SELF-PACED LEARNING ENGAGEMENT AND DIMENSIONS OF LEARNING AS EXPERIENCED BY THE SCIENCE STUDENTS IRISH LOREIGN GAIL A. COMIA *Laguna State Polytechnic University-San Pablo City Campus (LSPUSPCC) College of Teacher Education, BSED- 3A Science Abstract The study aimed to determine the engagement of the students in self-paced learning and their performance considering the different dimensions of learning. It attempted to test if there is a significant relationship between the variables. The study involved the participation of sixty-two (62) first year to third year Bachelor of Secondary Education students majoring in Science from the Laguna State Polytechnic University, enrolled during the academic year 2020-2021. This research utilized a quantitative research, specifically descriptive-correlational design. The adopted-modified research questionnaire that measured the students’ engagement in self-paced learning and a researcher-made questionnaire on students’ dimensions of learning were the instruments used in gathering the data. The result revealed that the respondents practice time management and selfregulation; and are highly motivated. As to their dimensions of learning, the students manifested confidence and independence; skills and strategies; knowledge and understanding; use of prior and emerging experience; and reflection. The research also found out that there is a positive significant relationship between self-paced learning engagement and students’ dimensions of learning. *Keywords – dimensions of learning, motivation, self-paced learning, self-regulation, time-management, INTRODUCTION Science education strives to create scientific literacy in students so that they can become knowledgeable and engaged citizens who can make informed decisions about how scientific information might be applied to social, health, and environmental issues. (Tiglao, n.d). Due to its relevance to students' lives and the widely applicable problemsolving and critical thinking abilities it uses and develops, it is regarded as one of the most important subjects in school. Classroom, laboratory and outdoors are the primary types of learning environment in science teaching. Many researchers and teachers have recognized the importance of science classroom learning environment throughout the last two decades (Deshmukh et. al. 2012). Case studies, hands-on activities that engage students beyond the lecture, and other documentation of reliable science experiments are all important strategies in science education (University of Texas, 2015) Since the education system shifted from traditional to distance learning, the approach in teaching and the students learning experience have changed. The advent of e-learning, in which instruction is done remotely and on digital platforms became notable. Nepal and Rogerson (2020) stated that students are easily discouraged from attending lectures and tutorials in both online and face-to-face situations, where a lack of student participation can negatively impact the quality of learning. Moreover, most of the necessary activities that will help the students to learn scientific concepts are being missed and with limited interaction with their teachers. On the other side, it led the students to become the master of their own learning because they can manage their time well and free to choose different tools and strategy that will fit their needs as they study their lessons. In connection to this, Gholam (2019) suggested that the best way to teach science are those self-guided, inquiry-based approaches under which students direct their own learning. As a matter of fact, it has been promoted as an inspiring way of learning science by engaging pupils in designing and conducting their own scientific investigations (Uum et. Al., 2017). Background of the Study Everyone's daily routines have been interrupted by the Covid-19 pandemic, including school classes from kindergarten to college. However, some educational institutions are not allowing the virus to prevent their students from learning. As the use of e-learning and remote instruction arises, self-paced learning has become more prevalent considering the safety protocols and the welfare of the students. According to Stanley (2019), self-paced learning is a method that allows the students to create their own learning experience at their own pace and with accordance to their own interests and learning preferences. It allows the students to identify problems and find effective solutions on their own. Despite these advantages, the sudden transition imposed on by the pandemic without appropriate opportunities to prepare for a new medium becomes a struggle for students and educators. Angdhiri (2020) stated that students in the homelearning program found it difficult to adjust because they had not been prepared prior through simulations or practices. Likewise, students reported the home-learning program to be even more stressful than regular classrooms. Additionally, Maragall et.al., (2020) argued that experts are concerned that Students are not learning at the same rate as in face-to-face classes, and there is a significant delay in knowledge acquisition, with some students estimating a year or more. The Laguna State Polytechnic University- San Pablo City Campus is an institution that offers and implements distance learning to its students to comply with the government stance and to ensure that the delivery of quality education still continues despite the pandemic. Since this is the first time that the said university implements this kind of learning method, students are facing a lot adjustments because they tend to learn on their own with limited hands-on experiments/laboratories, activities and face-to-face interaction which are crucial to students who are taking science courses. It is in this light that the researcher came up with the idea of determining the correlation between selfpaced learning engagement factors and students’ dimensions of learning to assess the learning of the students and the factors that affects student engagement in the new learning method. Specifically, this study can contribute in determining what learning dimensions are left behind and need to be improved and how self-paced learning engagement factors influence the students’ dimensions of learning. The results can be used as bases for constructing instructional materials and strategies that are suitable to students’ needs and situations to assure that quality of learning can still be acquired amidst pandemic. Conceptual Framework This study was anchored on different concepts such as constructivist learning theory, self-paced learning engagement factors in science courses and students’ dimension of learning. Student-centered learning is based on the constructivist learning theory, which states that students construct their own knowledge and that learning occurs when meaning is discovered. According to this theory, learning involves the use of language, which influences learning. (Zain et al., 2012). Instructors employ a student-centered approach to instruction, which enhances student engagement. It has been proven that including students in the learning process improves their attention and focus, motivates them to engage in higher-level critical thinking, and promotes meaningful learning experiences. (University of Washington, 2021). Chen et al. (2017) argue that student engagement is important for self-paced learning to be successful. It has an important role in promoting students’ learning and achievement. In connection to this, De Vore et al. (2017) proposed a framework that synthesize various factors that can support or hinder the students to engage themselves in self-paced learning environment in teaching introductory physics. The findings revealed that lack of self-regulation, sufficient motivation, and time-management skills while engaging in learning using self-study tools turn out to be the biggest impediments in implementing electronic learning tools in a self-paced leaning environment especially to students who are in need of out of class remediation via self-paced learning tools. The different factors that were mentioned above will be used as independent variables since it was proven that having difficulty with these factors can really affect the students’ engagement in self-paced learning in an online learning environment. Zilvinskis et al. (2017), on the other hand, showed strong evidence that student engagement was significantly and positively connected to reported learning gains. The five dimensions of learning utilized in the learning record will be used as indicators to assess the students' learning. The Learning Record model is an assessment system that can be used to observe and demonstrate what learners can do and know. As a classroom evaluation tool, its documentation format allows students and teachers to record learning as it occurs and to develop patterns of progress upon which to build additional learning activities. Teachers can actively look for and document positive evidence of student improvement in five areas using the learning record model: confidence and independence, knowledge and understanding, skills and strategies, prior and emerging experience, and reflection. (Syverson, 2014). The first learning dimension is the confidence and independence. When learners' confidence and independence match their actual abilities and skills, content knowledge, use