INFLUENCE OF TECHNICAL SKILLS ON PERFORMANCE OF MANUFACTURING FIRMS IN NAIROBI CITY COUNTY IN KENYA DAN OWUOR ODONGO A RESEARCH PROJECT SUBMITTED IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE AWARD OF MASTER OF BUSINESS ADMINSTRATION DEGREE IN FINANCE OF MOUNT KENYA UNIVERSIT ii JULY 2024 DECLARATION AND APPROVAL iii iv DEDICATION This study is devoted to the Almighty God. To my father, Mr. Odongo, in appreciation for the assistance that was provided over the time period. ACKNOWLEDGEMENT v I wish to thank God for good health when developing this research project. My special thanks to my supervisor Dr. Henry Yatich and the entire Mount Kenya University fraternity for the opportunity to undertake research proposal. vi ABSTRACT The contribution to Gross Domestic Product (GDP) by the manufacturing sector in Kenya has been slow, falling from 13.8 percent in 2020 to 12.9 percent in 2021. The sector has potential to grow and is expected to perform better, post covid-19. This is an indicator that the manufacturing sector in Kenya is below its 20230 Vision envisaging a target of 20% contribution to the GDP. The sales turnover of manufacturing firms in Kenya as measure of performance has been decreasing in recent years. In 2022, the total sales turnover of manufacturing firms in Kenya was estimated to be Ksh 3.5 trillion (approximately USD 30 billion). This represents a decrease of 10.2% from 2021. There have been some fluctuations in the net profit margin of manufacturing firms in Kenya over the past few years. For example, in 2022, the net profit margin declined to 9.3% due to cost of production including energy, currency fluctuation and competition from imported goods. The study aimed to examine how technical skills practices may affect manufacturing firms’ firm performance among selected manufacturing firms in Nairobi, Kenya. The specific objectives To analyze tthe tinfluence tof tinformation tcommunication ttechnology tskills, data science skills and innovative skills effect on performance tof tmanufacturing tfirms tin tNairobi tCity tCounty tin tKenya. The theories of the study included contingency theory, and human capital theory. The study adopted a quantitative approach and used descriptive survey research design. The study targeted 253 senior managers drawn from finance managers, procurement managers, human resource managers, customer relations managers and operations managers. The study sampled 75, which is 30% of the total population. Data was collected by use of structured questionnaire. Data analysis was done descriptively (mean, standard deviation, frequencies and percentages). Data presentation was presented by use of tables and charts. The results indicated that technical skills have significant positive effect on the performance tof tmanufacturing tfirms tin tNairobi tCity tCounty tin tKenya. The outcomes disclosed that Information communication skills had a substantial beneficial influence on the performance of manufacturing tfirms tin tNairobi tCity tCounty tin tKenya, with a B-value of.218 and a p-value of.001. Similar result were reported for data science skills as well as innovative skills. The conclusion is that technical skills accounted for 60.7% of the substantial variation in outcomes for manufacturing companies in Nairobi City County in Kenya (R square =.607). The findings of this study suggest that manufacturing firms in Nairobi City County should invest in developing the ICT skills of their employees. This can be done through training programs, workshops, and on-the-job training. In addition to investing in data science skills, firms should also create a culture that is data-driven. This can be done by encouraging employees to use data to inform their decisions and by providing them with the tools and resources they need to do so. The study's findings suggest that manufacturing firms in Nairobi City County should focus on developing their innovative skills in order to improve their performance. This can be done through a variety of means, such as investing in research and development, training employees in innovation techniques, and creating a culture that is supportive of innovation. vii TABLE OF CONTENTS DECLARATION AND APPROVAL .......................................................................................... ii DEDICATION.............................................................................................................................. iv ACKNOWLEDGEMENT ........................................................................................................... iv ABSTRACT .................................................................................................................................. vi TABLE OF CONTENTS ........................................................................................................... vii LIST OF TABLES ....................................................................................................................... xi LIST OF FIGURES .................................................................................................................... xii LIST OF ABBREVIATION AND ACRONYMS ................................................................... xiii CHAPTER ONE: INTRODUCTION ......................................................................................... 1 1.0. Introduction .............................................................................................................................. 1 1.1. Background of the Study ......................................................................................................... 1 1.2 Statement of the Problem .......................................................................................................... 5 1.3 Purpose of the Study ................................................................................................................. 6 1.4 Objectives of the Study ............................................................................................................. 6 1.5 Research Questions ................................................................................................................... 6 1.6 Significance of the Study .......................................................................................................... 6 1.7 Scope of the Study .................................................................................................................... 7 1.8 Limitations of the study ............................................................................................................ 7 1.9 Delimitations of the Study ........................................................................................................ 7 1.10 Assumptions of the Study ....................................................................................................... 8 1.11 Operational Definition of Key Terms ..................................................................................... 9 CHAPTER TWO: LITERATURE REVIEW .......................................................................... 10 2.0 Introduction ............................................................................................................................. 10 2.1 Theoretical Literature Review ................................................................................................ 10 2.1.1 Contingency Theory....................................................................................................... 10 2.1.2 Human Capital Theory ................................................................................................... 11 2.2 Review of literature on variables ............................................................................................ 11 viii 2.2.1 Information Technology Skills on Manufacturing Firms Performance ......................... 11 2.2.2 Data Science Skills on Manufacturing Firms Performance ........................................... 15 2.2.3 Innovative Skills on Manufacturing Firms Performance ............................................... 16 2.3 Empirical Review..................................................................... 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Bookmark not defined. 2.4 Conceptual Framework ........................................................................................................... 19 2.5 Recap of Literature Review .................................................................................................... 20 2.6 Research Gap .......................................................................................................................... 22 CHAPTER THREE: RESEARCH METHODOLOGY ......................................................... 23 3.0 Introduction ............................................................................................................................. 23 3.1 Research Design...................................................................................................................... 23 3.2 Population ............................................................................................................................... 25 3.3 Sampling Frame ...................................................................................................................... 25 3.4 Sample and Sampling Technique............................................................................................ 25 3.4.1 Sampling Technique ...................................................................................................... 25 3.4.2 Sample Size .................................................................................................................... 26 3.5 Data Collection Instrument ..................................................................................................... 26 3.6 Data Collection Procedure ...................................................................................................... 26 3.7 Pilot Testing ............................................................................................................................ 27 3.8 Data Processing and Analysis ................................................................................................. 29 3.8.1 Simple Linear Regression Analysis ............................................................................. 30 3.8.2 Multiple Regression Analysis ...................................................................................... 30 3.8.3 Diagnostic Tests ........................................................................................................... 31 3.9 Ethical Consideration .............................................................................................................. 32 CHAPTER FOUR ....................................................................................................................... 34 RESEARCH FINDINGS AND DISCUSSIONS ........................... 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Bookmark not defined. 4.1 Introduction ............................................................................................................................. 34 4.2 Response Rate ......................................................................................................................... 34 4.3 Demographic Characteristics .................................................................................................. 34 ix 4.4 Influence of Information Communication Technology Skills on Performance of Manufacturing Firms ............................................................................................................................................. 38 4.4.1 Descriptive Statistics .................................................................................................... 38 4.4.2 Simple Linear Linear Regression Analysis .................................................................. 