DOI QR코드

DOI QR Code

A Case Study on Data Educational Program for Non-major Trainees

  • Hyemi Um (School of Knowledge Management, Chung-Ang University)
  • 투고 : 2023.10.21
  • 심사 : 2023.10.28
  • 발행 : 2023.10.31

초록

Due to technological advancements, the data industry is growing, leading to a demand for data professionals in the market. Job seekers interested in data-related positions include not only those with relevant majors but also non-majors. Therefore, this study aims to identify effective educational methods for non-majors lacking data knowledge and skills to develop both data and business competencies. This research focuses on 28 trainees who participated in the "Data Youth Campus" program conducted by K-institution. The program spanned 10 weeks and was structured into three phases: fundamentals, practical training, and projects, systematically enhancing trainees' capabilities. The effectiveness of the curriculum and trainee management was verified by measuring and analyzing improvement of competencies and satisfaction with the program. This study offers valuable insights for the design and implementation of data education programs tailored to non-majors.

키워드

1. Introduction

Due to rapid technological advancements, countries worldwide are actively preparing for future societal changes by nurturing promising talents and formulating strategies in relevant technologies. With the exponential growth of the data industry and markets, the significance of big data is gaining prominence and it is required to cultivate talented people to meet market demand accordingly. In the case of South Korea, it was revealed that there was a 29.4% shortage of professionals related to the Fourth Industrial Revolution in 2020, and this shortage is expected to remain at 28.3% in 2025 [Korea Labor Institute, 2019; National Research Council for Science & Technology, 2018]. Consequently, various big data educational programs are being developed and operated by public agencies, government institutions, research institutes, and local governments, with universities also implementing continuous innovation in their education content and methods [Jo and Yu, 2018]. As data educational programs become more diverse and numerous, comparative studies on domestic and international data education and curriculum development are also being conducted [Jung and Do, 2019]. However, there is limited research within Korea that focuses on improving the quality of educational programs through practical operational cases of Data Educational Programs. Furthermore, there is a dearth of research on how to deliver such education to graduates from non-related majors seeking to transition careers without prior knowledge in data-related domains. Therefore, it is essential to conduct research aimed at enhancing the quality of data-related education, taking into account the characteristics of students.

The purpose of this study is to provide practical guidance and motivation strategies for non-major students in the context of Data Educational Programs. Despite the growing number of educational programs, there is a notable lack of research on effectively conducting such programs for non-major students and addressing the challenges faced by trainees, operators, and instructors. This research aims to offer valuable insight for the design and implementation of educational programs based on a 10-week Data Educational Program, serving as a valuable resource for future similar initiatives.

2. Current Status of Data Educational Program Operations

2.1 Domestic Status of Data Educational Program Operations

A comparison of 157 data-related departments in universities and 25 public and private institutions offering data-related education was conducted with data retrieved from the Ministry of Education’s “Higher Education in Korea Service.” The findings revealed disparities in operational direction and characteristics. In universities and graduate schools, data education primarily centers around technology. The rise of the Fourth Industrial Revolution has led to a surge in data-related majors in universities, increasing from 14 in 2015 to 157 in 2021 [Higher Education in Korean Service, 2021]. Undergraduate programs have established data-related majors, mainly within relevant universities, encompassing natural sciences, engineering, and social sciences. These programs often employ linked or integrated majors, incorporating data-related content into foundational subjects. Graduate programs are primarily developed through collaborative efforts between two or more departments or majors. They jointly establish or operate programs (<Table 1>).

<Table 1> Data-Related Major Program

DOTSBL_2023_v30n5_159_t0001.png 이미지

Education programs led by public agencies, such as the Ministry of Employment and Labor and the Ministry of Science and ICT, are notably demand-driven and primarily prioritize industry collaboration and employment-oriented structures. The related ministries select operating agencies and actively foster data experts to meet the demands of the Fourth Industrial Revolution. Specialized education programs are emerging not only for general AI education but also for handling specific data tailored to achieve particular goals, such as local information. These programs aim to cultivate specialized talent within their respective fields, offering customized training courses in alignment with local industry characteristics. The objective is not only to attain quantitative outcomes like graduation and employment rates but also to create positive effects within local communities. The ultimate goal is to rectify labor market imbalances among regions through tailored training that caters to local industry needs.

In private institutions, the primary focus is on creating employment-ready portfolios and nurturing skills that facilitate immediate integration into practical workplaces. They offer educational programs that leverage actual work environments and data, with a key emphasis on portfolio development for employment purposes. These institutions prioritize education in high-demand fields like market-oriented big data analysis and frequently provide short-term, market-driven educational curricula. Furthermore, the difficulty level of the educational content is clearly defined, enabling customized instruction according to learners' preferences.

