Behavior of Controlling the Dengue Disease Vector through the One House One Jumantik Movement in Padang City: A Cross-sectional Study

Abstract

Introduction

The control of dengue vectors to reduce the number of dengue cases requires the participation of all levels of society in its implementation. However, this vector control activity is still not running optimally, and many obstacles have been encountered in Padang City.

Objective

This research aims to further analyze the dominant factors that influence the implementation of dengue vector control behavior in the One House One Jumantik Movement in Padang City.

Material and Methods

A quantitative research approach was applied using a cross-sectional research design, conducted in Padang City in 2023, involving 99 samples. The sampling in this research was carried out using a proportional sampling technique. The data were collected using a questionnaire instrument through interview techniques. Data analysis used included the Chi-Square test for bivariate analysis and the logistic regression test for multivariate analysis.

Results

The results of the research show that there is a significant relationship between the factors of knowledge, attitude, availability of infrastructure, and the role of larva monitoring coordinator with dengue vector control behavior in the One House One Jumantik movement.

Conclusion

The availability of infrastructure is the dominant factor influencing dengue vector control behavior. It is necessary to design a comprehensive and integrated website-based digital application to improve the health information system and simplify the guidance and supervision efforts that must be carried out so that it can increase the active role of the community in the One House One Jumantik Movement.

Keywords: DHF, Vector Control, Knowledge, Attitudes, Infrastructure, Jumantik coordinator, Dengue.

1. INTRODUCTION

Dengue Hemorrhagic Fever (DHF) is a dangerous infectious disease that can cause death in a short time, has social and economic impacts, and has a high epidemic potential [1]. There are at least 500,000 dengue fever sufferers who require hospitalization every year, of which the majority of sufferers are children, and 2.5% of them are reported to have died [2]. The World Health Organization (WHO) estimates that 50 million cases of dengue infection occur in the world every year [3].

The main vector for transmitting dengue fever is the Aedes aegypti mosquito and Ae. Albopictus [4]. The development of fertile vectors in tropical climates has made Indonesia an endemic area for dengue fever [5]. The World Health Organization (WHO) once recorded Indonesia as the country with the highest dengue fever cases in Southeast Asia. The development of dengue fever in Indonesia is very fast. The dengue incidence rate (IR) in 2019 was 51.48 per 100,000 population, showing an increase compared to the previous two years. In 2017 and 2018, the DHF IR was 26.1 and 24.75 per 100,000 population, respectively. Meanwhile, the incidence rate of dengue fever in West Sumatra Province reached 41.59% per 100,000 population [6].

West Sumatra Province has several districts and cities that are classified as endemic areas for dengue fever, including Padang City, Pariaman City, Bukittinggi City, Padang Panjang City, Pesisir Selatan Regency, Tanah Datar Regency, Solok Regency, Sawahlunto City, and Sijunjung Regency. Padang City is the area with the highest dengue fever cases in West Sumatra Province [7]. There is not a single sub-district in Padang City that is free from dengue fever. In 2019, 430 cases were found in all sub-districts in the Puskesmas working area in Padang City [8].

The Aedes aegypti mosquito is the main carrier of dengue fever. Control of this mosquito can be achieved using a variety of methods, from natural approaches to the use of insecticides [9]. However, prolonged use of insecticides can lead to mosquito resistance. Therefore, the main focus is on eradicating Dengue Mosquito Nests to control Aedes aegypti larvae [10].

Dengue mosquito nest eradication is a program that focuses on eliminating or managing Aedes aegypti mosquito nests. This program is considered the spearhead in breaking the chain of dengue transmission and is a government priority that is emphasized to the entire community [11]. Moreover, by prioritizing the eradication of Dengue mosquito nests, and it is hoped that more effective control can be achieved without excessive dependence on insecticides, as well as encouraging active community participation in efforts to prevent this disease [12]. Eradicating mosquito nests is important because it involves applicable actions in eradicating vectors of transmission. Concrete steps taken in eradicating mosquito nests can make a real contribution to preventing the emergence of dengue fever [13].

The “One House One Jumantik Movement” is a policy issued in 2016 by the central government to increase the role of families in controlling the dengue vector [14]. This movement aims to empower the community, especially at the family level, to be able to independently carry out inspections, monitoring, and control of infectious mosquito larvae in their home environment [15].