41 4.5 Influence of Data Science Skills on Performance of Manufacturing Firms ........................... 44 4.5.1 Descriptive Statistics ...................................................................................................... 44 4.5.2 Linear Regression Analysis ........................................................................................... 46 4.6 Influence of Innovative skills on Performance of Manufacturing Firms ................................ 49 4.6.1 Descriptive Statistics ...................................................................................................... 49 4.5.2 Linear Regression Analysis ........................................................................................... 51 4.7 Performance of manufacturing firms in Nairobi City County in Kenya ................................ 54 4.7.1 Descriptive Statisics ....................................................................................................... 54 4.6.1 Assumption of Linear Regression .................................................................................. 54 4.7.2 Correlation Analysis ...................................................................................................... 56 4.7.3 Multiple Regression Analysis ........................................................................................ 58 4.7.3.1 Model Summary.......................................................................................................... 58 4.7.3.2 Model’s Goodness of Fit ............................................................................................. 59 CHAPTER FIVE ........................................................................................................................ 66 SUMMARY, CONCLUSIONS AND RECOMMENDATIONS ............................................ 66 5.1 Introduction ............................................................................................................................. 66 5.2 Summary of the Findings ........................................................................................................ 66 5.3 Conclusions ............................................................................................................................. 68 5.4 Recommendations ................................................................................................................... 69 5.5 Areas for Further Research ..................................................................................................... 70 REFERENCES ............................................................................................................................ 71 APPENDICES ............................................................................................................................. 79 Appendix I: CONSENT FOR PARTICIPATION ........................................................... 79 Appendix II: QUESTIONNAIRE ...................................................................................... 80 x Appendix III: INTRODUCTION LETTER FROM POST GRADUATE..................... 83 Appendix IV: ERC PERMIT ............................................................................................. 85 Appendix V: NACOSTI PERMIT ..................................................................................... 86 Appendix VI: LIST OF MANUFACTURING FIRMS IN NAIROBI CITY COUNTY ............................................................................................................................................... 86 Appendix VII: PLAGIARISM REPORT ......................................................................... 89 xi LIST OF TABLES Table 1: Age of the respondents ................................................................................................... 35 Table 2: Highest Level of Academic ............................................................................................ 36 Table 3: Number of Years Respondents have worked for their current employer ....................... 37 Table 4: Performance of manufacturing firms in Nairobi City County in Kenya ........................ 54 Table 5: Pearson Correlation Analysis ......................................................................................... 57 Table 6: Model Summary ............................................................................................................. 59 Table 7: ANOVA .......................................................................................................................... 60 Table 8: Regression Coefficient .................................................................................................... 61 xii LIST OF FIGURES Figure 1: Conceptual Framework ................................................................................................. 20 file:///C:/Users/Dell/Downloads/Research%20Proposals%20.docx%23_Toc129821786 xiii LIST OF ABBREVIATION AND ACRONYMS CDF - Constituency Development Fund COVID-19 - Coronavirus Disease CRM - Customer Relationship Management ERM - Enterprise Risk Management GDP - Gross tDomestic tProduct KAM - Kenya Association tof tManufacturers tMTP t- tMedium tTerm tPlan RBV - Resource Based View 1 CHAPTER ONE: INTRODUCTION 1.0. Introduction This tsection tdiscusses tthe tstudy tbackground, tstatement tof tthe tproblem, tpurpose tof tstudy, tstudy tobjectives, tresearch tquestions, timportance tof tthe tstudy, tscope tof tthe tstudy, tstudy tlimitations, tdelimitations, tand tassumptions tof tthe tstudy tand tlastly toperational tdefinition tof tterm. 1.1. Background of the Study The primary role of manufacturing firms is to increase turnover. Increase in revenue to firms implies an improvement of productivity. According to (Issack & Muathe, 2017) firms should take informed actions to achieve an organization's short and long-term production is taken into account. As a result, there is need to plan an action so as to protect firms from the unreliability that come with unpredictably changing conditions. One of the reasons why some firms flourish and others diminish is addressed to some extent by organizational reaction and informed decisions (Okoth & Njeru, 2019). The primary goal of enterprises is to maximize profit, thus the concept of organizational performance is essential. According to (Gure & Karugu, 2018) successful companies have to generate higher profits and analyze execution drivers from the strategic level to the operational level. Not only have the surroundings in which companies operate become more uncertain, but they have also become more interconnected and disruptive (Teece, 2018). Technical skills are considered to be specialized knowledge and expertise that enable employees to perform specific tasks, use specific tools and programs to drive increased firm performance. From information technology and corporate management to healthcare and academia, technical skills are essential in every sector of the economy. Technical skills not only contribute to overall organizational success but also assures the employees of of better job opportunities, better salaries, and increased career stability (Bontis, 2018). With such focus in enhancing technical skills, companies can maximum production by aiding in 2 building competitive benefit (Wang et al., 2018). Technical skills is an aspect of strategy that gives companies long-term direction to deal with variation, and allows it to concentrate on improvements. Productivity becomes key when enhancing technical skills depending on the industry in which a company operates, because there is no single accepted metric for gauging success, firms must develop their own metrics and strategies (Nosratpour et al., 2018). At the global level, technical skills are consistently identified as key drivers of manufacturing productivity and innovation. A recent study by Deloitte and The Manufacturing Institute estimated that the skills gap in US manufacturing could leave up to 2.1 million jobs unfilled by 2030, resulting in $1 trillion in lost economic output (Deloitte and The Manufacturing Institute, 2021). Meanwhile, a meta-analysis of 59 studies found that investments in employee training had a moderate to large effect size on manufacturing productivity (Arditi et al., 2016). In developed economies like Germany, Japan, and South Korea, where manufacturing plays a prominent role in national income and employment, technical skills are seen as critical enablers of competitiveness. For instance, Germany's dual system of vocational education and training (VET) is often cited as a model for other countries seeking to strengthen their manufacturing sectors (European Centre for the Development of Vocational Training, 2017). Similarly, Japanese companies invest heavily in continuous improvement practices such as kaizen, which rely on frontline workers' abilities to identify and resolve production problems (Takeuchi and Nonaka, 2014). However, the value of technical skills may vary across regions and industries. For example, in low-income countries with predominantly agrarian economies, basic literacy and numeracy skills may take precedence over specialized technical skills in manufacturing (Psacharopoulos and Patrinos, 2018). By contrast, middle-income countries such as Brazil and China, where manufacturing accounts for a larger share of GDP, have made substantial investments in VET programs to develop technologically sophisticated workforces (de Oliveira et al., 2019; Li et al., 2019). 3 Within Africa, there is considerable variation in the extent to which technical skills shape manufacturing performance. While some countries such as Egypt, Morocco, and Tunisia boast well-established engineering schools and research institutes, others struggle with weak educational systems and skill mismatches (World Bank, 2021). Nevertheless, several African nations have implemented reforms aimed at strengthening their VET systems, recognizing the potential benefits of a technically proficient workforce for attracting foreign direct investment (FDIs) and fostering domestic entrepreneurship (World Economic Forum, 2017). It's common knowledge that Africa's manufacturing sector, especially in Sub-Saharan Africa, is failing. A 2019 World Bank research found that Africa's industrial firms were underperforming. Africa's manufacturing industry contributes just 3.8%-11% to GDP (compared to 30%-40% in industrialized countries), corresponding to the African Development Bank (AFDB, 2016). According to an AFDB report from 2016, manufacturing enterprises in Kenya have been doing poorly as a source of total GDP growth. In a similar vein, the Kenya Strategic Policies for Vision 2030 study (2018) stated that manufacturing performance began to deteriorate in the middle of the 1980s (Agwu, 2018). Turning to Kenya, the manufacturing sector faces numerous challenges despite accounting for approximately 10% of GDP and employing roughly 8% of the workforce (National Bureau of Statistics, 2020). One major constraint is the lack of adequately trained personnel capable of operating complex machinery and adopting innovative production processes (World Bank, 2021). In response, the government has launched initiatives such as the Manufacturing Skills Training Centres (MOSTCs) program, which aims to provide industry-relevant training to thousands of youth and women (Ministry of Industry, Trade and Cooperatives, n.d.). Early evaluations suggest that MOSTC graduates enjoy higher wage premiums and better employment prospects than their peers without technical qualifications (USAID, 2019). Performance, is a method for evaluating an organization's performance based on specific criteria like total revenue, sales, and effectiveness of processes. For there is a lot of strategic thinking which focuses on introducing and weighing performance, management of performance and 4 development is the central focus of plan of action management (Gartenberg et al., 2019). According to (Korir et al., 2020) organization's performance is influenced by three ideologies: the goal approach, which says that an organization works toward specific, measurable objectives, in which overall increase in revenues is key. Manufacturing enterprises, in accordance to the World Bank (2019) are the major source of employment in both growing and developed economies, accounting above 90% of African company activities and contributing to over 50% of Africa employment ratio and GDP. Because of Africa's resources, which human capital is key, the encouragement of manufacturing enterprises, particularly those in metropolitan areas to manage human resources, is seen as a potential path to sustainable development (Brandt, 2019). 