2.2 International Status of Data Educational Program Operations

In the United States, data talent is categorized into specialized domain expertise and technical data proficiency, with the characteristic feature that all federal agencies collaborate on talent development. In Europe, a high level of governance was found in talent development as specific institutions regulate related policies and expenditures. France and Germany, in particular, aim to cultivate versatile talent applicable across various disciplines, encouraging professionals from diverse academic backgrounds to acquire data-related expertise. Japan’s model involves collaboration between the private and public sectors for data talent development. Despite starting data talent development later than South Korea, China emphasizes a nationally driven approach in shaping policies for workforce development, displaying clear governance in these policies.

<Table 2> National Workforce Development Policies and Programs

DOTSBL_2023_v30n5_159_t0002.png 이미지

<Table 3> Workforce Development Strategies and Programs in Europe

DOTSBL_2023_v30n5_159_t0003.png 이미지

3. Data Educational Program for Non-majors

3.1 The Necessity of Data Educational Program for Non-majors

Despite a strong emphasis on education in Korea, where approximately 70% of high school graduates enroll in universities, post-graduation unemployment rates are alarmingly high, with 26.8% unemployment among university graduates in the same age group as of 2019. Moreover, an OECD survey revealed that 50% of wage workers aged 25-34 with tertiary education (associate degree or higher) experience a mismatch between their major and occupation, making Korea the country with the highest mismatch rate among surveyed OECD nations [Han, 2020]. This issue is even more prominent among those majoring in arts and sports education. These individuals have long prepared for specific domains and aspire to generate income while enhancing their capabilities in their chosen careers, but the narrow pathways to their desired careers present significant challenges.

According to Gottfredson’s theory of circumscription and compromise [1981], individuals naturally impose limitations and make compromises as they navigate their career development. Essentially, they set boundaries within the broader domain they prefer, which helps them identify specific occupational areas. Graduates with arts and sports education majors, who face challenges pursuing their desired careers directly, often resort to career compromises by seeking employment in related fields. Among these arts and sports education sector graduates, there are students who require Data Educational Programs to adapt to changing times and find job opportunities in alignment with societal shifts.

3.2 Research Methods

The researcher conducted a case study as part of a data workforce development program supported by K-Institution. The research subjects are individuals who have obtained a bachelor’s degree in arts and are currently enrolled in a master’s program in cultural arts management. The study was designed to investigate an educational program aimed at students who aspire to work in arts-related businesses or organizations. Case studies are considered suitable for research with a weak academic foundation or in the early stages of exploring a new field [Eisenhardt, 1989]. Additionally, the study adopted the case study research method as it aims to explore the operational processes of data workforce development educational programs and collect contextual information about the educational environment. This methodology is well-suited for in-depth understanding and analysis of particular phenomena or events [Yin, 2013].

The subjects of this study consisted of 28 trainees, 8 instructors, and 3 education administrators who participated in K-institution’s “Data Youth Campus” program. The education program spanned 10 weeks, consisting of 6 weeks of foundational practical training and 4 weeks of group project work. The education sessions were conducted 5 days a week, with 7 hours of instruction each day, totaling 260 hours of training. To assess the effectiveness of the education, surveys were administered to the trainees twice, evaluating their competency improvement and satisfaction with the education. In order to ensure the reliability of the research, data sources included survey results, educational operation logs and reports, as well as interview transcripts.

3.3 Educational Program

3.3.1 Curriculum Design

The primary goal of this educational program was to cultivate fundamental data collection and analysis skills while enhancing understanding of the cultural arts industry and business. To accomplish this, a 6-week foundational course focusing on data technology competency and cultural arts business competency was designed, followed by a 4-week practical training component involving real-world case studies (<Figure 1>). The instructors for the foundational course were experts with extensive teaching experience, a profound understanding of the students, and specialized knowledge in both business and data fields. In the practical training phase, mentors with a strong grasp of business strategies and data were assigned to provide further guidance to the trainees in their hands-on experiences.

DOTSBL_2023_v30n5_159_f0001.png 이미지

<Figure 1> Curriculum Overview

The 4-week practical training course, which follows the 6-week foundational educational program, involves trainees working on projects that simulate real-world research and business planning processes. This training phase aims to deepen the understanding of the educational content. To maximize the effectiveness of practical training, program coordinators conducted individual interest interviews to create teams of 4-5 trainees with similar interests upon completing the foundational course. Each team was assigned a business strategy mentor and a data expert to assist them in exploring data-driven topics within the cultural arts industry and carrying out their projects. Regular check-ins and feedback sessions were conducted throughout the project to enhance the quality of the projects. Additionally, support for data source acquisition methods and associated costs was provided when necessary to improve the project’s quality.

