Abstract
Big data analytics (BDA) is the process of capturing and storing huge volume of data which has different formats and generated in high Velocity. It also refers to the process of analyzing big data for the purpose of decision making, strategic planning and policy formulation. Some of the applications of BDA include market segmentation, sales forecasting, weather forecasting, payment fraud detection, crop diseases detection, e-commerce analysis and users purchasing recommendation and others. The application of BDA is not only left for economically developed regions. It is also important for resource-constrained environments. In this study, challenges of identifying and utilizing big data analytics in the resource-constrained environment in the case of Ethiopia have been explored using some case. The case studies considered potential industries that can generate big data in Ethiopia. Ethiopian Telecommunication Corporation, Agricultural Transformation Agency, Payment systems like Hello Cash and Ethiopian Educational Networks (EthERNet) were considered as a case study. In the study, a qualitative grounded approach has been applied. Data was collected using a semi-structured interview approach. As data analysis result and discussion indicated that even if the selected potential industries have been generated big data they are not using it fully for the purpose of decision making. Potential challenges were identified in the identifying and utilizing of BDA in a resource-constrained environment. Some of these areas: lack of BDA awareness, data integration challenge, lack of skilled experts in the area, lack of data correctness and completeness, lack of standardized data registry, lack of leadership and management skill, issue of data privacy and infrastructure challenges including a huge volume of storage device constraint. Based on the identified challenges of BDA implementations in this study and possible application areas of BDA in those industries, a conceptual framework of the study were formulated.
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1 Introduction
Big Data Analytics (BDA) is using large, diverse, and dynamic sets of user and machine-generated data as well as applying new methods of analytics to generate some interesting and prevailing knowledge [5, 20]. Data Analytics (DA) is the application of Business intelligence & analytics technologies that are based on data mining and statistical analysis [5, 38].
The application of big data (BD) and BDA in making an organizational data-driven decision has created a centre of attention over the past a few years. Some of the major areas of BD and analytics application areas are identified. Service providing divisions such as banking and finance, e-government and politics, smart health and wellbeing, telecommunication, information technology companies, security and public safety, science, technology and electronic-commerce are quickly adopted BD [5].
The application of BDA is not left only for high-income countries. It can be also highly applicable in low-income countries. But in low-income countries like Ethiopia, there is an issue of infrastructure development and know-how (understanding) of organizations on the application of BD, which are both low and hindering BDA availabilities in the organizations. The main motivation of this research is to identify and utilize the opportunities of BD and BDA application in the context of low-income countries like Ethiopia where there are different challenges like infrastructure. Through the research, the following research question were addressed: what are the challenges of identifying and utilizing BDAs in a resource-constrained environment? In this research, potential industries like Ethio-telecom, Agricultural transformation agency, payment systems (like hello cash) and education institutions were considered as a case study. The researcher has selected these cases studies due to their hugeness in producing data with different varieties and at a high-speed rate. In the meantime, these organizations are leading in the country on having a huge number of customers. The other reason behind considering these organizations is due to BDA analytics is flourishing or applying a lot in high-income countries in those industries which are addressed in the related work section.
Although big data has lots of benefits, there are some challenges related to storage and scalability issue of which “storage systems are not capable enough to store data” [1, 7, 12, 17]. Some scholars were addressed challenges related to lack of expert in the domain area, privacy and security challenge [12, 29, 39], data error [10] and challenge on representation of heterogeneous data [5, 17]. Other challenges are lie in data collection, storing, searching, analysis, sharing and visualization [1].
2 Related Works
As addressed by some scholars BD and BDA have been used to address huge volume of datasets (from terabytes to exabytes) and complex datasets (captured from large-scale enterprise systems, online social graphs, mobile devices, internet-of-things and open data/public data) that they need highly developed storage management and apply systematic use of analytical applications and data representation technologies [3, 5].
BDA is magnificently being used in different industries, such as telecom, environmental studies banking, education, insurance, social media user behavior identification [8, 26]. As addressed by [16] government industries use BDA to improve their capability to give services for the citizens by addressing different national challenges related to healthcare, job creation, economy, terrorism and natural disasters. For example, telecom companies have long had access to extensive bits of data with a large base of their subscribers connecting daily to their network and services [28]. As addressed by [4] telecommunication industries are now capturing more and more data volume that is consumers are making more calls and connecting more and more to connect to the internet that is benefitting from a larger variety of sources as well as from higher velocity in data generation. Having these huge volumes of data helps companies to classify their customers’ behaviors and usage patterns. Countries like China use big data to conduct predictive analytics and enhance their businesses in the banking industry by analyzing customers’ behaviours through analytical modelling methodologies and techniques [25].