80% of Kenya’s manufacturing firms are centered in Nairobi, the country's capital, which is well- connected and well-equipped with training institutions and better infrastructure (Samuel et al., 2021). The focus on technical skills has experienced rapid expansion over the past two decades (Malykhin et al., 2021), and this expansion continues on a daily basis. Acquisition of technical skills is frequently a crucial aspect of the strategic management process, as it incorporates all divisions of an enterprise company. This is targeted at employee competency, and companies should demonstrate such desire in strategy execution because the outcomes of skills enhancement can affect a company's success or failure in its industry. Because no company has infinite resources, strategists must determine the other strategies, which will benefit the company the most (McGuinness, 2023). Manufacturing makes up 70% of Kenya’s industrial sector's GDP, with the remaining 30% coming from building, construction, mining, and quarrying (Kenya Association of Manufacturers, 2015). According to Kenya Vision 2030, manufacturing will play a major role in achieving a 10-percent annual growth rate in GDP. In terms of job creation and GDP expansion, manufacturing has a lot of untapped potential. For instance, the manufacturing sector, in contrast to agriculture, which is severely constrained by land size, holds a lot of promise for job creation and poverty reduction (Barasa, 2018). The nation's capital, Nairobi, is home to eighty percent of manufacturing 5 companies, and it is well-connected and well-equipped (World Bank's report, 2015). Although its contribution to wage employment has been decreasing, the manufacturing sector's contribution to GDP has remained stable at around 10%. The first Medium Term Plan (MTP) goals for implementing Vision 2030 from 2008 to 2012 were mostly not met in terms of the sector's contribution to GDP and the completion of major projects. Vision 2030 envisions a manufacturing sector that is dynamic, diverse, and competitive, able to drive employment. 1.2 Statement of the Problem Manufacturing firms in Nairobi City County would possess a workforce equipped with robust technical skills. These skills would encompass a broad spectrum, ranging from proficiency in operating modern machinery to advanced knowledge in industrial automation and digital technologies. Employees would be adept at troubleshooting technical issues, optimizing production processes, and implementing innovative solutions to enhance productivity and quality standards. This vibrant manufacturing sector would significantly boost Kenya's Gross Domestic Product (GDP), stimulating economic growth, and providing ample job opportunities for the burgeoning population. Following farming and gardening, manufacture in Kenya is the third most important contribution to GDP. Despite this, the manufacturing sector growth dropped down in 2020 to 4.4%, from 5.8% in 2019, and has continued to have mixed (KAM, 2019). The contribution of the sector to total pay employment has deteriorated, falling from 13.8% in 2020 to 12.9% in 2021. (KIPPRA, 2021). This suggests that the manufacturing sector in Kenya is still a long way from contributing 20% of GDP as envisaged in Vision 2030. The sales turnover of manufacturing firms in Kenya as measure of performance has been decreasing in recent years. In 2022, the total sales turnover of manufacturing firms in Kenya was estimated to be Ksh 3.5 trillion (approximately USD 30 billion). This represents a decrease of 10.2% from 2021 (KAM, 2022). There have been some fluctuations in the net profit margin of manufacturing firms in Kenya over the past few years. For example, in 2022, the net profit margin declined to 9.3% due to cost of production including energy, currency fluctuation and competition from imported goods (KAM, 2022). As a result, the sector's 6 contribution to GDP has remained relatively stagnant at around 5%. Thus the study examined the influence of technical skills in tperformance of manufacturing firms in Nairobi City County in Kenya. 1.3 Purpose of the Study The tpurpose tof tthe tstudy twas tto tinvestigate tthe tinfluence tof ttechnical tskills ton tperformance of manufacturing firms in Nairobi City County in Kenya. 1.4 Objectives of the Study i. To analyze tthe tinfluence tof tinformation tcommunication ttechnology tskills ton tperformance tof tmanufacturing tfirms tin tNairobi tCity tCounty tin tKenya. ii. To assess the effects of data science skills on tperformance tof tmanufacturing tfirms tin tNairobi tCity tCounty tin tKenya. iii. To evaluate the extent of innovative skills effect on performance tof tmanufacturing tfirms tin tNairobi tCity tCounty tin tKenya. 1.5 Research Questions i. What tis tthe tinfluence tof information communication technology skills on performance tof tmanufacturing tfirms tin tNairobi tCity tCounty tin tKenya. ii. What are the effects of data science skills on performance tof tmanufacturing tfirms tin tNairobi tCity tCounty tin tKenya. iii. To what extent does innovative skills affect performance tof tmanufacturing tfirms tin tNairobi tCity tCounty tin tKenya. 1.6 Significance of the Study The tfindings tof tthis tstudy tmay be of the utmost importance to policymakers responsible for strategic management in manufacturing companies. The failure of one or couple of the many parts of strategic management techniques is frequently linked to the issues of organizational 7 performance. The outcome, this research may also be critical in developing key policies on strategic management practices, which may eventually aid in the improvement of inherent practices in manufacturing organizations. 1.7 Scope of the Study The research explored key technical skills required of employees that should be employed by the Kenyan Manufacturing Firms in Kenya. Data collected from employees at three organizational management levels were gathered for the study, which was carried out in manufacturing firms in Nairobi City County. (Operational managers, finance managers, customer relations managers and human resource managers) with the assumption that these managers will have information relevant to the researcher's research on technical skills and performance. The study took place for 9 months between March and December 2023. The content scope was information communication technology (ICT), data science and innovative skills required in sustaining firm performance in the manufacturing sector. 1.8 Limitations of the study Limitations in research refer to the factors or constraints that influence the extent to which a study's findings can be interpreted, generalized, or applied to the broader population or real-world situations. They arise from various sources, including the research design, data collection methods, resources, and external factors. The participants chosen for this study may not be fully representative of the larger population or may have unique characteristics that influence their performance. This can limit the generalizability of the findings to broader groups. This limitation was overcame by choosing a sample that is as representative as possible within the constraints of the study. Researcher may not have sufficient time to conduct extensive research, leading to limitations in the scope and depth of the study. To overcome this limitation, the study adopted drop and pick technique during data collection with constant reminders. 1.9 Delimitations of the Study 8 The study delimited itself to selected manufacturing companies in Nairobi County. This implies that manufacturing companies from other counties in Kenya were not be included. Data used in this study was delimited to quantitative data collected using structured questionnaire, this suggests that qualitative data was not used in the study. In regards to technical skills, the study delimited itself to information technology skills, data analysis skills and innovative skills. 1.10 Assumptions of the Study The study considered a number of assumptions. 1. Researchers made the assumption that their sample reflected the whole population. 2. Through validation and reliability, the study assumed that findings from the sample can be generalized to a larger population. 3. Participants' availability was also expected for the research. 4. Lastly, the study assumed that respondents were able to differentiate technical skills from other types of skills. 9 1.11 Operational Definition of Key Terms Technical Skills: In manufacturing companies, they are the skills and knowledge necessary to carry out various activities. Performance: This is improvement of revenues, total units produced and sales volumes Manufacturing Firms: A commercial enterprise that transforms raw materials or components into finished goods is known as a manufacturing company. Data science Skills: are the skills necessary to gather, clean, analyze, and comprehend data utilizing scientific techniques, procedures, algorithms, and systems to derive meaning from data in both organized and unorganized formats. Innovation Skills: are a set of competencies and abilities that enable individuals, teams, and organizations to create, develop, and implement new and valuable ideas, products, processes, or solutions. Firm performance: means that the business has been successful in reaching its objectives. Innovation, firm performance (such as profitability, revenue growth, and return on investment), and non-firm performance (such as customer happiness and market share) are some of the ways it may be assessed. 10 CHAPTER TWO: LITERATURE REVIEW 2.0 Introduction This tchapter's tfocus tis ta treview tof ttheoretical tand tempirical tliterature. This overview covers a variety of pertinent theories, including the resource-based perspective, the contingency theory, and the dynamic capability theory. Furthermore, it centers around earlier examination that is appropriate to the review's variables. The chapter also contains a conceptual framework, a summary of the evaluated literature, and research gaps. 2.1 Theoretical Literature Review 2.1.1 Contingency Theory Coulter, (2018) says that this theory proposed that a structured governance design in which an organization's structure matches its circumstances is the most suitable and effective. As a result, the theory states that the time managers come up with operational choices in their businesses, they must analyze all parts of the present circumstance and work on those that are important to the scenario at hand (Robbins, 2014). What is needed for management issues and concerns are based on the specific settings that exist in the organization (Tsolka, 2020). As a result, strategy execution should be based on the current situation or context. This indicates there is changing conditions with different business environments would necessitate different methods to addressing the difficulties of the organization, implying a link between environmental discernment. An organization’s performance in a given situation which describes unique remedies for challenges across the board throughout the organization and in turn recommends that strategic management techniques that would be used to lead the firm to proper collaborative market environment. According to (Robbins, 2014) an organization’s primary objective is sustainable long-term growth. The vision and strategic goals of business enterprise management have actual implications on the way, decision execution, and assessment of implementation of actions that are adopted. 