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International Journal of Environmental Research and Public Health logoLink to International Journal of Environmental Research and Public Health
. 2022 Nov 7;19(21):14618. doi: 10.3390/ijerph192114618

Influence of Selected Indicators of Healthcare System Functioning Evaluation on the Health Result

Olga Partyka 1,*, Monika Pajewska 2, Aleksandra Czerw 1,2, Katarzyna Sygit 3, Kamila Kmieć 3, Oleh Lyubinets 4, Mateusz Niemiec 5, Mateusz Kaczmarski 5, Izabela Gąska 5, Grzegorz Juszczyk 6, Edyta Krzych-Fałta 7, Tomasz Banaś 8,9, Dariusz A Kosior 10,11, Andrzej Deptała 12, Artur Kotwas 13, Ewa Bandurska 14, Weronika Ciećko 14, Elżbieta Cipora 5
Editor: Antonella Agodi
PMCID: PMC9656549  PMID: 36361499

Abstract

Background: According to the World Health Organization’s statistics, 7 of the 10 main causes of death in 2019 were noncommunicable diseases. Health indicators are measures used to evaluate public health system effectiveness and functioning. Monitoring mortality rates from leading causes, life expectancy and other health indicators is essential to address their causes and adapt health systems to react adequately. The aim of this study is to present the dependencies of selected health care indicators and health outcomes. Methods: Based on the literature review conducted, selected health indicators, along with healthcare system data, were analyzed using Pearson’s r correlation. The analyses included data from the Organization for Economic Cooperation and Development (OECD) presented in statistics and the Health at a Glance 2021 report and data collected as part of the preparation of the Financing Global Health 2020 report by the Institute for Health Metrics and Evaluation. Results: Health system resources are linked to health outcomes. The number of medical consultations, the number of nurses per patient or the level of financing of services under general health insurance are related to life expectancy and deaths due to causes that could have been avoided or treated. Conclusions: Life expectancy is positively correlated with access to general health insurance and public expenditure on healthcare. There is a need for all countries to provide their citizens with broad access to healthcare services.

Keywords: healthcare indicators, public health, healthcare public health

1. Introduction

According to the World Health Organization’s (WHO) Global Health Estimates, the main causes of death are cardiovascular diseases (among which ischemic heart disease and stroke are leading), respiratory infections, cancers and diabetes [1]. In 2019, noncommunicable diseases accounted for 74% of deaths worldwide [1]. Measuring the state of health requires the use of different levels of measurements. Health indicators are measures used to evaluate public health system effectiveness and its functioning [2]. Monitoring mortality rates from leading causes, life expectancy and other health indicators is essential to address their causes and adapt health systems to prevent excess mortality and improve populations’ health status [2,3].

Healthcare public health (HCPH) is one of the three main pillars of public health, alongside health improvement and protection [4,5]. Timely and effective care can significantly contribute to improving the health of the population. The potential of healthcare to improve the health of the population depends on its availability, funding and resources. The HCPH components include: focus on the population (by assessing the health needs of the population in specific areas, the population that is able to benefit from a given service must be determined); evidence-based activities (independent interpretation of published evidence, available data or other relevant sources of knowledge); making decisions based on evidence and values to ensure equitable access to effective, safe, patient-centered care; providing advice and support in the monitoring and evaluation of observed changes after the implementation of a given service; cooperation with the payer and other system institutions to best meet the health needs of the population; and cross-industry and partnership cooperation, including with the private sector to develop HCPH services [5].

Studies demonstrate that indicators of current health status give representations of ongoing processes within the population, therefore enabling future public health interventions [2]. Health systems integration is identified as a crucial component of health system reform with the goal of improving health outcomes [6,7].

In the study by Tejada et al. based on data from 127 countries, the correlation between macroeconomic indicators, public health expenditure and child mortality rates was found [8]. In the study by Owusu et al., where the data from 177 countries were analyzed, the authors achieved similar results: increasing public health expenditure significantly improves maternal and infant mortality rates worldwide, especially in lower income countries [9].

The aim of this study is to present the dependencies of selected health care indicators and health outcomes as an introduction to further analysis of the relationship between systemic and organizational health care factors and health outcomes for the better planning of health care public health services.