of experience, and reflectiveness about their own learning, grow and development will likely to be achieved. Second is the skills and strategies which represent the "knowhow" aspect of learning. The "performance" or "mastery," generally mean that learners have developed skills and strategies to function successfully in certain situations. Knowledge and understanding on the other hand refer to the "content" knowledge gained in particular subject areas which is the third dimension. It's the most well-known dimension, emphasizing the "know-how" part of learning. It also encompasses what students are learning about the topics; research methodologies; a discipline's theories, beliefs, and practices; and how they organize and present their ideas to others. Fourth, the use of prior and emerging experience. It involves the learners’ abilities to draw on their own experience and connect it to their work. As a matter of fact, the ability to apply prior experience as well as new experience in new situations is often overlooked, but it is a significant aspect to account for. Lastly would be the reflection. It refers to the developing awareness of the learner’s own learning process, as well as more analytical approaches to the subject being studied. Moreover, it refers to the growth of a learner's ability to take a step back and critically and analytically evaluate a situation, as well as increasing insight into his or her own learning processes, a type of metacognition. Research Paradigm Independent Variable Dependent Variable Dimensions of Learning Self-Paced Learning Figure 1. Research Paradig Engagement Time-management Self-Regulation Motivation Confidence and Independence Skills and Strategies Knowledge and Understanding Use of Prior and Emerging Experience Reflection Statement of the Problem The study aimed to determine the significant relationship between self-paced learning engagement factors and the students’ dimensions of learning among Bachelor of Secondary Education Students of Laguna State Polytechnic University enrolled during academic year 2020-2021. Specifically, it sought to answer the following queries: 1. How can the self-paced learning engagement of the students be described in terms of: 1.1 time-management; 1.2 self-regulation; and 1.3 motivation? 2. What is the perception of the students as to their learning performance on the following dimensions: 2.1 confidence and independence; 2.2 skills and strategies; 2.3 knowledge and understanding; 2.4 use of prior and emerging experience; and 2.5 reflection? 3. Is there a significant relationship between the students’ self-paced learning engagement and their learning performance as to the dimensions of learning? Literature Review The study of Cukurova (2015) about the effects of independent approach to the students’ knowledge, understanding and intellectual attributes suggests that the independent learning strategy used in the macromolecules course can help students gain a better comprehension of science concepts while also strengthening some of their intellectual abilities. Furthermore, the study of De Vore et al., (2017) proved that many students in introductory physics courses may not be able to use self-paced learning tools efficiently unless they are given additional incentives and support, such as to help them with self-regulation. In their study about self-paced learning, it was revealed that is important to ensure that all students are engaged with the learning method in order for them to learn the content deeply, transfer their learning from one context to another and develop good problem-solving skills. In the study of Liu et al., (2014), it was found out that the association between study involvement and learning adaptation was somewhat mediated by time management. The findings suggest that teachers should promote not only interventions to boost student involvement, but also development, investment in adaptation, and time management. Furthermore, Suvin (2021) stated that when students are learning at their own pace, they tend to manage their time well because there is no so much pressure and it enables them to have their own schedule. According to Australian Christian College (2019), effective time-management allows the students to accomplish task in a short period of time because their attention is focused and avoid distractions such as social media for example. Edward (2017) stated that allocating time to have self-assessment can help students find gaps in their knowledge and gain insight into their actual understanding. It helps students to reflect on their own learning and levels of comprehension, allowing them to identify areas in which they need to improve. Kocdar et. Al. (2018) stated that distance and e-learning courses at universities that are self-paced or learner-paced are built on improved learner independence and flexibility, as students can begin their courses at any time during the year and finish them at their own speed. Learners must already possess independent and self-regulated skills to effectively engage in learning activities that are open in terms of time, speed, and material. Thus, in self-paced distance and online learning environments, self-regulated learning skills are essential for success. Self-regulation is a mechanism that make the students more active in their studies. Instead of considering learning as a covert occurrence that happens to them as a result of instruction, students should perceive learning as an activity that they perform for themselves in a proactive manner. It allows students to take a more active role in their education by putting them in the driver's seat. (College of Education and Human Sciences, 2021). Al Mutawah et al., (2017) stated that one strategy to promote the acquisition of knowledge and skills is to assist students control their learning. This implies that to become more metacognitively, motivationally, and behaviorally responsible for their own learning, self-regulation is a crucial to success in learning mathematics and science. In their study about students’ self-regulation and engagement in learning mathematics and science and academic achievement, the findings suggest that the motivational variables such as self-regulation had direct and indirect effects. Therefore, teachers should motivate students in the classroom to increase their achievement since motivation is the factor that leads to students' self-regulation. Moreover, Kocdar et.al. (2018) suggested that distance learning which is more flexible and autonomous requires the learners to be self-regulated and use their self-regulated learning skills more frequently as it can greatly improve the performance of the students. Chen et.al. (2018) mentioned that selfregulation allows students to become less reactive and more proactive in learning because they are able to set clear goals and monitor their progress. Therefore, it is critical to find ways to encourage personal involvement in disciplines like mathematics and science, as well as to assist them in maintaining that interest. Llbao et. al., (2016) conducted a study about relationship of students’ learning motivation and their academic performances in science. The result revealed that except for extrinsic motivation when classified by sex and task value when grouped by curriculum year, there are no significant differences in the respondents' motives in learning science. According to Yarborough and Fedesco (2020), students tend to persist in learning when they see the value and utility of what they are learning. On the contrary, Kurukkan and Gafoor (2020) stated that students become less motivated when they believe the lesson's content, as well as the assignments it provides, are too challenging, and when they believe they are incapable of comprehending the information. Engagement is defined as a motivation-driven mental construct predictive of and predicted by students’ perceptions of positive interpersonal relationships. According to Wood (2019), science teacher plays a significant role in motivating students’ engagement with learning activities. It is widely agreed that the instructor is the most influential and informative aspect in their appreciation of science. In the students’ point of view, this is attributable to the teacher's direct capacity to improve the pace and depth of their perceived competency. The findings of the study by Akbari (2020) about the level of students’ selfconfidence and its impacts to the learning process showed that students’ confidence affects the students’ participation and progress. It revealed that improved engagement, enjoyment of learning, less exam anxiety, increased interest in goal-setting, enhanced comfort with lecturers and classmates, and lastly, the ability to share their experiences and ideas in class may all be attributed to students with self-confidence. Concepts, facts, laws, theories, principles and models are all examples of scientific knowledge, which can be obtained in a variety of methods. Understanding science requires the integration of a complex structure of many different sorts of information and the ability to use knowledge, and comprises the ability to distinguish scientific ideas and not. (Vogt et. Al., 2021). Science process skills are in need to be learned in order to achieve successful learning in science, because it helps the students to understand phenomena, answer questions, develop theories and