Bull World Health Organ 2020;98:747–753 | doi: http://dx.doi.org/10.2471/BLT.19.249565 Research 747 Introduction Under the thirteenth general programme of work and the triple billion targets,1 the World Health Organization (WHO) aims to increase the number of people benefitting from universal health coverage (UHC) by one billion between 2019 and 2023. Central to this effort is the expansion and improvement of pri- mary health-care services.2,3 Progress in achieving UHC can be analysed using the WHO and World Bank’s UHC monitoring framework,4,5 but this requires adaptation to local contexts to en- sure health reforms keep pace with targets. Health programmes in India,6 as well as the national health policy7 and flagship Ay- ushman Bharat scheme,8 are being evaluated in relation to the aims of UHC; various efforts are currently underway at both a national9 and state level, notably in Haryana10 and Tamil Nadu.11 According to National Sample Survey estimates from 2017–2018, morbidity levels in the southern state of Kerala are reportedly four times the national average with disparities by sex and place of residence.12 Although the state has made gains in maternal and child health,13 it must sustain these gains while addressing the substantial and growing burden of hypertension, diabetes14 and cancer;15 vaccine-preventable diseases;16,17 and emerging viral infections such as Nipah virus18 and severe acute respiratory syndrome coronavirus 2 (SARS- CoV-2).19–21 Kerala has been subject to unregulated privatiza- tion and cost escalation,22 resulting in persistent inequalities in service access and health attainment between population subgroups.13 In 2016, the Government of Kerala announced Aardram, a programme of transformation of existing primary health centres to family health centres;23 with increased staff- ing, these family health centres provide access to a greater number of services over longer opening hours compared with the original primary health centres. Apart from the WHO’s monitoring framework,24 many countries have done UHC and primary health centre monitor- ing exercises25,26 alongside independent exercises such as the Primary Health Care Performance Initiative.27 However, most of these frameworks are intended for global comparison or decision-making at national levels. The argument for tracking health reforms is clear, but such a monitoring process must be specific to Kerala and local decision-making, while also complying with national and global reporting requirements. Periodic household surveys offer population-level data, but are not frequent enough to inform ongoing implementation decisions. Routinely collected and disaggregated health system data are vital,28 but are often marred by quality issues as well as technological and operational constraints.29 We began a 5-year implementation research study assess- ing equity in UHC reforms in January 2018. In our first two phases we aimed to develop a conceptual framework and a health outcome indicator shortlist, followed by validation of these indicators using data from both health facilities and a population-based household survey. We report on the field- testing and triangulation components of this implementation research project, which took place during 2018 and 2019.30 We reflect on early lessons from the field-testing and triangulation and, drawing broadly from Ostrom’s institutional analysis and development framework,31 we emphasize how monitoring can support learning health systems.32,33 We also discuss how the monitoring of UHC progress requires a flexible approach that is tailored to the local political economy.34–36 Objective To develop a primary health-care monitoring framework and health outcome indicator list, and field-test and triangulate indicators designed to assess health reforms in Kerala, India, 2018–2019. Methods We used a modified Delphi technique to develop a 23-item indicator list to monitor primary health care. We used a multistage cluster random sampling technique to select one district from each of four district clusters, and then select both a family and a primary health centre from each of the four districts. We field-tested and triangulated the indicators using facility data and a population-based household survey. Findings Our data revealed similarities between facility and survey data for some indicators (e.g. low birth weight and pre-check services), but differences for others (e.g. acute diarrhoeal diseases in children younger than 5 years and blood pressure screening). We made four critical observations: (i) data are available at the facility level but in varying formats; (ii) established global indicators may not always be useful in local monitoring; (iii) operational