chronic obstructive pulmonary disease copd epidemiology forecast
Key Highlights
- COPD involves structural lung damage from chronic inflammation, often beyond just smoking, with nearly one-fourth of COPD patients linked to other risk factors like environmental exposures and early-life insults/injuries (utero and during childhood). Women, rural populations, and those with low Socioeconomic Status (SES) face higher disease burden, lower diagnosis rates, and worse disease outcomes, highlighting underdiagnosis and the need for personalized, inclusive care.
- The burden of COPD is highest in the US, followed by EU4 and the UK, and Japan. Diagnostic practices, healthcare infrastructure, and surveillance systems significantly influence reported COPD rates.
- In 2024, among the 7MM, the US had the highest number of diagnosed prevalent cases of COPD. In the US, there were ~16.5 million diagnosed prevalent cases of COPD in 2024.
- In the US, recent data show that the prevalence of COPD among the adult population has remained largely stable over the past decade, at around 6%. However, the prevalence is increasing among those aged 65 years or older and among current and former smokers. Higher rates are linked to rural residency, lower education, and poverty.
- The patient volume growth of COPD is projected to increase over the coming years due to a combination of rising incidence, continued exposure to COPD risk factors, increased diagnosis and awareness rates, and an aging population.
- In 2024, in EU4 and the UK, it is estimated that ~8.6 million patients were eligible for treatment of COPD.
- While COPD was once considered a disease of older men, it now places a growing health burden on women as well, with gender differences in prevalence narrowing in many regions. Women may be more susceptible to developing COPD and experiencing severe impacts from risk factors like smoking, even at lower levels of exposure, compared to men.
- The higher prevalence of COPD among individuals aged 65+ years can be attributed to cumulative exposure to risk factors over time. Long-term smoking remains a primary cause, with decades of exposure leading to chronic respiratory damage.
- COPD severity is classified by the level of airflow limitation measured with spirometry, using the GOLD criteria: GOLD 1 as mild (FEV₁ ≥80% predicted), GOLD 2 as moderate (50–79%), GOLD 3 as severe (30–49%), and GOLD 4 as very severe (<30%) airflow.
DelveInsight’s ‘COPD– Epidemiology– 2034’ report delivers an in-depth understanding of the COPD, historical and forecasted epidemiology in the United States, EU4 (Germany, Spain, Italy, and France) and the United Kingdom, and Japan.
Geography Covered
- The United States
- EU4 (Germany, France, Italy, and Spain) and the United Kingdom
- Japan
Study Period: 2020–2034
COPD Understanding and Diagnostic Algorithm
COPD Overview
COPD is a heterogeneous lung condition marked by chronic respiratory symptoms such as shortness of breath (dyspnea), coughing, mucus production (expectoration), and/or recurrent flare-ups (exacerbations). It results from structural abnormalities in the airways—including bronchitis and bronchiolitis—and/or the alveoli (as seen in emphysema), leading to persistent and often progressive airflow limitation.
The main risk factor for COPD is tobacco smoking, but other environmental exposures, such as biomass fuel exposure and air pollution, may contribute. Besides exposures, host factors predispose individuals to develop COPD. These include genetic abnormalities, abnormal lung development, and accelerated aging. The airflow limitation is usually measured by spirometry, as this is the most widely available and reproducible test of lung function. Many previous definitions of COPD have emphasized the terms “emphysema” and “chronic bronchitis.” COPD is a leading cause of morbidity and mortality worldwide that induces an economic and social burden that is both substantial and increasing.
COPD Diagnosis
The diagnosis of COPD is based on the presence of persistent respiratory symptoms such as chronic cough, sputum production, and breathlessness, particularly in individuals with risk factors like smoking or exposure to environmental pollutants. The gold standard for confirming the diagnosis is spirometry, which demonstrates irreversible airflow limitation, specifically a post-bronchodilator FEV₁/FVC ratio of less than 0.70. Additional assessments may include chest X-rays or CT scans to exclude other lung conditions, and blood tests to check for arterial blood gases or alpha-1 antitrypsin deficiency in younger or non-smoking patients. Tools like the COPD Assessment Test (CAT) and the modified Medical Research Council (mMRC) dyspnea scale help evaluate symptom severity, while the GOLD classification is used to stage the disease and guide management.
