TY - JOUR
T1 - A multilayer prediction approach for the student cognitive skills measurement
AU - Ahmad, Sadique
AU - Li, Kan
AU - Amin, Adnan
AU - Anwar, Muhammad Shahid
AU - Khan, Wahab
N1 - Publisher Copyright:
© 2013 IEEE.
PY - 2018
Y1 - 2018
N2 - Every year, a large volume of information about students' performance is processed in schools, colleges, and higher studies institutes. This information statistically associates students' performance with their study schedule and family-related characteristics. Recent methods have significantly contributed to student's cognitive skills (CSs) prediction area of research, but they are insufficient to address the challenges created by Study-Related Characteristics (SRC) of a student. Therefore, in the current attempt, we present a multilayer CS measurement method that uses SRC for student's skills prediction. The contributions of the proposed method are threefold. First, during quantization, a multilayer model is initiated by splitting SRC into five factors, and a specific range is assigned to each factor (timing schedules of studying, outing, traveling to school, and free timing as well as parent's relationships). Second, the range of CS (0-20) is divided into 21 periodic intervals (with a period of 1). The component-wise division of SRC and CS is to ensure prediction accuracy that makes the method more testable and maintainable. Third, it simulates the nonlinear relationship between CS intervals and SRC layers using Gauss-Newton method. Finally, we achieved six mathematical models for the SRC. During the experiment, the proposed method is tested on the students' performance data sets. The results reveal that the current approach outperformed the existing CS measurement techniques because we achieved a significant precision (0.979), recall (0.912), F1 score (0.9249), and accuracy measure (0.937) values. In the end, this paper is concluded by comparing the proposed method with competitive student's skills prediction approaches.
AB - Every year, a large volume of information about students' performance is processed in schools, colleges, and higher studies institutes. This information statistically associates students' performance with their study schedule and family-related characteristics. Recent methods have significantly contributed to student's cognitive skills (CSs) prediction area of research, but they are insufficient to address the challenges created by Study-Related Characteristics (SRC) of a student. Therefore, in the current attempt, we present a multilayer CS measurement method that uses SRC for student's skills prediction. The contributions of the proposed method are threefold. First, during quantization, a multilayer model is initiated by splitting SRC into five factors, and a specific range is assigned to each factor (timing schedules of studying, outing, traveling to school, and free timing as well as parent's relationships). Second, the range of CS (0-20) is divided into 21 periodic intervals (with a period of 1). The component-wise division of SRC and CS is to ensure prediction accuracy that makes the method more testable and maintainable. Third, it simulates the nonlinear relationship between CS intervals and SRC layers using Gauss-Newton method. Finally, we achieved six mathematical models for the SRC. During the experiment, the proposed method is tested on the students' performance data sets. The results reveal that the current approach outperformed the existing CS measurement techniques because we achieved a significant precision (0.979), recall (0.912), F1 score (0.9249), and accuracy measure (0.937) values. In the end, this paper is concluded by comparing the proposed method with competitive student's skills prediction approaches.
KW - Cognitive skills prediction
KW - student's skills quantization
KW - student's skills simulation
KW - study-related characteristics model
UR - http://www.scopus.com/inward/record.url?scp=85054685585&partnerID=8YFLogxK
U2 - 10.1109/ACCESS.2018.2873608
DO - 10.1109/ACCESS.2018.2873608
M3 - Article
AN - SCOPUS:85054685585
SN - 2169-3536
VL - 6
SP - 57470
EP - 57484
JO - IEEE Access
JF - IEEE Access
M1 - 8488348
ER -