BMC Infectious Diseases

BMC Infect Dis. 19: 693

Knowledge and attitude towards pregnancy-related issues of Zika virus infection among general practitioners in Indonesia

http://orcid.org/0000-0001-7630-8413Harapan Harapan

+62 (0) 651 7551843

harapan@unsyiah.ac.id

¹²³⁴, Yogambigai Rajamoorthy

yogambigai@utar.edu.my

⁵, Prattama S. Utomo

prattamasantoso@gmail.com

⁶, Samsul Anwar

s4m_seupeng@yahoo.co.id

⁷, Abdul M. Setiawan

drmalique@gmail.com

⁸, Alma Alleta

alma@unsyiah.ac.id

¹⁹, Alfredo Bambang

alfredoibc2012@gmail.com

¹⁰, Muhammad R. Ramadana

rizki.mpawil1@gmail.com

¹, Ikram Ikram

ikramkeren@yahoo.co.id

¹, Nur Wahyuniati

nur.wahyuniati@unsyiah.ac.id

¹, Reza Maulana

rezamaulana@unsyiah.ac.id

¹, Ichsan Ichsan

ichsanmd_aceh@unsyiah.ac.id

¹²³, Rosaria Indah

rosariaindah1974@gmail.com

¹¹¹², Abram L. Wagner

awag@umich.edu

¹³, Ulrich Kuch

kuch@med.uni-frankfurt.de

¹⁴, David A. Groneberg

arbsozmed@uni-frankfurt.de

¹⁴, Alfonso J. Rodríguez-Morales

ajrodriguezmmd@gmail.com

¹⁵¹⁶, Mohd Andalas

andalas@unsyiah.ac.id

¹¹⁷, Ruth Müller

ruth.mueller@med.uni-frankfurt.de

¹⁴¹⁸, Mudatsir Mudatsir

+62 (0) 651 7551843

mudatsir@unsyiah.ac.id

¹²³, Allison Imrie

allison.imrie@uwa.edu.au

⁴

1. 0000 0004 1759 6066grid.440768.9Medical Research Unit, School of Medicine, Universitas Syiah Kuala, Banda Aceh, Indonesia

2. 0000 0004 1759 6066grid.440768.9Tropical Disease Centre, School of Medicine, Universitas Syiah Kuala, Banda Aceh, Indonesia

3. 0000 0004 1759 6066grid.440768.9Department of Microbiology, School of Medicine, Universitas Syiah Kuala, Banda Aceh, Indonesia

4. 0000 0004 1936 7910grid.1012.2School of Biomedical Sciences, The University of Western Australia, Nedlands, Australia

5. 0000 0004 1798 283Xgrid.412261.2Universiti Tunku Abdul Rahman, Kajang, Selangor Malaysia

6. grid.8570.aDepartment of Medical Education, Faculty of Medicine, Gadjah Mada University, Jogjakarta, Indonesia

7. 0000 0004 1759 6066grid.440768.9Department of Statistics, Faculty of Mathematics and Natural Sciences, Universitas Syiah Kuala, Banda Aceh, Indonesia

8. Department of Microbiology, Faculty of Medicine and Health Sciences, Maulana Malik Ibrahim State Islamic University of Malang, Malang, Indonesia

9. 0000 0004 1759 6066grid.440768.9Department of Family Medicine, School of Medicine, Universitas Syiah Kuala, Banda Aceh, Indonesia

10. 0000 0001 2288 786Xgrid.443450.2Department of Microbiology, School of Medicine, Atma Jaya Catholic University of Indonesia, Jakarta, Indonesia

11. 0000 0004 1759 6066grid.440768.9Medical Education Unit, School of Medicine, Universitas Syiah Kuala, Banda Aceh, Indonesia

12. 0000 0004 1936 834Xgrid.1013.3Sydney School of Education and Social Work, Faculty of Arts and Social Sciences, The University of Sydney, Sydney, Australia

13. 0000000086837370grid.214458.eDepartment of Epidemiology, University of Michigan, Ann Arbor, MI USA

14. 0000 0004 1936 9721grid.7839.5Institute of Occupational Medicine, Social Medicine and Environmental Medicine, Goethe University, Frankfurt am Main, Germany

15. 0000 0001 2176 1069grid.412256.6Public Health and Infection Research Incubator and Group, Faculty of Health Sciences, Universidad Tecnológica de Pereira, Pereira, Risaralda Colombia

16. Research Group Medical and Diagnostic Images (GRIMEID), IPS Imágenes Diagnósticas S.A, Pereira, Risaralda Colombia

17. 0000 0004 1759 6066grid.440768.9Department of Obstetrics and Gynecology, School of Medicine, Universitas Syiah Kuala, Banda Aceh, Indonesia

18. 0000 0001 2153 5088grid.11505.30Unit of Medical Entomology, Institute of Tropical Medicine, Antwerp, Belgium

© The Author(s). 2019

DOI: 10.1186/s12879-019-4297-4

Published online: 6 August 2019

Abstract

Background

The aim of this study was to assess the knowledge and attitudes towards pregnancy-related issues of Zika virus (ZIKV) infection among general practitioners (GPs), a frontline healthcare worker group, in Indonesia.

