Tengku Mohd Mizwar Bin T Malek1*, Aini Ahmad2
1Open University Malaysia, 47301 Petaling Jaya, Selangor, Malaysia
2School of Nursing, KPJ Healthcare University College, 71800, Negeri Sembilan, Malaysia
*Corresponding Author’s Email: tengkumizwar@gmail.com
Objective: This study aims to identify the effects of web-based educational programs on diabetic self-efficacy management (DSEM), diabetic self-care behavior management (DSCM) in quality of life (QoL) among type 2 diabetes patients in public hospitals. Methods: This study used a quantitative quasi-experimental design of pre-test and post-test. Diabetic-N-Care program was conducted at Orthopedic Clinic Hospital Sultanah Nur Zahirah Kuala Terengganu for 34 days, where purposive sampling involved type 2 diabetic patients who were divided into intervention groups (IG) (n = 60) and control group (CG) (n = 60). Respondents are the same individual for each phase of measurement. Results: Data analysis method the general linear model repeated measures ANOVA, Split-plot ANOVA (SPANOVA) and paired t-test was conducted on 120 patients to see the effect of using Diabetic-N-Care on IG. The results of Split - plot ANOVA analysis showed a significant overall effect of DSEM, DSCM and QoL (p = 0.000) on IG. Meanwhile, paired t-test analysis there was a significant mean difference in DSEM, DSCM and QoL at pre-test and post-test (p = 0.000) to IG compared to CG. Conclusion: Web-based health education can have an impact on DSEM, DSCM in the QoL of type 2 diabetic patients where greater than before confidence, change the old behavior to new behavior to improve quality of life in the long-term planning. Therefore, this study concludes that web-based methods such as Diabetic-N-Care need to be widely adapted in current health education methods.
The phenomenon of diabetes mellitus is a global challenge today and has reached an alarming level. Several factors have triggered the development of 90% of type 2 diabetes and caused metabolic disorders characterized by a variety of complications (Abdullah et al., 2018; Hameed et al., 2015). Based on statistics from the Second National Health and Morbidity Survey, more than 3.4 million Malaysians were diagnosed with diabetes in 2010, which is about 11.8% of the total population in Malaysia and a dramatic increase of 4.5 million in 2020 (dan Analisis, 2018). The study from Abdullah et al. (2018) and Zanariah et al. (2015) believes that apart from the existing factors, cultural practice factors influence this epidemic because of Malaysia’s multi-racial harmony and harmony in terms of customs and culture itself, in addition to the influence of family genetics. Cultural food practices that are still practiced, the influence of western food, and food modifications to look more appetizing cause an increase in diabetic statistics compared to treatment interventions.
Self-efficacy is considered the most important and key predictor of self-care behavior among type 2 diabetic patients (Lee, Lee, & Chae, 2020; Dehghan et al., 2017; Sarkar, Fisher, & Schillinger, 2006). The concept of quality of life (QoL) related to improved health is increasingly recognized as an important outcome of rehabilitation programs and also as an indicator of how diabetic patients can adapt after a treatment or after discharge from the hospital (Dhatariya, Corsino, & Umpierrez, 2020). Technology has proven to be a support tool as a medium to conduct key interventions to improve patient health levels and adherence to health-related information communicated by the health profession (Zuhaida et al., 2021; Rasoul et al., 2019; Muegge & Tobin, 2016). 21st century patients and healthcare professionals need new tools to manage the growing burden of chronic disease (Muegge & Tobin, 2016).