definitions must be refined; and (iv) triangulation and feedback from the field is vital. Conclusion We observe that, while data can be used to develop indices of progress, interpretation of these indicators requires great care. In the attainment of universal health coverage, we consider that our observations of the utility of certain health indicators will provide valuable insights for practitioners and supervisors in the development of a primary health-care monitoring mechanism. a The George Institute for Global Health, 311–312, Third Floor, Elegance Tower, Plot No. 8, Jasola District Centre, New Delhi 110025, India. b Baltimore, United States of America. c ACCESS Health International, New Delhi, India. d Health Systems Transformation Platform, New Delhi, India. Correspondence to Devaki Nambiar (email: devaki.nambiar@ gmail .com). (Submitted: 16 December 2019 – Revised version received: 18 June 2020 – Accepted: 23 June 2020 – Published online: 27 August 2020 ) Field-testing of primary health-care indicators, India Devaki Nambiar,a Hari Sankar,a Jyotsna Negi,b Arun Nairc & Rajeev Sadanandand 748 Bull World Health Organ 2020;98:747–753| doi: http://dx.doi.org/10.2471/BLT.19.249565 Research Field-testing of health-care indicators, India Devaki Nambiar et al. Methods Study design We began with a policy scoping exercise for the state of Kerala in 2018. We then created an 812-indicator longlist from existing primary health-care monitor- ing inventories,9,37–40 and undertook an extensive data source and mapping exercise, adapting a process previously conducted in the region.41 We applied a modified Delphi process in two rounds, consulting key health system stakehold- ers of the state (frontline health workers, primary care doctors, public health ex- perts and policymakers), and obtained a shortlist of 23 indicators (available in the data repository).42 We then field-tested and triangulated some of the indicators using facility-based data (phases 1 and 2) and a population-based household survey (phase 2). Phase 1: facility data collection In phase 1 (December 2018) we selected three family health centres in coastal, hilly and tribal districts (Trivandrum, Idukki and Wayanad, respectively) of the state. We communicated the definitions and logic of the indicators to facility staff, and studied their data-recording methods to synergize our processes with theirs. From these initial steps, we pre- pared a structured data collection tem- plate (available in the data repository)43 that we provided to the three family health centres. Phase 2: facility data collection Based on inputs from phase 1 and a second round of consultations with state-level programme officers, we re- fined the indicator list. In phase 2 (June– October 2019), we used a multistage random cluster sampling technique to generate data related to the indicators at the population and facility level. We applied principal component analysis using Stata version 12 (StataCorp, Col- lege Station, United States of America) to data from the latest National Fam- ily Health Survey (2015–2016)44 to categorize districts into one of four clusters according to health burden and systems performance. Using an open- source list randomizer from random. org, we randomly selected one district from each of the four clusters, and then randomly selected both a primary and a family health centre from each of the four selected districts. The people served by these eight health facilities were the population of interest in our study. We held on-site meetings with the staff of the eight health facilities and pro- vided them with Excel-based templates (Microsoft Corporation, Redmond, United States of America) to input data for the financial year March 2018– April 2019 (data repository).43 Data were sourced from manual registers maintained at facilities. In addition to off-site coordination, we also provided data-entry on-site support to the health staff, visiting each facility at least four times between May and December 2019. We compiled data from the facilities to obtain annual estimates for all health outcome indicators using Excel. Phase 2: household survey Our sample size estimation was based on the proportion of men and women eli- gible for blood pressure screening under the national primary care noncommuni- cable disease programme, that is, those aged 30 years or older. We estimated a sample size using routine data reported by the noncommunicable disease divi- sion of the Kerala Health and Family Welfare Department (2018–2019), aim- ing at a precision of 8% at a 95% confi- dence interval (CI), with a conservative design effect of 2 (i.e. a doubling of the sample). Health facility catchment areas were grouped