This special focus chapter shows the potential impact of aligning cancer prevention and care across the 27 European Union Member states, Iceland and Norway (EU27+2). The OECD Strategic Public Health Planning (SPHeP) for Non-Communicable Diseases (NCDs) model was used to model the impact of achieving the best risk factor prevalence rates, as well as the best cancer survival rates, observed across the EU27+2. It shows the impact on population health, healthcare expenditure and labour market output.
Tackling the Impact of Cancer on Health, the Economy and Society

7. Special focus: Aligning cancer prevention and care to the best in Europe
Copy link to 7. Special focus: Aligning cancer prevention and care to the best in EuropeAbstract
In Brief
Copy link to In BriefAligning cancer risk factors and survival rates to the best performer in the EU27+2 can each prevent one in five premature cancer deaths
Aligning the risk factor prevalence of all 27 EU Member States (MS), plus Norway and Iceland (EU27+2), to that of the best performing country would prevent around 14% of all cancer cases, avert 19% of premature deaths due to cancer, and save 19% of healthcare expenditure on cancer.
The impact of aligning dietary intake across the EU27+2 has the greatest impact on cancer cases and healthcare expenditure, while aligning tobacco smoking rates has the greatest impact on premature mortality.
One in five premature cancer deaths could be prevented by aligning European survival rates to the best performer, increasing the average life expectancy by 5 months, and increase the workforce output by EUR PPP 2.1 billion in the EU27+2.
However, even if there is no additional expenditure associated with the improved treatment outcomes, healthcare cost will go up as more people survive. Improved survival rates would increase per capita health expenditure by EUR PPP 29 per year on average in the EU27+2. This is a 1.0% increase in overall health expenditure or a total of EUR PPP 13 billion – equivalent to the total annual health budget of the Slovak Republic and Slovenia combined.
This Special Focus chapter explores the potential impact of aligning cancer risk factor prevalence rates and cancer survival rates to the best rates observed across the 27 European Union (EU) Member States (MS), plus Norway and Iceland (EU27+2), for each age and sex group. Rather than predetermined international policy targets, which may or may not be achievable, this approach shows what some countries have achieved and could therefore be a realistic goal for others.
Aligning risk factors to the best rates in the EU27+2 can avert 21% of premature deaths due to cancer
Copy link to Aligning risk factors to the best rates in the EU27+2 can avert 21% of premature deaths due to cancerAchieving the best risk factor rates observed across age and sex groups in the EU27+2 (or across urban, commuting and rural areas for air pollution) has an impact on the average risk factor prevalence in all countries (Table 7.1). This is because no country has the best rates across all age and sex groups (or across urban/commuting/rural areas), leaving room for improvement in all countries. On average, achieving the best risk factor rates in the EU27+2 would reduce obesity prevalence by 4.6 percentage points, tobacco smoking by 12.2 percentage points, average alcohol consumption by 43%, reduce the prevalence of physical inactivity by 15.9 percentage points and PM2.5 air pollution levels by 45%.
