performed (functional flexibility) or the place of work (flexibility of space). Sometimes, however, different solutions may lead to the same behaviours; multitasking may result from the implementation of agile management methodology, but it may also be the result of employment reduction or implementation of work humanisation methods. For this reason, it should be assumed that for the description of behaviour it seems justified to refer not so much to the organisational solutions themselves as to the indicators of flexible behaviour.

With respect to the second question, it should be noted that

the results of the statistical analysis also confirmed the heterogeneity of behavioural flexibility and the legitimacy of separating it into four dimensions connected with the general category. (These dimensions explain in total 46.2% of the variance of the latent variable.)

However, in the theoretical model, it was assumed that each dimension of flexibility distinguished is equivalent, while empirical studies have shown that for flexibility characteristics of employee organisational behaviour, task flexibility is most important (it explains it in 23.7%), followed by spatial flexibility (9.9%), functional flexibility (6.5%), and finally – time flexibility (6.1%). The discrepancies revealed indicate (in the course of further work) the need to give individual dimensions varied variable weights, the size of which will depend on the assessment of information affluence (discriminant ability and information capacity) of diagnostic variables.

In answer to the third question confirmatory factor analysis (CFA) also confirmed the internal consistency of the categories highlighted in the FOBE model:

the four dimensions of behavioural flexibility are well reflected by the indicators describing them, meaning they should be considered qualitatively accurate and coherent.

Therefore, it should be recognised that the FOBE model presented in the article is a proposal for a consistent and terminological description of the flexibility of the organisational behaviour of employees. In the theoretical model, flexibility is treated as a heterogeneous category, thanks to which, in the empirical dimension based on identified indicators, it becomes possible not only to determine the general level of flexibility of behaviour but also the flexibility in these dimensions (task-oriented, functional, temporal and spatial).

RECOMMENDATIONS AND LIMITATIONS

The concept presented in the article may constitute the basis for testing the flexibility of organisational behaviour of employees. It can also be used as a basis for research on broadly understood changes in this area, as has been said before. Both directions of research seem to be equally prospective, as it should be expected that in the era of such dynamic changes, the methodological recognition of organisational behaviour will be increasingly desirable. It can also be used for research on the relationship between the implemented organisational changes and behaviours, as well as the assessment of their psychological, economic, social, and professional costs. The methodical description of behaviour, based on the FOBE, also enables the tracking of the direction and pace of the transformations taking place.

On the basis of this concept, it is possible to perform both a qualitative analysis – a comparison of the results obtained for individual categories and the size of the differences between them; an indication of the dominant elasticity and the secondary elasticity; and a qualitative interpretation of the identified behaviours, and quantitative – defining the level of general flexibility and the levels of partial flexibility.

Indicators can be used to assess the level of flexibility of organisational behaviour, to estimate, on the basis of the sum of the identified indicators and their frequency, how often an employee undertook flexible behaviour. However, their proper application in various areas of organisation and management requires respecting certain rules:

when one interprets the results as desired or undesirable, the requirements of the job and the characteristics of the entire organisation should be taken into account each time;

it is also advisable to take into account the information contained in the curriculum vitae of the person examined;

it is also recommended to deepen the diagnosis made on the basis of the FOBE questionnaire with additional assessment tools, eg an interview, before taking radical management decisions;

the obtained results should be treated descriptively. So far, no actions have been taken to determine predictive or explicatory value. Specifying a level of flexibility is not sufficient to make inferences about the future. The fact that an entity has undertaken flexible activities over the last year does not mean that it will also do so in the future. In accordance with the principle of consistency of behaviour, we can expect on this basis that it will be more or less inclined to them; however, such conclusions should be confirmed by an analysis of the situational conditions.

The principles formulated above are not limiting. However, since the FOBE concept is used to study organisational behaviour of employees and thus individual patterns of behaviour of an individual, there is a justified fear of overly instrumental treatment of the tool and a simplified interpretation of the results. That is why it is so important to properly define the rules and scope of using the obtained data.