Self-efficacy is able to influence attitudes towards self-care behavior for diabetics, but how to convey this concept is still disrupted and needs transformation in intervention (Karimy, Koohestani, & Araban, 2018; Nguyen, Jiang, & Poo, 2015). Meanwhile, education interventions for diabetic patients are inconsistent in controlling glucose levels effectively (Jiang et al., 2019; Nguyen, Jiang, & Poo, 2015). If seen, health education has traditionally had certain limitations and has caused disconnection between health education and patients. Nevertheless, the absence of long-distance health education guidelines for the treatment of post-discharge disconnection contributes to a poor prognosis. The previous concept of transformation is not enough in health education, where there is an increase in the rate of diabetic patients with severe complications. This situation clearly occurs during a natural disaster or COVID-19 pandemic that causes major changes in diabetic life and management. Diabetic patients tend to have various levels of negative emotions, such as depression and anxiety (Banerjee, Chakraborty, & Pal, 2020), and the effects of this pandemic make them burdened because they have to do diabetic self-management and the standard practice of COVID-19 precaution. This situation will affect their effort, suppression, emotion, venting, and wishful thinking in the midst of the COVID-19 pandemic. This can be clearly seen when clinics are closed for patient rehabilitation, patients are transferred and wards are made for COVID-19 patients, and patients start returning home at their own risk for fear of COVID-19 spreading in hospitals when treatment is still needed. This condition will worsen in just 7 days if there is no appropriate intervention to help these diabetic patients (Wargny et al., 2021). As can be seen, the traditional educational interventions performed are not sufficient to obtain the desired results because there are no reforms in educational programs, such as using theory (Jiang et al., 2019). Diabetic web-based education intervention is a way of self-management that is encouraged in the individual and, in turn, improves the level of quality of life for a long period of time. The web-based educational intervention program is an innovation that addresses educational problems face-to-face (Pal et al., 2013).
This article will briefly highlight some of the key developments in the field of diabetic health education and how this technology can be integrated into this practice.
Quantitative quasi-experimental method approach (pre-test and post-test) repeated-measures design with intervention and control group. Pre-tests for this study were used to determine whether there were similarities between groups and as a statistical control. Meanwhile, post-test to determine the difference between the intervention group and control group Both groups received routine diabetes treatment, and the intervention group was given health education interventions based on Kurt Lewin’s (1947) model of change theory and self-efficacy theory by Albert Bandura (1977) applied in web technology-based diabetes education program interventions (Figure 1).
Population and Sampling
The majority of patients were Malay, and non-probability purposive sampling techniques were used based on sample size using Raosoft’s online sample calculator (Raosoft Incorporation, 2004). The population size that has been identified is 168, and the recommended sample size is 118 respondents. The sample size for this measure was rounded to 120 respondents for division into intervention (n = 60) and control groups (n = 60) in this study.
Research Instruments
This instrument was developed by a researcher based on previous studies (Sangruangake, Jirapornkul, & Hurst, 2017; Tharek et al., 2018; John et al., 2019). The questionnaire was translated into Bahasa Melayu through the back-to-back translation technique. The majority of questionnaires use the Likert scale from 1 to 5 (DSEM: Unsure to Extremely Confident; DSCM: Very Poor to Very Good; QoL: Strongly Disagree to Strongly Agree). The results showed a DSEM Cronbach's value α 0.83, DSCM Cronbach's value α 0.93 and a QoL Cronbach's value of 0.93. The next process is facing validity for relevance issues, comprehensiveness, and clarity (Lam et al., 2018), where the researcher has determined 5 professional experts for the review of this study instrument, which consists of a research supervisor, orthopedic specialist doctors, a head nurse, and two nurses with diabetic post-basic courses.
Research Procedure
This study is divided into three phases to identify the effect of the use of web-based diabetic education among respondents. Diabetic-N-Care is a research tool used in educating patients related to diabetic knowledge through the web. Diabetic-N-Care was formed through the use of Google Sites. The three phases in this research were adapted from the three phases of Kurt Lewin’s theory in addition to using the principles of Bandura’s Social Cognitive Theory. Time 1 as a pre-test, Time 2 follow-up session after 14 days of the program, and Time 3 result as a post-test after 34 days of the program (Figure 2). For the selection of inclusion criteria, respondents aged between 20 and 59 years who were diagnosed with type 2 diabetes and had no vision or hearing problems for the exclusion criteria of respondents with a chronic diagnosis and unable to implement the program (e.g., multiple chronic diagnoses, e.g., spine and cancer), type 1 diabetes, and pregnant women. While the withdrawalcriteria were that respondents could choose to withdraw at any time, the investigator considered it detrimental or risky for the subject to continue, and those who withdrew from the study before entering the follow-up phase would be replaced immediately and through the same process. If the respondent withdraws after the follow-up phase, it will not be replaced.