11 As a result, it is critical for an organization to build a match between competencies and resources in order to capitalize on market possibilities and acquire a competitive edge. According to (Nakano & Wechsler, 2018), skills, and innovation, are essential for a firm's long-term viability. Organizations that want to sustain performance should look for ways to innovate and re-skill in order to find a strategic match for their expansion plans (Park and Hong, 2019). As a result, technical skills are considered to provide adaptation technique with the goal of achieving optimal performance outcomes hence customer satisfaction and ensure the long-term survival and success of business enterprises. 2.1.2 Human Capital Theory According to Schultz’s (1972) Human Capital Theory, value creation in a firm may lead to improved business production. It suggests that a company's employees are assets rather than costs. Bontis (2008) says that an organization's human aspect, or the combination of intelligence, expertise, and skills that gives it personality, is called human capital. The HCT places an emphasis on the value that people can add to a company. This position is referred to as a "human capital advantage”. Businesses can and do benefit from the high levels of training and expertise that their employees possess despite the fact that they do not legally own human capital. They can do this by employing strategies like creating corporate cultures or learning vocabulary terms to foster unity and impart technical skills to employees. The theory's premise is based on the immeasurable nature of human capital's many manifestations. Human capital, on the other hand, has an intrinsic value that cannot always be quantified. Second, regular research and observation are challenging due to the fact that human capital can be stored but not always utilized fully (Boxall, 2021). It is therefore essential to have technical skills. The total amount of human capital is determined by Nafukho (2004) as the sum of all types of human capital. 2.2 Empirical Literature Review 2.2.1 Information Technology Skills on Manufacturing Firms Performance 12 Technical skills contributes to effective management, enhanced throughput and financial attainment (Garcia et al., 2018). Information Communication Technology skills is key to retaining employees who will support greater value proposition for the organization and the customer. It is becoming more popular as a measure of performance around the world, and it is secondly characterized as the most significant tool of management. According to Endende et al. (2016), ICT skills promotes longer, more advantageous firm productivity and customer satisfaction. A survey by federation of Kenya (FKE) employers in 2018 revealed that, most organizations in Kenya is still lack behind when it comes to technical skills. The study proposed that firms continuously liaise with training institutions to offer her employees new training on dynamic requirements of the modern job (FKE, 2018). Hence, there is need for modern firms to assess and ensure that their employees are continuously trained so as to acquire relevant skills for better firm performance and employee job satisfaction. Technical skills, according to McGuinness (2018), enhances the company’s relationship with its customers who requires constant bilateral interaction and communication. According to (Anderson 2018), there is need for novel approaches of updating skills and recognizing the latent skills of people currently required by the employee. New skills must be used by the employee in the informal economy in order to improve their productivity. However, the reorganization takes time and is rarely smooth. Employees and businesses both suffer in different ways. The skills of some people are in short supply, while those of others are out of date (Wambugu 2015). The investigation executed by Hysong (2018) was to investigate the possible added value of technical competence in managing performance for first-tier managers, in comparison to managerial skill alone. Additionally, the investigation aimed to examine potential mediators that may influence this connection. The study included a sample of 107 first-tier supervisors employed in local petrochemical and engineering industries. These supervisors were invited to participate in an online survey, which aimed to gather information on their professional experience and management abilities. Additionally, the study collected ratings from subordinates about the supervisors' technical expertise, power, and influence tactic habits. 13 Managerial effectiveness was evaluated based on three metrics: employee output, employee contentment, and assessments from those under the manager's supervision. The incremental increase in technical expertise was shown to be a significant predictor of subordinate judgments of management performance, surpassing the influence of managerial talent. The association between technical competence and subordinate evaluations, as well as work contentment, was shown to be mediated by referent power. However, expert power was only found to mediate connections with job satisfaction. The link among expert power and subordinate assessments of management effectiveness was shown to be mediated by rational persuasion. The Technical Ability centered Job readiness Forecasting Model (TSBEPM) is developed by Manjushree, Varsha, Arvind, and Laxman (2021) using ML methods. Students' grades in different computer science classes reflect their technological competence. A Support Vector Machine, Naive Bayesian Logic Regression, Probabilistic Forest, Decision Tree, AdaBoost is and Artificial Neural Network all contributed to the experimental effort by providing forecasts. All models were validated by conducting experiments with data acquired from University of. Various models are developed to forecast where a student will be allocated based on performance-measuring characteristics. An F1-Score of 0.85 is the best that can be achieved using Random Forest, and its accuracy may reach up to 70%. The model is built to be utilized in making placement decisions. The purpose of the research by Mutheu and Perris (2021) was to determine how hiring technical experts affected the success of building houses in Kajiado County. Resource dependence theory was used for the research. In addition, a descriptive methodology was used for this study. The focus was on residential building projects in Kajiado County that would be finished by 2020. Specifically, we looked at a sample of 124 construction projects in Kajiado County that are at least 95% complete. Thirty-seven projects were chosen as a representative sample. The sampling methods used were not based on chance. Clients, vendors, and consultants all had a role in the research, since they were the ones implementing the project. Data was gathered via the use of questionnaires. The investigator gave them a hand and then came back to collect them. The investigation found that using technical competence led to better results for residential building 14 projects. The research concluded that M&E procedures did affect the success of residential building projects. The purpose of the study by Yahya, Iskandar, and Sunardi (2017) was to assess the role of scientific techniques in the practical training of students at a high school for trades. The study used a quantitative, non-experimental design using an ex-post facto poll. There are a total of 523 students enrolled in the mechanical engineering skills package; 172 men and 49 females make up the sample set for this study. A test, questionnaire, and notes were utilized to compile the data. Both descriptive and structural equation modeling (SEM) analyses were performed on the data. The findings revealed that the scientific method's incorporation into vocational education significantly contributes to students' acquisition of technical expertise and has a positive effect on their employability. Technical and employability skills may be honed with the use of a data-driven strategy, as seen above. According to research by Van Minh, Badir, Quang, and Afsar (2017), leadership endorsement is a key factor in fostering staff development and creativity. Few studies have examined how leaders' technical expertise affects minions' ability to learn and innovate, in contrast to the abundance of literature on methods of leadership and management abilities. Information was gathered from 52 managers and 127 employees at 68 different Vietnamese telecom firms. The findings indicate that followers' creative and instructive actions are positively related to their leaders' technical proficiency. In addition, the link between leaders' technical expertise and their employees' creative work behavior is partially mediated by employees' openness to acquiring new skills on the job. Sylvester and Okorie's (2019) study attempted to determine the influence that workers' technical abilities had on the productivity of manufacturing companies in South-East Nigeria. Eighty-six people, representing a wide range of functions across the manufacturing companies, took part in the study by completing surveys and other measures meant to assess their ICT skills and achievements on the job. The data was subjected to a linear regression analysis. There was a highly significant association among ICT competence and work performance, the study found. results, ramifications, and judgments are spoken about 15 Rizk and Daniel (2016) examine the influence of ICT skills on individual job performance in the context of a multinational corporation. The study utilizes a mixed-methods approach, combining surveys to assess ICT skills levels and performance evaluations from supervisors. Data analysis includes regression analysis to determine the relationship between ICT skills and job performance. The study found a positive and significant relationship between employees' ICT skills levels and their job performance. Employees with higher ICT skills demonstrated higher levels of performance in their roles within the organization. 