by wards, also referred to as primary sampling units. Eligible households within a primary sampling unit had at least one member aged 30 years or older. Individual written informed consent was sought from each participant before administration of the survey. We employed and trained staff to collect data using hand-held electronic tablets with a bilingual (English and Malayalam) survey application. The survey, conducted during June–October 2019, included questions on sociode- mographic parameters, health outcome indicators (e.g. noncommunicable disease risk behaviours and screening; awareness of components of Aardram and family health centre reform) and financial risk protection (e.g. out-of- pocket expenditure). National Family Health Survey (Round IV) state level weights were applied during analysis.44 Triangulation of phase 2 data We compared data on selected indica- tors using Stata and Excel. Since our focus was on how indicators were be- ing understood and reported across facilities, we did not expect indicators to directly correspond between facilities and households, but only to approximate each other. Ethics All components of the study were ap- proved by the Institutional Ethics Com- mittee of the George Institute for Global Health (project numbers 08/2017 and 05/2019). Results We obtained data from 11 health facili- ties in total (seven family health centres and four primary health centres) during phases 1 and 2. During phase 2, we ac- quired facility data on indicators from eight health facilities (four family, four primary) jointly serving a population of 273 002 (Table 1). The household survey was undertaken in the catchment areas of these facilities, and we acquired data from a representative sample of 13 064 individuals in 3234 households (Table 1). We observed both variations be- tween and uniformity in the indicators from health facilities and the household survey (Table 2). In studying these pat- terns, we made four key observations (Box 1). First, the method of reporting our indicators varied between facilities, even although all raw data required to calculate selected indicators were present in manual registers. In the case of indicators related to national pro- grammes (e.g. reproductive, child health and tuberculosis-related indicators), data were uploaded directly to national digital portals without any analysis at the facility level; officers responsible for data compilation and analysis exist only at the district level. Feedback from facil- ity staff included requests for adequate training on new or revised reporting systems, and clarification of their role. This situation may improve with the complete digitization of health records under Kerala’s e-health programme. Our second observation is that there exist two problems with the globally recommended indicators: (i) manual routine data reporting at the facility level may be inadequate to construct the global indicator precisely; and (ii) globally relevant data may not be considered relevant to the periodicity (monthly) or level (facility) of review. From the facility-level data, the cover- 749Bull World Health Organ 2020;98:747–753| doi: http://dx.doi.org/10.2471/BLT.19.249565 Research Field-testing of health-care indicators, IndiaDevaki Nambiar et al. age of antenatal care reported by family health centres was 109.9% (2479/2255); in household surveys, full coverage of antenatal care was observed for 90.9% (85/94) of eligible women (Table 2). Here, antenatal care refers to women aged 15–49 years having a live birth in the past year and receiving four or more antenatal check-ups, at least one tetanus toxoid injection, and iron and folic acid tablets or syrup for at least 100 days as numerator. The coverage rate is calculated from a denominator of the total number of women aged 15–49 years who had a live birth in the past year, which requires retrospective verification of antenatal coverage. How- ever, in some facilities, the antenatal care coverage indicator was calculated using the previous year’s number of deliveries plus 10% as the denominator, and the number of pregnant women who had received antenatal care as the numera- tor. It was therefore not always clear that the data from any particular individual were included in both the numerator and denominator and, with a target as the denominator, coverage could surpass 100%. Practitioners noted the discon- nect between monthly target-based reporting and annual retrospective measurement. Our third observation is that defi- nitions and reporting that reflect actual health-provision patterns require to be standardized; otherwise, discrepancies will be observed between data sets. For example, the indicator for acute diar- rhoeal