discover information. In the study of Suman (2020) about science process skills, the findings revealed that there is a positive correlation between science process skills and the achievement of students in science learning. Moreover, it was also suggested that if students' science process skills and analytical thinking abilities were relatively low, implying that teachers must effectively develop students' cognitive and psychomotor domains during the learning process (Irwanto et al., 2017). Deshmukh et.al. (2012) mentioned that learning science online can help to increase science literacy and also enable the students to improve the skills necessary to have a good understanding of scientific concepts. In addition, according to Roberson (2019), when students think that it is important for them to learn the knowledge and the skills that they need to acquire, they are more likely to put up stronger effort, study more thoroughly, and do better in class and on standardized examinations. Prior knowledge contributes to the students learning if the existing information is accurate and acceptable. As a result of incorrect or faulty instruction, students are more likely to encounter difficulties to master new material in class and hinders their learning (Doyle, 2011). According to Ruth (2019) new learning is constructed on prior knowledge and experiences. Understanding what students already think and helping them engage their prior understandings make the students to learn well and the less likely to misinterpret the material in our courses. Moreover, Mugabi (2020) stated that teachers can assess whether their students understand the lesson they teach by letting them reflect and to relate what they have learn in their real-life experiences, because able to relate lessons in real life scenarios is a sign that students really understand the lesson. In connection to this, Alber (2020) explained that students will be able to recall and use what was taught in them by helping them engage their prior knowledge and connect new information to their prior understanding. Reflection was defined as a kind of metacognition in the learning record model. Metacognition according to Thomas (2015) is an executive, is a type of higher-order thinking that is strongly linked to the cognitive processes that students use to generate information and gain understanding in science. Students who thrive in science have been seen to be adaptively metacognitive in response to the demands of their learning environments. Tullis and Benjamin (2012) demonstrated that accurate and efficient metacognitive monitoring and control are required for self-guided learners to enhance their performance. Self-study capacity is not enough on its own; one must be able to discriminate between more difficult and easier activities. In relation to the qualities and comprehension of a subject, the design of learning procedures that can encourage students to participate actively and provide opportunities to expand knowledge must be taken seriously. The use of problem-based learning materials increases students' metacognition skills and reasoning abilities more than traditional learning (Haryani et al., 2018). MATERIALS AND METHODS Research Design. This study utilized descriptive-correlational research design to determine the significant relationship between self-paced learning engagement factors and students’ dimensions of learning among students who are taking Bachelor of Secondary Education major in Science at Laguna State Polytechnic University. According to Sousa et.al., (2020) descriptive correlational design is used to investigate the nature of relationships, or associations between and among variables, rather than direct cause-effect relationships. Moreover, these designs are used to examine if changes in one or more variable are related to changes in another variable. Respondents of the Study. The respondents of the study include all sixtytwo (62) students from first year to third year taking up Bachelor of Secondary Education major in Science at Laguna State Polytechnic University –San Pablo City Campus enrolled on academic year 2020-2021 under online learning modality. The researcher purposively chose the pre-service teachers science majors as this study was contextualized in science and aimed to asses students learning performance which is essential to know as future educators. Research Instrument. The researchers used an adopted-modified research questionnaire to measure the students’ engagement in self-paced learning and researcher-made questionnaire in measuring the students’ dimensions of learning. This questionnaire was used to determine the correlation of the engagement factors in selfpaced learning and students’ dimensions of learning: The instrument was conducted thru online survey. Furthermore, this online survey was comprised with the following scales: Self-paced Learning Engagement Factors Instrument. The items in this scale were adapted from the study of Jensan et al., (2016) and Pintrich, R. R., & DeGroot, E. V. (1990); this scale is composed of 15 items that measure self-paced learning engagement factors of the students in terms of: (1) time-management; (2) selfregulation; and (3) motivation. It will be measured on a 4-point Likert scale ranging from 1- Never, 2- Sometimes, 3- Often and 4-Always. Dimensions of Learning. For the dimensions of learning, a researcher-made questionnaire was utilized among the respondents to determine their self-reported learning progress on each dimension of learning. The items in this scale were made by the researcher. Each dimension was composed of 5 items with a total of 25 that will measure students learning progress using the five dimensions of learning in terms of (1) confidence and independence; (2) skills and Strategies; (3) knowledge and understanding; (4) use of prior and emerging experience; and (5) reflection. The items under the first, third, fourth and fifth dimension were measured using a four-point Likert scale with a verbal description of: 1-strongly disagree; 2-disagree; 3- agree; and 4strongly agree. On the other hand, remaining dimension: skills and strategies, will be measured using five- point scale with verbal interpretation of 1- poor; 2- fair; 3- average; 4- good; and 5-excellent. The instruments used in this study were validated by the researcher’s adviser and subject specialist, and three external validators who are also experts in the line of this study. Furthermore, the researcher conducted a pilot testing composed of twelve (12) grade 12 STEM students as the respondents, to assess the reliability of the questionnaire. The result showed that one of the self-paced learning engagement factors, which is the time management, got a lower Cronbach’s alpha value of .206 so the indicators under this category were revised, as well as the dimension of confidence and independence which has a Cronbach’s alpha value of .601. Additionally, one of the statements under motivation was deleted as this category got a Cronbach’s alpha value of .357. On the other hand, the parameters under self-regulation have a Cronbach’s alpha value of .723 which is generally considered as acceptable, as well as the remaining dimensions of learning which are skills and strategies, knowledge and understanding, use of prior and emerging experience, and reflection which had Cronbach’s alpha values of .708, .749, .912 and .767 respectively. Data Collection Procedure. The researcher administered an online survey encoded via Google Forms to the students of College Teacher Education science majors at Laguna State Polytechnic University San Pablo City Campus. The respondents were currently enrolled under the course program under self-paced learning and been exposed for about four months. First, the researcher sought for the list of the respondents to easily communicate with them. Afterwards, the link for the online survey was sent through messenger to the respondents together with the consent of participation and confidentiality of the information from them. The researcher created a group chat to remind and monitor the respondents’ feedbacks and to serve as a platform for raising questions with regards to the questionnaire. After the responses were gathered and have been completed, the result was summarized and sent to the researcher’s statistician to determine if the variables are correlated to one another. Once the data were treated statistically, the answers of the respondents were tabulated and interpreted to answer the questions of this study. Statistical Treatment of Data. The researcher used both descriptive and inferential statistics to address the problem of the study. The descriptive statistic for mean and standard deviation to analyze the responses of the students. In addition, to determine the association and significant relation of the variables, Pearson-r-correlation was used. RESULTS AND DISCUSSION Table 1. 1. 2. 3. 4. 