Community empowerment, in this case, involves providing education, training, and support along with the necessary resources to enable families to take action to prevent the transmission of dengue fever [16]. Actively involving the family is expected to help reduce the risk of dengue fever transmission by controlling the Aedes aegypti mosquito population in the home environment [17].

The One House One Jumantik Movement for dengue vector control requires participation from all levels of society for effective implementation. Despite being initiated in Padang City in 2019, this movement is not yet running optimally. Therefore, this research aims to further analyze the key factors that influence the implementation of dengue vector control behavior in Padang City.

2. MATERIALS AND METHODS

2.1. Study Design

This research was conducted quantitatively by applying a cross-sectional study approach. This design was chosen to identify variables and indicators that have an influence on dengue vector control behavior by jumantik. This approach aims to obtain accurate classification results for the predictions obtained.

2.2. Study Location

The location of quantitative research was carried out at the Padang City Health Service, namely in the working area of the Nanggalo Community Health Center. The working area of this community health center was chosen as the research area because, based on data obtained from the Padang City Health Service in 2022, it was found that the Nanggalo Community Health Center was the best and most routine health center in terms of reporting compared to 23 other community health centers, but still had a low larvae-free rate, namely 80.76% (this figure is lower than the national Larval Free Rate ≥ 95%).

2.3. Population and Sample

2.3.1. Research Population

The population in this study were all mothers/adult family members who lived in the Nanggalo Community Health Center working area, totaling 9,751 families.

2.3.2. Sample

In this research, the sample size was determined using the following Slovin formula [18]

n = Number of samples

N = Total population

d = degree of deviation from the desired population

= 10%

n = 98.9

n = 99

The study included 99 families as samples. Proportional sampling was used in this research, which involves selecting subjects from each region while considering the balance of the number of subjects in each region [19]. The number of samples to be taken in each sub-district will be determined by researchers based on the proportion of the total number of samples. The distribution of samples to be taken in each sub-district is shown in Table 1.

Table 1.
Sample distribution per subdistrict.
No. Subdistrict Calculation Sampel (Families)
1 Surau Gadang 5.823 / 9.751 X 99 59
2 Kurao Pagang 3.123 / 9.751 X 99 32
3 Gurun Laweh 805 / 9.751 X 99 8
TOTAL 99

After obtaining the number of samples from each sub-district, samples were then selected using a systematic method. Systematic sampling was carried out by taking samples starting from those living to the right of the sub-district office and followed by the number determined in each sub-district.

The sample criteria in this study include the following inclusion and exclusion criteria:

2.3.2.1. Inclusion Criteria

1) Mother/ adult family member

2) Willing to be a respondent

3) Able to communicate well

2.3.2.2. Exclusion Criteria

The respondent was not found in three visits

2.4. Data Collection

Data collection was carried out through research permit procedures in the City of Padang, namely obtaining an introductory research permit from the Public Health Doctoral Study Program, Faculty of Medicine, Andalas University, arranging a research permit from the Department of Investment and One Stop Integrated Services of Padang City, arranging a research permit from the Padang City Health Service, and arrange research permits from the relevant Community Health Centers. After that, it continued with data collection activities related to the dependent variable (dengue vector control behavior) and independent variables, which included knowledge, attitudes, availability of facilities and infrastructure, and the role of larva monitoring coordinator at the research location.

2.5. Research Instrument, Validity and Reliability Test

Furthermore, to gather information about the dependent and independent variables, a questionnaire was used for measurement. This questionnaire has been tested for validity and reliability. The validity test is used to determine the extent to which the measuring instrument accurately measures what it is intended to measure. The questionnaire's validity test assesses the accuracy and precision of the measuring instrument to ensure it can be used with confidence and to identify the correlation between the score of each question and the total score of all respondents [20]. The validity of the questionnaire was assessed using a Bivariate Pearson correlation analysis. The calculated r value is compared with the r table, and if the calculated r is greater than the r table, then the data are considered valid [21]. The results of the validity test of the questionnaire are presented in Table 2.