Table 7.1. Impact of aligning risk factor rates to the best in the EU27+2
Copy link to Table 7.1. Impact of aligning risk factor rates to the best in the EU27+2
|
Obesity |
Tobacco smoking |
Alcohol use |
Physical inactivity |
Air pollution |
---|---|---|---|---|---|
Percentage point reduction in prevalence |
Percentage point reduction in prevalence |
Percentage reduction in daily consumption |
Percentage point reduction in prevalence |
Percentage reduction in PM2.5 levels |
|
Austria |
1.6 |
15.3 |
38% |
16.2 |
53% |
Belgium |
4.2 |
8.1 |
33% |
24.3 |
51% |
Bulgaria |
3.2 |
18.4 |
45% |
5.2 |
67% |
Cyprus |
5.8 |
18.7 |
25% |
30.1 |
61% |
Czechia |
6.4 |
11.5 |
41% |
12.6 |
59% |
Germany |
4.4 |
11.1 |
40% |
13.8 |
48% |
Denmark |
1.1 |
8.5 |
48% |
12.2 |
42% |
Spain |
7.4 |
11.9 |
48% |
22.2 |
44% |
Estonia |
3.2 |
10.3 |
53% |
2.1 |
2% |
Finland |
3.5 |
5.3 |
50% |
12.9 |
7% |
France |
4.1 |
16.2 |
34% |
25.6 |
50% |
Greece |
5.7 |
20.8 |
44% |
16.1 |
62% |
Croatia |
2.8 |
18.9 |
45% |
8.7 |
59% |
Hungary |
4.5 |
14.4 |
48% |
4.7 |
61% |
Iceland |
7.8 |
9.4 |
40% |
27.4 |
0% |
Ireland |
7.8 |
9.4 |
40% |
27.4 |
28% |
Italy |
4.9 |
9.9 |
11% |
24.9 |
61% |
Lithuania |
7.8 |
13.5 |
61% |
15.7 |
46% |
Luxembourg |
4.2 |
8.6 |
34% |
15.0 |
29% |
Latvia |
5.3 |
18.8 |
47% |
9.1 |
61% |
Malta |
9.8 |
9.4 |
25% |
38.5 |
52% |
Netherlands |
1.1 |
8.0 |
25% |
6.0 |
44% |
Norway |
6.2 |
14.2 |
57% |
7.2 |
19% |
Poland |
6.2 |
14.2 |
57% |
7.2 |
70% |
Portugal |
2.0 |
11.0 |
61% |
27.7 |
24% |
Romania |
2.9 |
14.7 |
57% |
17.9 |
61% |
Slovak Republic |
3.8 |
11.4 |
52% |
8.5 |
62% |
Slovenia |
3.0 |
10.1 |
52% |
3.0 |
61% |
Sweden |
2.1 |
2.5 |
35% |
19.0 |
14% |
EU27+2 average |
4.6 |
12.2 |
43% |
15.9 |
45% |
Note: A 6 percentage point decrease in obesity prevalence is equivalent to 6% less of the population having obesity (e.g. going from 36% to 30% of the population having obesity). The numbers here reflect population averages – but the impact of these risk factors on cancer is also influenced by their distribution across the population, as well as other patterns or exposure (e.g. binge drinking, urban/rural). The impact of diet is not shown as it includes many different elements.
Aligning the risk factor prevalence in all EU27+2 countries to the best performing country would prevent around 14% of all cancer cases, avert around 19% of premature deaths due to cancer, and save around 19% of healthcare expenditure on cancer (Figure 7.1). While diet has most impact on cancer cases and healthcare expenditure, the strong link between tobacco and lung cancer (Figure 7.2), combined with the high case fatality rate of lung cancer, mean that tobacco has the greatest impact on premature mortality. Overall, aligning cancer risk factors to the best rates observed across the EU27+2 primarily prevents colorectal and lung cancer cases.
Figure 7.1. Impact of achieving the best risk factor prevalence in the EU27+2 on cancer cases, mortality and health spending
Copy link to Figure 7.1. Impact of achieving the best risk factor prevalence in the EU27+2 on cancer cases, mortality and health spendingCancer cases prevented (thousands and as a percentage of total), premature cancer deaths avoided (thousands and as a percentage of total), and cancer health expenditure saved (EUR PPP billions and as a percentage of total burden of cancer on health expenditure) if the best risk factor prevalence in the EU27+2 was achieved in all countries, total for the EU27+2 countries combined, per year, average over 2023‑50
Figure 7.2. Aligning cancer risk factors to EU27+2 best practice primarily prevents colorectal and lung cancer cases
Copy link to Figure 7.2. Aligning cancer risk factors to EU27+2 best practice primarily prevents colorectal and lung cancer casesCancer cases prevented by cancer type if policy targets on key cancer risk factors were achieved, total for the EU27+2 countries combined, per year, average over 2023‑50

Note: Graph only shows the number of cancer cases prevented, and not the small increase in other types of cancers as people live longer and are more likely to get other cancers. The total number shown here is therefore higher than the absolute impact on cancer cases presented above. Digestive includes liver, oesophageal, pancreatic, and stomach cancer; head and neck includes lip and oral cavity, larynx, other pharynx, and nasopharynx cancer; and other includes prostate, cervical cancer and malignant skin melanoma.
Source: OECD SPHeP NCDs model, 2024.