2. Materials and Methods

In August 2022, a literature review was conducted in order to select the most relevant health indicators. The following queries and keywords were used: “public health” AND “indicators” AND “mortality” AND “disease” AND “financing” AND ‘rates’ AND ‘economy’. The PubMed database was used and search for the grey literature was also performed. The analyses included data from the Organization for Economic Cooperation and Development (OECD) presented in the statistics and the Health at a Glance 2021 report and data collected as part of the preparation of the Financing Global Health 2020 report by the Institute for Health Metrics and Evaluation for reporting countries (Czech Republic, Luxembourg, Norway, Greece, Sweden, Denmark, France, Canada, Australia, Lithuania, Switzerland, Latvia, Spain, Iceland, U.S.A., Canada, Hungary, Estonia, Germany, Austria, Slovenia, Japan Portugal, Ireland, Belgium, The Netherlands, Slovakia, Turkey, Russia, Italy, Finland, UK and Poland) [10]. High-income countries were chosen based on the diversity of the functioning healthcare model and data availability for the selected indicators. For those countries, indicators of access to public health services, financing of the healthcare systems and population health were obtained.

Then, an analysis of the correlation between the values of the selected healthcare public health indicators and the values of the population’s health indicators was performed using Pearson’s r correlation. The strength of the correlation was interpreted according to the guidelines presented by Mukaka M.M. [11]. The results of the analysis made it possible to demonstrate the correlation between the analyzed indicators and the health result. The selected indicators of the health status of the population (such as life expectancy, deaths from preventable causes and excess deaths) were adopted as the health outcome resulting from the functioning of the health care system.

3. Results

Table 1 presents the selected indicators by country and Table 2 shows the selected indicators of the health of the populations in the high-income countries chosen for analysis.

Table 1.

Selected indicators of the health care system in OECD countries (last available data).

Country % Services Financed under General Health Insurance % Hospital Services Financed under General Health Insurance % Private Expenditure on Drugs and Medical Devices in Household Budgets Number of Medical Consultations per 1 Person Number of Consultations per 1 Doctor Number of Imaging Diagnostic Devices—PET, MRI and CT per 1 mln of Population Number of PET, MRI and CT Examinations per 1000 of Population Number of Doctors per 1000 People Number of Nurses per 1000 People
Norway 86 99 36 4.4 886 44.9 205 5.0 17.88
Germany 85 97 36 9.8 2230 71.4 292 4.4 13.95
France 84 96 26 5.9 1880 36.0 332 3.2 11.07
Denmark 83 90 39 4.0 977 48.9 285 4.2 10.10
The Netherlands 83 91 39 8.8 2369 33.2 177 3.7 10.69
Slovakia 80 86 65 11.1 3112 28.8 236 3.6 5.74
Belgium 77 77 28 7.3 2308 38.5 313 3.2 11.07
Austria 75 88 36 6.6 1241 56.4 349 5.3 10.37
Estonia 74 98 40 5.5 1585 35.4 188 3.5 6.24
Italy 74 96 38 10.4 2567 70.2 178 4.1 6.16
Poland 72 93 69 7.7 3197 28.3 144 2.4 5.10
Spain 71 88 53 7.3 2369 38.6 228 4.4 5.89
Canada 70 91 47 6.6 2412 26.2 210 2.7 9.98
Hungary 68 90 50 10.7 3063 15.3 242 3.5 6.62
Australia 67 62 48 7.3 1908 88.3 196 3.8 12.22
Switzerland 67 84 18 4.3 1001 67.6 208 4.4 17.96
Litwa 66 91 52 9.5 2079 41.2 200 4.6 7.74
Latvia 61 87 49 6.1 1867 53.8 254 3.3 4.39
Greece 60 65 37 3.2 519 75.7 285 6.2 3.38
Czechia 82 94 57 8.2 2016 28.4 180 4.1 8.56
Luxembourg 85 93 38 5.5 1910 32.3 319 3.0 11.72
Sweden 85 99 45 2.6 625 45.1 - 4.3 10.85
Lithuania 66 91 52 9.5 2079 41.2 200 4.6 7.74
Iceland 83 99 42 - - 69.3 340 3.9 15.36
United States - - - - - 90.8 413 2.6 11.98
Portugal 61 79 32 - - 29.6 270 5.3 7.08
Ireland 75 72 29 5.8 1749 38.2 - 3.9 12.88
Turkey - - - 9.8 5033 27.3 - 2.0 2.40
Russia 61 74 - 9.9 2381 19.0 - 4.2 8.48
Finland 78 94 41 4.4 - 48.4 121 3.2 14.26
United Kingdom 79 93 43 - - 16.5 175 3.0 8.20
Slovenia 73 87 47 6.7 2054 32.1 164 3.3 10.28
Japan 84 92 54 12.5 5011 171.3 - 2.5 11.76

- data unavailable.