diseases among children younger than 5 years was 6.7% (912/13 552) according to facility records; however, a prevalence of more than 3 times this percentage (21.6%; 195/900; 95% CI: 18.1–25.2) was reported in the house- hold survey (Table 2). Several chronic care indicators, newly introduced as part of the introduction of family health centres, also showed discrepancies. For instance, the percentage of people screened for blood pressure and blood glucose was 85.9% (5467/6367; 95% CI: 84.5–87.2) and 82.5% (5254/6367; 95% Table 1. Demographic characteristics of sampled population in field-testing of health- care indicators, Kerala, India, 2018–2019 Characteristics Family health centresa Primary health centresa Total Population served by facility 161 317 111 685 273 002 No. male (%) 79 841 (49.5) 54 190 (48.5) 134 031 (49.1) No. female (%) 81 476 (50.5) 57 495 (51.5) 138 971 (50.9) Population of households surveyed in catchment area of facilities 5022 8042 13 064 No. households surveyed 1631 1603 3234 No. of people aged ≥ 30 years (%) 3076 (61.2) 4760 (59.2) 7836 (60.0) No. male (%) 2435 (48.5) 3756 (46.7) 6191 (47.4) No. female (%) 2582 (51.4) 4279 (53.2) 6861 (52.5) No. other (%) 5 (0.1) 7 (0.1) 13 (0.1) Note: Inconsistencies may arise in some values due to rounding. a Data combined from four different family health centres and four different primary health centres during phase 2 of the implementation study. Table 2. Triangulation of health-care indicators between populations served by facilities and from household survey, Kerala, India, 2018–2019 Health-care indicator No. (%) served by facilitya No. (%; 95% CI)b from household surveyc Pregnant mothers who received all recommended types of antenatal care for most recent live birth in the past year (facility: n = 2255; household: n = 94) 2479 (109.9)d 85 (90.9; 84.7–97.1) Children < 5 years with diarrhoea in the past year (facility: n = 13 552; household: n = 900) 912 (6.7) 195 (21.6; 18.1–25.2) Low birth weight among newborns in the past year (facility: n = 2803; household: n = 157) 177 (6.3) 17 (11.0; 2.9–19.1) Pre-check servicee by staff nurse, where available (facility: n = 146 643; household: n = 1152) 98 139 (66.9) 801 (69.5; 59.1–79.9) Blood pressure screening in the past year (facility: n = 273 002; household: n = 6367) 39 081 (14.3)f 5467 (85.9; 84.5–87.2)g Blood glucose screening in the past year (facility: n = 273 002; household: n = 6367) 33 965 (12.4)f 5254 (82.5; 81.0–84.0)g CI: confidence interval. Note: Inconsistencies may arise in some values due to rounding. a The reference period for the facility survey, for which only crude totals reported in registers were available, was April 2018–March 2019. b Note that numbers used to calculate percentages were provided by Stata to 2 decimal places; we have reported these as whole numbers. c Weighted using the Fourth National Family Health Survey, India.44 d Antenatal care data from one family health centre were considered invalid and excluded from analysis. e Includes vital sign assessment and case history recording of patients by a staff nurse in a designated area, which is entered into the e-health portal to be available in real time to the consulting physician. Pre-check coverage is now reported as a daily outpatient tally, and is adjusted for returning patients. f Calculated as number of individuals screened as a proportion of total population served by the facility; age-disaggregated eligible population (≥ 30 years) data were not available. g Data only obtained from individuals aged ≥ 30 years. 750 Bull World Health Organ 2020;98:747–753| doi: http://dx.doi.org/10.2471/BLT.19.249565 Research Field-testing of health-care indicators, India Devaki Nambiar et al. CI: 81.0–84.0), respectively, according to the household survey; however, fa- cility data yielded a screening coverage of 14.3% (39 081/273 002) and 12.4% (33 965/273 002), respectively. These observed discrepancies could be the result of: (i) a large proportion of the population being screened for certain conditions and risk factors in the pri- vate health sector; (ii) the fact that age- disaggregated data are not available at the facility level; and/or (iii) while the national guidelines recommend popu- lation-based screening of all adults aged 30 years and older, Kerala has intro- duced opportunistic screening for blood pressure among all aged 18 years and older. Discrepancies were not observed for all indicators, however; results for low birth weight and pre-check services were similar between the two data sets. Our fourth observation is that such triangulation exercises, as well as obtaining feedback from health workers, programme managers and administra- tors, are vital for