Methods

A cross-sectional, online survey assessing knowledge and attitudes towards ZIKV infection on multiple-item scales was sent to GPs in the Sumatra and Java islands of Indonesia. The associations between independent factors and either knowledge or attitude were assessed with logistic regressions. The correlation and association between knowledge and attitude were estimated.

Results

We included 457 (53.7%) out of 850 responses in the analysis. Among these, 304 (66.5%) and 111 (24.2%) respondents had a good knowledge and attitude, respectively. No demographic, workplace, professional development, or experiential characteristics related to ZIKV infection were associated with knowledge. In the multivariate analysis, only contact experience was associated with attitude. There was a significant, positive correlation between knowledge and attitude scores.

Conclusions

Although knowledge of pregnancy-related complications of ZIKV infection is relatively high among GPs in Indonesia, more than 75% of them had a poor attitude towards pregnancy-related issues of Zika. Strategies for enhancing the capacity of GPs to develop positive attitudes and respond to ZIKV infection are needed.

Electronic supplementary material

The online version of this article (10.1186/s12879-019-4297-4) contains supplementary material, which is available to authorized users.

Background

Zika virus (ZIKV) is transmitted by Aedes aegypti and Aedes albopictus mosquitoes. Infection by ZIKV most often results in mild symptoms such as fever, maculopapular rash, arthralgia, cephalgia and conjunctivitis [1]. However, the infection may cause severe complications including neurological sequelae and Guillain-Barré syndrome [2]. In addition, ZIKV-related congenital microcephaly, ventriculomegaly and intracranial calcification have been identified in infants born to ZIKV-positive mothers [3]. There is a strong association between congenital ZIKV infection and microcephaly; one study estimates the odds of microcephaly to be 73.1 times higher among those with ZIKV infection [4]. Multiple outbreaks of microcephaly-associated with Zika cases have been reported since reemerge [5–9]. In Brazil for example, during two Zika outbreaks in 2015 and 2016, more than 1.6 million cases were reported and during this period, 1950 cases of ZIKV infection-related microcephaly were confirmed [9]. This devastating complication was one factor that led the WHO to declare ZIKV infection as a Public Health Emergency of International Concern (PHEIC) and as an ongoing challenge in 2016 [10]. Microcephaly associated with ZIKV infection has been also reported in Asian countries [11–13].

ZIKV was first found in Africa over 70 years ago when it was identified in a monkey in 1947 [14] and in humans in 1954 [15]. After local outbreaks in various Pacific Islands [16], the virus reached the Americas (Brazil) in 2015 [17], and has since continued to spread and has been reported in 86 countries in the Americas, Africa, and Southeast Asia [18]. Globally, it is predicted that over 2.17 billion people live in areas that are environmentally suitable for ZIKV transmission, and 1.42 billion of them live in Asia [19]. Asia is susceptible to epidemic ZIKV transmission because of widespread distribution of the mosquito vectors for ZIKV, the large amount of travel to and from Zika-affected areas, conducive conditions for ZIKV transmission, and limited health resources [20–23].

A recent modeling study ranked Indonesia as the third country most at risk for ZIKV exposure due to the monthly volume of airline travelers [21]. Indonesia has not yet had a Zika outbreak, but there is evidence of ZIKV transmission in the country. Studies using serum samples from 1978 and 1983 found evidence of anti-ZIKV antibodies in Central Java and Lombok [24, 25]. In 2014, 9.1% of serum samples from children 1–4 years old were ZIKV seropositive [26]. In 2013 and 2014, two travelers visiting Indonesia acquired ZIKV infection and were diagnosed after returning to Australia [27, 28]. In 2015, an individual with no history of traveling abroad was diagnosed with Zika [29]. Zika cases may be underestimated in Indonesia for three major reasons: (1) the clinical presentation of Zika and dengue is similar; (2) the availability of Zika diagnostic tests is limited in Indonesia; and (3) Zika reports are based on passive case-based surveillance [30, 31].