The other BDA application area is the agricultural sector. For the sake of addressing the current agricultural production challenges, there is a need for applying modern information technologies that help to monitor the physical environment continuously [13]. As addressed by Kamilaris and his colleagues applying modern agricultural digital technologies can produce huge quantities of data. Big data analytics technologies are applicable to the agricultural sector. For example, Hadoop and cloud-based analytics were applied in the crop identification with comparisons to prices in different seasons [22]. Hence, “big data analysis” is the term used to describe a new generation of practices [14, 24] designed so that farmers and related organizations can extract economic value from very large volumes of a wide variety of data by enabling high-velocity capture, discovery, and/or analysis [18, 27]. The application of BDA enable farmers, agricultural transformation agencies, and researchers companies to extract value-driven information form the huge collection that will enable agricultural productivity and environmental sustainability [13]. Data generated from the agricultural sector “big data” demands large investments in resource utilization including resources like a skilled expert, infrastructures for data capture, store and process [21]. The big data analysis needs to “operate almost in real-time for some applications (e.g. weather forecasting, monitoring for crops’ pests and animals’ diseases)” [11].
BDA application lies in the banking industries. The Intelligent Customer Analytics for Recognition and Exploration (iCARE) model coming with IBM software platforms has been addressed to analyze banking. As addressed by [25] the applications of the iCARE framework have been confirmed in a real case study of a bank in Southeast China. As indicated in the case study, iCARE helps generate insights for active customers based on their transaction behaviour, using close to 20 terabytes of data. Payment systems are generating huge datasets from customers in different services. But there are challenges in the application of BDA in the banking and payment systems. The challenge is related to the organizational level of handling BD for the application of BDAs. For example, smartphone users in the United Kingdom (UK) tend to do 220 tasks in every day and use their phone 1500 times per week versus only a few calls and short messages in the recent past [4]. There are also web-based applications which are encountering BD regularly, like “recent hot spots social computing (including social network analysis, online communities, recommender systems, reputation systems, and prediction markets), Internet text and documents, Internet search indexing” [5].
Higher education institutions need to capture and record students’ academic record (tutorial data, registration data, courses data, assessment data, social activities, reading behaves, internet access inside in the university…), students behaving activities in the universities portal and social media [19]. But most of the higher education is facing challenges in the application of BDA such as lack appropriate information infrastructure, data collection tools, automated software systems, skilled experts for effective and efficient data collection, data preparation tools for data cleansing, analysis and visualization of data [12]. As addressed by [19] some sources of higher education data are learning management systems, social media communication data, registration data, assessment data, student information data, employees’ data, graduate data and others. “Big Data can influence higher education practice, from enhancing students experience to improved academic programming, to more effective evidence-based decision making, and to strategic response to changing global trends” [9]. But there are many implementation challenges of BDA in higher education. Some of these are data integration challenge, challenge associated with the quality of data collection and reporting and users’ acceptance on the development of new processes and changing the management approach [9].
In the implementation of BDA, there are issues related to the uneven distribution of resources between the urban and rural regions that impact the development of BDA in different countries [30]. As discussed by [30], two major issues related to difficulty in the expansion of information infrastructure for the healthcare industry have been mentioned for low-income countries. There are also challenges related to data quality development of BDAs. Researches for data quality have been in the 1990s, and numerous researchers have been diverse explanations of the quality of data and distribution approaches of quality measurements [31]. The total Data Quality Management group of the Massachusetts Institute of Technology University directed by Professor Wang has done deep research in the data quality area [30]. As addressed by Wang and Strong “data quality” means “fitness of use” and argued the quality of data highly related to data from customers. As addressed by [30, 31] for uniformity data use in the healthcare industry, data should be of high quality and available so that different stakeholders are confidence to provide data-driven informed decisions making.