Table 2.
Test the validity of questionnaire questions.
Variable Indicator Question No r Count r Table (0,05) Validity
Dengue Vector Control Socialization of Mosquito Nest Eradication B1 0,598 0,334 Valid
Drain and brush the water reservoir B2 0,484 0,334 Valid
Close the water reservoir tightly B3 0,497 0,334 Valid
Sprinkling larvicide powder B4 0,497 0,334 Valid
Participate in community service B5 0,652 0,334 Valid
Cleaning/burying/burning used items B6 0,437 0,334 Valid
The habit of hanging clothes in the room B7 0,474 0,334 Valid
Using mosquito repellent B8 0,352 0,334 Valid
Close the vent B9 0,579 0,334 Valid
Monitor mosquito larvae B10 0,495 0,334 Valid
Participate in dengue control education B11 0,557 0,334 Valid
Mobilize family members to eradicate mosquito nests B12 0,485 0,334 Valid
Record larva monitoring results B13 0,570 0,334 Valid
Knowledge Definition of the One House One Jumantik Movement C1 0,556 0,334 Valid
The goal of the One House One Jumantik Movement C2 0,495 0,334 Valid
Definition of Mosquito Nest Eradication C3 0,504 0,334 Valid
Mosquito Nest Eradication Activities C4 0,469 0,334 Valid
The main target of the One House One Jumantik Movement C5 0,563 0,334 Valid
Organizational structure of the One House One Jumantik Movement C6 0,480 0,334 Valid
Mosquito breeding place C7 0,397 0,334 Valid
Prevention of dengue fever in water reservoirs C8 0,543 0,334 Valid
Prevention of dengue fever in the bath C9 0,636 0,334 Valid
Uses of larvicide powder C10 0,386 0,334 Valid
How to prevent dengue fever C11 0,428 0,334 Valid
The party responsible for controlling dengue fever C12 0,557 0,334 Valid
Attitude DHF must be prevented together D1 0,735 0,334 Valid
Mutual cooperation is carried out regularly D2 0,690 0,334 Valid
Clean the water reservoir at least once a week D3 0,570 0,334 Valid
Water reservoirs need to be closed D4 0,722 0,334 Valid
Eradicating mosquito nests is only the government's responsibility D5 0,766 0,334 Valid
Water reservoirs are given larvicide powder at least once every 3 – 4 months D6 0,411 0,334 Valid
Keeping larvae-eating fish in water reservoirs D7 0,525 0,334 Valid
A family member who had a high fever for 3 days was taken to a health facility D8 0,739 0,334 Valid
Need to participate in dengue fever control education/activities D9 0,722 0,334 Valid
The Larva Monitoring Coordinator provides information about dengue control efforts D10 0,700 0,334 Valid
Availability of Infrastructure Availability of Larvae Monitoring cards E1 0,779 0,334 Valid
Flashlight availability E2 0,854 0,334 Valid
Availability of larvicide powder E3 0,732 0,334 Valid
The role of the larva monitoring coordinator Socialization about Mosquito Nest Eradication by the Larvae Monitoring Coordinator F1 0,800 0,334 Valid
The Larval Monitoring Coordinator mobilizes to carry out the Eradication of Mosquito Nests F2 0,729 0,334 Valid
The Larval Monitoring Coordinator makes home visits and guidance every 2 weeks F3 0,784 0,334 Valid
The larva monitoring coordinator makes notes based on the results of monitoring and implementation of mosquito nest eradication on the larva card F4 0,820 0,334 Valid

In Table 2, it is shown that as many as 42 question items have r count > r table (0.334), so it can be concluded statistically that the questions are valid (suitable for use as questions in research instruments). After carrying out a validity test, a reliability test is then carried out for each question item. Reliability comes from the word reliability, which means consistency of measurement. Reliability is an instrument used in research to obtain information that can be trusted as a data collection tool and can reveal information that should exist in the field [22]. A questionnaire is said to be reliable if a person's answers to the questions are consistent or stable over time. High and low reliability is empirically indicated by a number called the reliability coefficient. The instrument reliability test here uses the Cronbach's alpha formula [23]. The reliability results of questionnaire items that will be used in this research are shown in Table 3 below.

Based on Table 3, it can be seen that all indicators for each variable studied have a Cronbach's Alpha value > 0.334, so statistically, this shows that all question items are reliable. Data analysis methods in this research include univariate analysis, bivariate analysis using the chi-square test, and multivariate analysis using the logistic regression test to determine the influence of independent variables together so that it is known which variable is the most dominant.