accurate assessment of UHC coverage.45 A major problem reported by staff and officials is that health facility data are usually just a tally of patient visits, which is simple to produce, as opposed to the actual number of (potentially repeat) patients receiving care or services. State officials have been encouraging a move towards electronic health records to generate more precise indicators, but adoption and integration of these will only be possible when the technology itself is better aligned to facility-level process flows, requiring user inputs, investment and time. Other issues raised include: the need for appropriate staff (including temporary contractual staff) training in programme guidelines and reporting requirements; the need for clarity in definitions of treatment (e.g. chronic disease patients may be advised to modify lifestyle factors, which would be missed if treatment monitoring included only those prescribed medication); and the availability of free or subsidised tests relevant to disease control that are reflected in monitoring indicators, par- ticularly for chronic care (e.g. glycated haemoglobin tests for diabetes care46) at the primary health centre level. Discussion As already observed in India and other low- and middle-income countries,29 our results indicate that any approach to improving or monitoring the qual- ity of health-care must be adaptable to local methods of data production and reporting, while ensuring that emerging concerns of local staff are considered. Although validity checks are a staple of epidemiological and public health research, such triangulation processes in health systems are infrequent. The Every Newborn-BIRTH study was a triangula- tion of maternal and newborn health- care data in low- and middle-income countries,47 and some smaller-scale primary-care indicator triangulation exercises have been undertaken by In- dia’s National Health Systems Resource Centre.48,49 While there exists a variety of approaches to monitoring primary health-care reforms,30 we consider the most appropriate to be the generation (and modification, if necessary) of indi- cators from routine data, and their trian- gulation with household survey data.49 Increasingly, routine data are being digitized to improve accessibility and interpretation, as is the case in Kerala. Useful considerations when introducing digital health interventions in low- and middle-income countries are intrinsic programme characteristics, human fac- tors, technical factors, the health-care ecosystem and the broader extrinsic eco- system.50 Our observations demonstrate the continuous and complex interplay between these characteristics; the real value of selected indicators may also be determined by how staff understand and interpret them. Our study had several limitations. Our indicator selection using the Delphi method could have undergone addi- tional rounds, but we considered it more important to get the monitoring process underway and reduce the burden on health workers. Some facility-based information could not be acquired due to the additional health department bur- den of flood relief and Nipah outbreak management in the state. Our household survey sample was the population aged 30 years and older, resulting in unders- ampling for other indicators being field- tested (e.g. newborn low birth weight). An increase in sample size could allow a more precise estimation of all indicators. Finally, the reference periods for the fa- cility data and the household survey did not directly overlap; a timed sampling should be undertaken in the future to improve the precision of triangulation. Observing the utility of indicators in practice is a key first step in the move towards UHC, requiring investment and commitment. Using indicators, standards and other forms of technol- ogy, which are easy to adopt, can be problematic because we amplify certain aspects of the world while reducing oth- ers.51 Our examination of family health centre reforms cautions that, while data can be used to develop indices of prog- ress, interpretation of these indicators requires great care precisely because of the way they are related to powerful deci- sions around what constitutes success or failure, who will receive recognition or admonition and, ultimately, the legacy of Aardram reforms. We anticipate that our observations will contribute to health- care reforms in low- and middle-income countries, such as the use of field trian- gulation to enhance the accountability and relevance of global health metrics.36 If such activities are carried out in con- structive partnerships with state stake- holders and do not introduce unfeasible costs to the system, they may contribute to a sustained