5. Perception of the Student-respondents on Self-paced Learning Engagement Factors in terms of Time Management Indicators Mean SD Interpretation As a science student I… keep up-to-date on my reading and 3.11 0.75 Practiced research assignments try to do the difficult tasks during my 3.42 0.56 Highly Practiced most energetic periods of the day accomplish task without 2.68 0.83 Practiced procrastinating set myself specific and clearly 3.31 0.59 Practiced defined goals prepare a daily or weekly “to-do” list 3.11 0.77 Practiced to achieve my objectives on time Overall 3.13 0.52 Practiced Legend: 3.50-4.00- Always (Highly Practiced), 2.50-3.49- Often (Practiced), 1.50-2.49Sometimes (Seldom Practiced), 1.00-1.49- Never (Rarely Practiced) Table 1 shows that the students are practicing time management as they engage themselves in self-paced learning. It can be seen from the table that the statement which indicates that the students try to do tasks during their most energetic periods of the day got the highest mean of 3.42 with a verbal interpretation of highly practiced. This proves that during times when students are most lively, they tend to study and work on their tasks. When students are very active, their mind works well and they are excited to accomplish tasks that are assigned to them. In line with this, it is important that the students find time to recharge themselves from different stress due to variety of factors. It is important to use studying time as effectively and efficient as possible. Doing tasks in times that a person has a lot of energy and at most concentration can improve mental health, quality of thinking and can accomplish things in faster rates. On the other hand, the statement which states that students accomplish task without procrastinating got the lowest mean of 2.68 with an interpretation of practiced. This means that one of the major challenges that students are facing in self-paced learning is that they tend to procrastinate often since they learn at their own pace. Some of the reasons are they do not how to get started because they do not understand the material, and they cannot see the relevance of the project to them so they are less likely to try harder. Additionally, distractions such as the internet particularly the social media, video games, TV even bantering with friends can also lead to postpone school works. In connection with this, Terada (2020) mentioned that many students have been victims of procrastination, that urge to eschew studying and postpone doing their activities for another day. Furthermore, he added that eighty to ninety-five percent of college students engage in procrastination and can cause variety of issues when it comes to their timemanagement, academic performance, emotional well-being, mental and physical health. The student-respondents overall mean value on self-paced learning engagement factors in terms of time-management is 3.13 which can be interpreted as “practiced” with a standard deviation of 0.52. This signifies that the students are organizing and planning how to divide their time between specific activities and use it as effective and efficient as possible. It is crucial for students to manage their time well so they are able to complete school work and assignments without cramming thus, can produce quality outputs. Moreover, practicing an effective time-management allows them to become more organized, more confident, and learn more effectively. In connection to this, Suvin (2021) stated that when students are learning at their own pace, they tend to manage their time well because there is no so much pressure and it enables them to have their own schedule. Students tend to apply time-management when they learn at their own pace to ensure that they are maximizing their time, to have enough room for studying and for the rest of their responsibilities. According to Australian Christian College (2019), efficient time management allows the students to achieve more in less time because their attention is focused and they are not wasting time on distractions such as social media Furthermore, when students manage their time effectively, they may complete their work on time, stay involved in their study, and have more time free to pursue things that are important to them. Table 2. Perception of the Student-respondents on Self-paced Learning Factors in terms of Self-Regulation Engagement Indicators As a science student… 1. 2. 3. 4. 5. I evaluate what I understand by pausing at regular intervals while studying. It is important that I understand what is being taught to me. I practice by repeating the contents of the material. I review my reading materials and notes and try to find the most essential facts. It is important to me that I improve my science skills. Overall Mean 3.13 SD 0.69 Interpretation Practiced 3.56 0.56 3.16 0.77 3.39 0.66 Highly Practiced Practiced Practiced 3.71 0.49 3.39 0.46 Highly Practiced Practiced Legend: 3.50-4.00- Always (Highly Practiced), 2.50-3.49- Often (Practiced), 1.50-2.49Sometimes (Seldom Practiced), 1.00-1.49- Never (Rarely Practiced) Table 2 shows that the students “practiced” self-regulation in learning science. The statement which says that it is important for the students to improve their skills in science got the highest mean of 3.71 with a verbal interpretation of highly practiced and a standard deviation of 0.49. This means that students regulate themselves always by keeping in mind that it is important that they enhance the skills necessary in learning science subjects. When students feel what they are learning can improve themselves as students, they tend to put extra effort and find multiple ways on how to acquire the knowledge or skills that are needed to the best of their ability. According to Roberson (2013), when students think that it is important for them to learn the knowledge and the skills that they need to acquire, they are likely to produce higher quality effort, learn more deeply, and perform better in classes and on standardized tests. On contrary, the lowest mean is 3.13 which is interpreted as practiced stating that the respondents evaluate what they understand by pausing at regular intervals. This implies that students tend to self-regulate by pausing at certain periods of time to assess what they learn but not regularly. Edward (2013) stated that setting aside time for self-assessment can provide insight into students’ actual comprehension and assist discover knowledge gaps. It helps students to reflect on their own learning and levels of comprehension, allowing them to identify areas in which they need to improve. The student-respondents overall mean value on self-paced learning engagement factors in terms of self-regulation is 3.39 with an interpretation of practiced and a standard deviation of 0.46. This result suggests that the students monitor, direct, and regulate their actions for the purpose of the acquisition of information, expanding expertise, and self-improvement. Students who practice self-regulation are able to identify their own strength and weaknesses and apply appropriate strategies to cope-up with day-today challenge of academic tasks. In addition, Bozkurt et.al. (2018) argued that distance learning which is more flexible and autonomous requires the learners to be self-regulated and use their self-regulated learning skills more frequently as it can greatly improve the performance of the students. Moreover, Chen et.al. (2018) mentioned that self-regulation allows students to become less reactive and more proactive in learning because they are able to set clear goals and monitor their progress. Table 3. Perception of the Respondents on Self-paced Learning Engagement Factors in terms of Motivation Indicators Mean seek for the correct answers and/or 3.47 solutions when I make mistakes in my science subject. believe that what I am learning in 3.81 science class will be valuable to me in the future. think that what we are learning in 3.61 science class are interesting and relevant in the future. prefer project work that is challenging 3.19 so I can learn new things. Overall 3.52 As a science student, I… 1. 2. 3. 4. SD 0.69 Interpretation Practiced 0.40 Highly Practiced 0.55 Highly Practiced 0.74 0.42 Practiced Highly Practiced Legend: 3.50-4.00- Always (Highly Practiced), 2.50-3.49- Often (Practiced), 1.50-2.49Sometimes (Seldom Practiced), 1.00-1.49- Never (Rarely Practiced) As reflected on the table above, it can be seen that the statement which indicates that the students believe what they learn will be valuable for them in the future got the highest mean of 3.81 with a verbal interpretation of highly practiced. This means that students become more motivated to learn if they knew that the lessons being discussed will be useful and relevant in the field that they will choose in the future. Likewise, they will be interested to the learn as they find a meaningful purpose why is it in need to study the lesson. According to Yarborough (2020), students tend to persist in learning when they see the value and utility of what they are learning. When students believe and understand that an activity has a purpose and meaningful, they are more likely to engage themselves into learning. On the other hand, the statement which says that students prefer work that is challenging to them so they can learn new things got the lowest mean of 3.19 with an interpretation of practiced and a standard deviation of 0.74. This means that there are times wherein students choose to deal with challenging task because they believe in that way, they can learn more. However, it also signifies that most of the time, students do not prefer task which are difficult to accomplish because it gives them a sense of discouragement as they see it as a burden on their part. In connection to this, Kurukkan and Gafoor (2020) stated that students become less motivated when they think that the content of the lesson as well