
Chronic Obstructive Pulmonary Disease (COPD) is a progressive lung disease that affects millions of people worldwide. Ranked as the third leading cause of death globally by the World Health Organisation, COPD accounted for 3.23 million fatalities in 2019 with 90% of COPD deaths in those under 70 years of age occurring in low- and middle-income countries. COPD is a multifaceted respiratory condition that generally encompasses chronic bronchitis and emphysema, both of which are characterized by persistent airflow limitation. While it may not be as widely discussed as some other health conditions, COPD has a significant impact on the lives of those diagnosed with it.
Risk Factors
COPD's primary causative factor is prolonged exposure to noxious particles or gases, with cigarette smoke and air pollution being the most significant contributors. The inhaled toxins trigger an inflammatory response in the airways, leading to chronic bronchitis and emphysema. Genetic factors, environmental pollutants, occupational exposures, and respiratory infections contribute to the development and progression of COPD. Insults to the developing lung during foetal life and the first few years of postnatal life are also now considered significant risk factors for the development of COPD.
Challenges
Despite being first recognised over two hundred years ago by Badham and Laënnec and despite its prevalence, there is no cure for COPD, with current medications merely providing symptom relief and failing to alter the trajectory of the disease. Current COPD management focuses on symptom relief, prevention of exacerbations, and improving overall lung function. Pharmacological interventions include bronchodilators (beta-agonists and anticholinergics) and anti-inflammatory medications (corticosteroids). Oxygen therapy, pulmonary rehabilitation, and surgical interventions, such as lung volume reduction or transplantation, are also used in advanced cases.
COPD research has traditionally encountered several barriers that have impeded progress in understanding the disease and developing effective treatments. COPD research has classically been hampered by the lack of awareness of the disease, arduous experimental models, the heterogeneity of clinical traits making it difficult to design clinical trials, as well as difficulties in diagnosis. In the past, funding for research on COPD disease mechanisms has been disproportionately low considering the significant global impact of the condition.
Science and Precision Medicine is the Key
To move closer towards a cure for COPD, it is crucial to understand the pathophysiological alterations associated with the development and progression of COPD. Some of the hallmark features of COPD include dysregulated inflammation, accelerated ageing, susceptibility to infection, metabolic dysfunction, and impaired regeneration. Rapid progress in high-throughput single-cell and spatial genomic, metabolomic, and proteomic technologies, along with sophisticated ex-vivo cell culture methods like human organoids and organs-on-chip, coupled with innovative computational tools, has unlimited potential to uncover new insights into disease mechanisms and therapeutic approaches for COPD. Targeted anti-inflammatory agents, regenerative medicine, and precision medicine tailored to individual genetic profiles are promising and rapidly growing fields. Early detection of COPD risk, combined with personalized treatment strategies, also holds potential for more effective disease management.
The Future
Continued scientific exploration and collaboration across disciplines are indispensable for unravelling the intricacies of COPD and developing innovative solutions for better patient care. COPD is included in the WHO Global Action Plan for the Prevention and Control of Noncommunicable Diseases (NCDs) and the United Nations 2030 Agenda for Sustainable Development. The COPD National Action Plan in the USA developed in 2018 at the request of Congress acts as a blueprint for a multifaceted, unified fight against COPD. In Europe, The European Commission launched the Healthier together EU non-communicable diseases (NCD) initiative to reduce the burden of major NCDs and improve citizens’ health and well-being in which chronic respiratory diseases is highlighted as a top five priority. Many successful European funded (e.g. EU PAL-COPD, TOLIFE, EUREST-PLUS, CADSET ALEC and PredictCOPD) and USA funded initiatives (e.g. SPIROMICS, COPDgene, SOURCE and RURAL) are leading the way forward for COPD research globally. Similarly, the COPD Foundation, the Global Initiative for COPD (GOLD), the Speak up for COPD campaign and the recently established Advanced COPD Research International Network (COPD-iNET), amongst others, all strive to create awareness, to improve the lives of all people affected by COPD and to ignite novel research directions and therapeutic avenues paving the way to eliminate COPD.
On World COPD Day 2023, we envision a future where impactful COPD research, characterized by collaborative initiatives involving researchers, funding agencies, policymakers, and advocacy groups, will lay the groundwork for prolonging lives and enhancing the health of millions affected by COPD. Respiratory Research invites and supports the submission of Original Research Articles on COPD from global contributors.
