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Data Descriptor

Information Competences and Academic Achievement: A Dataset

by
Jacqueline Köhler
* and
Roberto González-Ibáñez
Departamento de Ingeniería Informática, Universidad de Santiago de Chile, Avenida Víctor Jara #3659, Santiago 9170124, Chile
*
Author to whom correspondence should be addressed.
Data 2023, 8(11), 164; https://doi.org/10.3390/data8110164
Submission received: 3 August 2023 / Revised: 5 October 2023 / Accepted: 23 October 2023 / Published: 27 October 2023

Abstract

:
Information literacy (IL) is becoming fundamental in the modern world. Although several IL standards and assessments have been developed for secondary and higher education, there is still no agreement about the possible associations between IL and both academic achievement and student dropout rates. In this article, we present a dataset including IL competences measurements, as well as academic achievement and socioeconomic indicators for 153 Chilean first- and second-year engineering students. The dataset is intended to allow researchers to use machine learning methods to study to what extent, if any, IL and academic achievement are related.
Dataset: The dataset is available in the Mendeley Data repository. Doi: http://dx.doi.org/10.17632/7r5fnrhyky.1.
Dataset License: The license under which the dataset is made available is CC-BY 4.0.

1. Summary

The last few decades have seen a widespread growth of both the World Wide Web, and the use of computers and mobile devices with access to it. Consequently, IL has become of great importance. According to the American Library Association, “information literate people know how to find, evaluate and use information effectively to solve a particular problem or make a decision” [1] (para. 19).
The relevance of IL in today’s world can be seen in the development of various standards [2,3,4,5,6], as well as in its inclusion in standardized international tests such as PISA [7,8,9] and ICILS [10]. Several authors have developed instruments to assess IL competences in secondary or higher education. Some of them correspond to self-assessments [11,12], whereas others are designed as tests to measure actual competences [12,13,14,15,16,17]. Some researchers, such as [18], have developed rubrics. From a different perspective, there have also been efforts to build software tools to assess online inquiry competences [17,19,20,21].
Despite all the above, there is no agreement regarding how IL impacts academic achievement in higher education. Some studies, such as [22,23,24,25], state that there is an association between better grades and better information competences. However, there are also studies that did not find such an association [26,27]. Another study concluded that high self-efficacy in IL skills contributes to effective research academic skills [28]. It must be noted that, to the best of our knowledge, most of the research attempting to find associations between IL and academic achievement has been conducted by librarians who have assessed the impact of library instruction interventions.
In recent years, there has been a proliferation of works attempting to predict students’ GPAs [29,30,31] or determine whether they will pass or fail certain courses [32]. These investigations rely on machine learning techniques applied to data typically stored in institutional repositories. Another interesting study used classification algorithms to analyze students’ learning behaviors and predict the learning effect on students’ IL [33]. To the best of our knowledge, no research has been conducted using such techniques to study the relationship between IL and academic achievement.
Given the above, the aim of this work is to describe a novel dataset comprising information literacy competences and first-semester academic achievement for 153 first- and second-year students from all 23 engineering programs imparted by a Chilean university. The intended use for the dataset is to build classification and regression models to predict the final status (pass or fail) or the final grade for a given course, as well as the first-semester grade point average (GPA). Nevertheless, it can also be valuable to increase the number of observations in new datasets of the same nature or to explore the existence of different student profiles, as well as other applications.
The remaining sections of this article are structured as follows. First, Section 2 provides a detailed description of the dataset. Afterwards, Section 3 describes both the instruments and methods used to gather the data. Finally, Section 4 presents conclusions and applications for further research.

