Lung Cancer Screening Market (2026-2036)
The global Lung Cancer Screening Market was valued at USD 4.15 billion in 2025. This market is expected to reach USD 16.50 billion by 2036 from an estimated USD 4.85 billion in 2026, registering a CAGR of 13.0% during the forecast period (2026-2036).
- Published
- Nov 2026
- Pages
- 341
- Format
- PDF + Excel
- Report ID
- MRHC - 1042442
- Base year
- 2025
- 2025 · BASELINE
- $4.15B
- 2036
- $16.50B
- CAGR 2026–2036
- 13.0%
2025 baseline · 2026–2036 forecast at 13.0% CAGR · hover a bar for the value
Key highlights
The global Lung Cancer Screening Market is valued at USD 4.85 billion in 2026 and is projected to reach USD 16.50 billion by 2036, at a CAGR of 13.0%.
Only 24.5% of eligible individuals are currently being screened, and only 33% of 4,000 people surveyed were aware the screening exists.
Medicare requires a documented counselling and shared decision-making visit before the first scan, which places a clinician appointment ahead of every imaging appointment.
Based on offering, the screening procedures and services segment is expected to account for the largest share of the market in 2026, while the eligibility, registry and navigation software segment is projected to register the highest CAGR during the forecast period.
Based on technology, the low-dose computed tomography segment is expected to account for the largest share of the market in 2026, while the blood-based biomarker segment is projected to register the highest CAGR during the forecast period.
Based on programme type, the opportunistic clinical screening segment is expected to account for the largest share of the market in 2026, while the organised and targeted national programmes segment is projected to register the highest CAGR during the forecast period.
Based on eligibility basis, the risk-factor criteria segment is expected to account for the largest share of the market in 2026, while the risk-model based selection segment is projected to register the highest CAGR during the forecast period.
Based on end user, the hospitals and academic centres segment is expected to account for the largest share of the market in 2026, while the mobile screening units segment is projected to register the highest CAGR during the forecast period.
Based on geography, North America is expected to account for the largest share of the market in 2026, while Europe is projected to register the highest CAGR during the forecast period.
Report summary
| Particulars | Details |
|---|---|
| Base Year | 2025 |
| Estimated Year | 2026 |
| Forecast Period | 2026-2036 |
| Market Size in 2025 | USD 4.15 billion |
| Market Size in 2026 | USD 4.85 billion |
| Market Size by 2036 | USD 16.50 billion |
| CAGR (2026-2036) | 13.0% |
| Format | PDF, Excel & Cloud Portal · 341 pages |
| Scope Basis | Screening procedures and reading, screening software, risk models and biomarker tests, excluding scanner capital equipment |
| Largest Segment by Offering (2026) | Screening Procedures & Services |
| Fastest-growing Segment by Offering | Eligibility, Registry & Navigation Software |
| Largest Segment by Technology (2026) | Low-Dose Computed Tomography |
| Fastest-growing Segment by Technology | Blood-Based Biomarker |
| Largest Segment by Programme Type (2026) | Opportunistic Clinical Screening |
| Fastest-growing Segment by Programme Type | Organised & Targeted National Programmes |
| Largest Segment by Eligibility Basis (2026) | Risk-Factor Criteria |
| Fastest-growing Segment by Eligibility Basis | Risk-Model Based Selection |
| Largest Segment by End User (2026) | Hospitals & Academic Centres |
| Fastest-growing Segment by End User | Mobile Screening Units |
| Largest Region (2026) | North America |
| Fastest-growing Region | Europe |
| Segments Covered | Offering, Technology, Programme Type, Eligibility Basis, End User, Geography |
| Company Naming Basis | Registered legal entity, with group capability attributed to its owner |
| Number of Companies Profiled | 12, plus other companies |
Report overview
Segments covered: offering, technology, programme type, eligibility basis, end user.
The lung cancer screening market covers screening procedures and the associated reading and reporting, nodule detection and characterisation software, eligibility, registry and navigation software, risk prediction models, and biomarker tests used in screening, delivered through organised programmes and opportunistic clinical screening. The growth of this market is driven by the proportion of eligible people currently unscreened, by organised national programmes replacing opportunistic ordering, by software that identifies and qualifies eligible patients, and by blood-based tests entering risk stratification.