as the tasks it contains is too difficult and a belief that they are incapable of understanding the material. The overall mean for the students’ responses on self-paced learning engagement factors in terms of motivation is 3.52 which can be interpreted as highly practiced and a standard deviation of 0.42. This suggests that students are always motivated wherein they are able to manage their attention and behavior and provide themselves more energy to complete their tasks. It was mentioned in the study of Zyngier and Saeed (2012) about how motivation influences self-engagement that motivation is a necessary element for student engagement in learning. In addition, motivation has a great impact on learning as it increases the students’ energy level, determines the persistence in reaching a specific goal, influence the students’ learning techniques as well as their thinking process. Therefore, it can be said that a lack of motivation has one of the most frustrating obstacles to student learning and to achieve high academic performance in schools. Table 4. Perceived Characteristics of Students’ Dimensions of Learning in terms of Confidence and Independence Indicators Mean trust my own abilities in accomplishing 3.35 every task like to present my own point of view 3.06 during discussion participate in all activities even though 3.23 some of them are difficult for me learn to seek help when I am facing 3.52 obstacles in learning to further develop my skills and strategies enjoy finding information about new 3.32 topics on my own Overall 3.30 As a science student, I… 1. 2. 3. 4. 5. SD 0.60 0.70 0.71 Interpretation Manifested Manifested Manifested 0.59 Highly Manifested 0.65 0.48 Manifested Manifested Legend: 3.50-4.00- Strongly Agree-Highly Manifested, 2.50-3.49- Agree-Manifested, 1.50-2.49- DisagreeSeldom Manifested, 1.00-1.49- Strongly Disagree-Not Manifested at all The table above shows that the students “manifested” confidence and independence in learning science. The statement which indicates that students seek help when they are facing obstacles in learning to further develop their skills and strategies got the highest mean of 3.52 with a verbal interpretation of highly manifested and a standard deviation of 0.59. According to the learning record, one of the evidences that students are developing along the dimension of confidence and independence is when they learn to seek help from others for the purpose of improving their skills and strategies even further. Akbari (2020) stated in his study that students with selfconfidence can lead them to improve in participation, enjoy learning, reduced test anxiety, increased interest in goal seeking, growth of comfort with their lecturers and classmates and finally help them in sharing their experience and opinions in the class. On the other hand, the lowest mean is 3.06 which says that students like to present their own point of view during discussion. This means students tend to share their ideas during discussions in this kind of learning set-up. However, it can also be seen in the result that they are still hesitant to express their own point of view in class. According to Tokani (2019), students are unlikely to participate during discussions mainly because of lack of confidence. They will not speak up in class because they are afraid of being judged if they give the incorrect answer. Furthermore, when students believe that their own perspective on the content is unimportant, thus they also think that sharing it with the class is pointless. It can be observed on the table that student-respondents overall mean value on dimensions of learning in terms of confidence and independence is 3.30 and standard deviation of 0.48 which can be interpreted as manifested. This means that growth and development can be seen in students because their confidence and independence are observed. Cunningham (2021) explained that when students are confident, they are more likely to have a growth mindset. This means that they can motivate themselves to take on new challenges and learn from mistakes. In addition, they are more like to stand up on their own and ask help when they needed it. Furthermore, Haywood (2019) believed that students who are independent learners have higher self-confidence than others. They develop skills that help them to improve their learning by means of using their own ideas to form opinions and using a variety of strategies in their learning. Table 5. Perceived Characteristics of Students’ Dimensions of Learning in terms of Skills and Strategies 1. 2. 3. 4. 5. Indicators Mean I have the ability to conduct 3.77 experiments I have the ability to observe and 3.85 predict hypothesis I have the ability to perform 3.76 calculations I have the ability to research and 4.11 gather further information when needed I have the ability to analyze and 3.98 organize data Overall 3.90 SD 0.73 0.72 Interpretation Very Much Manifested Very Much Manifested 0.69 Very Much Manifested 0.68 Very Much Manifested 0.71 Very Much Manifested 0.60 Very Much Manifested Legend: 4.21-5.00- Excellent (Highly Manifested); 3.41.-4.20- Good (Very Much Manifested); 2.61-3.40- Average (Manifested); 1.81-2.60- Poor (Seldom Manifested); 1.00-1.80 – Fair (Not Manifested at all) Table 5 presents the students “very much manifested” the skills and strategies needed to learn science. It can be seen that the skill that has the highest mean of 4.11 which can be interpreted as very much manifested was the ability of the students to research and gather further information when needed. This implicates that the students became used to search and gather information that they need since they tend to learn at their own pace. Pappas (2021) stated that online learning enhances the research skills of the students because teachers always tend to teach them how to search effectively on different search engines and cite sources since most of the transactions are held online. Moreover, Reddy (2019) mentioned that the ability to research and gather information effectively allows the students to have a detailed analysis of any topic they want to find, which can enhance their knowledge about different topics. On the other hand, the statement which indicates the ability of the students to perform calculations got the lowest mean of 3.76 which can be interpreted as very much manifested, with a standard deviation of 0.69. This means that the ability of the students to calculate is good but still need to be improved and focused on. Given the fact that lessons which involve computations tend to be more difficult for the students, it is harder to understand when they learn it on their own and when they encounter problems in terms of internet connection during times that the teacher is demonstrating the step-by- step process of solving a particular problem. Sabo (2020) stated that students find subjects with math related topics harder to deal in online compare with in face-to-face classes due to increased stress, communication problems, lack of technical knowledge and learning preferences. The overall mean for the students’ response on the dimension of learning in terms of their skills and strategies was 3.90 with a verbal interpretation of very much manifested and an overall standard deviation of 0.60. This implicates that based on the students’ self-assessment, the skills mentioned above which are essential in learning science subjects are proficient. This means that these skills are still be practiced and enhanced by the students despite the new learning method. In line with this, Deshmukh et.al. (2012) mentioned that learning science online can help to increase science literacy and also enable the students to improve the skills necessary to have a good understanding of scientific concepts. Table 6. Perceived Characteristics of Students’ Dimensions of Learning in terms of Knowledge and Understanding Indicators Mean SD Interpretation As a science student, I… 1. can define scientific terms 3.19 0.44 Manifested 2. can recognize scientific facts and 3.29 0.46 Manifested concepts 3. am familiar with real-life applications 3.24 0.53 Manifested of scientific concepts 4. can relate scientific knowledge on my 3.44 0.56 Manifested daily living 5. can explain science concepts further 3.11 0.52 Manifested Overall 3.25 0.40 Manifested Legend: 3.50-4.00- Strongly Agree-Highly Manifested, 2.50-3.49- Agree-Manifested, 1.50-2.49- Disagree-Seldom Manifested, 1.00-1.49- Strongly Disagree-Not Manifested at all As reflected on the table above, tit shows that the students are acquiring knowledge and understanding as they learn independently. The statement which indicates the students’ ability to relate scientific knowledge on their daily living got the highest mean of 3.44 with an interpretation of agree. This implies that the students are acquiring knowledge and understanding of the subject matter as they can relate different concepts about science in their day to day living. Able to relate lessons in real life scenarios is a sign that students really understand the lesson. In connection with this, teachers can assess whether their students understand the lesson they teach by letting them reflect and if they are able to relate what they have learn in their real-life experiences (Mugabi, 2020). On the other hand, the statement which says that students can explain scientific concepts further got the lowest mean of 3.11 with an interpretation of