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      For malaria elimination India needs a platform for data integration

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      1 , 2 , 3 ,
      BMJ Global Health
      BMJ Publishing Group
      public health, malaria, epidemiology

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          Abstract

          Summary box Malaria remains a significant public health problem in India as it contributes >85% of estimated cases in South East Asia and almost half of all Plasmodium vivax cases globally. There is a multiplicity of malaria stakeholders in India that include public sector agencies, private healthcare providers, defence forces, railways, industry, independent researchers and control programmes that at times operate in silos and this leads to fragmented data inputs and interpretation. Lack of an established near real-time case-based surveillance system further challenges the ability to mount a cohesive and integrated malaria elimination agenda. There is an urgent need to reformulate the boundaries of individual stakeholders and initiate a system that will allow them to coalesce data into a digital integrated platform. Such a platform will provide near real-time epidemiological, entomological and commodity surveillance data that will be of immediate use to all stakeholders and will allow transparent and evidence-based formulation of malaria control policies. Despite a substantial decline in global burden of malaria, it remains one of the most significant public health problems in Africa and South Asia. Malaria incidence has declined globally between 2010 and 2018 from 71 to 57 cases per 1000 population at risk but the pace of reduction has slowed between 2014 to 2018. An estimated ~228 million cases of malaria occurred worldwide in 2018 with WHO South East Asia region contributing 3.4% of the burden. Almost 85% of all malaria cases globally were borne by 18 African countries and by India, that additionally accounts for nearly half (47%) of all Plasmodium vivax cases globally.1 As malaria endemic countries shift their goal post from limiting morbidity and mortality (malaria control) to zero-incidence of indigenous case (malaria elimination) it becomes imperative that approaches and strategies also evolve in concert. There is thus clearly a need for the malaria health information system to switch from use of aggregated data to near real-time case-based surveillance.2 The malaria data collected via surveillance systems under national programmes is de facto the basis for country’s policies, strategies and operational activities. Incomplete data or data that are primarily used for reporting purposes, typically as in the routine national surveillance programmes, can only prolong malaria transmission owing to its inherent limitations for use in malaria control efforts, especially in underserved areas.3 In India, the National Vector Borne Disease Control Programme under the Ministry of Health and Family Welfare is a vertically implemented programme. India launched National Framework of Malaria Elimination in 2016 with the overall goal of zero indigenous cases in the country by 2030. However, the robustness of the current Indian surveillance system is a matter of debate. There is a wide discrepancy between the reported cases and deaths by national programme of India and estimated cases by WHO and various research studies.4–6 In 2017, National Programme reported 0.84 million cases and 194 deaths whereas WHO estimated 9.6 million cases and 16.7K deaths during the same year.7 8 Another example of the discordance in numbers is the surveillance-based estimation of malaria burden that was completed by a nodal research body in India in 2015/2016 that estimated malaria incidence to be fourfold greater than the 1 million reported by the national programme, but threefold lesser than the 13 million estimated by the WHO. Similarly, the estimated deaths were 93-folds more than average 313 deaths reported by the national malaria programme in 2015/2016 but were comparable with that estimated by the WHO for India.6India State-Level Disease Burden Initiative 1990 to 2016 as part of Global Burden of Disease study estimated malaria to be responsible for 0.47% of total disability-adjusted life-years (0.19% to 1.08%) and 0.8% of deaths in all age groups caused by neglected tropical diseases and malaria.9 There could be multiple reasons for the above disagreement in numbers. The existing Indian surveillance system indeed has a time-lag in reporting due to paper-based data. It suffers from poor surveillance of the substantial mobile populations, forest workers, transitory urban slum populations, refugees and domestic or international tourists. In addition, it is inefficient at representing data from remote and inaccessible areas such as tribal and hilly regions. The marginalised section of communities afflicted by malaria, suffer not only from neglect but also helplessness and dearth of healthcare opportunities. These communities need enabling environment and empowerment so as to enhance their reach out to the healthcare system and timely prevention and management. Persistent neglect and lack of focus on malaria in pregnancy has led it to become a hidden public health problem.10 Importantly, malaria cases treated by private healthcare providers, both qualified and unqualified, who otherwise impart approximately 70% of healthcare through hospitals, nursing homes, clinics or general practice are not accounted for in national figures.11 Moreover, armed forces, railways and organised industries like automobiles, coal, mines, steel, tea plantations and others with their own healthcare systems are missing from the numbers projected by national surveillance systems. In addition to the above missing links, the data which is routinely collected in the ambit of national programme lacks real-time data aggregation and is bereft of desirable level of resolution such as households. Finally, no extrapolation across geographical borders of Indian states is currently possible either within India or outside. Adjacent districts that belong to different states suffer from widely variable malaria incidence rates but lack of timely data sharing makes each side vulnerable to interstate import and export of malaria. Further, the malaria incidence data from national programme are not available in the public