The American Lung Association 2026 Lung Health Barometer reports that only 24.5% of eligible individuals are currently being screened, with 24.8% among women and 24.0% among Black individuals, that only 25% of cases are diagnosed early on SEER 2022 data where the five-year survival rate climbs to 65%, and that among 4,000 people surveyed only 33% were aware of the screening available to those who are eligible. Three quarters of the eligible population is therefore unscreened and two thirds of the public is unaware the screening exists, which is the position after a grade B recommendation has been in force since 2021 and Medicare coverage since 2015.
The United States Preventive Services Task Force recommendation dated 9 March 2021 gives annual screening with low-dose computed tomography a grade B in adults aged 50 to 80 years with a smoking history of at least 20 pack-years who currently smoke or who quit within the past 15 years, following shared decision-making about the benefits, limitations and harms, and advises stopping once a person has not smoked for 15 years or when a health problem limits life expectancy or the ability to have lung surgery. The previous recommendation applied to ages 55 to 80 with a 30 pack-year history. National coverage determination 210.14, applying to claims with dates of service on or after 10 February 2022, requires a beneficiary to be 50 to 77 years old, to have no signs or symptoms of lung cancer, to have a smoking history of at least 20 pack-years, to be a current smoker or to have quit within the last 15 years, and to hold an order for the screening. A counselling and shared decision-making visit must take place before the first scan and be documented in the medical record, covering determination of eligibility, shared decision-making using one or more decision aids, counselling on annual screening adherence, the effect of comorbidities and the willingness to undergo diagnosis and treatment, and counselling on remaining smoke-free or on quitting with tobacco cessation interventions where appropriate. The reading radiologist must be board certified or board eligible with the American Board of Radiology or an equivalent organisation, and the imaging facility must use a standardised lung nodule identification, classification and reporting system. Eligibility turns on a smoking history measured in pack-years, which most medical records do not hold in structured form, so a health system cannot list its eligible population from its own data and the first task in this market is identification rather than imaging. The report therefore treats identification and recall capability as a segmentation dimension and as a competitive benchmark rather than as an operational detail of programme delivery.
Screening for lung cancer uses annual low-dose computed tomography in people whose smoking history places them at high risk, detecting nodules that are then classified and followed or investigated. Randomised evidence established a reduction in lung cancer mortality in screened populations, and the recommendation and coverage positions followed, so the question in this market has not been whether screening works for more than a decade.
The American Lung Association 2026 Lung Health Barometer reports that only 24.5% of eligible individuals are currently being screened, with 24.8% among women and 24.0% among Black individuals, that only 25% of cases are diagnosed early on SEER 2022 data where the five-year survival rate climbs to 65%, and that among 4,000 people surveyed only 33% were aware of the screening available to those who are eligible. A screening programme with established evidence, a grade B recommendation and national coverage that reaches a quarter of the eligible population is failing at delivery rather than at design, and the awareness figure indicates where the failure begins, since a person who does not know the screening exists will not raise it with a clinician and opportunistic screening depends on exactly that conversation.
The United States Preventive Services Task Force recommendation dated 9 March 2021 gives annual screening with low-dose computed tomography a grade B in adults aged 50 to 80 years with a smoking history of at least 20 pack-years who currently smoke or who quit within the past 15 years, following shared decision-making about the benefits, limitations and harms, and advises stopping once a person has not smoked for 15 years or when a health problem limits life expectancy or the ability to have lung surgery. The previous recommendation applied to ages 55 to 80 with a 30 pack-year history. The criteria are precise, which assists a payer and complicates everything else, because a clinician cannot determine eligibility without a quantified smoking history and a quit date, and both have to be elicited and recorded rather than retrieved.
A medical record may note that a patient smokes, smoked or has never smoked, but the quantity and duration needed to compute 20 pack-years and the date of quitting are usually absent or recorded in free text, so a health system cannot generate a list of its eligible patients from its own data in the way it can for colorectal or breast screening where age and sex suffice. Identification is consequently a data problem before it is a clinical one.
National coverage determination 210.14, applying to claims with dates of service on or after 10 February 2022, requires a beneficiary to be 50 to 77 years old, to have no signs or symptoms of lung cancer, to have a smoking history of at least 20 pack-years, to be a current smoker or to have quit within the last 15 years, and to hold an order for the screening. A counselling and shared decision-making visit must take place before the first scan and be documented in the medical record, covering determination of eligibility, shared decision-making using one or more decision aids, counselling on annual screening adherence, the effect of comorbidities and the willingness to undergo diagnosis and treatment, and counselling on remaining smoke-free or on quitting with tobacco cessation interventions where appropriate. The reading radiologist must be board certified or board eligible with the American Board of Radiology or an equivalent organisation, and the imaging facility must use a standardised lung nodule identification, classification and reporting system. A documented counselling and shared decision-making visit before the first scan places a clinician appointment ahead of every imaging appointment, which is a second gate in a pathway whose first gate is identification, and attrition occurs at both. The facility and radiologist requirements also restrict where screening can be performed and who can report it.