manifested. This means that students find it difficult in explaining concepts in science even further. Scientific concepts tend to be harder to discuss because it does not rely only in perception as it needs evidences and anchored on different theories. In addition, one must need to know and understand the basic concepts first as it serves as the foundation of the more complex ideas in science. Millar (2011) described science as difficult to understand and explain because it is abstract, involves reconstructions of meaning and logical chains of argument, couched in abstract language and based on facts and hypothetical evidences. It can be observed on the table that student-respondents overall mean value in terms of knowledge and understanding is 3.25 with an interpretation of manifested and a standard deviation of 0.40. The result implies that students are acquiring knowledge and understanding in science subjects however, this also signifies that there are still need of improvement in terms of learning content knowledge in science. Alonta (2020) proved in her study that studying at self-paced helps the students to develop individual learning styles which leads to greater memory performance and better knowledge retention. Table 7. Perceived Characteristics of Students’ Dimensions of Learning in terms of the Use of Prior and Emerging Experience Indicators Mean 1. I use my previous experiences to 3.48 develop my skills and strategies in studying science subjects 2. I illustrate my own learning 3.37 experiences and apply it in accomplishing my tasks 3. I establish connections between my 3.34 previous and newly acquired knowledge in science subjects 4. I apply prior experiences to 3.39 understand topics in science 5. I reinforce my learning using the 3.35 previously learned concepts and ideas. Overall 3.39 SD 0.57 Interpretation Manifested 0.52 Manifested 0.51 Manifested 0.52 Manifested 0.52 Manifested 0.43 Manifested Legend: 3.50-4.00- Strongly Agree-Highly Manifested, 2.50-3.49- Agree-Manifested, 1.50-2.49- Disagree-Seldom Manifested, 1.00-1.49- Strongly Disagree-Not Manifested at all Table 7 shows that the students manifest the use of prior and emerging experience. The highest mean of 3.48 with a verbal interpretation of manifested indicates that the respondents use their previous experiences to develop their skills and strategies in studying science. This means that students are maximizing the use of their prior experiences in learning to further develop their skills. Gee (2012) explained that understanding students’ prior knowledge and experience is important because it can be used to help the students foster student engagement and skills that are needed in the course. On the other hand, the statement which says that the students establish connections between their previous and newly acquired knowledge in science subjects got the lowest mean of 3.34 with an interpretation of manifested. This implies that students are having difficulty or not practicing much the use of establishing connections between their previous and acquired knowledge in learning science. Alber (2011) mentioned that making connections between new information and previous knowledge is essential as it influences the way how. Furthermore, it helps the teacher to assist their students with the learning process as it gives them the idea of what students know and what they still need to learn. The over-all mean value of the students’ dimension of learning in terms of using their prior and emerging experience is 3.39 which has an interpretation of manifested and an overall standard deviation of 0.43 This means that students are using what they already know and building initial knowledge that they need in order to access upcoming content. When the students prior experience is related, correct and consistent with the new information, it can positively affect their learning as it influences how students interpret, process, integrate new information and create new knowledge. According to Jean Piaget's schema theory, kids establish a schema as they learn about the world and are then able to make connections to a variety of other things. Hailikari et. al. (2015) revealed in their study that the amount and quality of prior knowledge positively influence both the capacity to apply higher-order cognitive problem-solving skills and knowledge acquisition. Furthermore, he added that the success of learning is defined by how much the learner already knows about a specific topic or related topics, according to a general knowledge of how they learn. Table 8. Perceived Characteristics of Students’ Dimensions of Learning in terms of Reflection Indicators Mean 1. I evaluate the strategies I use in 3.19 studying science. 2. I contemplate on the learning I have 3.24 gained in science 3. I assess how well I perform 3.32 4. I identify my own strengths and 3.39 weaknesses 5. I am aware of my own pace of 3.42 learning Overall 3.31 SD 0.57 Interpretation 0.50 Manifested 0.59 0.64 Manifested Manifested 0.62 Manifested 0.48 Manifested Manifested Legend: 3.50-4.00- Strongly Agree-Highly Manifested, 2.50-3.49- Agree-Manifested, 1.50-2.49- Disagree-Seldom Manifested, 1.00-1.49- Strongly Disagree-Not Manifested at all The table above shows the characteristic of the students’ learning in terms of their reflection. The statement which indicates that students are aware about their own pace of learning got the highest mean of 3.42 which can be interpreted as manifested. This means that students have an awareness of their own learning and thinking. Morin (2021) stated that when people are aware of their own learning, it is easier for them to build positive self-esteem and gives them a way not only to look at the challenges but also to recognize their strengths. Thus, self- awareness is indeed crucial in students’ success as it gives a direction for improvement. On the other hand, the lowest mean was 3.19 which states that students evaluate the strategies they use in studying science. This means that even though students are developing awareness on their own learning, they do not much practice evaluating the strategies that they use in studying science subjects. According to Martin et. al. (2016), it is important that students evaluate the strategies that they use in studying as it allows them to asses how well they performed using a particular strategy and to reflect whether the strategy improves them as a learner. The overall mean for the students’ response in the dimension of learning particularly in terms of their reflection was 3.31 with a verbal interpretation of manifested and a standard deviation of 0.48. This implies that the students have growing insight into their own learning process and has more analytical approaches to the subjects being studied. Using metacognition, students are able to have a deeper understanding of the processes and methods that works best for them. Furthermore, it allows the students to monitor and assess their thoughts and reframe the way how they think in order to adapt to new situations. Marinette (2018) explained that reflection which can also be called as metacognition is one of the most effective ways for students to improve their learning. It helps them to be aware of what they are thinking about and in choosing effective learning strategies. Table 9. Relationship between self – paced learning engagement factors and learning dimensions students’ Characteristics of Students Learning Dimensions Self-Paced Learning Engagement Factors Time Management Self-Regulation Motivation Confidence Skills and Knowledge and Strategies and Independence understanding .398** .645** .620** .594** .617** .637** .499** .522** .407** Use of Reflection Prior and Emerging Experience .229 .347** .395** .479** .542** .535** ** Correlation is significant at .01 level It can be depicted from the table that there is a significant relationship between self-paced learning engagement factors and students’ dimensions of learning. This implies that the students’ engagement in self-paced learning is associated with their learning performance. Furthermore, it is apparent that there is a positive relationship between time management and students learning dimensions except for the use of prior and emerging experience. This is because using prior knowledge and experiences is not affected by how students manage their time. As long as students have a strong foundation of basic knowledge, they will be able to use and relate it to the new information they encounter. On the other hand, since the remaining dimensions indicates positive correlation, this can also prove that as the students practice time management, the level of students learning progresses positively. In the study of Liu et al., (2014), it proved that time management had a mediating effect on the relationship between study engagement and learning adaptability. This is related to the findings of Indreica et. al. (2011) which revealed that students learn more effectively when they learn to manage their time. As their works are more quantifiable for them, they can allocate study hours and stick to it which can contribute to effectively develop their learning skills. Moreover, Livingston (2011) mentioned that students who become better in terms of timemanagement allows them to become more organized, confident and learn more effectively. On the other hand, it can also be seen that there is a positive relationship between