2. Data Description

The study associated with the presented dataset aims to determine to what extent, if any, information competences can improve (compared to predictors broadly described in the literature, such as previous academic achievement, as well as socioeconomic and demographic variables) the prediction of first-semester students’ academic achievements, which is understood as the final course grades and the first-semester GPA.
The study is being conducted at a Chilean University and considers first- and second-year students from all its 23 engineering programs, including the following branches: Chemical, Civil, Electrical, Informatics, Mechanical, Thermal, Biomedical, Industrial, Mechatronics, Mining, Environmental, Geotechnical, Metallurgical, Biotechnological and Telematics. For this purpose, invitations were sent to over 2000 students through the Faculty’s social networks and their courses’ virtual classrooms.
As part of the study, students were asked to complete an online survey (available during the first and second semesters of 2022). This survey included questions from two different questionnaires: one to assess self-perceived IL competences [12,34] and the other to evaluate students’ observed IL competences [15,35]. The former considers the information search and evaluation dimensions, whereas the latter assesses the information search, evaluation, processing and communication dimensions. Both instruments were designed based on the definitions for each dimension provided in [14]:
  • Information search: covers the abilities to locate and access information.
  • Information evaluation: “to analyse and assess the quality of the information by recognizing its usefulness, credibility and relevance” [14].
  • Information processing: involves the abilities and skills of handling tools and applications to organize, store and retrieve information, as well as to manage the bibliography.
  • Information communication: “concerns the set of abilities for transferring knowledge, promoting information dissemination and developing virtual spaces for work and debate” [14].
Scores achieved in both instruments were later aggregated to first-semester final grades and GPA, as well as high school GPA, national university admission test scores, and other socioeconomic indicators.

2.1. Files

A single comma-separated values (CSV) file, IL_competences_and_grades.csv, is provided in the repository (http://dx.doi.org/10.17632/7r5fnrhyky.1).

2.2. Features

The features in the dataset, described in Table 1, are organized as follows:
  • The first feature is a unique participant identifier.
  • The next three features correspond to scores achieved in the self-perceived IL competences instrument.
  • The following five features include scores achieved in the observed IL competences instruments.
  • Next, four features present demographic and socioeconomic indicators.
  • The following five features summarize previous academic achievement.
  • Following that, four features include the final grades achieved in three common first-semester courses and the first-semester GPA.
  • The remaining three features include the courses’ final statuses (pass or fail).
It must be noted that students are required to achieve 5.0 or more to pass. Also, S1_GPA considers all first-semester courses, i.e., the three common courses included in the dataset as well as other courses which are specific for each program.

2.3. Data Distribution

The dataset includes n = 153 observations. Table 2 shows summary statistics for numeric features; namely, self-perceived (S_ prefix) and observed (O_ prefix) information competences (per dimension and overall), previous academic achievement, final course grades (G_ prefix) and first-semester GPA (S1_ prefix).
Figure 1 shows that, for self-perceived information competences, most observations are concentrated near the top of the scale for both dimensions and that few participants perceive their information competences as less proficient. For observed information competences, most participants achieve scores above the center of the scale (Figure 2).
As can be seen in Figure 3, most students finished high school with a final GPA of 9.0 or above (where 10.0 is the maximum), which means that they are among the best in their schools.
Similarly, Figure 4 shows how national university admission test scores are distributed. It is interesting to notice that most students achieve scores of 60% or more in all tests, although there are some atypically low scores in the sciences tests. Weighted average scores are higher than the test scores, which can be explained by the fact that high school grades and school rankings have the highest weights.
As shown in Figure 5, final grades for all three courses and the first-semester GPA gather around 5.0 (the minimum grade required to pass). The highest variability can be found in Algebra I and, to a lower extent, Physics I. This variability mainly involves failing grades. It is worth noting that, in general, GPA is higher than the final grades in the reported courses, meaning that students had better grades in those courses that are specific to their programs.
Shapiro–Wilk normality tests found that only language and math admission test scores followed a normal distribution for a significance level of 0.05 (Table 3).
Table 4 summarizes demographic and socioeconomic indicators both by sex and overall. It is interesting to note that 86.93% of the participants have achieved a fee exemption grant as is established in the Chilean law for higher education student funding [36]. Also, most students (57.52%) come from a school type frequently associated with a mid-low family income. Nearly half (54.25%) of the participants were admitted to the program of their preference, and this rate increases for female students (65.95%).
Similarly, Table 5 summarizes the final status (pass/fail) of participants in the three first-semester courses common to all undergraduate engineering programs, both by sex and overall. Although Physics I has a slightly lower pass rate than Algebra I and Calculus I, the pass rate is above 50% for all three courses. It is interesting to note that males have higher pass rates for both math courses, but females have higher pass rates in Physics I.