and reflexive monitoring process along the path to UHC. ■ Acknowledgements We thank the Department of Health and Family Welfare, Government of Kerala, the State Health Systems Resource Cen- tre, Kerala and the Aardram task force. DN is affiliated to the Faculty of Medi- Box 1. Four observations from field-testing and triangulating health-care indicators, Kerala, India, 2018–2019 Observation 1: Data are available at the facility level, but in varying formats and platforms meant for different purposes; digitization may improve this situation. Observation 2: Established global indicators may not be useful or interpreted as intended in a local context, and may need to be adapted. Observation 3: Operational definitions, thresholds for interpretation and processes of routine data collection must be refined for older indicators and developed for newly introduced indicators. Observation 4: Triangulation and feedback from the field level, with qualitative input from local actors, remains vital, particularly for chronic diseases. Note: Tested indicators are given in Table 2. 751Bull World Health Organ 2020;98:747–753| doi: http://dx.doi.org/10.2471/BLT.19.249565 Research Field-testing of health-care indicators, IndiaDevaki Nambiar et al. cine, University of New South Wales, Australia and the Prasanna School of Public Health, Manipal Academy of Higher Education, India. Funding: This work was supported by the Wellcome Trust/Department of Biotech- nology (DBT) India Alliance Fellowship (grant number IA/CPHI/16/1/502653) awarded to DN. Competing interests: None declared. 摘要 印度:初级卫生保健指标的实地测试 目的 制定初级卫生保健监测框架并生成卫生成效指标 列表,以及用于评估 2018-2019 年印度喀拉拉邦卫生 改革的实地测试和三角指标。 方法 我们采用改良的德尔菲法 (Delphi) 制定了 23 项 指标列表,以监测初级卫生保健。我们使用多阶段群 集随机抽样技术,从四个地区群集中分别选取一个地 区,然后从这四个地区再分别选取一个家庭和一个初 级卫生中心。我们利用机构数据和基于人口的家庭调 查对指标进行了实地测试和三角剖分。 结果 我们数据显示,在某些指标(例如低出生体重儿 和预检服务)方面,机构和调查数据存在相似性,但 在其他指标(如 5 岁以下儿童急性腹泻和血压筛查) 却存在差异。我们提出四个关键点 (i) 在机构层面可 以获得数据,但格式不同 ;(ii) 既定的全球指标对本 地监测并非一直有用 ;(iii) 须完善操作定义 ;(iv) 来自 实地的三角剖分和反馈至关重要。 结论 我们发现,虽然可以利用数据来制定进度指标, 但对这些指标的解释需要非常谨慎。为实现全民健康 覆盖,我们认为,我们针对某些卫生指标效用的观察 对从医人员和监督员设立初级卫生保健监测机制非常 有价值。 Résumé Indicateurs de soins de santé primaires testés sur le terrain en Inde Objectif Mettre au point un cadre de suivi des soins de santé primaires ainsi qu'une liste d'indicateurs de résultats en santé. Tester sur le terrain et recouper les indicateurs conçus pour évaluer les réformes sanitaires dans le Kerala, en Inde, en 2018 et 2019. Méthodes Nous avons utilisé une méthode de Delphes modifiée pour élaborer une liste de 23 indicateurs destinés à surveiller les soins de santé primaires. Nous avons eu recours à une technique d'échantillonnage aléatoire en grappes à plusieurs degrés pour sélectionner un district dans chacun des quatre groupes de districts, puis pour choisir à la fois un centre de médecine familiale et un centre de soins de santé primaires dans chacun des quatre districts. Nous avons testé les indicateurs sur le terrain et les avons recoupés à l'aide des données des établissements, ainsi que d'une enquête de population réalisée auprès des ménages. Résultats Nos données ont montré des similarités entre les données des établissements et celles de l'enquête dans le cas de certains indicateurs (tels que l'insuffisance pondérale à la naissance et les services de vérification des antécédents). Néanmoins, d'autres indicateurs ont affiché des divergences (notamment au niveau des maladies diarrhéiques aiguës chez les enfants de moins de 5 ans et du dépistage de l'hypertension artérielle). Nous avons formulé quatre observations critiques: (i) les données sont disponibles au sein des établissements, mais sous différents formats; (ii) les indicateurs mondiaux prédéterminés se révèlent parfois inutiles dans le cadre d'un suivi à l'échelle locale; (iii) les définitions opérationnelles doivent être affinées; et enfin, (iv) il est indispensable de procéder à un recoupement des informations et de récolter les avis sur le terrain. Conclusion Nous avons constaté que, même si les données peuvent être exploitées pour mettre au point des indices de progrès, interpréter ces indicateurs requiert beaucoup d'attention. En vue d'instaurer une couverture maladie universelle, nous estimons que nos observations relatives à l'utilité de certains indicateurs de santé fourniront des renseignements précieux aux praticiens et aux superviseurs dans le développement d'un mécanisme de suivi des soins de santé primaires. صخلم دنلها ،ةيلولأا ةيحصلا ةيطغتلا تاشرؤلم نياديلما رابتخلاا ةمئاقو ،ةيلولأا ةيحصلا ةياعرلا دصرل راطإ عضو ضرغلا ةيثلاث تاشرؤمو ،نياديم رابتخاو ،ةيحصلا جئاتنلا تاشرؤم دنلها في ،لاايرك ةيلاو في ةيحصلا تاحلاصلإا مييقتل ةممصم .2019و 2018 ةترفلا ةمئاق ريوطتل لدعم Delphi بولسأ انمدختسا ةقيرطلا .