In order to mitigate Zika complications, in particular pregnancy-related complications, it is important to diagnose the disease in its early stages and implement prevention programmes. Assessment of the knowledge about ZIKV infection among healthcare workers (HCWs) can identify problems that HCWs may face in reaching this diagnosis. Zika-related knowledge is important since knowledge gaps may lead to attitudes and practices that hamper ZIKV infection diagnosis, management, and risk reduction [32].

Studies related to knowledge and attitude towards ZIKV infection have been conducted in various community groups. At least 21 studies related to knowledge of ZIKV infection have been conducted [1, 33–52], in the general population [33–37] or specific groups such as reproductive-age women [38, 39], pregnant women [40–43], construction workers [44], and medical [1, 39, 45–49, 52] and non-medical university students [33, 52]. Five of these studies were conducted among HCWs [1, 39, 45, 50, 51]. Ten studies related to attitude towards ZIKV infection have been conducted [34, 35, 37, 41, 48, 52–55], but only one of these among HCWs [56]. These figures indicate that information about knowledge and attitude towards ZIKV infection among HCWs is limited. Given the fact that HCWs have critical roles in the prevention and management of Zika disease, studies to fill this gap in the literature are required.

In Indonesia, general practitioners (GPs) are the frontline HCWs who are responsible for the early diagnosis, treatment, and prevention of diseases including ZIKV infection. Thus, GPs in Indonesia should have some knowledge to treat ZIKV infection because it has the general manifestation of fever, which is included in the competency list of general medical practice [57]. In addition, the symptoms of ZIKV infection are similar to those of other mosquito-borne infections such as dengue fever or chikungunya fever [58]. It is important for GPs to recognize symptoms of ZIKV infection in order to detect or prevent complications. Most Zika prevention measures, including the strategic responses set out by the WHO, are also within the GPs’ competency list. These circumstances indicate that GPs play a pivotal role in the early detection and prevention of ZIKV infection in Indonesia.

Previously, our group conducted a project to assess the knowledge and attitude towards ZIKV infection among doctors in Aceh province of Indonesia [51, 56]. Both specialist doctors and GPs were included, and multiple stratified analyses indicated that specialists had a lower knowledge and a less positive attitude compared to GPs. To generalize these results in the national context, an expanded survey that included other regions of Indonesia was conducted. As GPs are the frontline HCWs in Indonesia, and because one of the most important issues related to ZIKV infection is congenital microcephaly, the survey sampled GPs and focused on the pregnancy-related issues of ZIKV infection. Thus, this study sought to provide a comprehensive picture of the knowledge and attitude towards pregnancy-related issues of ZIKV infection among GPs in Indonesia.

Methods

Study design and survey instrument

Following our previous survey of HCWs in Aceh province [51, 56], another survey, from October to December 2016, on GPs’ knowledge and attitude towards pregnancy-related issues of ZIKV infection was conducted in a larger area (encompassing Sumatra and Java islands, which together are inhabited by about 200 million individuals, or approximately 80% of the entire population of Indonesia). This study was cross-sectional and used an online survey which was estimated to take around five to ten minutes to complete. To assess knowledge and attitude, a questionnaire was developed based on existing facts from the United States Centers for Disease Control and Prevention (CDC) [17]. The questions were translated into Bahasa Indonesia (national language), and a panel consisting of two medical microbiologists was appointed to evaluate the validity of the questionnaire content. Prior to the actual study, the reliability of the questions was tested in a pilot study, and the data from this pilot study were excluded from the final analysis. The Cronbach’s alpha score was 0.78 and 0.70 for knowledge and attitude domain, respectively, indicating good internal consistency of the items in the scale. The design, setting, analyses and reporting of this study adhered to the STROBE guidelines for cross-sectional studies in epidemiology (see Additional file 1 for the detailed checklist of STROBE criteria [59]).

The survey and data collection

The Survey Monkey web portal was employed to collect the data for this study. A survey link was sent to physicians’ professional organizations that forwarded it to their members and promoted the survey on social media. All registered GPs from Indonesian Medical Council living in Sumatera or Java were considerate eligible. If no response was received from a member, reminders were sent. To ensure the anonymity of the respondent and confidentiality of the data, the IP addresses of participants were not collected, and only the principal investigator had access to the survey account. The first page of the survey included information on the identity of the principal investigator, contact details, collaborating institutions, aims of the study, and its expected benefits. Before starting the survey, individuals provided their consent to participate. Potential participants were also informed that they could exit the survey at any point, but their responses that had already been recorded would still be uploaded to the database. At the end of the data collection period, the data were extracted from the survey host and imported into statistical software for analysis.