3. Methods

The study for which the presented dataset has been gathered attempts to determine to what extent information competences can predict academic success. We first selected suitable instruments to measure such competences in students. Since we need to determine at-entrance IL, we selected instruments designed for secondary education. As mentioned earlier, two instruments were selected: one to assess self-perceived information competences [12,34] and the other to evaluate observed information competences [15,35]. Both instruments were designed in Spain. Hence, it was then necessary to make some adaptations for the Chilean context, which were validated by a panel of experts.
The adapted version of the instrument to measure self-perceived information competences comprised 9 statements for which participants had to indicate how much they agreed by using a 5-point Likert scale (1: totally disagree, 5: totally agree). The first 4 statements address information search competences, whereas the last 5 statements address those competences required to evaluate information. The final scores for each of these dimensions are calculated as the sum of the scores for all questions for each dimension. Similarly, the overall score is the sum of the scores for all 9 questions. It must be noted that the original instrument includes 18 questions and two more dimensions. However, two dimensions were excluded because they correspond to more general digital competences.
The instrument to assess observed information competences includes 18 close-ended questions. These questions are associated with various learning results in four dimensions: information search, information evaluation, information processing and information communication. Total scores for each dimension are normalized to range from 0 to 10. The overall score is the sum of the scores in all 4 dimensions.
Once the validation process was completed, both instruments were implemented as online surveys. Next, the study design and research protocol were approved on 19 January 2022, by the Institutional Ethics Committee No. 020/2022).
The overall questionnaire, implemented on LimeSurvey, consisted of 31 items including 2 agreement questions, 2 open-ended identification questions (national unique ID and university e-mail) and 27 close-ended questions.
Data collection was carried out in the following stages:
  • All students taking first- and second-year common courses for all 23 Engineering programs were invited to answer the survey. We obtained 195 complete answers.
  • Data were filtered to discard duplicates, students enrolled in non-engineering programs, students not in the cohorts of interest (2021 and 2022) and students who did not agree to participate in the study or did not authorize the use of their academic records.
  • Scores for both IL competences assessments were calculated.
  • Final grades for three common first-semester courses (Calculus I, Algebra I and Physics I), as well as the first-semester GPA were collected. After this stage, the resulting dataset contained 153 complete observations.
  • To ensure that individual students cannot be identified, we took several measures: (1) We pseudonymized the dataset by discarding personal information (national unique ID and e-mail), shuffling dataset rows and then adding a unique numeric row ID. (2) Data were then generalized by deleting answers for individual questions on the survey, keeping only the total scores per dimension and the overall totals. (3) Finally, course final grades, GPAs and higher education admission test scores were re-scaled.

4. User Notes

This article introduced a new dataset of first-semester course grades and both self-perceived and observed information competences for 153 first- and second-year Chilean engineering students.
Although IL has grown in importance during the past few decades, there is still no consensus about its importance for academic success and on how it relates to student dropout rates. As mentioned earlier in this article, to the best of our knowledge, most research in this field has been conducted by librarians who have attempted to assess the impact of an intervention, frequently for minority groups (e.g., [27,37,38,39,40,41]). The described dataset intends to let researchers further explore how IL and academic achievement are related, now incorporating machine learning methods into previously used quantitative tools.

Author Contributions

Conceptualization, J.K. and R.G.-I.; methodology, J.K. and R.G.-I.; software, J.K.; validation, J.K.; formal analysis, J.K.; investigation, J.K.; data curation, J.K.; writing—original draft preparation, J.K.; writing—review and editing, J.K. and R.G.-I.; supervision, R.G.-I. All authors have read and agreed to the published version of the manuscript.