ةيلولأا ةيحصلا ةياعرلا دصرل اًصرنع 23 نم ةنوكم تاشرؤم ةقطنم رايتخلا لحارلما ةددعتم اًيئاوشع اًيدوقنع اًبولسأ انمدختسا اًزكرمو ةسرأ انترخا مث ،قطانملل تاعوممج عبرأ لك نم ةدحاو رابتخاب انمق .عـبرلأا قطانلما نم ةقطنم لك نم اًيلوأ اًيحص تانايب مادختساب ،يثلاث لكشب اهميسقتو اًيناديم تاشرؤلما .ةسرلأا ىوتسم لىع ناكسلل حسمو ،قفرلما تانايبو قفرلما ينب هباشت هجوأ نع انتانايب تفشك جئاتنلا ةدلاولا دنع نزوـلا ضافخنا لثم) تاشرؤـ لما ضعبل حسلما نيرخلآل ةبسنلاب تافلاتخلاا نكلو ،(قبسلما صحفلا تامدخو مهرماعأ لقت نيذلا لافطلأا ىدل دالحا لاهسلإا ضارمأ لثم) تاظحلام عبرأ انمدق دقل .(مدلا طغض صحفو تاونس 5 نع لاكشأب نكلو قفرلما ىوتسم لىع تانايبلا رفوتت (1) ةمساح في ًمائاد ةديفم ةخسارلا ةيلماعلا تاشرؤلما نوكت لا دق (2)و ؛ةفلتمخ برتعي (4)و ؛ةيليغشتلا تافيرعتلا حيقنت بيج (3)و ؛ليحلما دصرلا .يويح رمأ ناديلما نم تاقيلعتلاو يثلاثلا ميسقتلا عضول تانايبلا مادختسا نكمي مانيب هنأ ظحلان نحن جاتنتسلاا .ةيربك ةيانع بلطتي تاشرؤلما هذه يرسفت نإف ،مدقتلل تاشرؤم نأ برتعن نحن ،ةلماشلا ةيحصلا ةيطغتلا قيقحتل يعسلا ليبس في رفوتس ،ةددحلما ةيحصلا تاشرؤلما ضعب ةدئاف لوح انتاظحلام ةياعرلا دصرل ةيلآ عضو في ينفشرلماو ينسرماملل ةميق تاذ اًراكفأ .ةيلولأا ةيحصلا 752 Bull World Health Organ 2020;98:747–753| doi: http://dx.doi.org/10.2471/BLT.19.249565 Research Field-testing of health-care indicators, India Devaki Nambiar et al. Резюме Тестирование показателей первичной медико-санитарной помощи на местах, Индия Цель Разработать систему мониторинга первичной медико- санитарной помощи и перечень показателей конечных результатов в отношении здоровья, а также провести тестирование на местах и всесторонне рассмотреть показатели, предназначенные для оценки реформ здравоохранения в штате Керала, Индия, в 2018–2019 гг. Методы Авторы использовали модифицированный «дельфийский» метод для разработки перечня показателей, состоящего из 23 пунктов, с помощью которого осуществлялся мониторинг первичной медико-санитарной помощи. Авторы использовали метод многоступенчатой кластерной случайной выборки, чтобы отобрать один район в каждом из четырех районных кластеров, а затем таким же образом выбирали семью и центр первичной медико-санитарной помощи в каждом из четырех районов. Авторы испытали на местах и всесторонне оценили показатели с использованием данных учреждений и анкетирования домохозяйств на уровне популяции. Результаты Полученные данные выявили сходство между данными учреждений и данными анкетирования по одним показателям (например, низкая масса тела при рождении и услуги предварительной проверки), но различия по другим показателям (например, острые диарейные болезни у детей младше 5 лет и скрининг артериального давления). Авторы составили четыре важных замечания: (i) данные доступны на уровне учреждения, но в различных форматах; (ii) определенные глобальные показатели не всегда могут использоваться для местного мониторинга; (iii) практические определения требуют уточнения; (iv) всестороннее рассмотрение и обратная связь с мест критически важны. Вывод Наблюдения говорят о том, что, хотя данные можно использовать для разработки индексов прогресса, интерпретация этих показателей требует большой осторожности. В достижении всеобщего охвата услугами здравоохранения авторы считают, что их наблюдения о полезности определенных показателей здоровья дадут ценную информацию для практикующих врачей и руководителей при разработке механизма мониторинга первичной медико-санитарной помощи. Resumen Ensayo de campo de los indicadores de atención primaria de salud en la India Objetivo Elaborar un marco de supervisión de la atención primaria de salud y una lista de indicadores sobre los resultados en la salud, así como realizar ensayos de campo y triangular los indicadores previstos para evaluar las reformas sanitarias en Kerala, India, 2018-2019. Métodos Se aplicó un método Delphi modificado para elaborar una lista de indicadores que incluye 23 elementos para supervisar la atención primaria de salud. Además, se empleó una técnica de muestreo aleatorio por conglomerados de etapas múltiples para seleccionar un distrito de cada uno de los cuatro conglomerados de distritos y, a continuación, se seleccionó una familia y un centro de atención primaria de cada uno de los cuatro distritos. Se realizaron ensayos de campo y se triangularon los indicadores mediante el uso de datos de los centros y una encuesta domiciliaria basada en la población. Resultados Los datos obtenidos revelaron similitudes entre los datos de los centros y los de las encuestas para algunos indicadores (por ejemplo, el peso bajo al nacer y los servicios de control previo), así como diferencias para otros (por ejemplo, las enfermedades diarreicas agudas en niños menores de 5 años y la evaluación de la presión arterial). 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