In addition to data quality and infrastructure challenges, organizational readiness and understanding what BD is recognized as one of the most steps prior to implementation and an important prerequisite to the achievement of BDA in relations of acceptance rate. Readiness assessment, as a comprehensive measure in order to provide a proper image of existing conditions and the preparedness of healthcare organization to change, is also a way to identify the potential cause of failure in innovation such as organizational resistance [32].
The remaining section of this paper addressed Research design in section three, data analysis in section four, discussion of the analysis result in section five and the concluding remark of the study in section six.
3 Research Design
3.1 Research Methodology
Qualitative research approach is employed to investigate the problem mentioned above. As a result preliminary inputs (concepts) to a potential theory has been developed from collected data and analyzed from different management and other employees of the company using the semi-structured interview approach. The grounded theory was undertaken in this research. Because the nature of the research seeks to understand and explains social phenomenon or process within the context of a given application and it demands to approve the validity of the theory from the point of those employees of the company who participated within the context during the study [14]. A summary of guidelines for information system researchers applied in the research of BDA, which includes research question, data collection, data analysis and result interpretation [20]. As discussed by Muller and his colleagues BDA researches are comfortable with data instead of theory and position either predictive or explanatory research methodology. In this research project, explanatory research methodology is selected because the researchers require the development of BDA concepts or generalizable properties associated with the challenges of identifying and utilizing BDA in a resource-constrained environment.
3.2 Research Paradigm
The interpretive research paradigm applied in terms of data collection and data analysis in this study. Because interpretive research paradigm can help Information system (IS) researchers to recognize human thinking and action in social and organizational contexts; it has the potential to construct thoughtful insights into information systems happenings [33]. A new conceptual framework derived from data that collected and analyzed from different stakeholders using the semi-structured interview approach. The grounded theory undertaken in this research. Because the nature of the research sought to understand and explains social phenomenon or process within the context of a given applications and it demanded to approve the validity of the justifications from the point of those stakeholders who participated within the context during the study [15].
3.3 Data Collection and Analysis Approach
The research instrument consisted of different sets of semi-structured interview guides and codes for thematic analysis. For data collection, semi-structured interviews which area open-ended and process oriented applied [34]. Primary data comprised of semi-structured interviews obtained from respondents of Ethiopian Telecommunication Corporation (ETC), Agricultural Transformation Agency (ATA), Payment Systems (Hello Cash), Ethiopian Educational Networks (EthERNet) and Independent Researcher.
During data collection, a method of purposive sampling was used to identify the sample group that have been participated in the interview. It is purpose because the interview participants were identified based on their knowledge, relationship and expertise on BDA. Table 1 below shows the different categories who were sampled, including the number of interviewees.
There were different types of interview guides depending on the participant’s role. The face to face interview range between 12 min to 19 min. The collected data was analyzed thematically following from [35, 37].
4 Analysis Result and Findings
This section presented the process and results of data analysis in order to identify patterns to come up with conceptual framework. The seven principles of interpretive research method suggest by [33], selected principles applied in this research with evidence. Since the type of data that collected is context-rich qualitative data and analysis also was qualitative (e.g., coding or content analysis). The following steps are adapted from [35, 37].
4.1 Developing the Code Manual
The coding manual a data management approach that helps to organize portions of similar or related text and to come with a new understanding from the evolving patterns [37]. This was designed prior to analysis and was based on the research question. As demonstrated in Table 2, the code manual is a data management tool that assists in organizing portions of similar or related text and deriving new insights from the emerging patterns [37]. It consists of the name, definition of what the theme concerns, and description of how to know when the theme exists. Researchers know to code in the qualitative analysis of interview data is also focus on something which is repeated in several phases, something that the interviewee explicitly states that it is important, something which is similar in the previously published reports and something which reminds a theory or concept [36, 37].
Testing the Reliability of Codes
In this phase the applicability of the codes were tested as showed in Table 3. Using Atlas.ti, how the codes was applied to the selected transcripts interview were checked.
Summarizing Data and Identifying Initial Themes
In this phase the interview transcripts were summarized. The researcher went through all the process of reading notes taken during interview, listening the recorded file and summarizing dataset as showed in Table 4.
Applying Template of Codes and Additional Coding
Using the illustration methods [37], the researcher used the codes from the code manual to the interview transcripts with the sake of identifying meaningful portions of the text as showed in Table 5.