2.2.2 Data Science Skills on Manufacturing Firms Performance According to Bandanaraike (2018), skill development has the potential to increase enterprise and national production. According to Mitchell & Flin (2018), one of the most significant implications among organizations is that skill development in data analytics must be integrated into larger development initiatives if it is to realize its significant potential to increase employment growth and productivity. Essential data skills are needed for firm’s' structural adjustment. The transition of all production factors from lower to higher value-added activities is slowed by the inability to learn new skills due to a lack of basic education or opportunities. Employees and businesses both suffer in different ways. The skills of some people are in short supply, while those of others are out of date (Schumpeter, 2017). Bandanaraike, (2018) say that new ways of keeping skills up to date and recognizing people's hidden skills are what the employee needs right now. In the informal economy, employees must utilize new skills to increase productivity. "Innovative Capacity and Performance: An Empirical Analysis" by Massimo Colombo and Gianmarco Iannuzzi (2017). This study investigated the link between innovative capacity and firm performance in Italy. Using panel data from more than 2,000 manufacturing firms, they found that innovation capability has a positive influence on firm performance, as measured by sales growth and labor productivity. "Innovation Capabilities and Firm Performance: Does Environmental Uncertainty Matter?" by 16 Cheng Luo, Qiugen Wang, and Xiaohui Liu (2017). This study analyzed the role of innovation capabilities in enhancing firm performance under varying degrees of environmental uncertainty. Based on a survey of 260 Chinese manufacturing firms, results showed that innovation capabilities have a stronger influence on firm performance when environmental uncertainty is high. "How Do Innovation Capabilities Improve Operational Performance? Exploring the Mediation Role of Process Improvement" by Jun Wu and Wenbin Zhang (2017). This study focused on exploring the mediating mechanism underlying the relationship between innovation capabilities and operational performance. Drawing on a survey of 201 manufacturing firms in China, they found that process improvement plays a critical role in transmitting the benefits of innovation capabilities into better operational performance. "The Relationship Between Entrepreneurial Orientation and Firm Performance: The Moderating Roles of Industry Characteristics and Knowledge Sharing" by Soheila Kolahchi and Mahdi Esfandiar (2017). This study examined the moderating roles of industry characteristics and knowledge sharing on the relationship between entrepreneurial orientation and firm performance. Based on a survey of 216 Iranian manufacturers, their findings suggested that knowledge sharing strengthened the positive association between entrepreneurial orientation and firm performance, particularly in dynamic environments. "Exploring the Linkage Between Intellectual Capital and Innovation Capabilities: Implications for Firm Performance" by Muhammad Amir Adam, Ali Ahmed Shah, and Tariq Mahmood (2016). This study explored the relationship between intellectual capital and innovation capabilities, and how these factors contribute to firm performance. Based on a survey of 200 Pakistani manufacturing firms, the authors found that intellectual capital has a direct positive influence on innovation capabilities, which in turn leads to enhanced firm performance. Additionally, they discovered that market-oriented culture played a moderating role in this relationship. 2.2.3 Innovative Skills on Manufacturing Firms Performance 17 Innovation is considered the key driver of most successful organizations in modern firms. Inadequate innovative skills, leads to organizations incurring additional costs, due to the need to engage external resource persons (Moon, 2019). In manufacturing sector, one of the challenges that led to the poor performance of leading brands in the world such as KODAK, and Eveready in Kenya is slow pace of acknowledging the need to innovate (Poret, 2019). Innovative skills such as training employees on design thinking has the potential to increase employee’s contribution to the firms in form of knowledge and ideas that can improve overall organizational products and services . Wang and Luo (2018) investigated the influence of ICT skills on academic performance among university students. The study employs a quantitative survey methodology, collecting data through questionnaires distributed to undergraduate students. Statistical analysis, including correlation and regression analysis, is used to examine the relationship between students' ICT skills and their academic performance. The findings indicate a positive correlation between students' ICT skills levels and their academic performance. Higher ICT skills are associated with better academic outcomes, including higher grades and academic achievement. In their 2020 study, Alzahrani and Houghton investigated how SMEs' IT proficiency affected the way they perform. The research uses a mixed-methods strategy, gathering data from surveys and lengthy conversations with business owners and executives. Quantitative data analysis includes regression analysis to assess the relationship between employees' ICT skills levels and organizational performance indicators. Qualitative analysis is used to provide deeper insights into the mechanisms through which ICT skills influence performance. The study found that higher levels of ICT skills among employees were associated with improved organizational performance in SMEs. Specifically, SMEs with employees possessing advanced ICT skills demonstrated higher levels of productivity, innovation, and competitiveness. Sun and Zhang (2017) examined the influence of ICT skills on healthcare professionals' job performance in a hospital setting. The study utilizes a quantitative survey methodology, collecting data through questionnaires distributed to healthcare professionals, including doctors, nurses, and 18 administrative staff. Statistical analysis, such as regression analysis, is used to investigate the relationship between healthcare professionals' ICT skills levels and their job performance. The findings reveal a positive relationship between healthcare professionals' ICT skills levels and their job performance. Healthcare professionals with higher ICT skills demonstrated greater efficiency, accuracy, and effectiveness in their roles, contributing to improved patient care and organizational outcomes. Wang and Li (2019) examined the influence of data science skills on business performance in the context of manufacturing firms. The study employs a quantitative survey methodology, collecting data through questionnaires distributed to manufacturing firms. Regression analysis is used to assess the relationship between employees' data science skills and business performance indicators, such as productivity, innovation, and profitability. The findings suggest a positive association between employees' data science skills and business performance. Firms with employees possessing advanced data science skills demonstrate higher levels of productivity, innovation, and financial performance. Chen and Zhang (2020) investigated the influence of data science skills on financial performance among companies in the financial services sector. Combining quantifiable evaluation of data with conversations with financial experts, the research employs an approach that combines both methods. Examining the correlation between data science competencies and financial performance indicators like ROI and ebitda requires statistical methods like regression analysis. The study finds a positive correlation between firms' data science capabilities and financial performance. Companies with stronger data science capabilities demonstrate higher profitability and competitive advantage in the financial services industry. Liu and Wang (2018) explored the influence of data science skills on academic performance among university students in STEM fields. The study employs a quantitative survey methodology, collecting data through questionnaires administered to undergraduate and graduate students. Regression analysis is used to assess the relationship between students' data science skills and academic performance indicators, such as grades and research output. The findings indicate a 19 positive correlation between students' data science skills levels and their academic performance. Higher data science skills are associated with better academic outcomes, including higher grades and research productivity. Park and Lee (2017) examined the influence of data science skills on organizational performance in the healthcare sector The study utilizes a quantitative survey methodology, collecting data through questionnaires distributed to healthcare organizations. Statistical analysis, such as regression analysis, is used to investigate the relationship between organizations' data science capabilities and performance metrics, such as patient outcomes and operational efficiency. The findings reveal a positive relationship between organizations' data science capabilities and performance. Healthcare organizations with advanced data science skills demonstrate improved patient care, operational efficiency, and overall organizational effectiveness. Kim and Lee (2019) aimed to assess the influence of data science skills on marketing performance in the retail industry. The study employs a mixed-methods approach, combining surveys with analysis of marketing metrics and sales data. Statistical analysis, including regression analysis, is used to examine the relationship between employees' data science skills and marketing performance indicators, such as customer engagement and sales revenue. The study finds a positive association between employees' data science skills and marketing performance. Retail firms with employees possessing advanced data science skills demonstrate higher levels of customer engagement, sales conversion rates, and revenue growth. 2.3 Conceptual Framework This is an introduction technique in which the researcher visualizes the relationships between elements and the interrelationships in the research graphically or diagrammatically (Orodho, 2008). A variable, according to Kothari (2009), is a notion capable of taking distinct quantitative aspects. On the other hand, Mugenda (2008) defines a variable as a quantifiable hallmark that predicts distinct traits among units of a population. The autonomous variable and ward variable are the two most important components in this investigation. According to Mugenda (2008), the 20 free factors are called indicator factors since they predict variation in another variable. A needed variable, also known as a model variable, is one that is influenced by another variable. The reliant variable is the one that needs to be clarified by the researcher. Following that, this investigation attempted to determine how strategic customer relationship management, risk management, strategic technical skills, and financial management practices influence manufacturing firm performance in Kenya's Nairobi City County. Independent variable Dependent variable Source: Researcher, 2023 2.4 Recap of Literature Review Hermenegildo et al. (2020) carried out a study on sustainable business model innovation, digital Information Communication Technology  Computer Packages Skills  Social Media Skills  Communication Skills Performance of Manufacturing Firms  Firm Revenue  Market Share  Gross profit Data Science  Data collection  Data analysis  Data presentation Innovation  Ideation  Implementation  Value addition Figure 1: Conceptual Framework 21 transformation, and customer relationship management. The researcher placed a greater emphasis on customer relationship management and neglected to mention other management techniques such as strategic technical skills, risk management, and financial management practices, all of which are critical to the success of manufacturing businesses. A study by (Khedker et aI.,2015) on looking at how customer relationship management affects customer satisfaction and loyalty emphasized marketing tactics rather than technical skills strategies. (Osman, 2019) used strategic management methods to investigate Kenya Commercial Bank's performance in Nairobi City County, Kenya. The researcher discussed about strategic control, strategy creation, data science skills, and intent. However, the researcher discussed the process of developing a strategic plan. The health department of Nairobi City County, Kenya (Nzoka, 2017) conducted a study on strategic management techniques adoption and service delivery. Without identifying any of them, the researcher simply focused on the adoption of strategic management approaches. (Mitchell & Flin, 2018) conducted research on human capital as a technique for increasing organizational productivity. Cheluget (2017) conducted research in Uasin Gishu County to determine the importance of FMP in achieving project objectives. Ngugi (2015) conducted study in Machakos County on the relationship between budget control and CDF accomplishments. (Pimchangthong and coworkers,2017) looked into how IT project success was affected by risk management strategies (Osman, 