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Article

How do Knowledge Management Practices Affect Sustainable Balanced Performance? Mediating Role of Innovation Practices

by
Changiz Valmohammadi
1,2,*,
Javad Sofiyabadi
3 and
Bahare Kolahi
4
1
CENTRUM Católica Graduate Business School (CCGBS), Lima 15023, Peru
2
Pontificia Universidad Católica del Perú (PUCP), Lima 15023, Peru
3
Firoozkooh Branch, Islamic Azad University, Firoozkooh 3981838381, Iran
4
Department of Business Administration, Faculty of Economic and Management, Semnan University, Semnan 3513119111, Iran
*
Author to whom correspondence should be addressed.
Sustainability 2019, 11(18), 5129; https://0-doi-org.brum.beds.ac.uk/10.3390/su11185129
Submission received: 5 June 2019 / Revised: 16 July 2019 / Accepted: 23 July 2019 / Published: 19 September 2019
(This article belongs to the Section Economic and Business Aspects of Sustainability)

Abstract

:
The main purpose of this study is to investigate the mediating role of innovation practices (IP) amidst relations of knowledge management practices (KMP) and sustainable balanced performance (SBP). Furthermore, this research illustrates a comprehensive empirical study in the Iranian knowledge-based industrial companies that are the manufacturers of advanced machineries and equipment. First- and second-order exploratory factor analysis (EFA) was done to confirm constructs validity. Then, relations among variables were studied by applying the partial least squares (PLS) technique to collected data from 104 industrial knowledge-based companies. The results obtained from the analysis supported all the research hypotheses. KPM significantly and strongly affects IP and SBP. Also, IP mediates the relations between KPM and SBP in industrial knowledge-based firms.

1. Introduction

Due to the importance of knowledge-based companies in the Iranian industry [1], it is necessary to pay particular attention to the performance management of these companies because the emergence and sensitivity of knowledge-based companies performance management affects their survival, growth, and maturity. Performance is a multi-dimensional concept and can be affected by many components, but with a balanced and sustainable approach, it is possible to see how a comprehensive approach could improve performance. In fact, the main topic of the present research is to address the issue of empirical study about sustainable balanced performance (SBP) in the context of Iranian knowledge-based companies. These companies, in order to attain their set corporate vision, should attempt to increase the existing synergy in all the aspects of business. To achieve this important goal, top managers of knowledge-based companies select, implement, and develop activities related to business and make attempts to cope with the inconsistencies. Ref. [2] states, that implementation of sustainability issue related to strategic system (such as performance management) requires knowledge and the application of management tools. Knowledge, activities focusing on knowledge, and knowledge management systems have continuously been able to act as a suitable drive for the growth and development of organizational performance [3,4,5,6]. Knowledge-based and technology-driven companies, as a knowledge system, are always counted as a main resource for social growth and wealth creation [7] that, because of their roles in social, economic, and international competitiveness, paying attention to their activities was crucial [8]. Researcher believes that innovation activities are considered as an important and key source in accessing competitive sustainable advantages, flexibility, and overcoming inconsistencies [9]. According to study by [10], and by searching in scientific engines like Web of science and Scopus, we found that most research and studies in the domain of SBP are based on a mathematical approach [11,12]. In addition, other researchers have paid attention to performance issues according to traditional approaches [13,14,15]. Although these studies [11,12] have addressed SBP issues, to the best knowledge of the authors, the concept of SBP has not been addressed in an empirical study. Therefore, in order to bridge the extant gap in the literature, this study was done.
The main objective of this research is to study the impact of knowledge management practices (KMP) on SBP by emphasizing the mediating role of IP among industrial knowledge-based companies manufacturing advanced equipment and machinery. The main question for activists and business owners in a knowledge-based economy is how organizations can create value and a new business model as well as how to present appropriate performance of their products and services by exploring and exploiting different layers of knowledge in order to obtain strategic results, growth, and survival of a business along with a sustainable balanced performance by focusing on potentials and capacities of knowledge according to environment changes and activities of competitors. However, paying attention to different aspects of performance has always had an impact on activities of managers and organizations. It must be noted that organizations can develop organizational capacities by considering activities related to business development such as knowledge activities or increase the organization strength in face of changes and inconsistencies by enhancing acquisition capacities [16] such that the business environment improves by focusing on innovation activities.
With the increase in global competitiveness in main industries, governments have attempted to emphasize the growth and development of industrial activities based on knowledge by presenting support policies. One of these most used industries is the machinery industry (the industry of producing advanced equipment and machinery), such that its status had an impact on industrial and productive development of the country. The survey of the situation of the Iranian machinery industry showed that this industry, despite high human capacity and industrial opportunities and a desirable market at the national and international level, has not been able to achieve a superior performance against its competitors.
In this research, we have tried to answer the two identified scientific and applied gaps. First, as previously mentioned, there is a negligence of empirical research on SBP. Also, the relationship between KMP and SBP and the mediating role of IP have not been considered. Second, due to the role of knowledge-based companies in the national economy of Iran, efforts have been made to improve the performance gap among the surveyed companies through presenting and validating a conceptual model that might serve a set of guidelines and a comprehensive view for executive managers and policymakers in this industry in order to be able to play an effective role in the improvement and growth of knowledge-based industries. Managers and policymakers, by paying attention to the presented conceptual model and development of this model at the macro level, can help increase the capabilities of the industry. Pursuing current research objectives may be relevant from both a scientific and a managerial standpoint because knowledge-based companies, in addition to executive activities, need to keep their operating structures up-to-date by the scientific approach. Since the resources of countries for entering in all the aspects of technology is not sufficient, it is important to inspire economic growth and business dynamism by concentrating on the most important industrial activities with the maximum competitive advantage. In this regard, the current research has attempted to fill the performance gap within the studied firms by examining a scientific hypothesis. This research provides the concepts, functions, and guidelines in the field of organization and management for active entrepreneurs in the knowledge-based economy to enable their firms to achieve higher success in value and wealth creation through the application of the presented concepts. The main issue of the present research can possibly be studied under the following question:
How do KMP and IP impact SBP of industrial knowledge-based companies, manufacturing advanced equipment and machineries?
Although research on the subject of knowledge management, innovation, and performance has been vastly investigated by other researchers, as discussed, the novelty of the current study is to develop an empirical study about SBP in Iranian knowledge-based industrial companies, which are the manufacturer of advanced machinery and equipment. In the following paper, after explaining theoretical foundations, the research background will be studied, and the conceptual model and research hypotheses obtained from theoretical foundations and background will be presented. Then, the research methodology is studied, and finally, the results are scrutinized through an analysis of the findings.