3.3.2 Trainee Management

From the initial planning phase of the educational program, an educational operations team was established, responsible for over-seeing all aspects of trainee and curriculum management. Firstly, for trainee management, at least one dedicated full-time staff member was assigned to the training venue to ensure the smooth progress of education. To minimize dropouts, all trainee-related matters, including attendance, counseling, inquiries, and complaints, were meticulously recorded in journals. Reviewing the recorded data allowed for immediate counseling of any trainee with more than two unexcused absences. Regular meetings with team leaders were held to address trainee grievances and difficulties, with solutions devised during operational team meetings.

Secondly, to facilitate learning convenience, classes were simultaneously conducted online in cases where trainees couldn’t attend in-person class due to personal reasons. Recorded online lecture materials were made available on a YouTube channel for trainees to use for review. To streamline the sharing of course materials, a Google Drive was established to enable the download of textbooks and course-related data.

Thirdly, to promote class participation and motivate trainees in their project work, lunch vouchers were provided to trainees attending in-person classes, and self-awards were given for their practical outcomes.

4. Performance of the Educational Program

4.1 Overall Operational Performance

This educational program aimed to provide individuals with limited basic knowledge and experience in data the necessary data skills and business competencies for real data analysis and utilization. The primary focus was on enhancing trainee participation and comprehension. Comprehensive performance evaluations were carried out across various dimensions, and in numerous aspects, the program surpassed the predefined project goals (<Table 4>).

<Table 4> Performance Indicators and Achievement

DOTSBL_2023_v30n5_159_t0004.png 이미지

4.2 Enhancement of Trainee Competencies

Upon the completion of the 10-week education, we assessed whether the trainees' motivation to enter the data-related industry and their required knowledge and skills had improved. The evaluation criteria encompassed two primary categories: the achievement of target competencies and satisfaction with the educational program.

DOTSBL_2023_v30n5_159_f0002.png 이미지

<Figure 2> Example of Project Result

Competency attainment was evaluated using two methods: assessment by instructors and mentors, and self-assessment by trainees. Instructors and mentors assessed the outcomes of ongoing assignments during the foundational educational program as either “PASS” or “FAIL” as the first evaluation method. The second method involved evaluations during the practical project phase, which considered mentor feedback, team final presentations, final reports, conference and seminar participation, and submissions for competitions. Trainees’ self-assessment was conducted through surveys administered before and after the educational program, addressing aspects related to attitude, knowledge, and skills (<Figure 3>, <Table 5>).

DOTSBL_2023_v30n5_159_f0003.png 이미지

<Figure 3> Achievement of Competencies

<Table 5> Achievement of Competencies

DOTSBL_2023_v30n5_159_t0005.png 이미지

The evaluation, consisting of a total of 15 items, with five items for each of the three domains - attitude, knowledge, and skills, revealed an enhancement in competencies across all areas. Particularly, the most notable improvement was observed in the domain of data-related skills. Trainees, while lacking in foundational knowledge and skills, demonstrated a strong sense of the importance of data analysis and utilization both before and after the program, resulting in consistently high scores in the attitude domain. However, the post-education scores in knowledge and skills domains showed significant improvement, especially when compared to their relatively low pre-education levels.

To confirm the meaningful extent of competency improvement between pre-education and post-education, a dependent samples t-test was conducted, revealing significance levels of p < 0.01 (p < 0.05 for attitude). In essence, this indicates that the degree of competency enhancement achieved through the educational program is statistically significant. In conclusion, the program effectively met the students' needs and fostered competency development.

4.3 Trainee Satisfaction with the Educational Program

Satisfaction surveys regarding the educational program were administered at two points: during the 3rd and 9th weeks of the program. The survey encompassed a total of 13 items, comprising 3 items related to instructor satisfaction, 3 items concerning educational content and its utility, 4 items addressing operational support, and open-ended suggestions for enhancements. The satisfaction analysis results are presented in <Figure 4>.

DOTSBL_2023_v30n5_159_f0004.png 이미지

<Figure 4> Satisfaction with the educational program

In both surveys, trainees exhibited a high level of satisfaction, scoring 4.04 out of 5 (80.8%) in the first survey and 4.37 out of 5 (87.4%) in the second survey. Importantly, as the education progressed, satisfaction increased across all three areas - instructors, educational content and utility, and operational support. The positive trend in satisfaction can be attributed to conducting the first survey in the 3rd week and subsequently incorporating the feedback into the ongoing educational program, resulting in further improvements.

It is also evident that students who initially lacked basic knowledge and skills in data had some initial concerns regarding the program's content and pace. However, as the educational program continued, their confidence in their skills grew due to the accumulation of knowledge and repetitive practical exercises, leading to increased satisfaction with both instructors and the educational content.