Data Collection Process
Step 1: Implement of Material Program
After the patient is examined by the doctor, the patient from the intervention group will answer the questionnaire first as a pre-test. After that, the researcher will explain the intervention process to the patient. Both groups will respond to the same questionnaire and routine interventions, for example, assessment, health education, and treatment by orthopedic doctors and clinic nurses.
Step 2: Education Program
The way to access this web is to simply scan the bar code provided as a button badge (Figure 3), and patients can see the information related to diabetics provided at any time for reference. After a 2-week intervention program, the intervention group will receive the latest information via the web related to daily diabetic management. The latest information is based on the lowest scores related to the daily management of diabetics, to increase patient understanding and confidence. Furthermore, IG will also receive orders via the WhatsApp application to log in and read new information updated by researchers.
Step 3: Evaluation Program
After 34 days of the intervention program, this phase is a post-test to evaluate the effect of the program. The researcher met the patient during an appointment with the specialist to assess the patient’s condition. Patients from the intervention group and the control group were asked to re- answer the same questionnaire. At the final stage of the program, program interventions will be performed on both groups
Statistical Test
After the respondents completed the questionnaire according to the study phase, the data was then entered into the SPSS-version 25 software. The results were reported in statistical analysis formats such as descriptive statistics (frequency, mean, and standard deviation) and inferential statistics. The General Linear Model Repeated Measures ANOVA, Split-Plot ANOVA (SPANOVA), and Paired t-test were performed to see the effectsand differencesand make comparisons between two types of independent variables, one consisting of repeated data and interventions on each dependent variable separately in this study. On the other hand, Box’s M and Levene's tests were p 0.05, and the Kolmogorov-Smirnov test performed showed values from all variables p = 0.200, which indicates that the SPANOVA test variance value equality condition has been met. The results of the study indicate that the Kolmogorov-Smirnov test is the best normality test because of its goodness of fit in measuring the fit between the distribution of a series of samples with a specific frequency distribution (Justel, Pena, & Zamar, 1997). The data distribution has positive skewness (Skewness = 0.43, Kurtosis = 1.92). Data analysis was performed for each phase of the study to see the requirements and weaknesses of respondents through the new information to be uploaded in Diabetic-N-Care.
Ethical Consideration
The study was conducted according to guidelines and approved by the Medical Research Ethics Committee of the Ministry of Health Malaysia (MREC) on 9th September 2021 with reference number NMRR-21-1446-59624/KKM/NIHSEC/P21-1403.
RESULTS
Profile of the Sample
Table 1 shows the overall demographic data and Table 2 relates to the clinical characteristics’ information of respondents for this study.
Variables | Category | Diabetic -N-Care Intervention Group (N:60) | N Missing | Mean S. D | Control Group (N: 60) | N Missing | Mean S. D |
Age (years) | 20-25 30-35 36-39 40-45 46-49 50-55 56-59 | 0 (0%) 8 (13.3%) 9 (15.0%) 11 (18.3%) 6 (10.0%) 6 (10.0%) 20 (33.3%) | 0 | 5.883 1.8603 | 0 (0%) 3 (5.0%) 7 (11.7%) 12 (20.0%) 5 (8.3%) 12 (20.0%) 21 (35.0%) | 0 | 6.317 1.6312 |
Gender | Ma le Fema le | 37 (61.7%) 23 (38.3%) | 0 | 1.383 0.4903 | 30 (50%) 30 (50%) | 0 | 1.500 0.5042 |