2. Theoretical Foundations and Research Background

In this research, the influence of three main variables in organization is studied (knowledge management, innovation, and sustainable balanced performance). Therefore, it is advisable to consider a conceptual and inter-functional chain for these concepts. To achieve desirable performance, organizations must enhance infrastructures and soft and hard currents to become able to shape regular mechanisms by adapting infrastructures and working systems such that they get remarkable results through exploitation of this field and business dynamicity. By adapting current dynamisms in knowledge management and innovation practices, organizations can expect proper results and improved performance. KMP has a holistic effect on business dimensions. In this regard, Garcia-Morales et. al. [17] and Tang et. al. [18] refer to the role of activities and capabilities of knowledge and innovation for the benefit of businesses. Other benefits of knowledge management activities for the organization include the following:
-
KMP reinforces purchasing activities [19];
-
KMP reinforces logistics activities [20];
-
KMP is appropriate enabler for firm performance [21];
-
KMP shows its effects on performance evaluation and creation of a proper value chain [22].
Ahmad et al. [23] add that knowledge management is a topic around the increase in strength of an organization to benefit from correct methods of information management and organizational acquisition, which can influence operative performance, business, and organization. Focusing on innovation activities, we can expect the business to grow and flourish [24] such that the business becomes hopeful of its survival by improving performance [25]. Shujahat [26] believes that knowledge-based employees can boost the relationship and the impact between knowledge management and innovation. In the following, each studied variable is presented with a review of the literature.

2.1. Knowledge Management Practices

Knowledge management practices result in the supply of competencies and required capacities to empower the organization (value creation) through knowledge discovery and novel methods [27]. Knowledge management functions develop innovation capacities [28] and functional outcomes [29,30]. Applying knowledge management practices like creating and sharing knowledge leads organizations to growth, innovation, the creation of new business models, and the creation of proper position in their own industry. It can be stated that, with creation and expansion of knowledge networks, not only organizations benefit, but it can be beneficial for the society, environment, and economy [31]. By developing knowledge activities, an organization designs a proper strategy to interact with the environment [32], which create a sustainable competitive advantage by leading these activities [33]. The vastness of knowledge management practices is of high importance, to the extent that it fertilizes general and technical capacities in the organization along with the impact on innovation practices within the organization [34]. Knowledge management increases the formality of accessing experience, knowledge, expertise, and new abilities and increases the value transferred to customers by encouraging innovation procedures. The results obtained from this procedure, improves knowledge and experience in organization along with improvement of innovation [35]. By collecting experiences of presented values to customers, innovation capacities remain in the long run [36]. Knowledge management practices in this research are considered through four aspects (knowledge creation, knowledge acquisition, knowledge storage, and knowledge sharing) based on the studies of Valmohammadi and Ahmadi [37].

2.2. Innovation Practices

Innovation is a vital element for the success of organizations to create a series of profitable long-term activities [38]. Innovation and soft activities in an organization are inseparable. The dependence of these two dues on social changes and economic challenges makes innovation systems more complex [39]. As a consequence, it is best that organizations cooperate with academics to overcome this complexity and lead to new and innovative products, services, and work procedures. Innovation consists of exploring, discovering, sharing, and benefiting from knowledge to achieve a new product, knowledge, or process that can alter the skills, standards, technologies, services, and products of the organization [40]. In fact, innovation in a product refers to the invention and creation of new products and services and making them commercialized, but innovation in processes refers to the application of novel technologies and the creation of fundamental changes in a product manufacturing or a service [41]. Un and Asakawa [42] believe that cooperation of organizations and knowledge centers can positively affect innovation within the process of products and services. Innovation changes science and technology, leads to growth and economic development, and provides proper solutions for removing social issues and economic crises by introducing products and services based on benefits of society, environment, and economy, such that it creates new values by creation of new chances [43]. Many aspects of innovation process must be considered to make research and development policies during the changes. Innovation is a challenge for alternative manufacturing but is responsible for its implementation and study of the results. In other words, innovation is responsible for research development, statement, and stability [44]. It must be noted that cooperation between knowledge-based organizations and universities can help in meeting the expectations of innovation [45]. Also, cooperation between industry and university can be as a driving force for growth and development of innovation in all its aspects [46]. Researchers emphasize that the components applied for studying innovation variable in conceptual model of research is based on studies conducted by Valmohammadi [47].