2.6. Data Analysis

In this research, the quantitative data analysis techniques involve several stages. First, univariate analysis is used to get an overview of the distribution of respondents or variations in the variables studied. Second, bivariate analysis was carried out to test the relationship between the independent variable and the dependent variable using the chi-square test at the 95% confidence level (p < 0.05). Furthermore, a multivariate analysis was also performed using a logistic regression test to determine the joint influence of the independent variables. This aims to identify which variables most dominantly influence the intention or intention to implement the One House One Jumantik Movement [18]. Logistic regression statistical tests were conducted by entering independent variables simultaneously according to certain statistical significance criteria (p < 0.25) using the Enter method. The largest Exp (B) value then indicates the independent variable that has the most dominant influence on the dependent variable [19].

Table 3.
Reliability test of questionnaire questions.
Variable Indicator Question No Cronbach’s Alpha Reliability
Dengue Vector Control Socialization of Mosquito Nest Eradication B1 0,733 Reliable
Drain and brush the water reservoir B2 0,745 Reliable
Close the water reservoir tightly B3 0,747 Reliable
Sprinkling larvicide powder B4 0,746 Reliable
Participate in community service B5 0,726 Reliable
Cleaning/burying/burning used items B6 0,756 Reliable
The habit of hanging clothes in the room B7 0,749 Reliable
Using mosquito repellent B8 0,760 Reliable
Close the vent B9 0,736 Reliable
Monitor mosquito larvae B10 0,747 Reliable
Participate in dengue control education B11 0,739 Reliable
Mobilize family members to eradicate mosquito nests B12 0,746 Reliable
Record larva monitoring results B13 0,741 Reliable
Knowledge Definition of the One House One Jumantik Movement C1 0,697 Reliable
The goal of the One House One Jumantik Movement C2 0,707 Reliable
Definition of Mosquito Nest Eradication C3 0,708 Reliable
Mosquito Nest Eradication Activities C4 0,705 Reliable
The main target of the One House One Jumantik Movement C5 0,693 Reliable
Organizational structure of the One House One Jumantik Movement C6 0,712 Reliable
Mosquito breeding place C7 0,729 Reliable
Prevention of dengue fever in water reservoirs C8 0,696 Reliable
Prevention of dengue fever in the bath C9 0,681 Reliable
Uses of larvicide powder C10 0,713 Reliable
How to prevent dengue fever C11 0,709 Reliable
The party responsible for controlling dengue fever C12 0,695 Reliable
Attitude DHF must be prevented together D1 0,822 Reliable
Mutual cooperation is carried out regularly D2 0,827 Reliable
Clean the water reservoir at least once a week D3 0,840 Reliable
Water reservoirs need to be closed D4 0,823 Reliable
Eradicating mosquito nests is only the government's responsibility D5 0,818 Reliable
Water reservoirs are given larvicide powder at least once every 3 – 4 months D6 0,866 Reliable
Keeping larvae-eating fish in water reservoirs D7 0,842 Reliable
A family member who had a high fever for 3 days was taken to a health facility D8 0,821 Reliable
Need to participate in dengue fever control education/activities D9 0,825 Reliable
The Larva Monitoring Coordinator provides information about dengue control efforts D10 0,826 Reliable
Availability of Infrastructure Availability of Larvae Monitoring cards E1 0,614 Reliable
Flashlight availability E2 0,430 Reliable
Availability of larvicide powder E3 0,734 Reliable
The role of the larva monitoring coordinator Socialization about Mosquito Nest Eradication by the Larvae Monitoring Coordinator F1 0,674 Reliable
The Larval Monitoring Coordinator mobilizes to carry out the Eradication of Mosquito Nests F2 0,715 Reliable
The Larval Monitoring Coordinator makes home visits and guidance every 2 weeks F3 0,787 Reliable
The larva monitoring coordinator makes notes based on the results of monitoring and implementation of mosquito nest eradication on the larva card F4 0,646 Reliable

3. RESULTS

Univariate analysis in this study aims to see a picture of the frequency distribution of the variables studied, namely the dependent variable (dengue vector control) and independent variables (including knowledge, attitudes, availability of infrastructure, and the role of the jumantik coordinator). The frequency distribution table for each variableis shown below.

Based on Table 4, it can be observed that 62.2% of respondents were not good at implementing dengue vector control behavior. Meanwhile, the independent variables describe that 58.6% of respondents have low knowledge, 53.5% of respondents have a negative attitude, 61.6% of respondents stated that the availability of facilities and infrastructure is in the poor category, and 59.6% of respondents stated that the jumantik coordinator does not play a role.