Measures

Dependent variables

The dependent variables in this study were knowledge and attitude among GPs in Indonesia towards pregnancy-related problems of ZIKV infection. To assess knowledge, five questions were used. A correct response was given a score of one and an incorrect response was given a score of zero. The knowledge score was the sum of these five questions, ranging from 0 to 5 in which higher scores indicated greater knowledge. Four questions were used to assess attitude, and each question was rated on a 5-point Likert scale from 1 (strongly disagree) to 5 (strongly agree). To describe the distribution of responses to a question in the study population, participants who answered 4 or 5 were categorized as “agreeing” with the specific question. Subsequently, responses within the attitude domain using the 1 to 5 scale were added together giving an attitude score ranging from 4 to 20 in which higher scores indicated a more positive attitude. The responses to questions in which a higher score indicated a more negative attitude were flipped in order to preserve directionality across questions. See Additional file 2 for the detailed questions used to assess the knowledge and attitude domain.

Independent variables

We assessed four main groups of independent variables that could plausibly affect knowledge and attitude: sociodemographic status, workplace characteristics, medical professional development characteristics, and Zika-related experience. The sociodemographic characteristics included gender, age, education, and occupation. For statistical analysis purposes, the age of the respondents was divided into (a) 30 years or less, and (b) more than 30 years. Workplace characteristics included the specific department where the respondents worked, workplace type, and workplace location. To assess their medical professional development characteristics, respondents were asked about their medical experience (in year) and experience attending medical conference or training in the last five months. Zika-related experience was assessed whether respondents had contact with patient(s) presenting signs and symptoms of ZIKV infection.

Statistical analysis

All explanatory variables were divided into groups to give quantitative measures. The levels of knowledge and attitude were dichotomized into “good” and “poor” based on a 75% cut-off point of the total score within each domain (i.e., 4 out of 5, and 15 out of 20 for knowledge and attitude, respectively). Our studies have used a similar cut-off point of either 75% or 80% [51, 56, 60–65]. The associations between the independent variables and the dependent variables (knowledge and attitude) were assessed using a two-step logistic regression. In the univariate logistic regression, all explanatory variables were analyzed, and variables with P ≤ 0.25 in this step were entered into the multivariate analysis. The estimated crude odds ratio (OR) of the univariate analyses and the adjusted OR (aOR) of the multivariate analyses were interpreted in relation to a reference category (R).

The correlation and association between knowledge and attitude were assessed using Spearman’s rank correlation (rs) and the Chi-square test, respectively. This correlation analysis was used due to the homogeneity of data variance. The confidence intervals for Spearman’s rank correlation were calculated as previously described [66]. For all analyses, significance was assessed at α = 0.05. Statistical Package of Social Sciences 17.0 software (SPSS Inc., Chicago, IL, USA) was used to analyze the data.

Results

Respondents’ characteristics

We received 850 responses during the survey period. Among these, 393 responses had to be excluded due to incomplete information, leaving a total of 457 (53.7%) participants with complete responses. Approximately 60% of the participants were 30 years old or younger, and 66.3% of them had a medical practice experience of less than five years (Table 1). Approximately 10% of the respondents had an additional higher degree such as a master’s or doctoral degree. The number of women was 16% higher than the number of men (58.0% vs. 42.0%). The occupation of 12.3% of the respondents included an appointment both as a GP and university staff, and less than 10% of them were specialist resident. A third of the participants were working in emergency units, and approximately the same number was working in community health centres (Puskesmas). The majority (70.3%) of the GPs enrolled in this survey were working in a health centre located in the rural (district) or sub-urban (regency) areas, and about 30% of them were working in the urban areas (provincial level). Although 66.1% of the participants had attended a provincial conference, 93.0% of them had not attended an international conference within the last five months. Approximately 8% of the surveyed GPs had had contact with a patient presenting signs and symptoms of ZIKV infection.

See full tableTable 1. Univariate and multivariate logistic regression analysis showing predictors of knowledge about Zika virus infection (good vs. poor) (N = 457)

Knowledge and associated determinants

We rated 304 (66.5%) respondents as having a good knowledge about pregnancy-related issues with ZIKV infection. Approximately 88.5% knew that ZIKV can be passed from a pregnant woman to the fetus, and 92.7% knew that a baby could have congenital defects if infected during pregnancy. Interestingly, although 416 (91.0%) correctly mentioned that microcephaly was a congenital condition associated with ZIKV infection, 65.8% of the respondents also answered that a ventricular septal defect was a complication associated with ZIKV infection. We assessed the association between knowledge and independent factors from four domains (sociodemographic status, workplace characteristics, professional development characteristics, and experience related to Zika disease). No factor was associated with knowledge (Table 1).