Follow the Topic
-
Respiratory Research
This journal publishes high-quality clinical and basic research, review and commentary articles on all aspects of respiratory medicine and related diseases.
Related Collections
With collections, you can get published faster and increase your visibility.
Human precision cut lung slices: an ex vivo platform for therapeutic target discovery and drug testing in lung disease
Respiratory Research is calling for submissions to our Collection on Human precision cut lung slices: an ex vivo platform for therapeutic target discovery and drug testing in lung disease. Precision cut lung slices (PCLS) have been utilized in many facets of respiratory research since the late 1970’s, with studies encompassing a multitude of areas including: toxicology, metabolism (both drug metabolism and cellular metabolism), drug discovery, lung cancer biology, obstructive and fibrotic lung diseases, respiratory pathogen exposure, the mechanics of breathing, and vascular lung disease. Whether derived from experimental animal models, or from human lungs, the use of PCLS enabled significant progress to be made in the understanding of responses from an integrated cell system, thereby providing a greater understanding of basic mechanisms underlying aspects of lung biology, but also how the pathogenesis of lung disease(s) occur(s). PCLS provides a platform for therapeutic drug discovery and testing to reverse or prevent the pathogenesis of lung disease. This collection of articles will include short reports, full length research articles, and reviews of current literature.
Image legend: From top left to right – Image 1: Non-stimulated airway from a single hPCLS. Image 2: The same airway contracted following IgE crosslinking (Credit: Cynthia Koziol-White). Image 3: Merged image of an airway lumen and parenchyma of an hPCLS stained for ICAM-1 (red) and alpha smooth muscle actin (green) (Credit: Gaoyuan Cao). From bottom left to right– Image 1: Airway lumen from an hPCLS infected with a GFP-labeled rhinovirus C15 strain (Credit: Eric Gebski). Image 2: spatial RNAseq of a slice of lung from a 65 year old IPF patient showing distribution of fibroblasts, T cells, and alveolar type 1 and 2 cells (Credit: Qi Yang’s lab).
Publishing Model: Open Access
Deadline: Aug 15, 2025
Lung Involvement in Systemic Autoimmune Disorders: New Frontiers in Diagnostic and Therapeutic Management
Systemic autoimmune disorders frequently involve the lungs, presenting significant challenges in both diagnosis and management. This special edition of Respiratory Research aims to explore the latest advancements in understanding, diagnosing, and treating pulmonary manifestations of autoimmune diseases, highlighting emerging research that bridges immunology, pulmonology, and rheumatology.
The collection will address the evolving landscape of diagnostic techniques, including imaging, pulmonary function testing, and molecular biomarkers for early detection and disease monitoring. Contributions focusing on novel therapeutic strategies—such as biologics, immunomodulatory agents, and precision medicine approaches—are particularly encouraged. Additionally, we seek insights into the pathophysiological mechanisms underlying lung involvement and interstitial lung diseases in conditions such as systemic sclerosis, rheumatoid arthritis, lupus, and vasculitis, among others.
We welcome original research, systematic reviews, review papers and expert perspectives on topics including:
• Early detection and risk stratification of autoimmune-related lung disease
• Innovations in imaging and functional assessment
• The role of autoantibodies and biomarkers in disease progression and treatment response
• Personalized approaches to immunosuppressive and biologic therapies
• Pulmonary complications of novel rheumatologic treatments
• Multidisciplinary management
• Artificial intelligence in patient-centered care
By bringing together cutting-edge research, this special edition aims to foster a deeper understanding of autoimmune-related lung disease and inform future diagnostic and therapeutic strategies. We invite researchers and clinicians to contribute to this dynamic and rapidly evolving field.
We recognize that many key stakeholders may not have access to such resources and are committed to supporting participation in this issue wherever resources are a barrier. For more information about what support may be available, please visit OA funding and support, or email OAfundingpolicy@springernature.com or contact the Editor-in-Chief.
This Collection supports and amplifies research related to SDG 3, Good Health and Well-Being.
Publishing Model: Open Access
Deadline: Nov 28, 2025
Please sign in or register for FREE
If you are a registered user on Research Communities by Springer Nature, please sign in