Moreover, to determine the relationship between two variables, specifically one independent variable and one dependent variable, researchers use bivariate analysis. In this study, the bivariate analysis employed was the Chi-square test. Each categorized independent and dependent variable, including knowledge, attitude, availability of infrastructure, and the role of the jumantik coordinator, was tested to determine whether there was a relationship with the dependent variable of dengue vector control. If the p-value is less than or equal to 0.05, then the research hypothesis is accepted. The results of the bivariate analysis are presented in Table 5.

Based on the results of a cross-tabulation between knowledge and dengue vector control, the data were obtained that showed 16 (27.6%) respondents with low knowledge who effectively carried out efforts to control dengue vectors, while among respondents with high knowledge, 21 (51.2%) made good efforts to control dengue vectors. The statistical test results yielded a p-value of 0.029 (≤ 0.05), indicating a significant relationship between knowledge and dengue vector control. The analysis also revealed an odds ratio (OR) value of 2.7, meaning that respondents with high knowledge had a 2.7 times greater chance of effectively carrying out dengue vector control efforts compared to those with low knowledge.

The cross-tabulation showed that 14 (26.4%) respondents had a negative attitude towards dengue vector control, while 23 (50%) of those with a positive attitude made good efforts to control dengue vectors. The statistical test resulted in a p-value of 0.027 (≤ 0.05), indicating a significant relationship between attitude and dengue vector control. The analysis also revealed an odds ratio (OR) of 2.7, meaning that respondents with a positive attitude were 2.7 times more likely to make good efforts to control the dengue vector compared to those with a negative attitude.

Based on the results of cross-tabulation between the availability of infrastructure and dengue vector control, data was obtained that there were 14 (23%) respondents who stated that the availability of infrastructure was not good enough to carry out efforts to control dengue vectors well. Meanwhile, among respondents who stated that the infrastructure was good, 23 (60.5%) made good efforts to control dengue vectors. The statistical test results obtained a p-value = 0.0001 (≤ 0.05), so it can be concluded that there is a significant relationship between the availability of infrastructure and dengue vector control. From the results of the analysis, an OR value of 5.1 was also obtained, meaning that respondents who stated that the infrastructure was available had a 5.1 times chance of making efforts to control dengue vectors well compared to respondents who stated that the infrastructure was not available.

Table 4.
Univariate analysis results.
No. Variable Category f %
1 Dengue Vector Control Not good 62 62.2
Good 37 37.4
2 Knowledge Low 58 58.6
High 41 41.4
3 Attitude Negative 53 53.5
Positive 46 46.5
4 Availability of Infrastructure Not good 61 61.6
Good 38 38.4
5 The role of the larva monitoring coordinator Less Role 59 59.6
Play a role 40 40.4
Table 5.
Bivariate analysis results.
No. Variable Dengue Vector Control Total p-value OR
Not Good Good
f % f % f %
1 Knowledge
Low 42 72.4 16 27.6 58 100 0.029 2.7
(1.1 - 6.3)
High 20 48.8 21 51.2 41 100
2 Attitude
Negative 39 73.6 14 26.4 53 100 0.027 2.7
(1.2 - 6.4)
Positive 23 50.0 23 50.0 46 100
3 Availability of Infrastructure
Not good 47 77 14 23 61 100 0.0001 5.1
(2.1 - 12.4)
Good 15 39.5 23 60.5 38 100
4 The role of the larva monitoring coordinator
Less Role 44 74.6 15 25.4 59 100 0.006 3.5
(1.5 - 8.4)
Play a role 18 45 22 55 40 100
Table 6.
Multivariate analysis results.
 No. Variable Exp (B) 95% CI for Exp(B)     Sig
Lower Upper
1 Attitude 2.950 1.141 7.627 0.026
2 Availability of Infrastructure 4.023 1.574 10.283 0.004
3 The role of the larva monitoring coordinator 3.290 1.266 8.550 0.015

The analysis of the relationship between the role of the jumantik coordinator and dengue vector control revealed that 15 respondents (25.4%) felt that the jumantik coordinator did not sufficiently contribute to effective dengue vector control efforts. On the other hand, 22 respondents (55%) who believed that the larva monitoring coordinator played a good role actively participated in dengue vector control efforts. The statistical test resulted in a p-value of 0.006 (≤ 0.05), indicating a significant relationship between the role of the jumantik coordinator and dengue vector control. Furthermore, the analysis produced an odds ratio (OR) of 3.5, signifying that respondents who perceived the jumantik coordinator as playing a good role were 3.5 times more likely to engage effectively in dengue vector control efforts compared to those who viewed the jumantik coordinator role as poor.