Further details are provided in the report.
COPD Epidemiology
As the market is derived using a patient-based model, the COPD epidemiology chapter in the report provides both historical and forecasted epidemiology. This includes the total diagnosed prevalent cases of COPD, subtype-specific, gender-specific, age-specific diagnosed prevalent cases, diagnosed prevalent cases of COPD based on the severity of airflow limitation, along with treatment-eligible cases. This analysis spans the 7MM, covering the United States, EU4 (Germany, France, Italy, and Spain), United Kingdom, and Japan from 2020 to 2034.
- The total number of diagnosed prevalent cases of COPD in the 7MM was about ~31 million in 2024.
- In the US, cigarette smoking is the primary cause of COPD, with significantly higher rates observed in both current and former smokers compared to those who never smoked. Additionally, individuals with higher family incomes tend to have lower COPD prevalence, indicating a link between socioeconomic status and disease risk.
- In comparison to the US, in EU4 and the UK, COPD continues to be more prevalent among men, largely reflecting historical patterns of higher smoking rates and occupational exposures in male populations. Although the gender gap has narrowed over time with rising diagnoses in women, men still represent a larger share of the COPD burden.
- In EU4 and the UK, COPD cases were highest in Germany in 2024, whereas the minimum number of cases was in the UK, cases in 2024.
- The US accounted for the highest GOLD 2 cases (~8.2 million), which were followed by GOLD 3 (~4.3 million) cases, compared to other countries in the 7MM.
- In 2024, chronic bronchitis accounted for the highest share of COPD cases in EU4 and the UK, comprising ~6.42 million cases.
- In Japan, there is a significant gap between the estimated number of COPD patients and those receiving treatment, indicating widespread underdiagnosis; this highlights the high unmet need to enhance early detection and management efforts. Japan observed the maximum number of cases from the age group 65–74 years (~283,000) in 2024.
COPD Report Insights
- Patient population
- Country-wise epidemiology distribution
COPD Report Key Strengths
- Ten-year forecast
- 7MM coverage
- COPD epidemiology segmentation
FAQs
- What are the COPD disease risks, burdens, and unmet needs? What will be the growth opportunities across the 7MM concerning the patient population with COPD?
- What is the historical and forecasted COPD patient pool in the US, EU4 (Germany, France, Italy, and Spain) and the UK, and Japan?
- At what CAGR is the population expected to grow in the 7MM during the study period (2020–2034)?
- What will be the growth opportunities in the 7MM with respect to the patient population of COPD?
Reasons to Buy
- Insights on patient burden/disease prevalence, evolution in diagnosis, and factors contributing to the change in the epidemiology of the disease during the forecast years.
- To understand key opinion leaders’ perspectives on the diagnostic challenges to overcome barriers in the future.
- Detailed insights on various factors hampering disease diagnosis and other existing diagnostic challenges.