2.3. Sustainable Balanced Performance

In order to create a comprehensive mechanism for success against economic dangers and confronting environmental, economic, and social problems, organizations need comprehensive approaches to overcome threats, obtain success, and react properly to responsibilities in society and the environment [10]. The origin of these approaches and tools considering sustainable balanced performance and sustainable-oriented management can be traced in the concepts presented by Kaplan and Norton [48,49]. Sustainable balanced performance can be sought in the goals of integration and organizational strategies with social, ethnical, and environmental goals [50]. This integration of goals can be created by considering current performative measures, designing a new performative measure, and linking among measures. Studying the impacts of knowledge management and innovation practices in the studied companies was going to discover the effects of these variables on corporate sustainability management. Studying these effects on sustainable balanced performance and corporate sustainability management was conducted through a sustainable balanced scorecard. Paying attention to corporate sustainable management and sustainable balanced performance lets the organization consider all three dimensions of the sustainability issue and avoid parallel systems by perceiving economic, environmental, and social matters. It should mention that the operational definition of variables regarding SBP and the society ad environment perspective were adopted based on [10,50,51,52] and [50,53], respectively.

3. Research Design

3.1. Conceptual Model of Research and Hypotheses

According to the literature, it can be expected that sustainable balanced performance (as a dependent variable) of industrial knowledge-based companies, manufacturing advanced machineries, and equipment can be boosted through the development of knowledge management practices (as an independent variable). In addition, innovation in these companies can be influenced by the development and focus on knowledge management practices toward positive changes in sustainable balanced performance, especially by integrating innovation and knowledge management practices. Based on the presented discussions in previous sections, the conceptual model is presented in Figure 1. Therefore, and based on the presented conceptual model, this study puts forth the following three hypotheses:
Hypothesis 1 (H1). 
Knowledge management practices affect positively and significantly sustainable balanced performance.
Hypothesis 2 (H2). 
Knowledge management practices affect positively and significantly innovation practices.
Hypothesis 3 (H3). 
Innovation practices affect positively and significantly sustainable balanced performance.

3.2. Research Methodology

Given the main objective of the study, the current research is empirical and applied. As was mentioned earlier, the present research tries to study the relationships among the following three latent variables: knowledge management practices, innovation practices, and sustainable balanced performance. It is noteworthy that the latent variables were studied by measuring observed variables, as pointed out in Figure 1. In order to examine the accuracy of research constructs and implement structural model and measurement model, a questionnaire according to the Likert scale was designed, and respondents were asked to answer the questions ranging from 1 to 5 (extremely disagree and to extremely agree). In order to ascertain the accuracy and precision of the questionnaires, 25% of the comments of the population was studied, and then questionnaires were distributed to collect data from a sample population. It should be mentioned that the designed questionnaire was distributed among senior managers of the surveyed companies. To have a higher rate of response among the sample population, a reminder was sent after 10 days asking the respondents to answer the questionnaire within five days. After confirmation of the accuracy and precision of the questionnaire, other steps of research were followed. It is noteworthy that the population of current research is knowledge-based companies active in the industry of manufacturing advanced machinery and equipment of Iran. According to reports from websites as subsets of the Information Technology Deputy of presidency of Iran, the number of companies active in this industry is 154. Based on Conchran sampling formula [54], the sample size of the present research was estimated as follows:
n = N × Z α 2   2 × σ 2 ε 2 × ( N 1 ) + Z α 2   2 × σ 2
N = Population size, σ = “Standard deviation”, α = significant level, and ε = accuracy.
n = 154 × ( 1.96 ) 2 × 0.5 × 0.5 ( 0.05 ) 2 × 153 + ( 1.96 ) 2 × 0.5 × 0.5 = 110
Content validity of questionnaires was confirmed by referring to supporter comments and reviewed literature as well as the consensus of experts. The reliability of the information collection tool was studied through exploratory factor analysis and factor loading determination. Regarding the return rate of questionnaires, it must be noted that, with respect to the questionnaires, 15 of them were not used, or they were partially filled out, because of which senior managers were asked to fill them out, again according to the guidance made in introductory sessions. After two months, all questionnaires were entirely readable and accurate and used for analyses. A statistics method was set and applied at two stages. The first stage is the exploratory factor analysis to confirm variables and questionnaires used within the research. In this stage, it was run in SPSS V.25 by extraction factor loading related to each variable. The second stage, after reiteration and update of the research model based on outputs of exploratory factor analysis, partial least square technique was run in Smart PLS V.3 and measurement model of the research and fit indices were studied. To minimize self-report bias in the data gathering, due to Chong et al. [55], researchers assured all respondents that their personal information would not be revealed. In order to minimize the possibility of common method variance, researchers first used multiple-item scales to measure the constructs and scattered questions pertaining to the independent and dependent variables throughout the questionnaire [24]. As Baruch and Holtom [56] recommend, a non-response bias test (wave analysis) was done. Student’s t-tests showed no statistically significant differences between early wave and late-wave groups, so we can conclude that non-response bias was not a problem [57]. Also, for controlling common method bias (CMB) in partial least squares method, as Kock and Lynn [58] proposed, the collinearity test is a comprehensive procedure for the simultaneous assessment of both vertical and lateral collinearity [59]. Collinearity has been defined as a predictor-predictor phenomenon in multiple regression models. By applying collinearity through analyzing variance inflation factors (VIFs) in the model, the researcher controls the CBM. The occurrence of a VIF greater than 3.3 is proposed as an indication of pathological collinearity and also as an indication that a model might be contaminated by common method bias [60]. In the current research, all VIFs are lower than 3.3. Thus, based on the obtained result, it is concluded that common method bias is not a concern. It is noteworthy that information related to respondents, like gender, education, work experience, and age, are presented in Table 1.

