a web-based dengue monitoring system for jaffna …

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A WEB - BASED DENGUE MONITORING SYSTEM FOR JAFFNA DISTRICT Nirthika R. 1 , Ramanan A. 1 and Gajapathy K. 2 1 Department of Computer Science, University of Jaffna, 2 Department of Zoology, University of Jaffna [email protected] To identify specific factors that influence the information flow in the notification process of existing manual notifiable disease surveillance system at different levels, such as completeness, timeliness, sensitivity, etc. To speed-up the monitoring and prevention of dengue cases in the Jaffna district via a web-based intelligent system. Objective Dengue is the most prevalent mosquito- borne viral disease among humans, spread rapidly among people living in most of the districts of Sri Lanka. Early recognition of an outbreak supports the health officers to plan pre-emptive measures. However, there is no automated dengue surveillance system in Sri Lanka to notify and prevent these kind of communicable diseases. In this work, we focus on the Northern region and propose a web-based model for data entry notification process. The risk factors for dengue is also analyzed to produce a prediction of outbreaks. In contrast, a gap analysis was conducted to develop an automated system, with the help of previous related researches, Northern regional health officers and medical doctors of Jaffna Teaching Hospital. Monitoring System Make a bridge in the gap of each roles. Missing notification from private and indigenous medical officers. Lack of usage of an automated system Controlling Influence of the risk factors such as Urbanization/development Sewerage system Living conditions Medical facilities Methodology Advantages Future Work [1] Kalpana, C., Mahesan, S. and P. A. Bath, “Notifiable disease surveillance in Sri Lanka and the United Kingdom: A comparative study”, Sri Lanka Journal of Bio-Medical Informatics, 4(1):14-22, 2013. [2] Munasinghe, A., Premaratne, H.L. and Fernando, M.G.N.A.S., “Towards an Early Warning System to Combat Dengue”, International Journal of Computer Science and Electronics Engineering (IJCSEE), Vol 1, Issue 2, ISSN 2320–4028, 2013. [3] Pathirana, S., Kawabata, M. and Goonetilake, R., “Study of potential risk of dengue disease outbreak in Sri Lanka using GIS and statistical modelling”, Journal of Rural and Tropical Public Health, vol. 8, pp. 8-17, 2009. The prediction module needs to be analyze and select the appropriate prediction model for all other factors such as humidity, rainfall, population density, etc. Active surveillance Reduction of missing notifications and can include laboratory findings in the notification process. Centralized data under a point of control. Reduce time to notify and prevent action (expecting within two days). Solution for the existing manual process. Include all responsible roles into one system. Summary of data and prediction will be effective. Challenges References Abstract MOH – Medical Officer of Health PHI – Public Health Inspector SPHI – Supervising Public Health Inspector RDHS – Regional Directorate of Health Services EU – Epidemiological Unit Doctor MOH : Using H544 (Notification of Communicable Disease form) PHI MOH : Using H411 (Communicable Disease Report - Part I) MOH RDHS : Using H399 (Weekly Return of Communicable Diseases (WRCD) form) weekly MOH EU : Using H411a (Communicable Disease Report - Part II) weekly Roles Notification Transition

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A WEB-BASED DENGUE MONITORING SYSTEM FOR JAFFNA DISTRICT Nirthika R.1, Ramanan A.1 and Gajapathy K.2

1Department of Computer Science, University of Jaffna, 2Department of Zoology, University of [email protected]

• To identify specific factors that influencethe information flow in the notificationprocess of existing manual notifiabledisease surveillance system at differentlevels, such as completeness, timeliness,sensitivity, etc.

• To speed-up the monitoring andprevention of dengue cases in the Jaffnadistrict via a web-based intelligentsystem.

Objective

Dengue is the most prevalent mosquito-borne viral disease among humans, spreadrapidly among people living in most of thedistricts of Sri Lanka. Early recognition of anoutbreak supports the health officers toplan pre-emptive measures. However, thereis no automated dengue surveillance systemin Sri Lanka to notify and prevent these kindof communicable diseases.In this work, we focus on the Northernregion and propose a web-based model fordata entry notification process. The riskfactors for dengue is also analyzed toproduce a prediction of outbreaks.In contrast, a gap analysis was conducted todevelop an automated system, with thehelp of previous related researches,Northern regional health officers andmedical doctors of Jaffna Teaching Hospital.

Monitoring System• Make a bridge in the gap of each roles.• Missing notification from private and indigenous

medical officers.• Lack of usage of an automated system

Controlling• Influence of the risk factors such as

Urbanization/development Sewerage system Living conditions Medical facilities

Methodology Advantages

Future Work

[1] Kalpana, C., Mahesan, S. and P. A. Bath,“Notifiable disease surveillance in Sri Lankaand the United Kingdom: A comparativestudy”, Sri Lanka Journal of Bio-MedicalInformatics, 4(1):14-22, 2013.

[2] Munasinghe, A., Premaratne, H.L. andFernando, M.G.N.A.S., “Towards an EarlyWarning System to Combat Dengue”,International Journal of Computer Science andElectronics Engineering (IJCSEE), Vol 1, Issue 2,ISSN 2320–4028, 2013.

[3] Pathirana, S., Kawabata, M. andGoonetilake, R., “Study of potential risk ofdengue disease outbreak in Sri Lanka using GISand statistical modelling”, Journal of Rural andTropical Public Health, vol. 8, pp. 8-17, 2009.

The prediction module needs to beanalyze and select the appropriateprediction model for all other factors suchas humidity, rainfall, population density,etc.

• Active surveillance

• Reduction of missing notifications and can include laboratory findings in the notification process.

• Centralized data under a point of control.

• Reduce time to notify and prevent action (expecting within two days).

• Solution for the existing manual process.

• Include all responsible roles into one system.

• Summary of data and prediction will be effective.

Challenges

References

Abstract

• MOH – Medical Officer of Health

• PHI – Public Health Inspector

• SPHI – Supervising Public Health Inspector

• RDHS – Regional Directorate of Health Services

• EU – Epidemiological Unit

• Doctor MOH : Using H544 (Notification of Communicable Disease form)

• PHI MOH : Using H411 (Communicable Disease Report - Part I)

• MOH RDHS : Using H399 (Weekly Return of Communicable Diseases (WRCD) form) weekly

• MOH EU : Using H411a (Communicable Disease Report - Part II) weekly

Roles Notification Transition