2019). The influence of risk management practices on Ghana's banking industry was investigated by (Niah et aI,2014). (Aduma et al, 2018) conducted research in Nairobi, Kenya, to learn about risk management procedures at the National Hospital Insurance Fund. An investigation was done on the use of strategic planning approaches and execution of services by the health division of the county of Nairobi, Kenya (Nzoka, 2017). In the context of customer relationship management, a study was carried out on customer satisfaction and loyalty (Khedker et al., 2015). (Hermenegildo et al., 2020) carried out a study on management of existing client relationships, digital innovation, and the creation of new ones. 22 2.5 Research Gap Creating a Competitive Advantage technical skills acquisition was the subject of research (Nagwan et al., 2020). The study however, did not capture any other aspect of management practices other than customer relationship management. The researcher recommended the more study of the dimensions of other management practices of strategy, hence the need for the current study to focus on technical skills. (Hermenegildo et al., 2020) carried out a study on Management of existing client relationships, digital innovation, and the creation of new ones. The researcher placed a greater emphasis on customer relationship management and neglected to mention other management techniques such as strategic technical skills, risk management, and financial management practices, all of which are critical to the success of manufacturing businesses. The expert also suggested that more research be done in the manufacturing sector. (Khedker et al 2015) performed a study on relationships of consumer’s management and its influence on consumer happiness and loyalty, focusing mostly on marketing techniques and ignoring strategic management practices such as financial management and risk management. (Osman, 2019) used strategic management methods to investigate Kenya Commercial Bank's performance in Nairobi City County, Kenya. The researcher spoke about strategic control, strategy creation, data science skills, and intent. The researcher highlighted strategic plan processes but placed no emphasis on the need for technical skills. 23 CHAPTER THREE: RESEARCH METHODOLOGY 3.0 Introduction This chapter shows study design, data gathering techniques and methods, study area, target populace, piloting, data tanalysis tand tdata tpresentation. 3.1 Research Methodology The study adopted a quantitative approach method, where quantitative data was collected to enable the study answer the research objectives. This approach helps researchers to gain more complete examination of the aspects of the study (Mugenda and Mugenda, 2013). The approach also, enables generalization of research findings, in addition to providing credible results as compared to the use of singular method of approach (Khotari and Garg, 2015). 3.2 Research Design The study adopted a quantitative approach method, where quantitative data was collected to enable the study answer the research objectives. This approach helps researchers to gain more complete examination of the aspects of the study (Mugenda and Mugenda, 2013). The approach also, enables generalization of research findings, in addition to providing credible results as compared to the use of singular method of approach (Khotari and Garg, 2015). A descriptive research strategy was employed for this investigation. Descriptive design allows the researcher to examine the background of research problem, before embarking on the actual research. In doing so, the researcher was able to determine the characteristics of the manufacturing 24 firms’ respondents such as their opinions, traits, and performance behaviors, in relation to employee retention. According to (Khotari and Garg, 2015), descriptive design accurately describes the study’s population and its characteristics. It enables researchers to answer questions such as what, where, when and how but not the why questions. In addition, it assists researchers investigate more than one variable while not being able to tcontrol tor tmanipulate tany tof tthe tvariables tbeing tstudied, hence can only observe and measure them. (Mugenda and Mugenda, 2013). 3.3 Study Location Manufacturing firms in Nairobi City County, Kenya, constitute a vital component of the nation's economy, contributing significantly to employment, production output, and GDP. Nairobi, as the capital city, serves as a hub for industrial activities, hosting a diverse array of manufacturing industries. These include food processing, textiles, chemicals, pharmaceuticals, electronics, and construction materials, reflecting the city's role as a center for industrial diversity and economic activity. According to the Kenya National Bureau of Statistics (KNBS), the manufacturing sector in Kenya contributed approximately 9.2% to the country's GDP in recent years. This underscores its substantial economic importance and contribution to national development. Manufacturing firms in Nairobi play a crucial role in job creation, absorbing a significant portion of the urban workforce. This aspect is pivotal for urban development and poverty alleviation, providing employment opportunities and contributing to household incomes. However, despite its significance, manufacturing in Nairobi faces several challenges. These 25 include inadequate infrastructure, high production costs, regulatory hurdles, and intense market competition. These factors can hamper the sector's growth and competitiveness both domestically and internationally. The World Bank has highlighted these challenges in its reports, emphasizing the need for improvements in infrastructure and the business environment to support industrial development effectively. 3.3 Population The study population was business development/Strategic/Innovation managers among selected manufacturing companies in Nairobi County who are viewed in this study to have a broad range of capabilities and are contributors to and leaders of the growth agenda. There are 253 manufactured firms in Nairobi City, hence, this was considered as the target population for the study. 3.4 Sampling Frame Sampling frame is the source used by researchers to define the population of interest. It is the list containing elements tfrom twhich tthe tresearcher tcan tselect tthe tsample tfor tthe tstudy (Kothari, 2004; Mugenda & Mugenda, 1999). As such, the sampling frame was the list of manufacturing firms listed on KAM directory. 3.5 Sample and Sampling Technique 3.5.1 Sampling Technique The study utilized simple random sampling to identify respondents for the study. This method 26 allowed the researcher to partitioned the population into relatively smaller homogeneous groups called strata and thereafter, a basic method of randomization is used to choose a representative sample from each stratum. (Kothari, 2004). 3.5.2 Sample Size A sample is a selection of data points from a larger population tfor tthe tpurpose of illustration. The right sample size is important in finding a statistically significant result (Mugenda & Mugenda, 1999). A sample of 76 was obtained using 30% of the total population. 3.6 Data Collection Instrument The data collection was done using structured questionnaire. This encompassed closed questions. Questionnaires are preferred model of collecting data because they are able to collect large amount of data in a short time (Khotari and Garg, 2015). The closed-ended utilized likert scale type questions to facilitate quantitative data analysis and interpretation. The questionnaire were structured into 5 likert scale, from Strongly agree (5), Agree (4), Not Sure (3), Disagree (2) and Strongly Disagree (1). Closed-ended questions are considered the best for research surveys, since it yields a higher response. In addition, they can easily be analysed statistically especially with survey data (Mugenda & Mugenda, 1999). 3.7 Data Collection Procedure The first step of data collection procedure was to get permission to conduct the research from Mount Kenya University. The next step in gathering data was to apply for NACOSTI permit, 27 which was obtained after two weeks. Thereafter, the researcher accessed the sampled manufacturing via an official letter to Human Resource Manager. The tquestionnaires twere thand tdelivered and issued to respondents of 76 manufacturing tfirms tin tNairobi tCity tCounty with the aid of four research assistants who collated the questionnaires once filled for onward submission to the researcher. The two assistants were briefed beforehand on the ethical consideration to be observed when carrying out the data collection exercise, in addition to adhering to the two institutional work ethic and procedures. A token of appreciation was offered to the two assistants once the exercise is completed. 3.8 Pilot Testing A pilot study enables the researcher to assess and improve the data protocol by testing it on a smaller-sized sample so as to enable planning and modification of the instrument for the main study (Kothari, 2004). As such, the questionnaire was piloted in Kiambu County which Neighbors Nairobi City. In the pilot phase, we only asked for feedback from a small subset of participants (8 people). Pilot investigations are conducted to determine the reliability and veracity of research tools. 3.8.1 Test of validity The quality of the proposals or measures is ascribed to the extent to which they correspond to existing knowledge or truth according to Neuman (2005). For example, an attitude scale is deemed legitimate to the degree to which the findings correspond to other attitude ownership measures. Content and construct techniques of validity are thus used for validity assessment, using 10 copies 28 of the instrument during pilot tests for validation. This is to check that questions are properly worded and relevant, and that they include sufficient information to guarantee content and validity. 3.7.2 Test of reliability According to Mugenda & Mugenda (2008), consistency is the evaluation of how well an investigation tool maintains its credibility and dependability across time. A Cronbach alpha coefficient criterion of at least 0.70 is considered trustworthy. Pilot tests were done and a Cronbach alpha is calculated using version 26 of SPSS. Tabulated below are the results of our reliability tests 29 Table 1: Reliability of Research Instruments Variable No of Items Items deleted Cronbach Alpha Reliable Information Technology Skills 3 0 0.836 Yes Data Science Skills 3 0 0.761 Yes Innovative Skills 3 0 0.816 Yes Firm Performance 4 0 0.844 Yes Total 13 Average 0.814 Yes Source: Field Data (2022) In accordance with the data presented in Table 1, the Cronbach alpha coefficient varied within 0.761 for Data Science Skills and 0.844 for Firm Performance. The questionnaire demonstrated a high level of consistency, with a consistency coefficient above 0.7. This indicates a strong internal consistency among the questions inside the questionnaire instrument. Consequently, the tool was preserved in its original state without undergoing any further modifications. 