Table 2.

Selected demographic indicators in OECD countries (last available data).

Country Life Expectancy Excess Deaths (Deaths in 2020—Compared to Average in 2015–2019) Deaths from Preventable Causes per 100,000 People (Age-Standardized Indicator) Deaths from Treatable Causes per 100,000 People (Age-Standardized Indicator)
Norway 83.0 −1 98 47
Germany 81.4 7 113 62
France 82.9 11 105 48
Denmark 81.5 2 112 55
The Netherlands 82.2 12 96 49
Slovakia 77.8 12 193 129
Belgium 82.1 15 119 54
Austria 82.0 11 115 55
Estonia 78.8 5 183 98
Italy 83.6 17 84 52
Poland 78.0 22 169 99
Spain 83.9 18 90 51
Canada 82.1 9 116 56
Hungary 76.4 10 243 131
Australia 83.0 −3 93 46
Switzerland 84.0 12 83 39
Lithuania 76.4 14 226 138
Latvia 75.5 5 256 149
Greece 81.7 11 110 69
Czechia 79.3 17 144 90
Luxembourg 82.7 5 41 56
Sweden 83.2 5 91 49
Lithuania 76.4 14 226 138
Iceland 83.2 - 81 45
United States 78.9 20 177 88
Portugal 81.8 14 109 64
Ireland 82.8 - 107 65
Turkey 78.6 - 116 100
Russia 73.2 - - -
Finland 82.1 4 122 54
United Kingdom 81.4 13 119 69
Slovenia 81.6 20 131 54
Japan 84.4 - 83 47

- data unavailable.

Table 3 shows the Pearson’s r correlation coefficients between selected indicators of the healthcare system functioning evaluation and the indicators of the health of the population. Statistically significant correlations are shown in bold.

Table 3.

Correlation coefficients between the indicators of access to health services and the indicators of the health of the population.

Indicators of the Healthcare Public Health Functioning Evaluation Selected Indicators of the Health of the Population
Life Expectancy Excess Deaths Deaths from Preventable Causes Deaths from Treatable Causes
% services financed under general health insurance 0.527 ** −0.471 ** −0.405 * −0.442 **
% hospital services financed under general health insurance 0.300 * −0.335 * −0.086 −0.118
% private expenditure on drugs and medical devices in household budgets −0.665 ** 0.366 * 0.535 ** 0.595 **
Number of medical consultations per 1 person −0.001 −0.186 0.038 −0.020
Number of consultations per 1 doctor 0.029 −0.133 −0.020 −0.022
Number of doctors per 1000 people 0.581 ** −0.282 * −0.143 −0.226
Number of nurses per 1000 people 0.620 ** −0.522 ** −0.400 ** −0.593 **
Number of imaging diagnostic devices—PET, MRI and CT 0.433 ** −0.348 * −0.248 −0.365 *
Number of PET, MRI and CT examinations 0.102 −0.176 −0.081 −0.112

* p < 0.05; ** p < 0.01; analyses were conducted for countries with available data for selected indicator.

The percentage of services financed under general health insurance correlated positively with life expectancy (r = 0.527; p < 0.01) and negatively with the number of excess deaths (r = −0.471; p < 0.01), the number of deaths from preventable causes (r = −0.405; p < 0.05) and the number of deaths from treatable causes (r = −0.442; p < 0.01).

Hospital services financed under general health insurance, expressed as a percent-age, correlated positively with life expectancy (r = 0.300; p < 0.05) and negatively with the number of excess deaths (r = −0.335; p < 0.05).

The above analyses showed that the percentage of expenditure on drugs and medical devices in household budgets correlated negatively with life expectancy (r = −0.665; p < 0.01) and with the number of excess deaths (r = 0.366, p < 0.05), the number of deaths from preventable causes (r = 0.535; p < 0.01) and the number of deaths from treatable causes (r = 0.595; p < 0.01).