Looking at country-specific results, in most countries diet and tobacco are the two risk factors where most impact can be achieved. When it comes to preventing cancer cases (Figure 7.3) and reducing healthcare expenditure on cancer (Figure 7.5), countries with high smoking rates (e.g. Bulgaria, Croatia, Greece, Latvia) see the greatest impact from addressing tobacco, while in other countries diet has a greater impact. However, in almost all countries reducing tobacco smoking has the greatest impact on premature mortality (Figure 7.4).
Figure 7.3. Impact of achieving the best risk factor prevalence in the EU27+2 on the number of cancer cases per year (average 2023‑50)
Copy link to Figure 7.3. Impact of achieving the best risk factor prevalence in the EU27+2 on the number of cancer cases per year (average 2023‑50)Figure 7.4. Impact of achieving the best risk factor prevalence in the EU27+2 on number of premature deaths due to cancer per year (average 2023‑50)
Copy link to Figure 7.4. Impact of achieving the best risk factor prevalence in the EU27+2 on number of premature deaths due to cancer per year (average 2023‑50)Figure 7.5. Impact of achieving the best risk factor prevalence in the EU27+2 on health expenditure on cancer per year in EUR PPP millions (average 2023‑50)
Copy link to Figure 7.5. Impact of achieving the best risk factor prevalence in the EU27+2 on health expenditure on cancer per year in EUR PPP millions (average 2023‑50)Aligning cancer survival rates to the highest rates in the EU27+2 can prevent 21% of premature cancer deaths
Copy link to Aligning cancer survival rates to the highest rates in the EU27+2 can prevent 21% of premature cancer deathsTo understand the potential impact of improving cancer screening, diagnosis, and treatment, it is useful to look at the cancer survival rates achieved by other countries. Similar to the scenario presented in Chapter 4, where cancer survival rates were aligned to the best performer across the OECD and EU, here cancer survival rates (by age, sex and cancer type) were aligned to the best performer in the EU27+2 alone. Note that this scenario does not assume any change in risk factors, and thus no change in cancer incidence other than through demographic changes.
All countries in the EU27+2 can make improvements to their cancer survival rates (Table 7.2). This is because no country has the best survival rates across all cancer types, sex and age groups. On average across the EU27+2, cancer survival rates would improve by 12.2 percentage points if all countries achieved the best rates seen in Europe. This means that an additional 12.2% of cancer patients would survive their diagnosis.
Table 7.2. Impact of aligning cancer survival rates to the best in the EU27+2
Copy link to Table 7.2. Impact of aligning cancer survival rates to the best in the EU27+2Percentage point improvement in cancer survival rate when aligning to the best in the EU27+2, weighted average across age bands for people aged 55 and older, average across
Percentage point increase in survival rate |
|
---|---|
Austria |
10.2 |
Belgium |
10.5 |
Bulgaria |
21.6 |
Croatia |
11.9 |
Cyprus |
9.2 |
Czechia |
15.1 |
Denmark |
16.3 |
Estonia |
13.0 |
Finland |
3.3 |
France |
10.3 |
Germany |
5.4 |
Greece |
10.7 |
Hungary |
19.5 |
Iceland |
5.5 |
Ireland |
7.9 |
Italy |
5.5 |
Latvia |
21.8 |
Lithuania |
19.6 |
Luxembourg |
11.7 |
Malta |
9.7 |
Netherlands |
6.1 |
Norway |
11.9 |
Poland |
19.2 |
Portugal |
11.0 |
Romania |
21.2 |
Slovak Republic |
12.6 |
Slovenia |
13.4 |
Spain |
6.0 |
Sweden |
14.6 |
EU27+2 average |
12.2 |
Note: A 6 percentage point increase in survival rate is equivalent to an additional 6% of people surviving their cancer diagnosis (e.g. going from 30% to 36% of people surviving).
It is estimated that, if all countries improved their screening, diagnosis and treatment of cancer, to the point at which they achieved the best possible 5‑year survival rates observed in the EU27+2, this would save a total of 70 000 premature deaths – one‑fifth (21%) of all premature deaths due to cancer (Figure 7.6). Countries with a high baseline cancer premature mortality rate, including Central and Eastern EU MS, would see the greatest improvement in premature mortality rates as well as in the percentage of deaths prevented.