self-regulation and students’ learning dimensions; and between motivation and students’ learning dimensions. It can be inferred that self-regulation and motivation are correlated with the students learning. As they practice to self-regulate and become motivated, positive evidence of student development can be observed across the five dimensions. In the study of Al Mutawah et al., (2017), it was found out that self-regulation is essential in learning mathematics and science, because one way of promoting the acquisition of knowledge and skills is to help students regulate their learning. In addition, Murray (2017) stated that self-regulation increases the encoding of knowledge and abilities, notably in reading comprehension and writing, and allows students to proactively analyze and improve their own learning. Self-regulation has also been linked to increased desire and effort, as well as improved standardized exam scores and overall preparedness for class, according to studies. Aside from self-regulation, it is also evident based on the results that students’ motivation is associated with their learning. According to Hulleman (2018), motivation is an important predictor of learning achievement as it persists the students to learn longer, perform better in classes, produce high quality effort and learn more deeply. This is congruent to the result of the study of Ferreira et. Al. (2011) which proved that motivation is a crucial factor in the learning process, such that motivated students have the inner strength to learn, discover, and maximize on their strengths, as well as improve their academic performance. CONCLUSION AND RECOMMENDATIONS Conclusion. The findings gathered in the study revealed that there is a positive significant relationship between self-paced learning engagement and students’ dimensions of learning except for time management and students learning dimensions on the use of prior and emerging experience. Thus, the null hypothesis posited in the study is partially sustained. Recommendations. Based on the conclusion of the study, the following are recommended. 1. Since students’ engagement in self-paced learning is significantly correlated with their learning dimensions, teachers are encouraged to provide opportunities to engage their students in the actual teaching and learning. The level of engagement may be considered in designing learning tasks and assessing performance. 2. The teachers may consider different strategies that can help improve the performance of the students specially the learning dimensions that are left behind so that the students will succeed in learning despite the adjustments brought by the shifting of the modality of learning. 3. The students may use the result of this study to assess their learning progress under self-paced learning. Consider this in identifying and analyzing their strengths and weaknesses. The students are encouraged to practice timemanagement, self-regulation and keep themselves motivated as these factors are linked on their learning. 4. Future researchers can use the results of this study as basis for conducting a similar study that may involve construction of lesson plans, utilizing teaching strategies or designing instructional materials that can help to improve students learning progress under self-paced learning. References Al Mutawah, M. A., Thomas, R., & Khine, M. S. (2017). Investigation into self-regulation, engagement in learning mathematics and science and achievement among Bahrain secondary school students. International Electronic Journal of Mathematics Education, 12(3), 633-653. Retrieved from https://www.iejme.com/article/investigation-into-self-regulation-engagement-inlearning-mathematics-and-science-and-achievement Alber, R. (2011, July 19). Are You Tapping into Prior Knowledge Often Enough in Your Classroom? Retrieved from https://www.edutopia.org/blog/prior-knowledgetapping-into-often-classroom-rebecca-alber Albert, J. G., Santos, A. F., & Vizmanos, J. V. (2019). Profile and Determinants of the Middle-Income Class in the Philippines. Retrieved from https://pidswebs.pids.gov.ph/CDN/PUBLICATIONS/pidsdps1820.pdf. Akbari, O., & Sahibzada, J. (2020). Students’ self-confidence and its impacts on their learning process. American International Journal of Social Science Research, 5(1), 1-15. Akbari, O., & Sahibzada, J. (2020). Students’ self-confidence and its impacts on their learning process. American International Journal of Social Science Research, 5(1), 1-15. Retrieved from https://doi.org/10.46281/aijssr.v5i1.462 Alonta, M. (2020). "Self-Paced Learning - All You Need to Know." Education World Wide. May 20, 2021. Accessed July 30, 2021. https://eduww.net/why-self-pacedlearning-is-good-for-students/ Angdhiri, R. P. (2020). Challenges of home learning during a pandemic through the eyes of a student. Retrieved from https://www.thejakartapost.com/life/2020/04/11/challenges-of-home-learningduring-a-pandemic-through-the-eyes-of-a-student.html Australian Christian College. (2019, November 25). Time management skills that improve student learning. Retrieved from https://www.acc.edu.au/blog/timemanagement-skills-student-learning/ Chen, J., Zhu, B., Balter, O., Xu, J., Zou, W., Hedman, A., ... & Sang, M. (2017, May). FishBuddy: promoting student engagement in self-paced learning through wearable sensing. In 2017 IEEE International Conference on Smart Computing (SMARTCOMP) (pp. 1-9). IEEE. Chen, Keros, & Tiglao. (2018). Self-regulation. Retrieved https://tll.mit.edu/teaching-resources/how-people-learn/self-regulation/ from College of Education and Human Sciences. (2021). Self-Regulation. Retrieved from https://cehs.unl.edu/secd/self-regulation/ Cukurova, M. (2015). An Investigation of an Independent Learning Approach in University Level Chemistry: The Effects on Students' Knowledge, Understanding and Intellectual Attributes. Retrieved from https://etheses.whiterose.ac.uk/7160/1/Mutlu Cukurova- PhD Thesis.pdf. Cunningham, B. (2021, April 14). The importance of positive self-esteem. Retrieved from https://www.understood.org/articles/en/the-importance-of-positive-self-esteemfor-kids DeVore, S., Marshman, E., & Singh, C. (2017). Challenge of engaging all students via self-paced interactive electronic learning tutorials for introductory physics. Physical Review Physics Education Research, 13(1), 010127. https://journals.aps.org/prper/abstract/10.1103/PhysRevPhysEducRes.13.01012 7 Deshmukh, V., Forawi, S., & Jaiswal, A. (2012). The Role of E-learning in Science Education vis-a-vis Teacher Training Institutes in Middle East. David Publishing. Doyle, B. (2011, December 10). Prior knowledge can affect your learning. Retrieved from https://www.times-news.com/archives/prior-knowledge-can-affect-yourlearning/article_ad8bb1de-090e-550b-ab45-c268acd8d4cb.html Edward, G. F. (2017). Self-Assessment to Improve Learning and Evaluation. Retrieved from https://www.asee.org/public/conferences/78/papers/19411/view Ferreira, M., Cardoso, A. P., & Abrantes, J. L. (2011, December 17). Motivation and Relationship of the Student with the School as Factors Involved in the Perceived Learning. Retrieved https://www.sciencedirect.com/science/article/pii/S1877042811028837 from Gee, J. (2013, December 04). Importance of Prior Knowledge to Learning. Retrieved July 30, 2021, from https://news.illinoisstate.edu/2012/01/importance-of-priorknowledge-to-learning/ Gholam, A. P. (2019). Inquiry-Based Learning: Student Teachers’ Challenges and Perceptions. Journal of Inquiry and Action in Education, 10(2), 6. Retrieved from https://digitalcommons.buffalostate.edu/jiae/vol10/iss2/6/ Hailikari, T., Katajavuori, N., & Lindblom-Ylanne, S. (2016, October 15). The relevance of prior knowledge in learning and instructional design. Retrieved from https://www.ncbi.nlm.nih.gov/pmc/articles/PMC2630138/ Haryani, S., Masfufah, Wijayati, N., & Kurniawan, C. (2018). Improvement of metacognitive skills and students’ reasoning ability through problem-based learning. Journal of Physics: Conference Series, 983, 012174. doi:10.1088/17426596/983/1/012174 Haywood, N. (2019, August 25). Benefits of Independent Learning for Students. Retrieved from https://www.school-smart.co.uk/blog/benefits-of-independentlearning-for-students/ Hulleman, C. S. (2018, September). An Important Piece of the Student Motivation Puzzle. Retrieved from https://www.future-ed.org/reversing-the-decline-instudent-motivation/ Independence. (n.d.). Retrieved https://dictionary.cambridge.org/us/dictionary/english/independence from Indreica, E. S., Cazan, A. M., & Truta, C. (2011). Effects of learning styles and time management on academic achievement. Procedia-Social and Behavioral Sciences, 30, 1096-1102. Retrieved from https://www.semanticscholar.org/paper/Effects-of-learning-styles-and-timemanagement-on-IndreicaCazan/064aa18a60f19baf3124136877ef0b45972d2f92 Irwanto, Rohaeti, E., Widjajanti, E., & Suyanta. (2017). Students’ science process skill and analytical thinking ability in chemistry learning. doi:10.1063/1.4995100 Jansen, R. S., Leeuwen, A. V., Janssen, J., Kester, L., & Kalz, M. (2016). Validation of the self-regulated online learning questionnaire. Journal of Computing in Higher Education, 29(1), 6-27. doi:10.1007/s12528-016-9125-x Kocdar, S., Karadeniz, A., Bozkurt, A., & Buyuk, K. (2018). Measuring self-regulation in self-paced open and distance learning environments. International Review of Research in Open and Distributed