Funding

This research was funded by the National Agency for Research and Development (ANID), Scholarship Program, DOCTORADO BECAS CHILE (7608/2020) and the TUTELAGE project, FONDECYT Regular [grant no. 1201610], funded by ANID.

Institutional Review Board Statement

The study was conducted in accordance with the Declaration of Helsinki and it was approved by the Ethics Committee of Universidad de Santiago de Chile (Ethical Report No. 020/2022, approved 19 January 2022).

Informed Consent Statement

Informed consent was obtained from all subjects involved in the study.

Data Availability Statement

The dataset is available in the Mendeley Data repository. Doi: http://dx.doi.org/10.17632/7r5fnrhyky.1.

Conflicts of Interest

The authors declare no conflict of interest.

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Figure 1. Distribution of self-perceived information competences scores per dimension.
Figure 1. Distribution of self-perceived information competences scores per dimension.
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Figure 2. Distribution of observed information competences scores per dimension.
Figure 2. Distribution of observed information competences scores per dimension.
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Figure 3. Distribution of high school GPA.
Figure 3. Distribution of high school GPA.
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Figure 4. Distribution of higher education admission test scores.
Figure 4. Distribution of higher education admission test scores.
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Figure 5. Distribution of final course grades and first-semester GPA.
Figure 5. Distribution of final course grades and first-semester GPA.
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Table 1. Dataset content, including names, variable types and descriptions. S_ and O_ prefixes correspond to self-perceived and observed information competences, respectively. G_ prefix indicates a final course grade.
Table 1. Dataset content, including names, variable types and descriptions. S_ and O_ prefixes correspond to self-perceived and observed information competences, respectively. G_ prefix indicates a final course grade.
FeatureTypeDescriptionValues
IDIdentifierUnique identifier for the row.
S_SEARCHIntegerTotal score for the search dimension of the self-perceived IL competences instrument.0–10
S_EVALIntegerTotal score for the evaluation dimension of the self-perceived IL competences instrument.0–10
S_TOTIntegerTotal score for the self-perceived IL competences instrument.0–20
O_SEACHNumericTotal score for the search dimension of the observed IL competences instrument.0–10
O_EVALNumericTotal score for the evaluation dimension of the observed IL competences instrument.0–10
O_PROCNumericTotal score for the processing dimension of the observed IL competences instrument.0–10
O_COMNumericTotal score for the communication dimension of the observed IL competences instrument.0–10
O_TOTNumericTotal score for the observed IL competences instrument.0–40
SEXCategoricalSex.0: male, 1: female
SCHOOL_TYPECategoricalIndicates the type of high school a student attended. Lower values are associated with a lower family income.0, 1, 2
FEE_EXEMPTIONCategoricalIndicates if a student has a fee exemption benefit.0: no, 1: yes
FIRST_CHOICECategoricalIndicates if a student was admitted to the program of his/her preference.0: no, 1: yes
SCHOOL_GPANumericFinal high school GPA.0–10
SCORE_LANNumericScore achieved in the language admission test.0–100
SCORE_MATNumericScore achieved in the math admission test.0–100