3.3. Exploratory Factor Analysis (EFA)

Since the questionnaires are researcher-made, observed and latent infrastructures must be confirmed, and then other steps must be followed. In this regard, first- and second-order exploratory factor analysis are analyzed for the research variables. In this analysis, Varimax matrix was used to determine ultimate categorization and elements of each index in an element. Table 2, Table 3 and Table 4 show results of the first order exploratory factor analysis. The analyses made in this section were done by SPSS V.25. As it is seen in Table 2, Kaiser-Meyer-Olkin Measure of Sampling Adequacy (KMO) test was used to study the partial correlation of variables. In this scrutiny, we determined whether variance of the research variables is influenced by some main latent variables or not. This index is in range of 0 to 1. If this index is near to 1, the intended data are proper for factor analysis [61]. The result of KMO test with its value at 0.803 show that the related data are gradable to some infrastructure and fundamental factors.
Bartlett’s test also shows that the structure of factor model is appropriate because the hypothesis of knowing correlation matrix is rejected. The test result, 1267.174, shows that correlation matrix between items is not a similar matrix, i.e., there is a high correlation among items of each factor, and there is no correlation among triple items of the research.
According to the obtained results, discovering a new structure from data is possible. The rotation sums of squared loadings for all factors are more than 0.5 [62]. Hence, all factors remain in exploratory factor analysis (confirming meaningfulness of items). In explained variances by items, 73.551 concepts of this research are covered. By forming Varimax matrix, it could be stated that 60 questions used in the research questionnaires are categorized in 14 observed variables. Results of the first order exploratory factor analysis are presented in Table A1 (see Appendix A). According to the obtained results, it can be said that 14 observed variables are categorized by three factors (latent variable). Four observed variables (knowledge creation, knowledge acquisition, knowledge storage, and knowledge sharing) determine the KMP as an independent variable. Five variables (financial performance, customer performance, internal processes performance, learning and growth performance, and society and environment performance) determine SBP as a dependent variable of the research. Five variables (creating and establishing new line of product/service, developing and promoting new product/service, opening new domestic target group, using up to dating and new technology in the process, and collaboration with universities) determine IP as a mediating variable. The final results of the second order exploratory factor analysis are presented in Appendix A Table A2.

3.4. Partial Least Square Model

A PLS path model can consist of two parts—the internal or structural model showing the construct and measurement models showing the relationships among constructs and variables (external model) [63]. The structural model applied in the present research was previously shown in the research conceptual model. However, the measurement model (Figure 2 and Figure 3) (external model or confirmatory factor analysis) refers to how latent variables are measured by observed ones [64]. The computations of the partial regression model for each internal latent variable is used to meet all path coefficients. This partial regression model can be estimated in two steps—estimation of construct values and then final estimate of external loadings and weights (path coefficient of structural model and R2 values for internal latent variables) [65,66]. It must be noted that, in the present research, all designed models are reflective. In fact, estimation of model shows the relationships between relevancies and constructs within measurement models and determines to what extent the applied theories are in proportion with data [67]. As mentioned, each research hypothesis is analyzed separately using the Partial least squares method. In the partial least square technique, the following points are important:
1-
The effect of latent variable on observed variable is shown by factor loading. Factor loading is somewhere between 0–1. If the factor loading is less than 0.3, the effect of two variables is considered to be weak. Factors loading between 0.3–0.6 are acceptable, and greater than 0.6 are very desirable [68].
2-
When the correlation of the variables is identified, a meaningful test should be made. To examine the significance of the observed correlations, bootstrapping or Jack Neff crossover methods are used. The current study used the bootstrapping method. In this study, the self-regulation method is used to give the t-statistic. At a 5% error level, if the value of the bootstrapping t-value is greater than 1.96, then the observed correlations are significant [69]. It is desirable to assess measurement models before studying models and obtained coefficients from research variables to use the analysis results with more certainty. Internal consistency, relevancy reliability, convergent validity, and discriminant validity must be studied for a reflective measurement model. In structural model evaluation, determination coefficients (R2) can be studied [70]. The essential nature of multivariate statistical analyses uses multivariate measurements and improves the accuracy of the research findings. Henceforth, based on what we have presented above, we first evaluate reflective measurement model of the current research and then study the obtained coefficients from the effect among research variables. As was mentioned earlier, an external model can be considered along with confirmatory factor analysis. The results of external loading are shown in Table 4.
In order to study the model, first, an external model is applied to evaluate the relationships between latent variables with their evaluation items. The external model of item relations or those questions of questionnaire are studied with constructs. Relationships cannot be evaluated unless questions of questionnaire prove that they evaluate latent variables properly. The threshold value for external loading is 0.708 [71]. Among relevancies of observed variables, society and environment performance has the highest relevancy reliability at 0.840. All relevancies for three reflective structures of the research have external loadings of higher than threshold. The results obtained from review of quality measurements of the model for study of internal consistency are presented in Table 5.
One of the most important criteria of evaluating the model is internal consistency reliability. For this end, the traditional criterion Cronbach’s alpha is always used, but it would be better to prioritize and study relevancy based on their reliability. Composite reliability of external loadings considers that relevancy variables’ value is between zero to one. The values between 0.7 to 0.9 are considered desirable in composite reliability [72]. With respect to convergent validity, it can be noted that principal research variables, emphasizing results obtained from average variance extracted above 0.5, received a high level of convergent validity. The internal consistency or reliability was measured through composite reliability (also known as Dillon-Goldstein’s rho or Jöreskog’s) as proposed by Chin [73]. He recommends that acceptable scores for the Jöreskog’s rho should be higher than 0.70. Dillon-Goldstein’s rho is a better reliability measure than Cronbach’s alpha in Structural Equation Modeling because it is based on the loadings rather than the correlations observed between the observed variables. According to the measurement studied earlier, it can be stated that the model used in this research has convergent validity. Based on the pattern presented by Fornell and Larcker [74] presented in Table 6 and Table 7, and by studying square root of average extracted variance in each construct, it can be said that AVE in each construct has the maximum correlation with other construct in the model. Therefore, we can certainly confirm the discriminant validity of the model.
According to this criterion, the square root of average extracted variance has the maximum correlation of the construct with other constructs. Based on the presented information, in the following table, it is stated that the current research is properly respondent to procedures of measurement model.
With respect to cross loadings studied in the Table 7, relevancy cross loadings for each construct has the maximum external loading and the cross loading is in comparison with other variables. Hence, based on the scrutiny of two Fornell-Larcker criteria and cross loadings, it is noted that constructs of current research have discriminant validity. Henseler et al. [75] believe that, in addition to Fornell and Larcker criterion, divergent validity must be studied by Heterotrait-Monotrait Ratio (HTMT) (see Table 8). If the HTMT value is under 0.90, discriminant validity has been established between two reflective constructs. Since the results obtained from this index among research variables is under 0.9, it can be said that collected and analyzed data have enough originality and the results obtained from the study of researchers have high accuracy and are trustable.

