Martin Kang, Ph.D.

Assistant Professor of Information Systems and Business Analytics, College of Business Administration

  • Los Angeles CA UNITED STATES

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Biography

Martin Kang is an assistant professor of information systems and business analytics (ISBA) at LMU College of Business Administration. Prior to joining LMU, Kang worked at Mississippi State University and the University of Memphis. He earned his B.S. in MIS from Milwaukee School of Engineering and his Ph.D. from Korea University Business School. Kang's research is highlighted in business analytics based on advanced computational statistics methods such as deep learning, econometrics, and mathematical modeling. His research has published in major IS, CS, and business journals and has been presented at conferences such as JOM, DSS, KBS, TFSC, ESWA, ISF, IEEE, ICIS, and AMCIS.

Education

Korea University Business School

Ph.D.

Business Analytics and IS

2016

Milwaukee School of Engineering

B.S.

Information Systems and Industrial Engineering

2010

Social

Areas of Expertise

Econometrics
Empirical Analysis
Artificial Intelligence
Machine Learning
Data Science
Quantitative Analysis

Articles

The effects of government labour intervention on firm performance and innovation (Forthcoming)

Applied Economics

The government sets legal limits on the number of working hours to minimize the negative effects of long working hours. Reducing legal working hours increases employee life satisfaction by decreasing mental and physical health problems. However, reducing legal working hours may decrease the firm’s future investment opportunities, which reduces the firm’s competitiveness. This study uses a quasi-experimental design to explore the negative effects of reducing legal working hours on firms. Specifically, we build a difference-in-differences (DID) model to explore the negative effects of reducing legal working hours on a firm’s ROI and innovation. We find reducing legal working hours decreases a firm’s ROI and innovation.

A Method Framework for Identifying Digital Resource Clusters in Software Ecosystems (Forthcoming)

Decision Support Systems

Martin Kang, Gary Templeton, Ted Lee, and Sungyong Um

A popular form of modern software development involves co-creation and sharing of digital resources (e.g., API and SDK) by third-party developers in software ecosystems. In doing so, digital resources, software development projects, and developer organizations are networked together and form digital resource clusters (DRCs), which can be closely or loosely related. Management science and innovation research has focused on how organizations use DRCs to innovate their software products and services. However, the network structures of software ecosystems are spatiotemporally complex since digital resources are transitively, heterogeneously, and temporally related. In existing literature, the extent of spatiotemporal complexity has impeded the empirical identification of DRCs. Our research devises a method framework consisting of two steps toward identifying DRCs using machine learning, which we found to be well suited to representing the spatiotemporal characteristics of networked digital resources. First, we devise a spatiotemporal network embedding method that learns and represents temporal, transitive, and heterogeneous networks of software ecosystems. Second, we devise a clustering method that identifies DRCs using the output of our embedding method as input. The performance test experiment results show that our devised method framework is superior to existing conventional methods at identifying DRCs.

Development of a Method Framework to Predict Network Structure Dynamics in Digital Platform: Empirical Experiment based on API Network (Forthcoming)

Knowledge Based Systems

Martin Kang, Ted Lee, Austin Kwak, Sungyong Um

Digital ecosystems reinforce the commercial achievements of digital innovations, providing organizations with platforms to implement digital products by sharing, co-developing, and using application programming interfaces (APIs) as digital resources. The use of APIs in digital ecosystems formulates dynamic API networks that evolve with the emergence of APIs and their updates. API network dynamics are associated with disruptive technology, heterogeneous networks, product and service innovation, and entrepreneurial success. However, methods for measuring and predicting API network dynamics have not been developed. We developed a framework for measuring and predicting the API network dynamics generated by APIs. To develop the abovementioned framework, we invented three network embeddings that could represent and measure API network dynamics and a prediction model based on a deep learning approach that could forecast API network dynamics. We conducted multiple experiments to assess the performance and usability of our method framework, and the results consistently demonstrate that our developed approach surpasses existing methods.

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