A positive correlation was found between the percentage of expenditure on outpatient services in home budgets and life expectancy (r = 0.403; p < 0.05) and a negative correlation was found with deaths from treatable causes (r = −0.318; p < 0.05).

The percentage of private expenditure on long-term care in home budgets correlated positively with life expectancy (r = 0.482; p < 0.01) and negatively with the number of deaths from preventable causes (r = −0.421; p < 0.05) and with the number of deaths from treatable causes (r = −0.449; p < 0.01).

The number of doctors per 1000 people correlated positively with life expectancy (r = 0.581; p < 0.01). It was also shown that more frequent medical consultations led to a re-duction in the number of excess deaths (r = −0.282; p < 0.05).

The number of modern diagnostic imaging devices correlated positively with life expectancy (r = 0.433; p < 0.01) and negatively with the number of excess deaths (r = −0.348; p < 0.05) and the number of deaths from treatable causes (r = −0.365; p < 0.05).

The number of nurses per 1000 people correlated positively with life expectancy (r = 0.620; p < 0.01) and negatively with the number of excess deaths (r = −0.522; p < 0.01), the number of deaths from preventable causes (r = −0.400; p < 0.01) and the number of deaths from treatable causes (r = −0.593; p < 0.01).

Statistically significant mean positive correlations were found between all public health system financing ratios and life expectancy (r = 0.670, p < 0.01, SD = 4.24). The greater the value and share of public expenditure in healthcare expenditure, the longer the expected quality of life. There were also statistically significant negative correlations between all public health funding rates and the number of excess deaths (r = −0.511, p < 0.01).

The negative correlation between public health expenditure per capita and excess deaths was moderate (r = −0.511, p < 0.01). The negative correlations between the share of public health expenditure in total expenditure and public health expenditure as part of GDP and the number of excess deaths (r = −0.433, r = −0.404, p < 0.01) and between all public health funding rates and the myocardial infarction mortality rate were low (r = −0.426, p < 0.01; r = −0.314, p < 0.05; r = −0.436, p < 0.01, M = 6.65). The greater the value and share of public expenditure in healthcare expenditure, the lower the number of deaths.

The value of public expenditure on health care per capita and public expenditure on health care as part of gross product also negatively correlated with the number of deaths from causes that could have been avoided and the number of deaths from causes that could be treated.

The negative correlations between the value of public health expenditure per person and the number of deaths from causes that could have been avoided (r = −0.536, p < 0.01) and the number of deaths from causes that could be treated were moderate (r = −0.685, p < 0.01). The negative correlation between public health expenditure as a part of GDP and the number of deaths from treatable causes was also average (r = −0.595, p < 0.01, M = 73.16) (Table 4).

Table 4.

Correlation coefficients between the public health system funding ratios and population health indicators.

Selected Indicators of the Health of the Population Financing of Public Healthcare Systems
M SD Value of Public Expenditure on Health Care per Capita The Share of Public Expenditure on Health Care in Total Expenditure Public Expenditure on Health Care as Part of GDP
Life expectancy 79.76 4.24 0.670 ** 0.527 ** 0.635 **
Excess deaths 11.28 10.22 −0.511 ** −0.433 ** −0.404 **
Deaths from preventable causes 126.00 48.73 −0.536 ** −0.249 −0.378 *
Deaths from treatable causes 73.16 31.54 −0.685 ** −0.227 −0.595 **

* p < 0.05; ** p < 0.01, M—mean, SD—standard deviation; analyses were conducted for countries with available data.

4. Discussion

Expenditure on healthcare constitutes an important indicator in the evaluation of the healthcare system functioning. The results of the authors’ study show a positive correlation between the percentage of services financed from public funds and life expectancy. According to the research, an increase in funds for healthcare services translates into a better health result and a longer life in health. According to the OECD analysis, an average 10% increase in health expenditure translates into an increase in life expectancy by 3.5 months [10]. A study conducted by Panahi et al. also indicated the positive impact of increased healthcare expenditure on life expectancy [12]. The greater share of publicly financed services also showed a negative correlation with deaths. The death rate decreases with the increase in the share of services financed under general health insurance. The results of the study conducted by Novignon et al. also indicated a negative correlation between expenditure on health services and deaths [13].