4. Results and Discussion

By analyzing reflective measurement model, in the following, we study a path model. Considering the confirmation of the measurement model, information related to implementation of partial least squares and coefficient of determination are presented in Figure 3, and average extracted variance is presented in Figure 2.
In line with Zhao et al. [76], if two basic variables (knowledge management practices and sustainable balanced performance) are meaningful, the third variable (innovation practices) is meaningful, and all three variables are positive, then it is concluded that mediating variable has made a complementary relation between independent variable and dependent variable. Therefore, considering the presented information, it is concluded that innovation practices have mediating and complementary role for improvement of sustainable balanced performance. The relationship of studied variables in each hypothesis of research is examined based on a causal structure with the partial least square (PLS) technique. In the overall research model, the measurement model (relation of each observed variable to latent variable) and path model (relations of latent variables with each other) are computed. To evaluate meaningfulness of relations, t-statistic is calculated with a bootstrapping technique. In this model, which is an output of the Smart PLS application, the summary of results related to standard factor loading for research variables is presented. An examination of research hypotheses, based on relations of each variable, is presented separately.
The information presented in Figure 4 shows that t-statistic is bigger than critical value of t-student at confidence level of 95 percent that is 1.96. This means relations considered for all research hypotheses are positive and meaningful. A summary of the research hypotheses being studied is presented in Table 9.
As seen in Table 9 and Figure 4, all the relations of conceptual mode are confirmed. Thus, it becomes clear that knowledge management practices can positively and significantly influence sustainable balanced performance of industrial knowledge-based companies manufacturing advanced machinery and equipment. According to studies made from the first-hand resources like Scopus and Web of Science, it is possible to say that researchers like Houck et al. [11] and Pislaru et al. [12] have provided frameworks to evaluate sustainable balanced performance through a sustainable balanced scoreboard. However, the current research has presented a sustainable balanced performance in the factor analysis and multivariate statistical analysis. Also, it must be noted that the concept of sustainable balanced performance was not found inside the results and findings of other researchers in any conducted studies. Hence, the framework of sustainable balanced performance presented in this research could be known as an advantage. Although researchers [77,78] studied concepts related to expansion of activities related to business with sustainable performance, and the fact that most studies in sustainable performance are related to supply chain [79], we dare to say that sustainable balanced performance has not been pinpointed by other researchers. In this regard, other researchers can benefit from this view to expand and develop concepts related to evaluation and management of performance, and corporate managers can benefit from this aspect of performance evaluation (due to the support of presented model from sustainable balanced scoreboard and a systematic structure for performance review).
Based on what elicited from examination of the first hypothesis, we can suggest that knowledge-based companies can help the overall growth of this industry by focusing on the exploration of current knowledge and by sharing goals, work flows, resources, and income with stakeholders and also by creating a strategic unity. Moreover, conscious integration of capabilities and dynamicity of this industry and the focus on knowledge networks [80] and knowledge flows [81] along with technologic unities can help improve key abilities and internal capacities of companies to move toward the development of business targets and improve the overall situation of the workplace. It must be noted that the focus of knowledge-based companies on knowledge flows and technologic processes are the most important elements in gaining competitive advantage [82] and a sustainable balanced performance. With respect to the results obtained from examination of the second hypothesis, it could be said that results of this test are in line with results of other research [83,84,85]. Based on the observations made by researchers in this this industry, it is suggested that knowledge-based companies help their organizations by improving innovation in conscious management activities and creating target internal groups. In addition, due to high level of information and knowledge in these companies, it is recommended that these companies benefit from systematic method of problem solving to promote new products and services. It is suggested that industrial knowledge-based companies manufacturing advanced machinery and equipment increase their competitiveness through innovation in servicing products [86]. According to the results obtained from the last research hypothesis, it can be stated that innovation practices with innovation procedures can increase the power of organizations in seeking chances and overcoming environment inconsistencies and empower organizations to overcome difficulties, stresses, errors, and failures, and also guarantee their survival by presenting an innovative model for the business [87] through exploration and merge of innovation [88]. Even though the concept of innovation has been deeply studied previously by researchers [89,90,91,92], its mediating role in sustainable balanced performance has been neglected. Thus, through more studies and closer observation of the effects, the effects between these two variables can be examined. Based on analyses made from the research data, it is recommended that knowledge-based companies increase their customers’ performance by innovation in the value presented to customers and to digitalize the product service system in order to operate in today’s competitive market. Furthermore, paying attention to innovative products and services that support the environment and society can become a crucial social responsibility to upgrade the brand value of these firms. It is suggested that the industry of manufacturing advanced machinery and equipment tries to boost a learning system through innovation in learning to benefit from its advantages in crisis.