Attitude and associated determinants

Although the knowledge level of the respondents was relatively high, only 111 (24.2%) of them had a positive attitude. Sixty percent of the respondents believed that women with ZIKV infection should undergo Caesarean section, or were not sure whether they should. Although more than 65% of the respondents believed that antibiotic treatment was not required for women with ZIKV infection, 107 (23.4%) of them were still confused about this treatment option. In addition, almost 50% of the respondents believed that pregnant women with ZIKV infection should be treated with an antiviral drug, and 116 (25.3%) were unsure whether antiviral medication was required.

Among the four domains of independent factors that were assessed, older age and contact experience with a patient presenting signs and symptoms of ZIKV infection were associated with a positive attitude in the univariate analysis (OR: 1.87, 95% CI: 1.21–2.88, P = 0.005, and OR: 3.53, 95% CI: 1.76–7.05, P < 0.001, respectively). The multivariate analysis revealed that only contact experience was significantly associated with attitude (OR: 3.14, 95% CI: 1.49–6.58, P = 0.003) (Table 2).

See full tableTable 2. Univariate and multivariate logistic regression analysis showing predictors of attitude towards Zika virus infection (good vs. poor) (N = 457)

Correlation and association between knowledge and attitude

We found that there was a significant but weak positive correlation between knowledge and attitude towards pregnancy-related issues of ZIKV infection (r = 0.09; 95% CI: 0.02–0.18, P = 0.037). This indicates that attitude was increasingly positive with greater knowledge. To validate this result, further analysis was conducted using knowledge and attitude scores that had been classified as “good” and “poor” based on a cut-off point of 75%. Our analysis indicated that there was no impact of knowledge on attitude using this classification system (OR: 1.41, 95% CI: 0.88–2.25, P = 0.154).

Discussion

General practitioners are frontline HCWs in Indonesia and other countries, and their ability to comprehensively react to cases of Zika disease in their communities is, in part, limited by the knowledge and attitudes that they hold. Studies on knowledge and attitude towards ZIKV infection among GPs are limited. Given the fact that HCWs have critical roles in the prevention and management of ZIKV infection, this study was conducted to fill this gap in the literature. We found that almost 40% of the participating GPs had a poor knowledge of pregnancy-related issues of ZIKV infection. For example, 73.9% of respondents mentioned that ZIKV could be passed through breastfeeding. In fact, there are no reports to suggest that a ventricular septal defect was associated with ZIKV infection, and the U.S. CDC stated that there are no reports of infants getting ZIKV through breastfeeding, and mothers are encouraged to breastfeed even in areas with risk of Zika [67]. One of the plausible explanations of this finding is that ZIKV infection has not been a subject taught in Indonesia. For instance, Zika was not listed in the 2006 National General Practitioner Competence List of the Republic of Indonesia [68]. Therefore, while a few medical schools in Indonesia have incorporated the subject into their curriculum, this knowledge is not a mandatory subject for medical doctor graduates in Indonesia [69]. In addition, we found no independent factor that was significantly associated with knowledge among GPs. Previously, our study in Aceh province found that specialists had significantly lower knowledge compared to GPs, and some determinants relating to specialists were associated with lower knowledge [51]. For example, doctors whose workplace had access to medical journals (which was the case for most of the specialists) had lower knowledge compared to doctors whose workplace had restricted access to journals (e.g., in primary health service). In addition, doctors who worked in community health centres had greater knowledge compared to doctors who were working in private clinics or private hospitals and government hospitals, where most doctors were specialists. Therefore, it is not surprising that none of the independent variables were associated with knowledge in this survey because all of the respondents were GPs with a homogenous knowledge base. All of the respondents of this study received their medical education from the national curricula based on the 2006 National General Practitioner Competence List [68], where Zika was not listed as a compulsory disease.

We found that 66.3% of the participants had a medical practice experience of less than 5 years, and only 7.9% of the total participants stated that they had been contacted by a patient presenting signs and symptoms of ZIKV infection. These characteristics suggest that most of our participants could be considered to be at an intermediate level of expertise instead of an expert level [70]. Doctors at an intermediate level of expertise are better at recalling more signs and symptoms because they are able to focus on isolated signs and symptoms, and connect them to a pathophysiology mechanism [70]. In contrast, experts commonly use encapsulated knowledge or short-cut knowledge which is constructed from the memories of previous patients, which creates illness scripts. As a consequence, the expert may be inhibited in recalling signs and symptoms [70]. This could explain why most of our participants had relatively good knowledge about ZIKV infection compared to the specialist doctors in our previous survey [51]. Yet, the GPs could also be categorized as having incomprehensive knowledge about ZIKV infection since there were misperceptions about several aspects of the infection (i.e., that ZIKV could be transmitted via breastfeeding and that ventricular septal defect could be caused by the infection).