SCORE_SCINumericScore achieved in the sciences admission test.0–100
SCORE_WAVNumericWeighted average score achieved in the admission test. Includes the three above items, student high school ranking and high school GPA.0–100
G_ALGNumericFinal grade in Algebra I.0–10
G_CALNumericFinal grade in Calculus I.0–10
G_PHYNumericFinal grade in Physics I.0–10
S1_GPANumericFirst semester GPA.0–10
ST_ALGCategoricalFinal status in Algebra I.0: fail,
1: pass
ST_CALCategoricalFinal status in Calculus I. 0: fail, 1: pass.0: fail,
1: pass
ST_PHYCategoricalFinal status in Physics I. 0: fail, 1: pass.0: fail,
1: pass
Table 2. Summary statistics for information competences, final course grades and GPA.
Table 2. Summary statistics for information competences, final course grades and GPA.
FeatureMinQ1MedianMeanQ3MaxSD
S_SEARCH0.0006.8758.7507.9219.37510.0002.151
S_EVAL1.0006.5008.0007.5299.00010.0002.030
S_TOT1.50014.00016.12515.45018.37520.0003.866
O_SEARCH2.3576.0006.8936.7637.5009.2861.205
O_EVAL0.9725.5566.3896.4327.77810.0001.779
O_PROC2.2675.6006.9336.9458.26710.0001.793
O_COM1.6256.1677.8337.4558.66710.0001.712
O_TOT10.49925.03227.87127.59530.41236.5894.401
SCHOOL_GPA7.5008.7509.0008.9899.3009.9670.450
SCORE_LAN39.00055.71462.71463.00670.00093.71410.008
SCORE_MAT51.28664.85770.28669.07873.42983.4296.868
SCORE_SCI22.71459.71464.28663.46470.14385.2869.889
SCORE_WAV57.81471.22175.90075.05278.72199.7516.059
G_ALG0.3334.1675.0005.0145.8338.5001.388
G_CAL0.0002.0005.0004.0625.5008.3332.084
G_PHY0.0004.0005.3334.8815.8339.6671.734
S1_GPA1.1184.8865.9465.6676.5438.2201.191
Table 3. Shapiro–Wilk normality tests for information competences, final course grades and GPA (p < 0.05 marked with *).
Table 3. Shapiro–Wilk normality tests for information competences, final course grades and GPA (p < 0.05 marked with *).
FeatureWp
S_SEARCH0.8390.000 *
S_EVAL0.9040.000 *
S_TOT0.8750.000 *
O_SEARCH0.9800.027 *
O_EVAL0.9760.010 *
O_PROC0.9640.000 *
O_COM0.9520.000 *
O_TOT0.9780.015 *
SCHOOL_GPA0.9800.023 *
SCORE_LAN0.9930.716
SCORE_MAT0.9850.099
SCORE_SCI0.9330.000 *
SCORE_WAV0.9750.008 *
G_ALG0.9550.000 *
G_CAL0.9170.000 *
G_PHY0.9500.000 *
S1_GPA0.9650.001 *
S_SEARCH0.8390.000 *
Table 4. Summary of demographic and socioeconomic indicators by sex and overall.
Table 4. Summary of demographic and socioeconomic indicators by sex and overall.
FeatureLevelMaleFemaleTotal
n = 106n = 47n = 153
School typeType 021.70%23.40%22.22%
Type 157.55%57.45%57.52%
Type 220.75%19.15%20.26%
Has fee exemptionYes87.74%85.11%86.93%
No12.26%14.89%13.07%
Program is first choiceYes 49.06%65.96%54.25%
No50.94%34.04%45.75%
Table 5. Summary of course final status by sex and overall.
Table 5. Summary of course final status by sex and overall.
CourseFinal StatusMaleFemaleTotal
n = 106n = 47n = 153
Algebra IPass65.09%80.85%69.93%
Fail34.91%19.15%30.07%
Calculus IPass50.94%72.34%57.52%
Fail49.06%27.66%42.48%
Physics IPass 66.98%59.57%64.71%
Fail33.02%40.43%35.29%
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Köhler, J.; González-Ibáñez, R. Information Competences and Academic Achievement: A Dataset. Data 2023, 8, 164. https://doi.org/10.3390/data8110164

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Köhler J, González-Ibáñez R. Information Competences and Academic Achievement: A Dataset. Data. 2023; 8(11):164. https://doi.org/10.3390/data8110164

Chicago/Turabian Style

Köhler, Jacqueline, and Roberto González-Ibáñez. 2023. "Information Competences and Academic Achievement: A Dataset" Data 8, no. 11: 164. https://doi.org/10.3390/data8110164

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