5. Managerial Implication

With respect to activities and studies of researchers in knowledge-based companies, it is suggested that these companies select their corporate structures in relation to developmental activities related to their business and follow traditional models of the organization. The necessity of confronting crises or errors is considered as an advantage in these firms. Henceforth, these companies, focusing on their current knowledge and exploration of novel solutions, can become pioneer organizations instead of defeated ones. Principally, development of activities of these companies with foreign partners and the creation of long-term mechanisms in mutual cooperation can bring common strategic benefits for the parties. Researchers suggest that studied companies enrich machines and devices with deep perception to promote technologic level of products and services such that they decrease the competitors’ pressures. Finally, it can be highlighted that working systems of knowledge-based companies need innovation in business and financial models to empower these corporates achieve growth and development in their customers’ performance as well as their own financial performance along with academic capacity and technical abilities.

6. Conclusions

The current research tries to study the effects of variables in knowledge management practices, innovation practices, and sustainable balanced performance in industrial knowledge-based companies that manufacture advanced machinery and equipment. This is done by applying partial least square and a statistical analysis. Based on the results of the first research hypothesis, it can be admitted that KMP has a positive and significant effect on SBP. According to [93], it can be concluded that knowledge-oriented leadership can influence KPM and IP. The results obtained from the first research hypothesis are aligned with [94,95,96,97,98,99]. Sustainable balanced performance components grow and develop from knowledge management practices. For example, through knowledge sharing, learning and growth perspective are strengthened, and consequently, internal processes, by optimizing workflows, enhance the other three perspectives. Also, the role of empowerment of employees by knowledge management activities toward improving their performance should be pointed out [100]. KMP reinforces key performance indicators through a positive and direct impact on all components, activities and operations. Therefore, it can be expected that, through the extension of KMP, key performance indicators and key results will be promoted and improved in general, leading to the improvement of SBP.
Due to the results obtained from the second hypothesis test, it can be concluded that KMP has a positive and significant effect on IP. The results obtained from this hypothesis are in line with the results obtained from [101,102]. KMP can be considered as the basis of IP. Innovation activities help to explore and exploit the opportunities for creating new products and services, which are always dependent on knowledge flows in the organization. By strengthening the knowledge flows in the organization, innovation activities and programs can be optimized [103] from the viewpoint of time and cost of accessing a new product, service or process.
Based on the third hypothesis, we can conclude that SBP can be positively and significantly influenced through IP. IP as an appropriate enabler of SBP can directly affect the internal processes and customer perspective. Results obtained from this hypothesis support the findings of [104,105,106]. Regarding the mediating role of innovation practices, it can be pointed out that innovation practices are always supported through knowledge management practices. Regarding the impact of KMP on IP, we can expect that the synergy of these variables would have a positive effect on the SBP in various dimensions.

7. Suggestion for Future Researchers

Based on the obtained results and given the nature the surveyed companies, it can be inferred that knowledge-based companies can focus on digital innovation and digital servitization to develop their business. Therefore, it is worthwhile to study and present a conceptual model of the impact of digital innovation and servitization on business models and organizational performance. Given the multi-dimensionality of the concept of performance, it is suggested that researchers, by studying other performance drivers in knowledge-based companies, try to help improve the performance of these companies. It is also suggested that researchers investigate how to influence the performance of knowledge-based companies by focusing on industry 4.0.

Author Contributions

C.V. was responsible for the design of the whole research and wrote the paper; J.S. collected and analyzed the data. B.K. reviewed the relevant literature, particularly for the revision.

Funding

This research received no external funding.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A. First Order Principle Component Analysis