This incomprehensive knowledge, interestingly, was not adequate to improve GPs’ attitude towards ZIKV infection management because attitude change requires more than merely cognitive or knowledge transformation but also relies on affective and behavioural dimensions of change [71]. Attitude is a summary evaluation of an object of thought that is constructed in a particular situation; it is context-dependent [71]. To improve GPs’ attitude towards ZIKV infection, more exposure to cases of ZIKV infection is therefore required, to provide some experience enabling them to acquire diagnostic and management knowledge and to apply their knowledge in a practical setting [72]. The lack of exposure of real cases of ZIKV infection produces fewer opportunities for the GPs to apply their relatively good knowledge on ZIKV infection, and as a result the knowledge generates less of an impact on their attitudes. This might, in part, explain the lack of an association between knowledge and attitude among GPs.

This study revealed that GPs who had had contact with patient(s) presenting signs and symptoms of ZIKV infection were three times more likely to have a positive attitude. This finding could be explained by the experiential learning theory, in which learners will have better perception and cognition towards a disease if they are directly exposed to actual cases [73].

In general, our present study together with our previous survey [51] indicates that knowledge of ZIKV infection in HCWs in Indonesia is relatively low. Therefore, strategies for enhancing the capacity of HCWs (including GPs and other healthcare staffs) to respond to ZIKV infection may be needed. Scholars in the field of knowledge management have focused on knowledge seeking behavior of GPs at the global level. One study described a preference of GPs for local knowledge, for example, transfers from their own experiences or colleagues’ experiences and communication with leaders in their institution, as a reaction to the overwhelming information overload from 400.000 medical articles published each year [74]. In addition, GPs preferred interactive sessions in workshops and conferences over didactic lectures to improve their performance in clinical decision making [75, 76]. Therefore, efforts to increase GPs’ knowledge on ZIKV infection should be supported by incorporating relevant information regarding ZIKV infection in continuing medical education (CME) programmes in collaboration with the Indonesian Medical Council which regulates future GPs’ competence and certification.

Online survey research has advantages which include time and cost benefits, however, this study is not without limitations. The results from this study, therefore, should be interpreted with caution. First, the incomplete response rate in this survey is high (46.3%) if compared to our previous survey [51, 56]. Second, there is potential for biased geographical selection of respondents because certain localities in Indonesia are less likely to have internet access than others. Third, we did not collect the exact location of the respondents making it not possible to create a map showing spatial heterogeneity. However, our study is still able to show the distribution of the respondents between rural (district) and urban (regency) areas. In addition, we also analyzed respondents based on type of workplace, which is one of the most important heterogeneity analysis in medical setting because it reflects facility characteristics. Finally, dishonesty can be an issue in the sense that some respondents may not have been fully truthful with their answers, or may have looked up the correct response to answers. To minimize this last issue, a clear introduction on the first page of the survey was provided asking participants to respond based on their current knowledge and beliefs without trying to find the correct answer from other resources.

Conclusions

This study reveals that the knowledge about pregnancy-related problems with ZIKV infection is relatively high and homogenous among GPs across the most populous regions of Indonesia. However, GPs in Indonesia still have a poor attitude towards pregnancy-related problems of ZIKV infection, although contact experience with a patient presenting signs and symptoms of ZIKV infection was associated with a more positive attitude. Strategies for enhancing the capacity of GPs in Indonesia to respond to ZIKV infection are needed. Although the global emergency regarding ZIKV infection has been lifted, Indonesia is still at risk for ZIKV transmission, rendering medical education about ZIKV highly important and relevant for prevention and control efforts. One of the efforts with long-term effect will be to include the prevention and management of ZIKV infection in the National General Practitioner Competence List of Indonesia.

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Abbreviations

aOR

Adjusted odds ratio

CDC

Centers for Disease Control and Prevention

CME

Continuing medical education

GP

General practitioners

HCW

Healthcare worker

OR

Crude odds ratio

R

Reference category

rs

Spearman’s rank correlation

SPSS

Statistical Package of Social Sciences

ZIKV

Zika virus

Footnotes

Publisher’s Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Acknowledgments

We would like to thank to physicians’ professional organizations in Indonesia.