Based on Tables 2, 3, 4 and 5, the Groundedness and density of each considered using Atals-ti qualitative analysis tool. Table 6 below shows the Groundedness and density. Groundedness refers to total number of quotations linked to a given code. Density is the proportion of documents that link to a given code.
4.2 Connecting the Codes and Identifying Themes
Connecting codes is the process of discovering themes and patterns in the data [37]. Based on the research question, the main task of this phase is connecting the codes and identifying themes which is shown in below Table 7, 8 and 9.
Definition of Big Data
Table 7 shows that the definition of big data from different viewpoints.
Benefits of Big Data Analytics
Challenges of Big Data Analytics Implementation by Different Organizations
4.3 Corroborating and Legitimating Coded Themes
This is the final stage for the further identification of themes to be clustered from the coded text in to 5 clustered themes as showed in Table 10.
4.4 Challenges of Identifying and Utilizing BDAs Interrelationship
The following figure shows that the interrelationship of challenges of identifying and utilizing big data analytics in a resource constrained environment. It indicates the challenges of implementation and application of big data analytics interrelationship.
As shown in Fig. 1 above shows an illustration of the dependencies and feedback loop that exists between the application of big data analytics and challenges of big data analytics implementation in the resources constrained environments in case of Ethiopia.
5 Discussions
The analysis of the semi-structured interview result indicated that all the four participated organizations are producing a huge volume of data, at alarming velocity and different varieties. The independent researcher who is participated in the interviewing process indicated that there are many industries in Ethiopia which are producing big data. However, all the organizations which are participated in the study do not have proper data capturing and handling procedures.
For example in the telecom industry, the interviewee addressed the following issue: “All data from customers are used to capture and store for some duration. Usually from 3 to 6 months. After that, it can be deleted automatically. For some selected users it can be captured and stored for an unlimited period of time. The limit of 3 to 6 months for most users is due to lack of storage devices and not using the datasets for other purposes in most scenarios. Even we look only 994 (call support to help all customers) and 980 (call support to help VIP customers- enterprise companies). For example, 994 customer support service has more than 4,000 employees. One employee can give support for 250 to 260 customers. Averagely more than 1 million customers used to call for asking help in every day. Different kinds of request”. This indicated that even if they are generated a huge volume of data from customers they are not storing and applying BDA due to lack of infrastructure.
If we look at the payment system which is participated in this interview, its customers are requested many services. The organization has approximately one million customers. As the interviewee indicated that “Customers can pay their electricity and water bill. By the way hello cash includes other major businesses services like hello sera, hello doctor and other customer support packages are available. Hello Cash also interconnected with the metro-taxi systems of Addis Ababa. That is a customer can pay money from their Hello Cash account and can get taxi services. They have also deal with Selam Bus Transport Company so that customers can buy tickets from Selam Bus using their Hello Cash account. Customers can also buy mobile cards/charge money their mobile at anytime from anywhere from their Hello Cash account”.
The agricultural transformation agency (ATA) is also collecting and storing a huge volume of datasets. As the interviewee addressed the organization is collecting data for decision making, policy and strategic planning document formulation. The sources of data sets are: “Our main source is CSA (Central Statistics Agency), World Trade Organization and data generated by the team inside the organization through interview or field visit. Internal teams are producing data during project implementations from farmers and agricultural extensions”.
Even if organizations are generating a huge volume of data with different varieties they are not applying big data analytics. The following are the challenges that were addressed by the interviewees. Most of the challenges are related to lack of awareness, lack of skilled experts, data incompleteness, lack of stabled infrastructure, lack of leadership and management. For example, the interviewee from telecom industry addressed that “The most important or first rank challenge from my experience is having awareness on the usage of big data. There is no awareness of the value of big data in our organizations. But their huge datasets already existed. In every day more than a Terabytes of data are captured and recorded. When I look at other countries’ telecom sector they are using big data for different applications/business innovations in the industry. The second challenge is having very low-quality datasets. For example, when customers are purchasing products or applying for some services, they should be registered in a given form with correct data sets. Some lefts empty, some fills with unrelated issues with an answer to be filled for specific questions, some filled text data for an answer that required to be filled with numeric data. The form includes information related to customer information and other issues. The second challenge also raised because of lack of awareness on the value of data. That means the huge datasets that captured from some customers might be garbage. If awareness is coming into the board the data quality issue will be solved. The third challenge is related to infrastructure especially storage capabilities. Our organization used to store a maximum of 6 months for most of the users is due to the lack of having huge storage devices. There is also a lack of leadership and management capabilities of people. Leaders and managers of organizations’ used to think that there is not enough data for decision-making. So our country should work on the knowledge capabilities of managers and leaders of organizations”.