Table A1. First order principle component analysis.
Table A1. First order principle component analysis.
Principle Component (First order)
Financial PerformanceCustomer PerformanceInternal ProcessLearning and GrowthSociety and Environment PerformanceOpening of New Domestic Target GroupsPromoting New Products/ServicesCreating & Establishing Line of Product/Service NewCollaboration with UniversitiesDeveloping Environment Friendly ProductsKnowledge CreationKnowledge AcquisitionKnowledge StorageKnowledge Sharing
x10.8420.225−0.0410.1340.289−0.117−0.0780.145−0.0360.5690.3640.378−0.4530.036
x20.7610.6280.0730.2640.3410.1810.257−0.2250.0890.147−0.1470.2580.3640.047
x30.6850.0590.119−0.0190.0480.302−0.2590.021−0.2450.2590.369−0.2790.05140.308
x40.6260.4780.0820.4220.0910.1460.4230.1470.2560.131−0.4230.0250.0790.123
x50.2380.858−0.0830.3180.0110.1730.3450.334−0.1610.183−0.5230.0140.0820.243
x60.2510.891−0.6230.0120.1420.236−0.140.2470.147−0.253−0.1230.1750.2360.452
x7−0.2300.6130.123−0.3250.0450.012−0.4130.0150.0360.045−0.1630.045−0.4570.322
x80.1230.7790.036−0.1450.364−0.0340.234−0.0360.5690.3640.378−0.453−0.1360.253
x9−0.0780.2530.6870.403−0.6020.2140.0850.6040.190−0.6540.3060.0140.224−0.112
x100.0120.3250.7850.0120.1250.2360−0.3550.0090.2430.4560.2380.550.4090.263
x110.0210.1230.7420.3250.0450.6230.4120.0300.1870.6420.080−0.0040.2300.521
x120.1230.1450.8620.101−0.5980.3650.452−0.0250.4930.3480.3280.121−0.1750.485
x130.4560.6250.4520.7120.159−0.1450.0250.2070.4460.2690.0800.2860.3470.036
x140.3240.1470.2890.8450.6870.3210.412−0.0360.5690.3640.378−0.453−0.1060.105
x15−0.1240.0240.0780.753−0.0140.3580.2300.6540.190−0.6540.3060.0140.1540.023
x160.1560.5320.1420.7960.6540.2140.2340.0090.2430.4560.2380.550.4090.069
x170.3560.1890.2590.1430.796−0.3430.0380.2010.535−0.0730.2650.308−0.0830.124
x18−0.3420.2350.3650.3790.6380.4280.2070.0680.1350.3680.401−0.0530.0180.325
x190.6420.3690.4230.1870.7130.2090.152−0.0370.3940.1290.1290.3230.4790.412
x200.5640.3570.7910.6350.8520.2580.4260.1640.0680.0630.1790.658−0.4250.236
x210.2750.3870.1740.6910.8490.1870.0210.122−0.0160.7690.1640.078−0.353−0.206
x220.4890.4510.3570.1210.0230.789−0.5430.2580.7410.6320.4130.6740.4320.198
x230.6540.2410.387−0.2410.7810.8520.4890.2870.2550.3330.3980.1530.8030.321
x240.3450.5870.1780.3690.6200.7120.468−0.6310.5460.3210.4630.1570.0120.687
x250.5870.4770.1210.3690.4850.6890.1110.3210.5960.3260.2740.3740.4750.587
x260.3310.074−0.1360.7010.0310.6310.7420.3330.2480.6410.3540.1570.1890.379
x270.3470.5460.1590.4560.6240.2350.7890.6530.1540.5320.4130.2530.6890.421
x280.0540.7960.3690.7560.0630.3640.8970.746−0.5430.7960.4560.3570.3260.693
x290.4630.7630.5320.4230.6120.0350.8120.3960.7360.6320.1980.4630.3260.125
x30−0.3130.0680.1010.035−0.1430.4750.2580.6780.1590.5930.1980.4630.4760.298
x310.2180.2570.0680.1450.0180.311−0.1530.7450.3890.3650.1590.4970.3250.156
x320.3790.052−0.4370.3240.3790.4290.2230.7130.5330.7010.1110.3490.2410.444
x33−0.2350.324−0.0650.1380.2360.1790.5580.7920.1530.3690.2360.1560.6710.349
x340.6320.0450.6320.4610.3560.4630.1690.7410.5960.3240.06320.3330.4520.364
x350.3620.1250.6370.1630.7630.3560.1460.7630.8910.7630.1960.0360.4760.736
x360.1230.0230.6980.2360.6770.4260.6230.1230.7850.3690.1630.4860.3260.346
x370.1960.0360.6390.4960.5360.3620.2220.6340.7360.3690.4630.1560.4960.362
x380.6930.013−0.7630.6390.1360.6340.2430.6780.7020.5550.6390.1360.7000.649
x390.6490.4670.2680.4670.1360.1770.3940.3190.3010.7450.3640.3580.2360.197
x400.1630.2590.1960.4980.2360.1680.4160.3870.3980.7290.4960.3740.2690.279
x41−0.143−0.6320.1110.125−0.0530.1250.148−0.0330.1970.6970.5330.4160.3870.296
x420.1280.1470.0680.2350.2280.111−0.4230.1280.1360.7280.2980.499−0.0310.291
x430.0790.032−0.0570.4040.1390.2090.1230.1590.7010.7380.4960.1360.5630.279
x440.5580.2060.1440.3080.4230.2490.218−0.1450.1460.0120.7410.3670.4960.276
x45−0.1430.1580.4210.105−0.1030.1250.158−0.0130.1360.4960.6950.5320.4130.346
x460.2180.3670.1380.1150.1280.121−0.1230.1480.0750.3460.7630.0360.5360.493
x470.6320.6340.2490.5130.0130.4130.4560.1350.5980.3260.7210.4690.3740.236
x480.2630.723−0.2360.1310.387−0.1940.3280.1270.1950.1850.3490.8520.4960.222
x490.7460.0230.2700.1610.357−0.030−0.038−0.4850.2610.2680.4960.8410.4960.379
x500.3490.5320.0610.1560.008−0.100−0.0370.0180.2390.3250.0410.7820.6370.423
x510.2890.3620.3560.1310.647−0.0720.3460.4780.1650.2680.6390.7960.6330.384
x520.1960.1580.1210.0570.478−0.1940.4560.1470.2510.3570.4630.0150.756−0.362
X530.6230.2530.146−0.0430.083−0.0300.343−0.0880.0580.3460.0690.3790.6990.582
X540.1580.6320.1050.2180.052−0.100−0.6470.0820.0850.2430.4150.2580.7620.222
X550.6930.3560.1310.1790.283−0.0720.1740.026−0.5120.1910.3460.0360.7810.369
X560.506−0.3240.247−0.3650.029−0.4520.3250.6320.3690.3490.1360.2690.1630.745
X570.4520.352−0.3240.0020.4260.0360.1450.3690.1590.4890.2360.1590.5780.782
X58−0.1450.3650.485−0.6540.970.0850.3540.3690.1680.4960.1250.7000.0230.752
X590.45−0.4850.1470.254−0.0070.3650.4530.3860.4160.5360.3460.1560.6890.761
X600.2560.324−0.4520.333−0.1000.042−0.2200.6530.1630.7890.6870.3670.1960.869
Table A2. Second order principle component analysis.
Table A2. Second order principle component analysis.
Components
KM PracticesInnovation PracticesSustainable Balanced Scorecard
opening of new domestic target groups0.3070.6560.328
promoting new products/services0.0540.9030.153
Creating & establishing new line of product/service0.0500.8970.096
Collaboration with universities0.2080.7810.369
developing environment−friendly products0.0740.7640.288
knowledge creation0.9130.1980.104
Knowledge acquisition0.8870.0430.190
knowledge storage0.7550.2440.444
knowledge sharing0.9440.0590.114
Financial performance0.3430.2720.728
Customer performance0.2890.2470.795
Internal processes performance0.4170.1870.731
learning and Growth performance−0.1020.1370.716
society and environment performance0.1470.2590.481