3.9 Data Processing and Analysis Descriptive statistics were applied to the numerical responses to the ranked Likert scale questions. Data presentation was done using tables, charts and frequencies. Cross-tabulations was also carried out to enable further interpretation and in answering research objectives. Kothari (2004) asserts that the fundamental statistical metrics often used to succinctly summarize data consist of measures of central tendency, namely the mean, median, and mode, as well as indicators of dispersion, such 30 as the deviation from the mean. 3.9.1 Simple Linear Regression Analysis The simple linear equation for regression was tused tto trepresent tthe trelationship tbetween tthe tindividual independent tfactors tand tthe tdependent tvariable; Y=α t+ tβ1X1 +ε Y=α t+ tβ2X2+ε Y=α +β3X3+ε Where; γ= tDependent tvariable t[Performance tof tManufacturing tFirms] α=Constant; tthe ty tintercept tor tthe taverage tresponse twhen tpredictor tvariables tare t0 X1= tIndependent tvariable t1 t[Information tTechnology tSkills] X2= tIndependent tvariable t2 t[Data tScience tSkills] X3= tIndependent tvariable t3 t[Innovative tSkills] ε= terror tterm β1…. tΒ3 t= tBeta tCoefficients 3.9.2 Multiple Regression Analysis The multiple equation for regression was tused tto trepresent tthe trelationship tbetween tthe tindependent tfactors tand tthe tdependent tvariable; 31 Y=α t+ tβ1X1 t+ tβ2X2+β3X3+ε Where; γ= tDependent tvariable t[Performance tof tManufacturing tFirms] α=Constant; tthe ty tintercept tor tthe taverage tresponse twhen tpredictor tvariables tare t0 X1= tIndependent tvariable t1 t[Information tTechnology tSkills] X2= tIndependent tvariable t2 t[Data tScience tSkills] X3= tIndependent tvariable t3 t[Innovative tSkills] ε= terror tterm β1…. tΒ3 t= tBeta tCoefficients 3.9.3 Diagnostic Tests Before proceeding with inferential statistics, the researchers conducted diagnostic analyses to assess the assumptions underlying Pearson correlation and multiple regression analyses. By conducting diagnostic analyses, researchers can identify any potential issues or violations of assumptions that may affect the accuracy and interpretation of the results. This approach enhances the robustness of the statistical analyses and strengthens the overall validity of the research findings. Normality tests: To ensure the validity of the statistical analyses, the study employed the Shapiro- Wilk Test to assess the normality of the data. This test is widely used to determine if a dataset follows a normal distribution, helping researchers identify any deviations that may influence the 32 reliability of parametric tests. By examining normality, the study aimed to enhance the accuracy and validity of its statistical findings. Multicollinearity: When there is a correlation between a number of distinct variables this is called multi-collinearity. When the correlation between the variables that are autonomous is strong (r=0.9 or above), we say that there is multiple collinearity This is a highly serious issue for several regressions. According to Tabachnick and Fidell (2001), it is advised to use caution when combining variables that have a bivariate correlation of 0.7 or higher in a single study. We will utilize the Variance Inflation Factor and the Tolerance threshold to check for a multi-col It is considered acceptable to have a VIF lower than 10 or a margin of error higher than 0.1. A linearity test determines how well the dependent variable tracks the change in the independent variable. Meaning, for regression to work, there can be no non-linear correlations between the independent and dependent variables. All of the study's predictor variables were analyzed using pearson correlation to see whether they were significantly correlated with the dependent variable. Independence: The absence or presence of autocorrelation is a prerequisite for linear regression analysis. When there is a lack of independence amongst the residuals, autocorrelation occurs. The Durbin-Watson test was used to determine independence. It verifies the independence of residuals by running them through a series of linear or multiple regression tests. There is no issue with autocorrelation when the Durbin-Watson factors are between 1.5 and 2.5 (Malau, 2018). 3.10 Ethical Consideration Given that the study includes the participation of human individuals, it was carried out in full 33 adherence to the relevant ethical protocols. The preservation of professionalism in research was maintained by the implementation of these ethical principles. The research guaranteed the preservation of confidentiality and respect for each participant. The privacy of individuals from whose personal data was gathered shall be preserved with utmost respect and discretion. The individuals who participated in the study provided their informed permission prior to the commencement of any research activities. Prior to being recruited as a study participant, individuals must first get an informed consent form. The study participants were not subjected to coercion or bribery in any form to ensure their participation. The consultation process included relevant stakeholders, including persons, bodies, and committees, and NACOSTI provided approval for the study. Prior to their agreement to participate, participants were provided with information on the objectives, methodologies, and possible results of the research. Each research study was adhered to the ethical criteria set by the respondents, and proper attribution was given to all authors and sources involved. The researcher used utmost caution to avoid any occurrences of scientific misconduct, including inadequate data collecting methodologies or fraudulent assertions of authorship. The research was conducted with a high level of expertise, according to the principles of impartiality and scientific rigor. It ensured that the approach, analysis, and interpretation of the data are free from any kind of bias. 34 CHAPTER FOUR DATA ANALYSIS, PRESENTATION AND DISCUSSION 4.1 Introduction The purpose of this research was to examine tthe tinvestigate tthe tinfluence tof ttechnical tskills ton tperformance of manufacturing firms in Nairobi City County in Kenya. This chapter offers the study's analysis, conclusions, and comments. In particular, the research looked at how proficiency in ICT, data science, and creativity all play a role. The results of empirical investigations are presented in this chapter via the use of descriptive statistics, Pearson correlation, and regression analysis. Questionnaires were used to gather data, which was subsequently processed, analyzed, and shown in tables and models according to each variable that was independent using the Statistical Package for the Social Sciences (SPSS). 4.2 Response Rate Based on the given sample size, a set of 76 surveys were sent to an equivalent number of responders. A total of 59 surveys were filled out correctly and returned, yielding a response rate of 77.6 percent. The pick and drop method had the greatest percentage of responses, with a return rate of 77.6 percent. Cooper and Schindler (2008) posit that response rates over 50% are deemed satisfactory for the purposes of data analysis and publishing. A response rate of 60% is considered commendable, while a rate of 70% is classified as very favorable. Furthermore, a response rate of 80% is regarded as extraordinary. 4.3 Demographic Characteristics The demographic characteristics of the respondents comprised of age, education level and duration worked in the company. The results are as follows. 35 Table 2: Age of the respondents Age Frequency Percentage Under t20 tyears tof tage 0 - 20-30 tyears tof tage 12 20.30 31-40 tyears tof tage 29 49.20 41-50 tyears tof tage 14 23.70 Over t50 tyears tof tage 4 6.80 Total 59 100 Table 1 shows that none of the respondents was found to be under 20 years old. However, majority of the sampled respondents were between 31 and 40 as shown by 49.20%, between 41 and 50 years were 23.7% while between 20 and 30 years were 20.3%. Over 50 respondents were 6.8% of the sampled respondents. It's safe to assume that most responses are under the age of 50. This means they were able to provide the requested data on the efficiency of factories in Kenya's Nairobi City County. Figure 2: Age of the Respondents 0 10 20 30 40 50 60 Under 20 years of age 20-30 years of age 31-40 years of age 41-50 years of age Over 50 years of age 36 Table 2 exhibits the outcome of the study's attempt to determine the average educational level of those who took part. The education level of respondents is an important factor to consider when designing and conducting data collection activities. By taking into account the potential influence of education level, researchers can help to ensure that their data is as accurate and representative as possible. Table 3: Highest Level of Academic Highest Level of Academic Frequency Percentage College Diploma 7 11.90 University Graduate 33 55.90 Postgraduate 19 32.20 Total 59 100 It is evident that more than half of the respondents were university graduates as shown by 55.9%, 32.20% were having post graduate as highest level of academic while 11.9% were having college diplomas. The education level of respondents can play a significant role in data collection. The results imply that most of the respondents were knowledgeable and this aided in the collection of data. It's clear that the responders have the knowledge and abilities to do the jobs they've been given. 37 Figure 3: Highest Academic Level The researcher also sought to establish work duration of the respondents to their current employer. the work duration of respondents is a valuable variable to consider during data collection as it provides insights into their experience, engagement, and overall contribution to the organization. Table 4: Number of Years Respondents have worked for their current employer Years Frequency Percentage Less tthan t1 tyear 2 3.40 1-5 tyears 11 18.60 5-10 tyears 34 57.60 Above t10 tyears 12 20.30 Total 59 100 According to the findings shown in Table 4, it was observed that a proportion of 3.4% of the participants reported having worked for their current company for a period of less than one year. 11.9 55.9 32.2 0 10 20 30 40 50 60 College Diploma University Graduate Postgraduate 38 Additionally, 18.6% of the respondents showed a tenure ranging from 1 to 5 years, while a majority of 57.6% reported a duration of employment between 5 and 10 years. Furthermore, a percentage of 20.3% revealed having been employed by their current organization for over 10 years. Figure 4: Duration working with Current employer 4.4 Influence of Information Communication Technology Skills on Performance of Manufacturing Firms Information communication technology skills variable was used in the first objective which sought to analyze the influence of information communication technology skills on performance of manufacturing firms in Nairobi City County in Kenya. The findings are presented descriptively and inferentially as follows. 