The interview result from the educational institution addressed the challenges: “I think the fundamental challenge is related to existence awareness. I am considering awareness as the first challenge. The 2nd challenge is related to the knowledge gap. There is a huge skill gap in the know-how of big data applications and tools. The 3rd challenge is related to the preference of commercial big data tools which are too expensive, not focusing on open source technologies. Another challenge is Infrastructure is challenging”.
The other challenge addressed by the agricultural transformation agency is related to lack of qualified expert and lack of data processing tool. The interviewee addressed that: “Currently our organization is processing data through Excel. It is challenging to process big data using Excel. This indicates that the shortage of skilled manpower is challenging for big data analytics application in our organization. I think this is the same challenge in other organizations in our country. So lack of skilled manpower and big data production standardization are the main challenge in our organization might be the same throughout the country. The other big issue is due to the lack of standard in data registry. There is no standard in data production. For example, in our organization regions, zones and woredas are producing data. But there is a huge problem in compatibility/consistency and data formats. There are many missing values or incomplete data when they are capturing”.
Interviewees from the different organization have provided different recommendations that have to put for the big data analytics implementation in their organization and in the country level. For example, the interviewee from the telecom industry addressed that: “our country should work on knowledge capabilities of managers and leaders of organizations. In the meantime, the philosophy of big data analytics should come to our country. Because big data analytics can be applied a lot in the area of agriculture, traffic management, health sectors, payment systems and other organizations that can generate huge volume datasets from sensors and social media”.
The interviewee from the educational institution was addressed what their organization or the country should work on the big data analytics in the future: “The government should work on the designing of central infrastructure that can be used by many institutions at the same time. Building infrastructure is very expensive. Imagine every company is working to have its own sophisticated data centre how much it costs”. Some of the challenges were identified in this study were also addressed as a challenge by other scholars in the field. Challenges related to data correctness and data privacy [1, 2, 12]. Some of challenges like having lack of awareness of the application of BDA, lack of resource availability, lack of leadership and management skill were identified as major challenge in this research.
6 Conclusion
In conclusion, big data analytics has numerous application areas in the telecom industry, payment systems, agricultural transformation agency and educational provider companies. The study indicated that all these organizations are generating a huge volume of data with different varieties and speed velocity. However, none of the organizations is applied not big data analytics for decision making, policy formulation and for future strategic planning. Rather they are using manual data analysis and simple office package software for data filtering in some situations. The challenges behind not applying big data analytics by these organizations were identified in the study. The major challenges were identified in the study. These are:
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Organizations have not their own standard in data handling and collection,
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Lack of awareness in the application of big data analytics,
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Lack of management and leadership in the area of big data analytics,
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Lack of qualified experts in the area of big data analytics,
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Lack of data correctness and completeness,
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Lack of stable infrastructure availability: there are no cheap data collection tools and software automation is still behind the current digitalization era.
Even if there are many existing challenges organizations should have come with their own integrated data storage system, cheap data collection tools. In the meantime, the government should give strong emphasis on the application of big data analytics at each organization which are generating a huge volume of data, with different varieties and speedy velocity. The government should also give emphasis on the skilled experts’ development for big data analytics. Higher education should give emphasis to the hottest and highly applicable field, big data analytics. New curriculums and should be enforced in the area of big data analytics. Future research should give emphasis on the design and development of cheaper data collection and analysis tools which are more customer services oriented model.
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Akal, T.D., Beshah, T., Sackmann, S., Negash, S. (2019). Challenges of Identifying and Utilizing Big Data Analytics in a Resource-Constrained Environment: In the Case of Ethiopia. In: Dwivedi, Y., Ayaburi, E., Boateng, R., Effah, J. (eds) ICT Unbounded, Social Impact of Bright ICT Adoption. TDIT 2019. IFIP Advances in Information and Communication Technology, vol 558. Springer, Cham. https://doi.org/10.1007/978-3-030-20671-0_17
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