Authors’ contributions

Study concept and design: HH. Data collection: HH, PSU, AMS, AA, AB, MRR, II1, NW, RM, II. Acquisition, analysis, or interpretation of data: HH, YR, PSU, SA, AMS, RI, ALW, AJR, MM, AI. Statistical analysis: HH, SA. Drafting of the manuscript: HH, PSU, RI. Critical revision of the manuscript for important intellectual content: HH, ALW, UK, DAG, AJR, MA, RM, MM, AI. All authors read and approved the final manuscript.

Funding

HH is received Australia Awards Scholarship (AAS) from the Department of Foreign Affairs and Trade, Australia, Scholarship for International Research Fees (SIRF) from The University of Western Australia and NHMRC Centre of Research Excellence in Emerging Infectious Diseases (CREID) Scholarship. RM, UK and DAG were supported by the Federal Ministry of Education and Research under the program “Nationales Forschungsnetz Zoonotische Infektionskrankheiten” (01KI1717). The funders had no role in study design, data collection and analysis, decision to publish, or preparation of the manuscript.

Availability of data and materials

The datasets used and/or analyzed during the current study are available from the corresponding author on reasonable request.

Ethics approval and consent to participate

The study was approved by the Human Research Ethics Committee of the School of Medicine, Universitas Syiah Kuala. This was an electronic survey. Potential participants were first shown an informed consent document and were instructed to click “Yes” if they agreed to the procedures. As per the protocol approved by the ethical review committee, individuals’ electronic signatures were not collected in order to limit the amount of personally identifiable information held by the researchers. No direct incentive was given to participate in this survey.

Consent for publication

Not applicable.

Competing interests

The authors declare that they have no competing interests.

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Table 1.

Univariate and multivariate logistic regression analysis showing predictors of knowledge about Zika virus infection (good vs. poor) (N = 457)

Variable
n (%)
Good knowledge
n (%)
Univariate
Multivariate

OR (95% CI)
P–value
aOR (95% CI)
P–value

Location

 Aceh (R)
365 (79.9)
245 (67.1)
1

 Non-Aceh
92 (20.1)
59 (64.1)
0.88 (0.54–1.41)
0.587

Gender

 Male (R)
192 (42.0)
128 (66.7)
1

 Female
265 (58.0)
176 (66.4)
0.99 (0.67–1.47)
0.995

Age group

 30 years or less (R)
279 (61.1)
183 (65.6)
1

 More than 30 years
178 (38.9)
121 (68.0)
1.11 (0.75–1.66)
0.598

Education

 General practitioner (R)
407 (89.1)
267 (65.6)
1

1

 GP with master’s or doctoral degree
50 (10.9)
37 (74.0)
1.49 (0.77–2.90)
0.237
1.20 (0.55–2.63)
0.642

Occupation

 GP and non-university staff (R)
356 (77.9)
235 (66.0)
1

1

 GP and university staff
56 (12.3)
43 (76.8)
1.70 (0.88–3.29)
0.113
1.47 (0.67–3.21)
0.334

 Specialist residency
45 (9.8)
26 (57.8)
0.71 (0.38–1.32)
0.227
0.61 (0.30–1.22)
0.162

Department

 Community health centre (R)
162 (35.4)
103 (63.6)
1

 Emergency unit
136 (29.8)
95 (69.9)
1.33 (0.82–2.16)
0.254

 Others
159 (34.8)
106 (66.7)
1.15 (0.72–1.81)
0.562

Type of workplace

 Community health centre (R)
95 (20.8)
57 (60.0)
1

1

 Private clinic or hospital
191 (41.8)
133 (69.6)
1.53 (0.92–2.56)
0.105
1.39 (0.82–2.36)
0.222

 Government hospital
171 (37.4)
114 (66.7)
1.33 (0.79–2.24)
0.277
1.50 (0.86–2.60)
0.153

Location of workplace

 District (R)
137 (30.0)
87 (63.5)
1

 Regency
184 (40.3)
123 (66.8)
1.16 (0.73–1.84)
0.533

 Province
136 (29.7)
94 (69.1)
1.29 (0.78–2.13)
0.327

Attended province-level conference

 Yes
302 (66.1)
202 (66.9)
1.05 (0.70–1.58)
0.817

 No (R)
155 (33.9)
102 (65.8)
1

Attended national conference

 Yes
160 (35.0)
104 (65.0)
0.90 (0.60–1.35)
0.613

 No (R)
297 (65.0)
200 (67.3)
1

Attended international conference

 Yes
32 (7.0)
20 (62.5)
0.83 (0.39–1.74)
0.618

 No (R)
425 (93.0)
284 (66.8)
1

Medical practice experience (years)

 Less than 5 years (R)
303 (66.3)
197 (65.0)
1

 5 years or more
154 (33.7)
107 (69.5)
1.23 (0.81–1.86)
0.340

Had contact with patient(s) presenting signs and symptoms of Zika virus infection

 Yes
36 (7.9)
22 (61.1)
0.78 (0.39–1.56)
0.475

 No (R)
421 (92.1)
282 (67.0)
1

aOR Adjusted odds ratio, CI Confidence interval, OR Odds ratio, R Reference group

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Table 2.