domain in terms of granularity that is below the district level. The data are also not provided age, gender and month-wise thereby discouraging their analyses. These constraints also prevent both the identification of infection foci and timely adoption of corrective actions. Adding to the void, drug and insecticide efficacy surveillance, entomological surveillance, commodity and stock management are not part of the surveillance systems. Thus, though available in separate domains, the data are scattered and disintegrated. (figure 1) Figure 1 Malaria data integration. NGOs, non-governmental organisations. Furthermore, India, the second most populous country, has a substantial proportion of researchers, scientists, doctors, non-government bodies, philanthropic organisations and many other independent bodies who work in the field of malaria. Besides reading the work in scientific literature, there is no centralised database in the country for the active researchers and malariologists to connect with each other, missing out on the opportunity of scientific deliberations, cross-fertilisation of research ideas and possible collaborations. Relying on meetings, workshops and lectures as a platform for efficient data exchange will continue to foster malaria control operations but in silos. Lack of a one-window platform that can provide integrated malaria data presents real roadblocks towards enhancing our understanding of the dynamic situation of malaria in India. Several notable instances where integration can help are; (a) high quality data analysis and interpretation of the routine epidemiological and entomological information gathered at national and local levels can direct any midcourse corrections for implementation. This will need integration with data analysts and epidemiologists; and (b) collation and analysis of data generated by multiple agencies (like private sector, armed forces, industry, etc) and stakeholders (eg, non-governmental organisations working in states) at one platform. This would need to be preceded by data validation and standardisation of inputs from different sources. Extensive training of and by the malaria programme managers and other players will be essential for the proposed platform to provide harmonised, robust, standardised, uniform and validated data. As much as possible, raw data can be made accessible at the platform so as to enable offline analyses of the same. Once malaria is made a notifiable disease, these partners would be mandated to share the real-time data. This will allow comprehensive and cohesive analyses on which subsequent evidence-based action can be based; (c) conglomeration of active researchers and malariologists and (d) lessons from other countries that have successfully eliminated malaria and from those struggling yet. Internationally, there are examples of networks where researchers and clinical investigators are encouraged to share and access data through secure online systems. Examples are ‘The WorldWide Antimalarial Resistance Network’ (WWARN) that is part of the Infectious Diseases Data Observatory and is a collaborative platform to track the emergence and spread of malaria drug resistance.12 The Worldwide Insecticide Resistance Network (WIN) runs in a similar format.13 To meet the above exigencies of multiple, siloed and independent stakeholders we propose that consideration should be given to ‘convergence’ of data pertaining to malaria as a structural change to the way programmes are run currently. This convergence or data integration will absorb all data from independent agencies mentioned in figure 1 and aim to coalesce it on a digital platform. The integrated data will provide a single window digital platform that is lucid, inclusive, transparent, open access and multilayered. The digital platform can be a data hub for rendering valuable data as per the needs of the individual stakeholders. Some possible benefits are: The digital platform can serve as a robust surveillance system wherein comprehensive, near real-time, patient-based data collected at all levels, by public and private sectors, on important epidemiological parameters such as demographic information including location, diagnosis and treatment, vector control interventions and monitoring of drug and insecticide resistance and supply chain logistics are reflected. Data capture at the level of villages or households will also translate into immediate data-driven control action and therefore mitigation of malaria. The proposed digital platform will thus provide a window for ‘local data for local action’. ‘Minimum data sets’ could be defined denoting the least possible number of data points for standardisation and interoperability which could be useful to a range of stakeholders14 data analysis and timely interpretations will facilitate identification of potential hotspot of malaria and impending outbreaks. Feedback mechanisms with in-built alert systems and decision support systems from the central to peripheral levels of the health system and back would assist in efficiently containing new foci of disease. Effective and timely response from health system as result of the alerts would inform the digital information system that the activity has taken place operating as a tool for monitoring and evaluation.15 Cloud-based database or local databases can be selected depending on internet availability ensuring seamless reporting adhering to the pre-decided timelines. Data on drug and insecticide resistance, parasite and vector behaviours, standard protocols in malaria elimination research, geospatial mapping, vector ecology, high-risk group mapping, novel tools like newer diagnostics or vector control tools, drug treatment trials would be valuable part of dashboard. Data sources external to health systems, for example, census data providing population denominators, climate data, land use data and water bodies data can be also be made accessible. Migratory populations can be mapped for easy surveillance by using mobile phone technology or geo-tagged devices. These together directly or indirectly impact disease epidemiology and their merging could provide a panoramic view of vector borne diseases like malaria. The digital platform will serve as a database of and for malariologists. It can include national and international consortia from different disciplines of malaria and allied fields. This would be an