Ethnic | Malay Chinese India Other | 58 (96.0%) 3 (5.0%) 0 (0%) 0 (0%) | 0 | 1.050 0.2198 | 57 (95%) 3 (5.0%) 0 (0%) 0 (0%) | 0 | 1.050 0.2198 |
Education level | Prima ry Secondary Tertia ry | 22 (36.7%) 31 (51.7%) 7 (11.7%) | 0 | 1.750 0.6542 | 29 (48.3%) 25 (41.7%) 6 (10.0%) | 0 | 1.617 0.6662 |
Occupation status | Employed Unemployed | 31 (51.7%) 29 (48.3) | 0 | 1.483 0.5039 | 15 (25.0%) 45 (75.0%) | 0 | 1.750 0.4367 |
Marital status | Single Ma rried Widower Widow | 1 (1.7%) 57 (95.0%) 2 (3.3%) 0 (0%) | 0 | 2.050 0.3873 | 1 (1.7%) 57 (95.0%) 1 (1.7%) 1 (1.7%) | 0 | 2.033 0.3171 |
Total | Sample N: | 120 |
Variables | Category | Frequency (ƒ) | Percent (%) |
Duration of diabetic (years) | 0-4 5-9 10-14 15 + Total | 24 41 40 15 120 | 20.0 34.2 33.3 12.5 100.0 |
Co-morbidities | Hypertension Heart problem Renal problem Stroke | 52 23 8 3 | 43.3 19.2 6.7 2.5 |
Diabetic treatment management | Diet control Oral medica tion Injection insulin Other: Traditional | 30 52 55 3 | 25.0 43.3 45.8 2.5 |
Smoking status (Male only) | Smoking Never Ex-smoker Total | 28 35 4 67 | 41.7 52.2 5.9 100 |
Received diabetic education before | Yes No Total | 65 55 120 | 54.2 45.8 100.0 |
The Effect of Web-Based Education Programs on Self-Efficacy and Self-Care Behavior in Quality of Life Among Diabetic Type 2 Patients
As can be seen from Table 3, the data value for descriptive analysis between the intervention and control groups on dependent variables (DSEM, DSCM, and QoL) according to three phases, namely pre-test, follow-up, and post-test, for 34 days of this study. Where the data value for each variable showed an increase in the mean value for the pre-test intervention group (44.85 ± 9.92) to post-test (64.13 ± 3.65) for DSEM, DSCM showed pre-test (30.6 ± 6.47) to post-test (39.75 ± 3.43), and QoL showed pre-test (56.91 ± 7.76) to post-test (62.30 ± 2.95). While the mean value for the control group showed recorded data and almost no change. Comparisons between the intervention and control groups using the Paired t-test showed statistically significant differences in the mean scores of each variable for each phase of the study (Table 4).
Variables | Group | Mean / Std. deviation | N | ||
Pretest | Follow-up | Post test | |||
Self-Efficacy | Intervention | 44.85 9.92 | 50.40 7.46 | 64.13 3.65 | 60 |
Control | 51.18 4.33 | 50.85 5.08 | 50.31 5.05 | 60 | |
Total | 48.01 8.26 | 50.62 6.36 | 57.22 8.20 | 120 | |
Self-Care Behavior | Intervention | 30.6 6.47 | 36.31 4.02 | 39.75 3.43 | 60 |
Control | 26.95 2.91 | 28.88 2.70 | 28.23 2.72 | 60 | |
Total | 28.77 5.32 | 32.60 5.05 | 33.99 6.55 | 120 | |
Quality of Life | Intervention | 56.91 7.76 | 60.53 4.51 | 62.30 2.95 | 60 |
Control | 55.11 3.21 | 56.11 3.09 | 55.80 3.55 | 60 | |
Total | 56.01 5.98 | 58.32 4.44 | 59.05 4.61 | 120 |
Variable | Intervention Group (IG) (n=60) | Control Group (CG) (n=60) | ||||||
The mean total M±SD | Diff. (Pre- Post) M±SD | Paired t test, p | The mean total M±SD | Diff. (Pre-Post) M±SD | Paired t test, p | |||
Pre – test | Post – test | Pre – test | Post – test | |||||
DSEM | 44.8 (9.92) | 64.1 (3.65) | -19.2 (8.45) | 0.000 | 51.7 (5.19) | 50.3 (5.05) | 1.4 (6.07) | 0.079 |
DSCM | 30.6 (6.47) | 39.7 (3.43) | -9.15 (4.70) | 0.000 | 26.9 (2.91) | 28.23 (2.72) | -1.28 (2.79) | 0.001 |
QoL | 56.3 (7.76) | 62.3 (2.95) | -5.38 (6.06) | 0.000 | 55.1 (3.21) | 55.8 (3.55) | -0.68 (3.48) | 0.134 |
Objective and research questions were answered using inferential statistics. The general linear model repeated measures ANOVA, split-plot ANOVA (SPANOVA), to examine significant differences in mean scores of dependent variables (DSEM, DSCM, and QoL) among type 2 diabetic patients between groups of intervention and control. Table 5 presents the SPANOVA results that include within-subject and between-subject effects (intervention and control groups).