Learning, 19(1). Retrieved from https://www.erudit.org/en/journals/irrodl/1900-v1-n1irrodl03927/1050875ar/abstract/ Kurukkan, A., & Gafoor, A. (2015). Learner and Teacher perception on Difficulties in Learning and Teaching Mathematics: Some Implications. Retrieved from https://files.eric.ed.gov/fulltext/ED568368.pdf Lee, E., & Hannafin, M. J. (2016). A design framework for enhancing engagement in student-centered learning: Own it, learn it, and share it. Educational technology research and development, 64(4), 707-734. https://search.proquest.com/docview/1813630855?pqorigsite=gscholar&fromopenview=true LIbao, N. J. P., Sagun, J. J. B., Tamangan, E. A., Pattalitan, A. P., Dupa, M. E. D., & Bautista, R. G. (2016). Science learning motivation as correlate of students’ academic performances. JOTSE: Journal of Technology and Science Education, 6(3), 209-218. Retrieved from https://upcommons.upc.edu/handle/2117/97611 Liu, J. Y., Liu, Y. H., & Yang, J. P. (2014). Impact of learning adaptability and time management disposition on study engagement among Chinese baccalaureate nursing students. Journal of professional nursing : official journal of the American Association of Colleges of Nursing, 30(6), 502–510. https://doi.org/10.1016/j.profnurs.2014.05.002 Livingston, C. (2021). Important Benefits of Time Management for Students. Retrieved from https://totallyuniquelife.com/5-important-benefits-of-time-management-forstudents/ Manalo, C. M., & Chua, El N., Self-Directed Learning Guide for an Improved Science Process Skills of Grade 11 Learners. IOER International Multidisciplinary Research Journal, Volume 2, Issue 3, pp.58-67, Retrieved from https://ssrn.com/abstract=3696174 Maragall, J., Silva, C., & Vegas, E. (2020). Education in Times of Pandemic: Impact of Covid-19 in Education System. Retrieved from http://www.sela.org/en/events/e/66058/education-in-times-of-pandemic# Marinette, B. (2018). The Impact of Metacognition on Student's Learning. Retrieved from https://www.researchgate.net/publication/327647338_The_Impact_of_Metacogn ition_on_Students'_Learning. Marshman, E., Devore, S., & Singh, C. (2020). Holistic framework to help students learn effectively from research-validated self-paced learning tools. Physical Review Physics Education Research, 16(2). doi:10.1103/physrevphyseducres.16.020108 Martin, B., McNally, J., & Taggar, S. (2016). Determining the importance of selfevaluation on the goal-performance effect in goal setting: Primary findings. Canadian Journal of Behavioural Science/Revue canadienne des sciences du comportement, 48(2), 91. Retrieved from https://psycnet.apa.org/record/2015-46276-001 Millar, R. (2011). Why is science hard to learn? Journal of Computer Assisted Learning, 7(2), 66-74. doi:10.1111/j.1365-2729. 1991.tb00229.x Morin, A. (2021, July 09). What is self-awareness? Retrieved https://www.understood.org/articles/en/the-importance-of-self-awareness from Mugabi, T. (2020, November 12). 62 ways to check for understanding - Classcraft Blog. Retrieved from https://www.classcraft.com/blog/ways-to-check-forunderstanding/ Murray, D. W., (2017). Promoting self-regulation in adolescents and young adults: A practice brief. OPRE Report #2015-82. Washington, DC: Office of Planning, Research, and Evaluation, Administration for Children and Families, U.S. Department of Health and Human Services. Retrieved from https://fpg.unc.edu/sites/fpg.unc.edu/files/resources/reports-and-policybriefs/Promoting%20SelfRegulation%20in%20Adolescents%20and%20Young%20Adults.pdf Nepal, R., & Rogerson, A. M. (2020). From Theory to Practice of Promoting Student Engagement in Business and Law-Related Disciplines: The Case of Undergraduate Economics Education. Education Sciences, 10(8), 205. doi:10.3390/educsci10080205 Pappas, C. (2021, May 12). 7 Tips to Enhance Online Research Skills Through eLearning. Retrieved from https://elearningindustry.com/7-tips-enhance-onlineresearch-skills-elearning Read "Learning, Remembering, believing: Enhancing Human Performance" at NAP.edu. (n.d.). Retrieved from https://www.nap.edu/read/2303/chapter/13 Read "Taking Science to School: Learning and Teaching Science in Grades K-8" at NAP.edu. (n.d.). Retrieved from https://www.nap.edu/read/11625/chapter/11 Reddy, C. (2019, November 13). Why Research is Important for Students, Humans, Education. Retrieved from https://content.wisestep.com/research-importantstudents-humans-education/ Roberson, R. (2019). Helping students find relevance. Retrieved https://www.apa.org/ed/precollege/ptn/2013/09/students-relevance from Ruth, D. (2019). Implications for educational practice of the science of learning and development. Applied Developmental Science, 24(2), 97-140. doi:10.1080/10888691.2018.1537791 Sabo, C. (2020). 10 Tips for Supporting Students Struggling with Online Learning. Retrieved from https://www.codlearningtech.org/2020/11/23/10-tips-forsupporting-students-struggling-with-online-learning/ Sousa, V. D., Driessnack, M., & Mendes, I. A. (2020, June 01). An overview of research designs relevant to nursing: Part 1: Quantitative research designs. Retrieved from https://www.scielo.br/j/rlae/a/7zMf8XypC67vGPrXVrVFGdx/?lang=en Stanley, C. (2019, November 05). 5 surprising results of a self-paced classroom. Retrieved from https://www.iste.org/explore/In-the-classroom/5-surprisingresults-of-a-self-paced-classroom Suman, S. (2020). Relationship Between Science Process Skills And Achievement In Science Of Secondary School Students. Retrieved from https://www.researchgate.net/profile/SapnaSuman/publication/345758634_relationship_between_science_process_skills_a nd_achievement_in_science_of_secondary_school_students/links/5facc5a5299 bf18c5b6a039d/relationship-between-science-process-skills-and-achievementin-science-of-secondary-school-students.pdf Suvin, C. (2021, January 4). Top 10 benefits of self-paced learning that you were not aware of. Retrieved from https://www.creatrixcampus.com/blog/top-10-benefitsself-paced-learning-you-were-not-aware Syverson, M. A. (2014). Dimensions of http://www.learningrecord.org/dimensions.html Learning. Retrieved from Tani, M. (2019, January 20). Why are teachers mostly female? Retrieved from https://www.sbs.com.au/news/insight/why-are-teachers-mostly-female Ten tips to manage time and tasks: Academic Skills. (n.d.). Retrieved from https://students.unimelb.edu.au/academic-skills/explore-our-resources/timemanagement/10-tips-to-manage-time-and-tasks Terada, Y. (2020, February 11). 3 Reasons Students Procrastinate-and How to Help Them Stop. Retrieved from https://www.edutopia.org/article/3-reasons-studentsprocrastinate-and-how-help-them-stopv Tiglao, L. S. (n.d.). Retrieved from https://www.pressreader.com/philippines/sunstarpampanga/20160721/281655369425391 Time management skills that improve student learning. (2019, November 25). Retrieved from https://www.acc.edu.au/blog/time-management-skills-student-learning/ Tokani, M. (2019, May 28). Why Students Don't Participate in Class (And How You Can Help). Retrieved from https://gradepowerlearning.com/why-students-dontparticipate-in-class/ Thomas, G. (2015). Metacognition and Science Learning. Encyclopedia of Science Education. doi:https://doi.org/10.1007/978-94-007-2150-0_343 Tullis, J. G., & Benjamin, A. S. (2011, February 01). On the effectiveness of self-paced learning. Retrieved from https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3079256/ University of Texas. (2015, September 10). Retrieved from https://academicpartnerships.uta.edu/articles/education/five-science-teachingtechniques-to-try.aspx University of Washinton. (2021). Engaging students in learning. Retrieved from https://teaching.washington.edu/topics/engaging-students-in-learning/ Uum, M. S., Verhoeff, R. P., & Peeters, M. (2016). Inquiry-based science education: Towards a pedagogical framework for primary school teachers. International Journal of Science Education, 38(3), 450-469. doi:10.1080/09500693.2016.1147660 https://www.tandfonline.com/doi/full/10.1080/09500693.2016.1147660 Vogt, K., Petersen, M., Szot, J., & Goff, K. (2021, August 17). How Blended Learning Can Support Student Agency. Retrieved from https://www.nextgenlearning.org/articles/how-blended-learning-can-supportstudent-agency Wood, R. (2019). Students’ Motivation to Engage with Science Learning Activities through the Lens of Self-Determination Theory: Results from a Single-Case School-Based Study. EURASIA Journal of Mathematics, Science and Technology Education, 15(7). doi:10.29333/ejmste/106110 Yarborough, C. B., & Fedesco, H. N. (2020). Motivating students. Vanderbilt University Center for Teaching. Retrieved [todaysdate] from https://cft.vanderbilt.edu//cft/guides-sub-pages/motivating-students/. Zain, S. F., Rasidi, F. E., & Abidin, I. I. (2012). Student-Centered Learning in Mathematics Constructivism in The Classroom. Journal of International Education Research (JIER), 8(4), 319-328. doi:10.19030/jeer. v8i4.7277 Zilvinskis, J., Masseria, A. A., & Pike, G. R. (2017). Student engagement and student learning: Examining the convergent and discriminant validity of the revised national survey of student engagement. Research in Higher Education, 58(8), 880-903. https://search.proquest.com/docview/1957698430?fromopenview=true&pqorigsite=gscholar Zyngier, D., & Saeed, S. (2012). How Motivation Influences Student Engagement: A Qualitative Case Study. Journal of Education and Learning. Retrieved from https://files.eric.ed.gov/fulltext/EJ1081372.pdf.