Multivariate analysis identified that from the factors of knowledge, attitude, availability of infrastructure, and the role of the jumantik coordinator, it turns out that the availability of infrastructure is the dominant factor influencing behavior in controlling the dengue vector with a p-value = 0.004. The results of the multivariate analysis are shown in Table 6.

4. DISCUSSION

The results of this study show that there is a significant relationship between the knowledge variable and dengue vector control behavior. These findings support the hypothesis that good knowledge about dengue fever positively influences individual behavior in controlling this disease vector. The correlation can be explained by the assumption that good knowledge about dengue fever can increase individual awareness about the importance of prevention and control measures against the vector.

Knowledge or cognition is a very important domain in shaping a person's actions (overt behavior) [21]. Without knowledge, a person has no basis for making decisions and determining actions regarding the problems faced. Knowledge is a cognitive process of a person or individuals to give meaning to the environment so that each individual gives their meaning to the environment so that each individual gives their meaning to the stimuli they receive even though the stimuli are the same [24].

Furthermore, these findings have important practical implications in efforts to prevent and control dengue fever. Public health programs can use this information to design more effective interventions to increase public knowledge about dengue and encourage the adoption of better disease vector control behaviors.

Statistical analysis also shows that a positive attitude towards dengue fever is significantly related to dengue vector control behavior. This means that individuals who have a positive attitude towards dengue fever tend to be more active in taking preventive and control measures against this disease vector.

Attitude refers to a person's immediate reaction or response to a specific stimulus or object, which already incorporates relevant opinions and emotional factors (such as happy-displeased, agree-disagree, good-bad, etc.). Newcomb, a social psychologist, stated that attitude is the readiness or willingness to act rather than the implementation of specific motives [21]. Attitude is not yet an action or activity but rather a predisposition to behavior. This attitude represents a closed reaction, not an open reaction or behavior [25].

Several factors can explain the relationship between attitudes and behavior in this context. First, individuals with positive attitudes towards dengue fever are more motivated to protect themselves and their environment from the disease. A positive attitude can create an internal drive to act proactively in controlling the dengue vector [26].

Positive attitudes towards dengue fever may also reflect a higher level of awareness and knowledge about the disease [27]. Individuals who understand the impact and risks of dengue fever are more likely to adopt effective disease vector control behaviors. A comprehensive approach that takes into account aspects of attitude, knowledge, behavior can be a strong foundation for a successful dengue control strategy.

In this research, it was found that there was a significant relationship between the variable availability of infrastructure and dengue vector control behavior [28]. These findings indicate that the availability of adequate infrastructure influences individual behavior in controlling the disease vector. Availability of infrastructure in this context refers to individual accessibility to facilities and resources that support efforts to control the dengue vector.

Individuals who have adequate infrastructure tend to be more likely to adopt prevention and control behavior against the dengue vector. The availability of adequate infrastructure can make it easier for individuals to take vector control measures. Situations that are well organized and equipped with adequate infrastructure tend to be better able to control the spread of disease vectors such as the Aedes aegypti mosquito [28].

This research also shows that there is a significant relationship between the variable role of larva monitoring coordinator and dengue vector control behavior. The role of larva monitoring coordinators refers to their function and interaction in providing information, services, or interventions related to controlling dengue vectors in the community. This includes activities such as counseling, coaching, monitoring, and supervision.

The results of the analysis show that the role of the larva monitoring coordinator influences dengue vector control behavior. This indicates that when larva monitoring coordinators are active and effective in carrying out their duties in providing information and services related to dengue fever to the community, prevention and control behavior for this disease vector tends to increase among affected individuals [29].