The analysis carried out by the authors showed that a high number of doctors and nurses per inhabitant had a positive effect on the health indicators. This position was also confirmed in the study conducted by Pacakova et al. [14]. In turn, in the study conducted by Winkelmann et al., it was emphasized that the differentiation in regional access to doctors, nurses and midwives in European countries is significant [15].

The results of the authors’ study indicate a negative correlation between private expenditure on drugs and medical devices and life expectancy, as well as a positive correlation with deaths. According to OECD data, private expenditure on drugs and pharmaceuticals is the largest group of costs incurred by patients, more than twice as high as private expenditure on medical services. The research indicates a negative impact of the share of out-of-pocket expenditure on health on the economic situation of the population. According to analyses by World Health Statistics, private expenditure on drugs and medical devices constitutes a significant burden on household budgets. This often forces patients to choose between buying drugs or covering the cost of living. Discontinuation of treatment with pharmaceuticals for economic reasons increases the mortality rate and shortens life expectancy. An increased share of expenditure on drugs and pharmaceuticals is observed in the group of elderly people and is often associated with multi-morbidity in people over 60 years of age [16]. Cardiovascular diseases constitute an example, as they are the leading cause of death among non-communicable diseases in the world. Most of the diagnoses in this group are chronic diseases that require constant treatment using pharmaceuticals. Wang et al., indicated that private expenditure on drugs in cardiovascular diseases is the dominant group of OOP costs burdening home budgets [17]. Economically disadvantaged patients are at risk of discontinuing treatment for financial reasons, which may translate into a higher mortality rate due to cardiovascular diseases [18].

Limitations

The authors included data from high-income countries alone, which could be considered as a limitation. Healthcare indicators were chosen by authors based on the relevance; however, this might be considered as limitation, since there are many public health indicators that are considered crucial. Additionally, it is worth mentioning that only linear correlation analysis between the selected indicators was performed. This article is an introduction to an in-depth analysis. Its purpose is not to propose a system for monitoring indicators for the evaluation of the health system functioning.

5. Conclusions

Based on the conducted analyses, it was found that life expectancy is positively correlated with access to general health insurance and public expenditure on healthcare, which indicates the need for all countries to strive to provide their citizens with broad access to healthcare services. The analyses also confirmed that a higher number of doctors and nurses has a positive effect on health results in society and contributes to a reduction in the number of deaths, while insufficient investment in public health measures, including HCPH, increases the incidence and burden of preventable diseases. Limiting the inadequate use of funds, as well as focusing on preventive measures, can contribute to improving the efficiency of expenditure in this sector.

Due to the changing health care system and the evolution of public health areas, it is important to introduce changes to the organization of the system in order to best match health needs. Expenditure on health care is constantly growing; it is a heavy burden for the state budget, and other systemic problems, such as shortages of medical staff, also arise. Healthcare financing requires in-depth analysis and reorganization. The current macroeconomic challenges started in 2020 by the COVID-19 pandemic are also affecting the health care system. This applies to state budgets and private budgets. Increasing financial challenges translate into limitations in access to health services and translate into a worse health result. A significant share of private expenditure on drugs in the structure of household expenditure is an undesirable phenomenon that may lead to the exclusion of people with a worse socio-economic situation.

The above analyses indicate the existence of significant systemic problems in developed countries, which should be addressed in the face of growing challenges in these countries, such as the aging of the population, increasing current expenditure on health services and problems with the replacement of medical staff.

Author Contributions

Conceptualization, O.P., M.P. and A.C.; methodology, K.S. and E.C.; formal analysis, G.J. and E.K.-F.; writing—original draft preparation, O.P., M.N., O.L., M.P. and I.G.; writing—review and editing, W.C., E.B. and T.B.; visualization, K.K. and M.K.; supervision, A.D., A.K. and D.A.K. All authors have read and agreed to the published version of the manuscript.

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

Data available at authors.

Conflicts of Interest

The authors declare no conflict of interest.

Funding Statement

This research received no external funding.

Footnotes

Publisher’s Note: MDPI stays neutral with regard to jurisdictional claims in published maps and institutional affiliations.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Data Availability Statement

Data available at authors.


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