Figure 7.6. One in five premature cancer deaths could be prevented by aligning EU27+2 survival rates
Copy link to Figure 7.6. One in five premature cancer deaths could be prevented by aligning EU27+2 survival ratesThe impact of achieving the highest cancer survival rates observed across the EU27+2 on premature mortality (deaths in people aged under 75) due to cancer per 100 000 population; and as a percentage of total premature mortality due to cancer; per year, average over 2023‑50

Note: Digestive includes liver, oesophageal, pancreatic, and stomach cancer; head and neck includes lip and oral cavity, larynx, other pharynx, and nasopharynx cancer; and other includes prostate, cervical cancer and malignant skin melanoma.
Source: OECD SPHeP NCDs model, 2024.
For mouth and throat cancer, around four in ten premature deaths (42%) could be avoided if the highest survival rates were to be attained across the EU27+2 countries (Figure 7.7). Improved survival rates would also prevent nearly one in three premature deaths due to prostate cancer (31%). In absolute terms the impact on lung cancer is the largest, with nearly 18 000 premature deaths avoided every year – 25% of the total impact – followed by more than 14 000 premature deaths due to colorectal cancer.
Figure 7.7. Improved survival rates have the greatest impact on mortality rates from mouth and throat cancer
Copy link to Figure 7.7. Improved survival rates have the greatest impact on mortality rates from mouth and throat cancerThe impact of improved cancer survival rates on premature mortality (deaths in people aged under 75), as percentage of total premature mortality and number of premature deaths per year, by cancer type, for all EU27+2 countries combined, average over 2023‑50
As premature mortality decreases, the average life expectancy is estimated to increase in all countries, and by 5 months in the EU27+2 on average (0.41 years) (Figure 7.8). Central and Eastern MS, who see the greatest improvement in premature mortality rates, also see the greatest impact on life expectancy.
Figure 7.8. The impact of achieving the best 5‑year cancer survival rates in the EU27+2 on average population life expectancy
Copy link to Figure 7.8. The impact of achieving the best 5‑year cancer survival rates in the EU27+2 on average population life expectancyAverage over 2023‑50
Improved cancer survival would increase the size and output of the workforce. In the EU27+2, it is estimated that the equivalent of 87 000 additional full-time workers would be available due to increased employment. However, improved cancer survival also means that the workforce would include more people living with cancer and older people who are more likely to have other non-communicable diseases (NCDs). As a result, there would be a reduction in workforce output due to increased absenteeism, presenteeism, and early retirement. However, these impacts do not outweigh the increased employment. Based on annual wages, per capita output would increase by EUR PPP 8.5 in the EU27+2 on average – including an increase of EUR PPP 13.0 due to employment (Figure 7.9). In total, improved cancer survival rates would increase the workforce output by EUR PPP 2.2 billion in the EU27+2.
Figure 7.9. The impact of achieving the best 5‑year cancer survival rates in the EU27+2 on workforce output
Copy link to Figure 7.9. The impact of achieving the best 5‑year cancer survival rates in the EU27+2 on workforce outputThe impact on the workforce through absenteeism, early retirement, employment (combining reductions in unemployment and part-time work) and presenteeism, expressed in EUR PPP per capita (working age) based on the average annual wage per country, average over 2023‑50
As more people survive their cancer diagnosis, healthcare cost will go up: people will live for longer with cancer, they can get cancer again and they can incur cost for other diseases. If all countries improve cancer care to attain the best possible survival rates observed within the EU27+2, per capita health expenditure will increase by EUR PPP 29.1 per year on average in the EU27+2, even without additional per case costs (Figure 7.10). This includes EUR PPP 19.6 per capita in costs related to cancer treatment, as well as EUR PPP 9.5 for the treatment of other diseases. This is a 1.0% increase in overall health expenditure on average in the EU27+2, or a total of EUR PPP 13 billion – equivalent to the total annual health budget of the Slovak Republic and Slovenia combined.
Figure 7.10. The impact of achieving the best 5‑year cancer survival rates in the EU27+2 on health expenditure
Copy link to Figure 7.10. The impact of achieving the best 5‑year cancer survival rates in the EU27+2 on health expenditureThe impact of improved survival rates on cancer-specific and other health expenditure, in EUR PPP per capita and as a percentage of total health expenditure, per year, average over 2023‑50