Several mechanisms can explain this relationship. First, the active role of larva monitoring coordinators in providing accurate and relevant information about dengue fever can increase public knowledge and awareness about dengue fever and the control efforts they need to take. Better knowledge can certainly encourage people to adopt more effective prevention behavior [24]. In addition, positive interactions between larva monitoring coordi- nators and the community can build trust and support for efforts to control the dengue vector. When the community feels supported and monitored by the coordinator, they will be more likely to follow the advice and recommendations given, as well as carry out the recommended actions to prevent dengue transmission [28].

The results of this research have important implications for the development of dengue fever prevention and control programs. Supporting the role of larva monitoring coordinators in providing quality and supportive services to the community can be an effective strategy for improving dengue vector control behavior [30].

Multivariate analysis in this study shows that the availability of facilities and infrastructure is the most dominant factor in influencing dengue vector control behavior compared to knowledge, attitudes, and the role of the larva monitoring coordinator.

The findings of this analysis confirm that the presence of facilities and infrastructure significantly affects dengue vector control behavior, even when accounting for other variables such as knowledge, attitudes, and the involvement of health workers. This demonstrates that access to infrastructure strongly influences the adoption of dengue vector prevention and control behavior within the community [28].

Although knowledge about dengue fever, positive attitudes towards the disease, and the role of larva monitoring coordinator were also proven to have a significant relationship with dengue vector control behavior, multivariate analysis showed that the availability of facilities and infrastructure had a greater influence in predicting this behavior. The results of this multivariate analysis imply that in planning dengue prevention strategies and interventions, special attention needs to be given to efforts to increase the availability of facilities and infrastructure that support the control of dengue vectors.

The One House One Larvae Monitoring Movement is a Ministry of Health program that has been promoted since 2016, however, for the City of Padang, the Mayor's Decree regarding this movement was only established in 2019. Since it was established, the One House One Jumantik Movement in Padang City has not been running as it should. This movement requires the activeness of larvae monitors to carry out their main tasks and functions according to the provisions. For this reason, it is necessary to carry out coaching and supervision efforts by the coordinators. However, with several obstacles still existing, such as large area coverage, a small number of active cadres, and limited resources available, it is necessary to prepare infrastructure in the form of a website-based digital application that is designed to be comprehensive and integrated to improve the health information system to improve the performance of larvae monitors in the One House One Jumantik Movement.

This application was designed to simplify the guidance and supervision efforts that must be carried out by each party so that dengue vector control behavior in the One House One Jumantik Movement can run more effectively and integrated with website-based and it is hoped that it can minimize the time and costs involved must be removed.

CONCLUSION

This research shows that there is a significant relationship between knowledge, attitudes, availability of infrastructure, and the role of the jumantik coordinator in dengue vector control behavior. However, based on multivariate analysis, it is known that the availability of infrastructure is the most dominant factor influencing this behavior. Therefore, it is necessary to design a comprehensive and integrated website-based digital application to improve the health information system and simplify the guidance and supervision efforts that must be carried out to increase the active role of the community in the One House One Jumantik Movement.

LIST OF ABBREVIATIONS

Jumantik = Mosquito Larva Monitor
WHO = World Health Organization
OR = Odds Ratio

AUTHORS’ CONTRIBUTION

It is hereby acknowledged that all authors have accepted responsibility for the manuscript's content and consented to itssubmission. They have meticulously reviewed all results and unanimously approved the final version of the manuscript.

ETHICS APPROVAL AND CONSENT TO PARTICIPATE

The research was conducted after obtaining approval from the Research Ethics Commission of the Faculty of Medicine, Andalas University. The approval number is No. 790/UN.16.2/KEP-FK/2022, dated 21 June 2022.

HUMAN AND ANIMAL RIGHTS

All research procedures were carried out on human participants and were conducted in accordance with the ethical standards of the institution and research committee, as well as the principles of the 1975 Declaration of Helsinki, as revised in 2013.

CONSENT FOR PUBLICATION

The study involved the preparation of an informed consent form to protect both the respondents and the researchers.

STANDARDS OF REPORTING

STROBE guidelines were followed.

AVAILABILITY OF DATA AND MATERIALS

The data supporting the findings of this study is available in the zenodo repository https://zenodo.org/ records/11488409.

FUNDING

This study was funded by Baiturrahmah Education Foundation (Awards/Grant number: 194/SK/UNBRAH/VII/ 2023).

CONFLICT OF INTEREST

The authors declare no conflict of interest, financial or otherwise.

ACKNOWLEDGEMENTS

Declared none.

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