excellent opportunity for researchers and scholars to develop networks and share knowledge and resources. However, to assemble and accredit the data integration digital platform with all the above attributes and features, India needs to have seamless internet facility, provision for offline data entry, data server and safety firewalls for data security. It will need adequate governance and policy structures to ensure data privacy. Although a single window data platform can offer consolidation of vital data, resistance to it is a possible barrier. Hindrances such as: (a) ‘policy obstacles’ on data sharing and data security3 especially in the context of cross-border (international) data sharing. To the neighbouring countries of Bhutan, Nepal, Bangladesh (bordering north-eastern region of India) and Sri Lanka import of malaria from India is a threat. However, transparent data sharing on malaria cases, drug/insecticide resistance and intervention tools though desirable may be stalled by bureaucratic inaction. Unfriendly political relationships between countries alongwith biosecurity concerns may also hamper smooth exchange of the data. A possible solution is to develop nationwide digital platforms with safeguard mechanisms like conditional ‘writing access’ limited authorised partners but with wide and free access and availability of data. This digital platform can be shared with neighbouring malarious countries for adoption so as to standardise data representation and also to facilitate exchange of vital information, if the countries so decide. Indian Council of Medical Research’s (ICMR) initiative of bringing all malariologists and researchers at one platform via Malaria Elimination Research Alliance-India (MERA-India) is a step towards integration of elimination research efforts. MERA-India, steered by National Institute of Malaria Research, is aptly placed to play this important role of international collaborations. MERA-India is being led by Secretary (Department of Health Research) and Director General, ICMR, the nodal research body of Indian government and supported by Ministry of Health and Family Welfare and WHO-SEARO. MERA-India is governed by independent experts and is a body with minimum bureaucracy involved. ICMR’s initiative ‘Regional Research Platform’, though focussed on emerging infectious diseases in its launch year (2019) can also be harnessed to link neighbouring South East Asian countries and support MERA-India in this proposed endeavour. (b) International donor agencies support malaria control and elimination programmes in developing countries like India. There may be a perceived risk that donor agencies may use the integrated data to assess and financially audit the performance of the national malaria control programme. This may worsen the hesitancy of the governments to fully adopt the digital platforms in lieu of fear of losing on the funding opportunities. However, such transparency will also provide new fillip to the national programme in terms of greater accountability. (c) In India’s federal system, health is a state subject and thus India’s states may be reluctant to share in near real-time the data on hotspots/outbreaks, supply chain inefficiencies and/or poor surveillance. However, the very purpose of this proposed digital dashboard is to bring to light national and state level data as this will provide an opportunity for greater accountability in the running of malaria programmes. (d) The possibility of stigmatisation and ostracisation of the areas identified as hotspots and/or outbreak prone due to the proposed digital solution. However, as COVID-19 pandemic has taught us already, the best policy for the government and public health officials in context of infectious diseases is utter transparency and sharing of data that the digital platform will enable. Data integration is necessary but is just one of the component of the overall thrust for malaria elimination. There are several other notable gaps in the implementation of the current national programme which may be plugged concurrently. Given its size and complexity, India has adopted a subnational elimination plan (recommended by WHO) wherein a particular district or state is encouraged to achieve and maintain malaria-free status, even though transmission is likely to continue in other parts of the country for few more years. Financial and other awards have been announced by Indian government to give impetus to subnational malaria elimination and enthuse local health systems and public health administration. As we become cognizant of the ascendancy, barriers, limitations and scope of the proposed digital data integration platform, we recognise the need for research in operationalisation of this concept. Methods and mechanisms need to be devised, tested and validated for each step before we embark on implementation and actual use of this digital dashboard. An example of existing dashboard is District Health Information Software-2 (DHIS 2) though it has its own constraints. Countries may develop their own tailor-made dashboards with their needs fitting in the context of their health ecosystems. In India, we feel that the ICMR can champion this cause of data integration platform. Via National Institute of Malaria Research (NIMR) and the national programme, this integration will aid in the malaria elimination ambition of the country. There is indeed a growing voice in national and international communities for integrating surveillance and control programmes that target communicable diseases. This is therefore vital and will allow optimisation of resources and enhancement of outputs. COVID-19, despite its paralysing effect on the world, has mobilised one and all to share real-time data of daily cases and deaths. COVID-19 epidemiology is available on many dashboards even within India and its states (the state of Kerala has an exceptionally informative COVID-19 dashboard). The digital tracking of COVID-19 has empowered both public health specialists and the general population. This sets up a good precedent for malaria.16 As we move towards malaria elimination disruptive strategies are needed to challenge the conventional boundaries of health and allied systems. The time is opportune to dwell on remodelling our data collection methods, innovate on data collation and analysis and to freely share malaria data that is generated using public funds.4