Univariate and multivariate logistic regression analysis showing predictors of attitude towards Zika virus infection (good vs. poor) (N = 457)

Variable
n (%)
Good attitudes
n (%)
Univariate
Multivariate

OR (95% CI)
P–value
aOR (95% CI)
P–value

Location

 Aceh (R)
365 (79.9)
84 (23.0)
1

1

 Non-Aceh
92 (20.1)
27 (29.3)
1.39 (0.83–2.32)
0.207
1.31 (0.75–2.27)
0.341

Gender

 Male (R)
192 (42.0)
54 (28.1)
1

1

 Female
265 (58.0)
57 (21.5)
0.70 (0.46–1.08)
0.104
0.64 (0.40–1.03)
0.065

Age group

 30 years or less (R)
279 (61.1)
55 (19.7)
1

1

 More than 30 years
178 (38.9)
56 (31.5)
1.87 (1.21–2.88)
0.005*
1.59 (0.78–3.21)
0.200

Education

 General practitioner (GP) (R)
407 (89.1)
93 (22.9)
1

1

 GP with master’s or doctoral degree
50 (10.9)
18 (36.0)
1.90 (1.02–3.54)
0.043*
1.83 (0.82–4.08)
0.140

Occupation

 GP and non-university staff (R)
356 (77.9)
82 (23.0)
1

1

 GP and university staff
56 (12.3)
18 (32.1)
1.58 (0.86–2.92)
0.142
0.63 (0.27–1.51)
0.300

 Specialist residency
45 (9.8)
11 (24.4)
1.08 (0.53–2.23)
0.833
0.41 (0.16–1.02)
0.056

Department

 Community health centre (R)
162 (35.4)
40 (24.7)
1

 Emergency unit
136 (29.8)
30 (22.1)
0.86 (0.50–1.48)
0.594

 Others
159 (34.8)
41 (25.8)
1.06 (0.64–1.75)
0.821

Type of workplace

 Community health centre (R)
95 (20.8)
19 (20.0)
1

 Private clinic or hospital
191 (41.8)
48 (25.1)
1.34 (0.74–2.45)
0.336

 Government hospital
171 (37.4)
44 (25.7)
1.39 (0.75–2.55)
0.293

Location of workplace

 District (R)
137 (30.0)
26 (19.0)
1

1

 Regency
184 (40.3)
46 (25.0)
1.42 (0.83–2.45)
0.202
1.37 (0.78–2.41)
0.275

 Province
136 (29.8)
39 (28.7)
1.72 (0.98–3.02)
0.061
1.70 (0.88–3.28)
0.116

Attended province-level conference

 Yes
302 (66.1)
79 (26.2)
1.36 (0.85–2.17)
0.194
1.19 (0.71–1.99)
0.506

 No (R)
155 (33.9)
32 (20.6)
1

1

Attended national conference

 Yes
160 (35.0)
47 (29.4)
1.51 (0.98–2.35)
0.064
1.18 (0.70–1.98)
0.540

 No (R)
297 (65.0)
64 (21.5)
1

1

Attended international conference

 Yes
32 (7.0)
11 (34.4)
1.70 (0.79–3.65)
0.172
1.04 (0.44–2.46)
0.937

 No (R)
425 (93.0)
100 (23.5)
1

1

Medical practice experience (years)

 Less than 5 years (R)
303 (66.3)
64 (21.1)
1

1

 5 years or more
154 (33.7)
47 (30.5)
1.64 (1.06–2.55)
0.028*
1.28 (0.63–2.64)
0.496

Had contact with patient(s) presenting signs and symptoms of Zika virus infection

 Yes
36 (7.9)
18 (50.0)
3.53 (1.76–7.05)
< 0.001**
3.14 (1.49–6.58)
0.003**

 No (R)
421 (92.1)
93 (22.1)
1

1

aOR Adjusted odds ratio, CI Confidence interval, OR Odds ratio, R Reference group

* Significance at 0.05, ** Significance at 0.01

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