Variable | Sum of squares | df | Mean square | f | Sig. | |
DSEM | Within-subject | |||||
DSEM | 5406.272 | 1.612 | 3353.954 | 167.176 | 0.000 | |
DSEM * group | 6441.739 | 1.612 | 3996.339 | 199.195 | 0.000 | |
Error (DSEM) | 3815.989 | 190.205 | 20.062 | |||
Between-Subject | ||||||
Group | 494.678 | 1 | 494.678 | 5.715 | 0.018 | |
Error | 10214.611 | 118 | 86.565 | |||
DSCM | Within-Subject | |||||
DSCM | 1751.239 | 1.543 | 1135.241 | 181.793 | 0.000 | |
DSCM * group | 928.717 | 1.543 | 602.041 | 96.408 | 0.000 | |
Error (DSCM) | 1136.711 | 182.029 | 6.245 | |||
Between-Subject | ||||||
Group | 5107.600 | 1 | 5107.600 | 138.243 | 0.000 | |
Error | 4359.689 | 118 | 36.947 | |||
QoL | Within-Subject | |||||
QoL | 602.206 | 1.372 | 439.019 | 41.146 | 0.000 | |
QoL * group | 332.772 | 1.372 | 242.597 | 22.737 | 0.000 | |
Error (QoL) | 1727.022 | 161.862 | 10.670 | |||
Between-Subject | ||||||
Group | 1617.136 | 1 | 1617.136 | 34.878 | 0.000 | |
Error | 5471.061 | 118 | 46.365 |
Overall, the results through inferential analysis showed significant differences, and alternative hypotheses were accepted. Researchers have confirmed that there are significant differences in web-based educational programs on self-efficacy and self-care behaviors in improving quality of life among type 2 diabetes patients in this study.
DISCUSSION
This study is an intervention in conveying diabetic daily treatment modification information and also as a moderator of confidence for action during limited movement of patients to seek counseling, such as in the last COVID-19 pandemic situation. This situation is necessary in identifying and revealing that the danger is if the patient only has the knowledge but not the element of confidence in performing management actions. The situation and variety of diabetic complications cause patients to become increasingly less confident and environmental situations to be less helpful. The results of this study are reinforced by the use of two theories: Kurt Lewin's change theory (1947) and Bandura's Four Sources of Self-Efficacy model (1977), which are elements of knowledge transfer and change for diabetic type 2 patients by allowing them to influence their choices and related behavior change to perform better, reduce stress levels, and have a lower risk of depression than those with low self-efficacy (Khademian, Ara, & Gholamzadeh, 2020; Hood et al., 2015; Lee et al., 2015).
The findings of this study have reported that web-based interventions through Diabetic-N-Care are significantly effective on DSEM, DSCM, and QoL changes among type 2 diabetic patients. The key to management is enhanced confidence, and this confidence needs to be applied to correct diabetics through interventions from professionals (Abedini et al., 2020; Hurst, Rakkapao, & Hay, 2020; Beckerle & Lavin, 2013). DSEM is an indicator of a better quality of life (Rasoul et al., 2019). This study is a learning approach known as ‘mobile alert’ to DSCM from IG after DSEM is enhanced. The findings of this study are a clear source of data because of the data collection process, the findings of the measured analysis, and the implementation of the program for 34 days during the MCO, where the face-to-face paralysis of the health education system is widespread. This is a picture of research in real-life situations using real-world data. Based on Kurt Lewin's change theory (1947) and Bandura's Four Sources of Self-Efficacy model (1977), a presentation can be implemented effectively and comprehensively, especially in providing new knowledge and practices such as food label reading, influence control, glucometer machine reading when exiting, and more effective medication management. This learning cycle has also had an impact on improving quality of life by accepting health levels and trying to change to a more comfortable and productive lifestyle. While having an effect on QoL, self-efficacy interventions are able to influence behavior in improving quality of life through more effective chronic disease management by looking at health outcomes and making comparisons (Peters et al., 2019; Sinha, Van den Heuvel, & Arokiasamy, 2011).