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          Nations within a nation: variations in epidemiological transition across the states of India, 1990–2016 in the Global Burden of Disease Study

          Summary Background 18% of the world's population lives in India, and many states of India have populations similar to those of large countries. Action to effectively improve population health in India requires availability of reliable and comprehensive state-level estimates of disease burden and risk factors over time. Such comprehensive estimates have not been available so far for all major diseases and risk factors. Thus, we aimed to estimate the disease burden and risk factors in every state of India as part of the Global Burden of Disease (GBD) Study 2016. Methods Using all available data sources, the India State-level Disease Burden Initiative estimated burden (metrics were deaths, disability-adjusted life-years [DALYs], prevalence, incidence, and life expectancy) from 333 disease conditions and injuries and 84 risk factors for each state of India from 1990 to 2016 as part of GBD 2016. We divided the states of India into four epidemiological transition level (ETL) groups on the basis of the ratio of DALYs from communicable, maternal, neonatal, and nutritional diseases (CMNNDs) to those from non-communicable diseases (NCDs) and injuries combined in 2016. We assessed variations in the burden of diseases and risk factors between ETL state groups and between states to inform a more specific health-system response in the states and for India as a whole. Findings DALYs due to NCDs and injuries exceeded those due to CMNNDs in 2003 for India, but this transition had a range of 24 years for the four ETL state groups. The age-standardised DALY rate dropped by 36·2% in India from 1990 to 2016. The numbers of DALYs and DALY rates dropped substantially for most CMNNDs between 1990 and 2016 across all ETL groups, but rates of reduction for CMNNDs were slowest in the low ETL state group. By contrast, numbers of DALYs increased substantially for NCDs in all ETL state groups, and increased significantly for injuries in all ETL state groups except the highest. The all-age prevalence of most leading NCDs increased substantially in India from 1990 to 2016, and a modest decrease was recorded in the age-standardised NCD DALY rates. The major risk factors for NCDs, including high systolic blood pressure, high fasting plasma glucose, high total cholesterol, and high body-mass index, increased from 1990 to 2016, with generally higher levels in higher ETL states; ambient air pollution also increased and was highest in the low ETL group. The incidence rate of the leading causes of injuries also increased from 1990 to 2016. The five leading individual causes of DALYs in India in 2016 were ischaemic heart disease, chronic obstructive pulmonary disease, diarrhoeal diseases, lower respiratory infections, and cerebrovascular disease; and the five leading risk factors for DALYs in 2016 were child and maternal malnutrition, air pollution, dietary risks, high systolic blood pressure, and high fasting plasma glucose. Behind these broad trends many variations existed between the ETL state groups and between states within the ETL groups. Of the ten leading causes of disease burden in India in 2016, five causes had at least a five-times difference between the highest and lowest state-specific DALY rates for individual causes. Interpretation Per capita disease burden measured as DALY rate has dropped by about a third in India over the past 26 years. However, the magnitude and causes of disease burden and the risk factors vary greatly between the states. The change to dominance of NCDs and injuries over CMNNDs occurred about a quarter century apart in the four ETL state groups. Nevertheless, the burden of some of the leading CMNNDs continues to be very high, especially in the lowest ETL states. This comprehensive mapping of inequalities in disease burden and its causes across the states of India can be a crucial input for more specific health planning for each state as is envisioned by the Government of India's premier think tank, the National Institution for Transforming India, and the National Health Policy 2017. Funding Bill & Melinda Gates Foundation; Indian Council of Medical Research, Department of Health Research, Ministry of Health and Family Welfare, Government of India; and World Bank
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            Malaria eradication within a generation: ambitious, achievable, and necessary