4.4.1 Descriptive Statistics The distribution of statistics that are descriptive in academic research often involves reporting the frequencies, percentages, means, and standard deviations of the variables under consideration. The 3.4 18.6 57.6 20.3 0 10 20 30 40 50 60 70 Less than 1 year 1-5 years 5-10 years Above 10 years 39 independent factors in this study were information communication technology skills, data science skills, and inventive abilities. The variable that was dependent was the performance of manufacturing enterprises in Nairobi City County, Kenya. The respondents were asked to rate their extent from 1 not at all to 5- very great extent. The results are presented in Figure 5. Figure 5: Information communication technology skills From Figure 5, 30.5% of the respondents indicated that they possess a proficient skill set in using Microsoft Excel, Word, and PowerPoint applications at great extent while 23.7% confirmed at very great extent. On the other hand, 8.5% indicated 8.5% of the respondents that they do not possess a proficient skill set in using Microsoft Excel, Word, and PowerPoint applications while 18.6% of the respondents at small extent. These findings align with the increasing importance of digital literacy skills in the modern workplace. Proficiency in Microsoft Office applications is often considered essential for various professional tasks, including data analysis, document creation, and presentation development (Levin et al., 2016). Organizations often prioritize training and development initiatives to enhance employees' proficiency in these applications, recognizing 8.5 3.4 5.1 18.6 5.1 3.4 18.6 23.7 16.9 30.5 39.0 39.0 23.7 28.8 35.6 0.0 5.0 10.0 15.0 20.0 25.0 30.0 35.0 40.0 45.0 I possess a proficient skill set in using Microsoft Excel, Word, and PowerPoint applications. I possess a comprehensive understanding of using various social media sites. I possess a comprehensive understanding and proficiency in using email communication. Not at all Small extent Moderate extent Great extent Very great extent 40 their significance in improving productivity and facilitating effective communication and collaboration (Schroeder, 2018). In regards to possessing a comprehensive understanding of using various social media sites, 39.0% of the respondents indicated they possess a comprehensive understanding and proficiency in using email communication at great extent and 35.6% at very great extent. This contradicted 5.1% who did not possess a comprehensive understanding and proficiency in using email communication at all and 3.4% at small extent. Email communication remains a fundamental tool for business communication, enabling efficient information exchange, collaboration, and coordination among employees (Kim & Shin, 2019). Proficiency in email usage is essential for maintaining professional relationships and managing work-related tasks effectively. Organizations often provide training and resources to enhance employees' email etiquette and communication skills, emphasizing clarity, professionalism, and responsiveness in email correspondence (Robinson & Shaver, 2018). Lastly, 39.0% of the respondents revealed that they possess a comprehensive understanding of using various social media sites at great extent as compared to 28.8% who indicate at very great extent. On the other hand, 3.4% revealed that they do not possess a comprehensive understanding of using various social media sites while 5.1% indicated at small extent. Social media platforms play a vital role in modern communication and networking, offering opportunities for professional networking, marketing, and knowledge sharing (Kaplan & Haenlein, 2017). Proficiency in social media usage enables individuals to leverage these platforms effectively for both personal and professional purposes. Organizations increasingly recognize the value of social media literacy among employees and may provide training and guidelines to promote responsible and effective use of social media in the workplace (Qualman, 2019). These findings align with previous research suggesting that many workers today need to be skilled in using digital tools like office software and email for work tasks (Blikstad-Balas et al., 2020; Kim et al., 2021). Moreover, recent studies have highlighted the increasing importance of social media literacy for professional purposes, including networking, brand management, and customer 41 engagement (Kaplan & Haenlein, 2020; Van Noort et al., 2018). Therefore, organizations may benefit from investing in training and development programs to enhance their employees' digital literacy, especially given the growing trend towards remote work and virtual collaboration (Chen et al., 2020). 4.4.2 Simple Linear Linear Regression Analysis In the study, the researchers utilized a statistical technique known as simple linear regression to analyze the relationship between two variables: Information Communication Technology (ICT) skills and the performance of manufacturing firms. Simple linear regression helps in understanding how changes in one variable (ICT skills) relate to changes in another variable (firm performance). By employing this method, the researchers aimed to quantify the extent to which ICT skills influence the performance outcomes of manufacturing firms. This analysis helps in identifying the significance and direction of the relationship between the variables, providing valuable insights into the influence of ICT skills on firm performance. The results are indicated in Table 5. 42 Table 5: Linear Regression Results of Information communication technology skills on the Performance of manufacturing firms Model tSummary Model R r-square Adjusted tr-square Std. tError tof tthe tEstimate 1 .572a .327 .315 .33199 ANOVAa Model Sum tof tSquares df Mean tSquare F Sig. 1 Regression 3.055 1 3.055 27.714 .000b Residual 6.283 57 .110 Total 9.337 58 Coefficients’ Model Unstandardized tCoefficients Standardized tCoefficients t Sig.  Std. tError Beta (Constant) 2.933 .263 11.173 .000 Information communication skills .363 .069 .572 5.264 .000 t t ta. tDependent tVariable: tFirm tperformance The findings from Table 5 indicate that the F-Statistic is statistically significant, with a F(1, 57) value of 27.714 and a p-value of 0.000, which is less than the predetermined significance level of 0.05. These results suggest that the model successfully captures a linear connection among Information communication skills and the performance of manufacturing firms in Nairobi City County, Kenya. The statistical model, specifically focused on Information communication abilities, accounted for 32.7% of the variability seen in the results of manufacturing enterprises located in Nairobi City County, Kenya. This effect is represented by an r-square value of 0.327, as presented in Table 5 The findings of the regression Coefficient shows that the unstandardized beta coefficient for the Information communication skills variable is significant as shown in Table 6 above; = 0.363, t = 5.264, p=0.000 <0.05; therefore, Information communication skills had a statistically significant influence on the performance of manufacturing firms in Nairobi City County in Kenya. 43 Information communication skills had a positive standardized beta coefficient value of 0.572 as shown in the coefficients results of Table 6; these findings indicate that a unit improvement in the information communication skills is likely to improve performance of manufacturing firms in Nairobi City County in Kenya by 57.2%. The constant in the model was found to be statistically significant; =2.933, t = 11.173, p=0.000 <0.05 (see table 6); This finding suggests that, in addition to the Information communication skills in the model, 5here are other variables that are not accounted for in the model, however they have a substantial influence on the operational outcomes of industrial enterprises within Nairobi City County, Kenya. The subsequent model was used to forecast the success of manufacturing enterprises in Nairobi City County, Kenya, under conditions of elevated Information Communication Technology (ICT) abilities; Firm performance= 2.933 + 0.363 Information communication skills Empirical evidence supports the positive relationship between ICT skills and manufacturing firm performance. A study by the World Bank found that firms with higher levels of ICT adoption tend to be more productive and profitable. Similarly, a study by the European Commission found that firms that invest in ICT training are more likely to achieve innovation success. The relationship between ICT skills and manufacturing firm performance is symbiotic (Radicic, Pugh, Hollanders, Wintjes & Fairburn, 2016). By investing in ICT skills development, manufacturing firms can reap a multitude of benefits, including enhanced productivity, improved quality, and increased innovation. In a world where technological change is accelerating, ICT skills are essential for manufacturing firms seeking to thrive in the competitive global marketplace (Moore & Manring, 2019). The findings are corroborated by Sylvester and Okorie (2019), who conducted a study with the objective of determining the technical competencies of workers in manufacturing companies located in the South-East region of Nigeria, and examining the influence of these competencies on performance outcomes. The findings revealed a statistically significant connection between 44 information and communication technology (ICT) abilities and the work performance of employees. The discussion encompasses the findings, consequences, and conclusions. In their study, Mutheu and Perris (2021) aimed to investigate the influence of technical knowledge involvement on the performance of residential building projects in Kajiado County. The research conducted shown a significant association between the level of technical knowledge involvement and the overall success of residential building projects. 4.5 Influence of Data Science Skills on Performance of Manufacturing Firms Data science skills variable was used in the second objective which sought to analyze the influence of data science skills on performance of manufacturing firms in Nairobi City County in Kenya. The findings are presented descriptively and inferentially as follows. 4.5.1 Descriptive Statistics The respondents were asked to rate their extent from 1 not at all to 5- very great extent. The results are presented in Figure 6 Figure 6: Descriptive Statistics for Data Science 6.8 8.5 3.4 8.5 3.4 8.510.2 22.0 13.6 40.7 33.9 50.8 33.9 32.2 23.7 0.0 10.0 20.0 30.0 40.0 50.0 60.0 I am quite skilled in the processes involved in the collection of data. I have received comprehensive training in the use of fundamental data analysis approaches. I possess exceptional skills in the creation and delivery of comprehensive reports. Not at All Small Extent Moderate Extent Great Extent Very Great Extent 45 As indicated in Figure 6, 40.7% of the respondents confirmed that they are quite skilled in the processes involved in the collection of data and additional 33.9% indicated they are quite skilled at very great extent. On the other hand, 6.8% indicated that they are not skilled at all while 8.5% indicated they are skilled at small extent in the processes involved in the collection of data. Proficiency in data collection processes is essential for gathering accurate and reliable data, which forms the foundation for informed decision-making and analysis within organizations (Hair et al., 2019). Effective data collection requires attention to detail, adherence to established methodologies, and the ability to identify and address potential biases or errors in the data collection process (Bryman, 2016). The results further revealed that 33.9% indicated that they have received comprehensive training in the use of fundamental data analysis approaches at great extent while 32.2% at very great extent. These contradicted 8.5% who indicated that they have not received comprehensive training in the use of fundamental data analysis approaches at all while 3.4% indicated at small extent. Comprehensive training in data analysis approaches equips individuals with the necessary skills and techniques to analyze and interpret data effectively, enabling evidence-based decision-making and insights generation (Field, 2018). Training in fundamental data analysis approaches may encompass various statistical methods, data visualization techniques, and software tools commonly used for data analysis, such as SPSS, R, or Python (Kabacoff, 2015). Lastly, 50.8% of the respondents indicated they possess exceptional skills in the creation and delivery of comprehensive reports at great extent and 23.7% at very great extent. However, 3.4% indicated they do not possess exceptional skills in the creation and delivery of comprehensive reports at all while 8.5% at small extent. Proficiency in report creation and delivery is crucial for effectively communicating insights and findings derived from data analysis to stakeholders within and outside the organization (Kaplan & Norton, 2016). Exceptional skills in report creation involve not only the ability to present data in a clear and concise manner but also the capacity to tailor reports to the specific needs and preferences of the audience (Few, 2013). Overall, these findings highlight the significance of proper training and education in developing 46 essential analytical skills, including data collection, analysis, and presentation, as noted in prior literature (e.g., Galvis & Rodríguez, 2018; Tseng et al., 2018). By equipping individuals with robust data literacy, employers stand to gain valuable insights