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Figure 1. Research conceptual model.
Figure 1. Research conceptual model.
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Figure 2. Average variance extracted (AVE).
Figure 2. Average variance extracted (AVE).
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Figure 3. Coefficient of determination (R2).
Figure 3. Coefficient of determination (R2).
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Figure 4. Bootstrapping and t-statistic.
Figure 4. Bootstrapping and t-statistic.
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Table 1. Demographics of the respondents.
Table 1. Demographics of the respondents.
Demographics VariablesLevelFrequency (%)
GenderMale81%
Female19%
Educational backgroundUnder graduate11.1%
Graduate46.6%
PhD42.3%
Work ExperienceUnder 5 years52%
5–1040.3
Upper 10 years7.7
AgeUnder 25 years15%
25–3550%
35–4020%
Upper 40 years15%
Table 2. KMO and Bartlett’s Test.
Table 2. KMO and Bartlett’s Test.
KMO0.803
Bartlett’s Test of SphericityApprox. Chi-Square1267.174
Df91
Sig.0.000
Table 3. Total variance explained.
Table 3. Total variance explained.
ComponentInitial EigenvaluesExtraction Sums of Squared LoadingsRotation Sums of Squared Loadings
Total% of VarianceCumulative %Total% of VarianceCumulative %Total% of VarianceCumulative %
16.62247.30047.3006.62247.30047.3003.63825.98525.985
22.38917.06764.3682.38917.06764.3683.60425.74451.729
31.2869.18373.5511.2869.18373.5513.05521.82273.551
Table 4. External loading.
Table 4. External loading.
Innovation PracticesKnowledge Management PracticesSustainable Balanced Scorecard
Society & environment performance 0.917
Growth & learning performance 0.862
Internal processes performance 0.884
Financial performance 0.884
Customer performance 0.895
Knowledge acquisition 0.897
knowledge creation 0.924
knowledge sharing 0.929
knowledge storage 0.905
developing environment-friendly products0.822
Collaboration with universities0.902
Creating & establishing new line of product/service0.832
opening of new domestic target groups0.817
promoting new products/services0.869
Table 5. The criteria of the model.
Table 5. The criteria of the model.
Cronbach’s Alpharho_AComposite ReliabilityAverage Variance Extracted (AVE)
0.9040.9260.8280.720
Knowledge Management Practices0.9360.9890.7530.836
sustainable organizational performance0.8200.8670.8760.596
Table 6. Fornell-Larcker criterion.
Table 6. Fornell-Larcker criterion.
Innovation PracticesKnowledge Management PracticesSustainable Organizational Performance
Innovation practices0.849
Knowledge Management Practices0.4100.914
sustainable organizational performance0.5940.5810.772
Table 7. Cross loadings.
Table 7. Cross loadings.
Innovation PracticesKnowledge Management PracticesSustainable Organizational Performance
Collaboration with universities0.9020.4150.607
Creating & establishing new line of product/service0.8320.2240.387
opening of new domestic target groups0.8170.4760.549
promoting new products/services0.8690.2430.430
developing environment-friendly products0.8220.2860.473
Customer performance0.5280.4980.895
Financial performance0.5350.5260.884
Growth & learning performance0.3410.1730.562
Internal processes performance0.4580.5970.884
society & environment performance0.4070.3220.547
Knowledge acquisition0.2730.8970.457
knowledge creation0.3770.9240.451
knowledge sharing0.2620.9290.426
knowledge storage0.5000.9050.693
Table 8. Heterotrait-Monotrait Ratio (HTMT).
Table 8. Heterotrait-Monotrait Ratio (HTMT).
Innovation PracticesKnowledge Management PracticesSustainable Balance
Performance
Innovation practices---
Knowledge Management Practices0.394--
sustainable organizational performance0.6680.602-
Table 9. Studying the research hypotheses.
Table 9. Studying the research hypotheses.
Research HypothesesCoefficient of Determinationt-StatisticSigResult
The main research hypothesisKnowledge Management Practices -sustainable balance performance0.4064.3180.00Accept
The first subsidiary hypothesisKnowledge Management Practices- Innovation practices0.4105.6520.00Accept
The second subsidiary hypothesisInnovation practices- sustainable balance performance0.4284.7540.00Accept

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MDPI and ACS Style

Valmohammadi, C.; Sofiyabadi, J.; Kolahi, B. How do Knowledge Management Practices Affect Sustainable Balanced Performance? Mediating Role of Innovation Practices. Sustainability 2019, 11, 5129. https://0-doi-org.brum.beds.ac.uk/10.3390/su11185129

AMA Style

Valmohammadi C, Sofiyabadi J, Kolahi B. How do Knowledge Management Practices Affect Sustainable Balanced Performance? Mediating Role of Innovation Practices. Sustainability. 2019; 11(18):5129. https://0-doi-org.brum.beds.ac.uk/10.3390/su11185129

Chicago/Turabian Style

Valmohammadi, Changiz, Javad Sofiyabadi, and Bahare Kolahi. 2019. "How do Knowledge Management Practices Affect Sustainable Balanced Performance? Mediating Role of Innovation Practices" Sustainability 11, no. 18: 5129. https://0-doi-org.brum.beds.ac.uk/10.3390/su11185129

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