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              Burden of malaria in India: retrospective and prospective view.

              In India, nine Anopheline vectors are involved in transmitting malaria in diverse geo-ecological paradigms. About 2 million confirmed malaria cases and 1,000 deaths are reported annually, although 15 million cases and 20,000 deaths are estimated by WHO South East Asia Regional Office. India contributes 77% of the total malaria in Southeast Asia. Multi-organ involvement/dysfunction is reported in both Plasmodium falciparum and P. vivax cases. Most of the malaria burden is borne by economically productive ages. The states inhabited by ethnic tribes are entrenched with stable malaria, particularly P. falciparum with growing drug resistance. The profound impact of complicated malaria in pregnancy includes anemia, abortions, low birth weight in neonates, still births, and maternal mortality. Retrospective analysis of burden of malaria showed that disability adjusted life years lost due to malaria were 1.86 million years. Cost-benefit analysis suggests that each Rupee invested by the National Malaria Control Program pays a rich dividend of 19.7 Rupees.
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                Author and article information

                Journal
                BMJ Glob Health
                BMJ Glob Health
                bmjgh
                bmjgh
                BMJ Global Health
                BMJ Publishing Group (BMA House, Tavistock Square, London, WC1H 9JR )
                2059-7908
                2020
                30 December 2020
                : 5
                : 12
                : e004198
                Affiliations
                [1 ]departmentDivision of Epidemiology and Communicable Diseases , Indian Council of Medical Research , New Delhi, India
                [2 ]National Institute of Malaria Research , New Delhi, India
                [3 ]International Centre For Genetic Engineering and Biotechnology , New Delhi, India
                Author notes
                [Correspondence to ] Dr Amit Sharma; directornimr@ 123456gmail.com
                Author information
                http://orcid.org/0000-0002-3305-0034
                Article
                bmjgh-2020-004198
                10.1136/bmjgh-2020-004198
                7780526
                33380414
                c932af57-a339-43b8-83a0-e50c52346752
                © Author(s) (or their employer(s)) 2020. Re-use permitted under CC BY-NC. No commercial re-use. See rights and permissions. Published by BMJ.

                This is an open access article distributed in accordance with the Creative Commons Attribution Non Commercial (CC BY-NC 4.0) license, which permits others to distribute, remix, adapt, build upon this work non-commercially, and license their derivative works on different terms, provided the original work is properly cited, appropriate credit is given, any changes made indicated, and the use is non-commercial. See:  http://creativecommons.org/licenses/by-nc/4.0/.

                History
                : 14 October 2020
                : 05 December 2020
                : 09 December 2020
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