1. Key Insights
2. Report Introduction
3. Executive Summary
4. Epidemiology Methodology
5. Disease background and overview
5.1. Introduction
5.2. Factors Associated With Development and Progression of COPD
5.3. Symptoms
5.4. Types
5.5. Classification
5.6. Stages
5.7. Type 2 Inflammation and the Role of Eosinophils in COPD
5.8. Etiology and Related Pathophysiological Mechanisms
5.9. Diagnosis
5.9.1. Differential Diagnosis
5.9.2. Diagnostic Algorithm
5.10. Global Initiative for Chronic Obstructive Lung Disease Guideline 2025
5.10.1. Clinical Practice Guideline Palliative Care for People With COPD: European Respiratory Society (ERS) 2023
5.10.2. Guidelines for the Diagnosis of COPD 6th Edition: The Japanese Respiratory Society (2022)
6. Epidemiology and Patient Population
6.1. Key Findings
6.2. Assumptions and Rationale: 7MM
6.3. Diagnosed Prevalent Cases of COPD In the 7MM
6.4. The United States
6.4.1. Total Diagnosed Prevalent Cases of COPD in the US
6.4.2. Subtype-specific Diagnosed Prevalent Cases of COPD in the US
6.4.3. Gender-specific Diagnosed Prevalent Cases of COPD in the US
6.4.4. Age-specific Diagnosed Prevalent Cases of COPD in the US
6.4.5. Diagnosed Prevalent Cases of COPD Based on the Severity of Airflow Limitation in the US
6.4.6. Treatment Eligible Cases of COPD in the US
6.5. EU4 and the UK
6.5.1. Total Diagnosed Prevalent Cases of COPD in EU4 and the UK
6.5.2. Subtype-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK
6.5.3. Gender-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK
6.5.4. Age-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK
6.5.5. Diagnosed Prevalent Cases of COPD Based on the Severity of Airflow Limitation in EU4 and the UK
6.5.6. Treatment Eligible Cases of COPD in EU4 and the UK
6.6. Japan
6.6.1. Total Diagnosed Prevalent Cases of COPD in Japan
6.6.2. Subtype-specific Diagnosed Prevalent Cases of COPD in Japan
6.6.3. Gender-specific Diagnosed Prevalent Cases of COPD in Japan
6.6.4. Age-specific Diagnosed Prevalent Cases of COPD in Japan
6.6.5. Diagnosed Prevalent Cases of COPD Based on the Severity of Airflow Limitation in Japan
6.6.6. Treatment Eligible Cases of COPD in Japan
7. Appendix
7.1. Bibliography
7.2. Report Methodology
8. Delveinsight Capabilities
9. Disclaimer
1O. About Delveinsight
List of Tables:
List of Table
Table 1: Summary of COPD Epidemiology (2024–2034)
Table 2: Factors Associated With the Development of COPD
Table 3: Classification of Airflow Limitation Severity in COPD (Based on Post-BD FEV1)
Table 4: Key Indicators for Considering a Diagnosis for COPD
Table 5: Differential Diagnosis of COPD
Table 6: Difference Between COPD and Asthma
Table 7: Maintenance Medication of COPD
Table 8: Key Points for Diagnosis and Assessment of COPD
Table 9: Diagnosed Prevalent Cases of COPD in the 7MM (2020–2034)
Table 10: Total Prevalent Cases of COPD in the US (2020–2034)
Table 11: Subtype-specific Diagnosed Prevalent Cases of COPD in the US (2020–2034)
Table 12: Gender-specific Diagnosed Prevalent Cases of COPD in the US (2020–2034)
Table 13: Age-specific Diagnosed Prevalent Cases of COPD in the US (2020–2034)
Table 14: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in the US (2020–2034)
Table 15: Treatment Eligible Cases of COPD in the US (2020–2034)
Table 16: Total Diagnosed Prevalent Cases of COPD in EU4 and the UK (2020–2034)
Table 17: Subtype-specific Diagnosed Prevalent Cases of COPD in Germany (2020–2034)
Table 18: Subtype-specific Diagnosed Prevalent Cases of COPD in France (2020–2034)
Table 19: Subtype-specific Diagnosed Prevalent Cases of COPD in Italy (2020–2034)
Table 20: Subtype-specific Diagnosed Prevalent Cases of COPD in Spain (2020–2034)
Table 21: Subtype-specific Diagnosed Prevalent Cases of COPD in the UK (2020–2034)
Table 22: Subtype-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK (2020–2034)
Table 23: Gender-specific Diagnosed Prevalent Cases of COPD in Germany (2020–2034)
Table 24: Gender-specific Diagnosed Prevalent Cases of COPD in France (2020–2034)
Table 25: Gender-specific Diagnosed Prevalent Cases of COPD in Italy (2020–2034)
Table 26: Gender-specific Diagnosed Prevalent Cases of COPD in Spain (2020–2034)