5. Conclusion and Implications

In the current data-related industries, there is a demand for hybrid professionals with diverse domain knowledge and data technology skills. As general industries continue to digitalize, the demand for data professionals capable of practical problem-solving and issue identification is expected to grow even further.

This research was conducted to provide insights for the design and operation of future Data Educational Programs based on the analysis of the experiences of trainees, instructors, and operators. The key findings of this study are as follows:

First, trainees significantly improved their competencies in terms of attitude, knowledge, and skills related to data through the educational program. They advanced from a state of no prior knowledge or skills to the capability of choosing a topic, collecting data, analyzing it, and interpreting it through the project work. The instructional materials were thoughtfully designed to gradually advance from basic coding to in-depth assignments, facilitating a seamless transition from learning to the project phase. In addition, supporting both online and offline learning to enable sufficient review was shown to be effective. This approach enabled trainees to acquire knowledge and skills related to data and business effectively, ultimately strengthening their resolve to pursue data-related roles in their desired industries.

Second, trainees expressed high overall satisfaction with the educational program. They were pleased with the communication and proactiveness of most instructors, who delivered both theory and practice systematically. Practical experience with real-world data significantly boosted the trainees’ confidence in utilizing data competencies upon program completion. The allocation of mentors with relevant expertise to each team during project implementation enhanced the overall quality of the projects, contributing to high satisfaction. In particular, satisfaction with operational support received consistently high ratings from the first survey. The use of university facilities for theoretical and practical education likely contributed to the high satisfaction with the facilities. The management sector earned high satisfaction scores for providing prompt feedback and implementing improvements based on trainees' requests. Other factors such as lunch expenses, material purchases, continuous support, and encouragement for learning also played a role in the overall high satisfaction.

Based on the study's findings, the following implications for the design and operation of data workforce development programs can be outlined:

First, Data Educational Programs should combine both theoretical and practical education. To achieve this, a well-equipped educational infrastructure is essential.

Second, while access to online and offline education is becoming more widespread, it is critical to emphasize learning methods that involve practical data analysis and consistent feedback from experts, moving away from traditional theoretical education.

Third, educational programs should be designed to cater to trainees at different skill levels. Data analysis, particularly in the realm of big data, extends beyond basic coding and requires an understanding of domain knowledge for data preprocessing and proficiency in tools for big data analysis. Therefore, educational programs should systematically elevate trainees’ skills in data processing and the utilization of data analysis tools to a level where they can apply them in real-world scenarios. The approach employed in this case, which involves a progression from basic courses to practical training and culminating in a project, presents a valuable alternative.

The study’s findings indicate that individuals without prior specialization in data, possessing limited foundational knowledge, can potentially transition into data professionals through a structured and all-encompassing educational program. While this research may not offer definitive solutions for designing Data Educational Programs tailored for non-specialized students, it aims to serve as a foundational guide. In the future, with the input of educational experts and feedback from organizations and companies seeking data-related talent, these programs can be refined to become more practical and aligned with real-world demands.

참고문헌

  1. Cho, W. and Yu, M., "Creating Value for Education through Big Data Analysis Education Programs", The Korea Journal of BigData, Vol. 3, No. 2, 2018, pp. 123-130. https://doi.org/10.36498/kbigdt.2018.3.2.123
  2. Eisenhardt, K. M., "Building theories from case study research", Academy of Management Review, Vol. 14, 1989, pp. 532-550. https://doi.org/10.5465/amr.1989.4308385
  3. Gottfredson, L. S., "Circumscription and compromise: A developmental theory of occupational aspirations", Journal of Counseling Psychology, Vol. 28, No. 6, 1981, pp. 545-579. https://doi.org/10.1037//0022-0167.28.6.545
  4. Han, J., "Mismatches in the Graduate Labor Market from the Perspective of Major Selection and Improvement Directions", KDI Focus, 2020, No. 99.
  5. Higher Education in Korea Service, University major list, Korean Council for University Education, Public Announcement of University Information, 2021, https://www.academyinfo.go.kr.
  6. Jung, S. H. and Do, J., "A Case Study on Operation of Big Data Educational Program", Journal of Education & Culture, Vol. 25, No. 5, 2019, pp. 621-640. https://doi.org/10.24159/joec.2019.25.1.621
  7. Korea Labor Institute , "Analysis of the Labor Market in the Data Industry", 2019
  8. National Research Council for Science & Technology, "Training Programs for Key Personnel in Emerging Sectors of the Fourth Industrial Revolution Era", 2018
  9. Yin, R. K., "Case study research: Design and methods", London: Sage. 2013.