For this quantitative quasi-experimental study, it has been proven that the web-based Diabetic-N- Care diabetic education intervention has an effect on the variables of this study, namely DSEM, DCM, and QoL for type 2 diabetic patients of 60 people for IG. Figure 4 shows in one piece how the process of this study has been carried out and has shown the level of health that can be improved.
However, researchers have detected some difficulties in changing the domain of physical activity and glucose management through glucose inspection before food intake and carrying a glucometer machine when going out. Once DSEM is enhanced, patients need to adapt to DSCM (Yee, Salmiah, & Rosliza, 2018). This cycle is important because it affects 50% of diabetic complications from unbalanced practices (Karimy, Koohestani, & Araban, 2018; Yee, Salmiah, & Rosliza, 2018). The results of subscale analysis of the physical activity domain still require an increase in the diversity of interventions (Hailu, Moen, & Hjortdahl, 2019), and unbalanced dietary pattern intake is still consistent with a significant increase in diabeticcases (Banerjee, Chakraborty, & Pal, 2020; Kuan et al., 2021). In addition, researchers have detected a financial factor in failure, continuing treatment, and self-management among diabetic patients. This is in line with the findings of the studies of Raghavendran, Inbaraj, and Norman (2020), Cefalu et al. (2018), and Campbell et al. (2017), where this issue is increasingly worrisome for each consecutive year.
Implication
Through the development of industry 4.0 technology and widespread acceptance among the community, a privilege has been granted in the development of health education strategies. This study has given a new breath to web-based health education among type 2 diabetic patients at HSNZ Kuala Terengganu. The disconnection and treatment process when the patient is discharged from the ward is a matter that needs to be taken into consideration because the period of follow- up treatment at the health clinic takes a long time. This web-based tool is a medium for patients to
enhance and reflect on each health education delivered in the ward when environmental and personal factors are not helpful.
Continuing health education can have a positive impact, and diversifying intervention strategies from the health profession itself can form a more complete treatment cycle. Through web-based education, Diabetic-N-Care has given patients the privilege of browsing information resources related to daily diabetic management and facilitated health educators such as nurses who always think about what patients will do after discharge from the ward. This situation has provided a privilege and facility to reduce the burden on various parties.
Limitation of the Study
This study was only conducted at the orthopedic clinic, HSNZ Kuala Terengganu, which only involved one hospital and clinic. This is because type 2 diabetic patients can be placed in any ward, such as the general surgical ward or the diabetic resource center, as outpatients. The limited population and sample during the data collection process of this study reflect the compliance with the SOP to COVID-19 at that time by the hospital and the head of department.
Recommendation
Findings from the study can be suggested by involving the psychological management of status among type 2 diabetic patients, especially among newly diagnosed patients. As can be seen, newly diagnosed patients are somewhat marginalized, perhaps because they have only one diagnosis or because the progress of their treatment is still stable. Acceptance of disease diagnosis at a young age and career can disrupt the level of psychology that disrupts individual function in the community.
CONCLUSION
Throughout this study, there were no side effects experienced by the patient, such as malpractice or death. Statistically significant effects have shown better improvement when compared to traditional learning methods such as face-to-face, oral methods, and current experience. The results of this study have given a new breath to educational and learning interventions related to the management of daily diabetics and diabetic patients, where greater than before, change the old behavior to new behavior to improve quality of life in the long term. Therefore, this study concludes that web-based methods such as Diabetic-N-Care need to be widely adapted into current health education methods.
Conflict of Interest
The authors declare that they have no conflict of interests.
ACKNOWLEDGEMENT
The authors are thankful to the institutional authority for completion of the work.
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