Table 27: Gender-specific Diagnosed Prevalent Cases of COPD in the UK (2020–2034)
Table 28: Gender-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK (2020–2034)
Table 29: Age-specific Diagnosed Prevalent Cases of COPD in Germany (2020–2034)
Table 30: Age-specific Diagnosed Prevalent Cases of COPD in France (2020–2034)
Table 31: Age-specific Diagnosed Prevalent Cases of COPD in Italy (2020–2034)
Table 32: Age-specific Diagnosed Prevalent Cases of COPD in Spain (2020–2034)
Table 33: Age-specific Diagnosed Prevalent Cases of COPD in the UK (2020–2034)
Table 34: Age-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK (2020–2034)
Table 35: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in Germany (2020–2034)
Table 36: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in France (2020–2034)
Table 37: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in Italy (2020–2034)
Table 38: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in Spain (2020–2034)
Table 39: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in the UK (2020–2034)
Table 40: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in EU4 and the UK (2020–2034)
Table 41: Treatment Eligible Cases of COPD in Germany (2020–2034)
Table 42: Treatment Eligible Cases of COPD in France (2020–2034)
Table 43: Treatment Eligible Cases of COPD in Italy (2020–2034)
Table 44: Treatment Eligible Cases of COPD in Spain (2020–2034)
Table 45: Treatment Eligible Cases of COPD in the UK (2020–2034)
Table 46: Treatment Eligible Cases of COPD in EU4 and the UK (2020–2034)
Table 47: Total Prevalent Cases of COPD in Japan (2020–2034)
Table 48: Subtype-specific Diagnosed Prevalent Cases of COPD in Japan (2020–2034)
Table 49: Gender-specific Diagnosed Prevalent Cases of COPD in Japan (2020–2034)
Table 50: Age-specific Diagnosed Prevalent Cases of COPD in Japan (2020–2034)
Table 51: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in Japan (2020–2034)
Table 52: Treatment Eligible Cases of COPD in Japan (2020–2034)
List of Figures:
List of Figures
Figure 1: Description of COPD
Figure 2: Symptoms Associated With the Development of COPD
Figure 3: Types of COPD – Emphysema and Chronic Bronchitis
Figure 4: Type of COPD – Emphysema and Chronic Bronchitis
Figure 5: GOLD Classification
Figure 6: Stages of COPD
Figure 7: Etiology and Related Pathophysiological Mechanisms of COPD
Figure 8: COPD Pathology
Figure 9: COPD Pathogenesis
Figure 10: Pathway of the Diagnosis of COPD
Figure 11: Spirometry Tracing in a Normal Individual Versus Spirometry Tracing Typical of a Patient With Obstructive Disease
Figure 12: Current COPD diagnostics
Figure 13: Diagnosed Prevalent Cases of COPD in the 7MM (2020–2034)
Figure 14: Total Diagnosed Prevalent Cases of COPD in the US (2020–2034)
Figure 15: Subtype-specific Diagnosed Prevalent Cases of COPD in the US (2020–2034)
Figure 16: Gender-specific Diagnosed Prevalent Cases of COPD in the US (2020–2034)
Figure 17: Age-specific Diagnosed Prevalent Cases of COPD in the US (2020–2034)
Figure 18: Diagnosed Prevalence of COPD Based on Severity of Airflow Limitation in the US (2020–2034)
Figure 19: Treatment Eligible Cases of COPD in the US (2020–2034)
Figure 20: Total Diagnosed Prevalent Cases of COPD in EU4 and the UK (2020–2034)
Figure 21: Subtype-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK (2020–2034)
Figure 22: Gender-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK (2020–2034)
Figure 23: Age-specific Diagnosed Prevalent Cases of COPD in EU4 and the UK (2020–2034)
Figure 24: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in EU4 and the UK (2020–2034)
Figure 25: Treatment Eligible Cases of COPD in EU4 and the UK (2020–2034)
Figure 26: Total Diagnosed Prevalent Cases of COPD in Japan (2020–2034)
Figure 27: Subtype-specific Diagnosed Prevalent Cases of COPD in Japan (2020–2034)
Figure 28: Gender-specific Diagnosed Prevalent Cases of COPD in Japan (2020–2034)
Figure 29: Age-specific Diagnosed Prevalent Cases of COPD in Japan (2020–2034)
Figure 30: Diagnosed Prevalent Cases of COPD Based on Severity of Airflow Limitation in Japan (2020–2034)
Figure 31: Treatment Eligible Cases of COPD in Japan (2020–2034)