The age ranges of the recommendation and of Medicare coverage do not match. The task force recommends screening to age 80 while Medicare covers to 77, so a person aged 78 to 80 holds a grade B recommendation without Medicare coverage for the scan, which is a narrow but real discontinuity in the pathway and one a clinician has to explain.
Organised programmes that invite an eligible population directly achieve participation far above opportunistic ordering, which is why national and regional programmes are being established rather than left to clinical discretion. Such a programme has to solve identification at population level, generally by combining primary care records, risk models and direct questionnaires, and the infrastructure it builds for that purpose is the part of the pathway that opportunistic screening lacks entirely.
A low-dose scan finds nodules in a substantial proportion of those screened, most of which are benign, and the value of the programme depends on classifying them consistently so that the few requiring investigation are pursued and the many that do not are followed without further procedures. The Medicare requirement for a standardised nodule identification, classification and reporting system reflects that, and software supporting it is purchased for exactly that reason.
Risk models that estimate individual probability from age, smoking history, family history, comorbidity and other factors select a higher-risk population than fixed criteria do at the same volume of scanning, and several organised programmes use them in place of or alongside pack-year thresholds. That approach raises the cancers detected per scan performed, which is the measure a programme is funded against, and it also admits people whose smoking history falls below a fixed threshold but whose overall risk is high.
Blood-based testing is entering this market as risk stratification rather than as a replacement for imaging, because a blood test identifies people who warrant a scan rather than removing the need for one, and a nodule still has to be located and characterised. That position is narrower commercially than a screening test but it addresses the identification problem directly, which is where this market is constrained. A blood test reaching the standard required to replace imaging would change the market entirely, but none is approved and the evidence required would take the better part of a decade to generate.
Market dynamics
21 factors across 5 forcesThe Proportion of Eligible People Currently Unscreened
The American Lung Association 2026 Lung Health Barometer reports that only 24.5% of eligible individuals are currently being screened, with 24.8% among women and 24.0% among Black individuals, that only 25% of cases are diagnosed early on SEER 2022 data where the five-year survival rate climbs to 65%, and that among 4,000 people surveyed only 33% were aware of the screening available to those who are eligible. Three quarters of the eligible population is unscreened despite a grade B recommendation in force since 2021 and Medicare coverage since 2015, so the growth available from reaching people who already qualify exceeds anything achievable by widening the criteria. The driver also means growth depends on outreach and identification rather than on clinical persuasion, since the people concerned have not declined screening but have never been offered it. Outreach also reaches a population that interacts with health services less often than average, so the channels that work for other screening programmes are less effective here and the cost per person recruited is correspondingly higher. Community organisations, pharmacies and employers are consequently used as recruitment channels alongside primary care, which widens the set of parties a programme has to work with.
Organised Programmes Replacing Opportunistic Ordering
Programmes that invite an eligible population directly achieve participation far above screening left to clinical discretion, because opportunistic ordering depends on a patient or clinician raising the subject during a consultation held for another reason. National and regional programmes are consequently being established, and each has to build identification, invitation, counselling and nodule management as a system rather than relying on individual practice. The driver shifts spending towards the infrastructure around the scan rather than towards the scan itself. Programmes procuring that infrastructure contract for several years at a time, which gives a supplier revenue visibility that departmental imaging purchases do not, and it brings commissioners rather than radiologists into the buying decision. A supplier able to evidence participation gains in an existing programme therefore holds a stronger position in the next tender than one evidencing image quality alone.
Software That Identifies and Qualifies Eligible Patients
Eligibility turns on at least 20 pack-years and a quit date within 15 years, and most records hold neither in structured form, so software that extracts smoking history from free text, prompts its capture at consultation and maintains a registry of eligible and due patients addresses the first obstacle in the pathway. The driver is growing faster than the imaging it supports, because a programme can only scan the patients it can first identify and recall, and no amount of imaging capacity substitutes for that. Such software also maintains the annual recall on which programme benefit depends, since a single scan delivers a fraction of the mortality reduction that sustained annual screening produces. Adherence to the second and third annual rounds is consequently a programme metric in its own right, and recall software is bought for that reason as much as for initial identification.
Blood-Based Tests Entering Risk Stratification
A blood test that identifies people who warrant a scan addresses identification rather than replacing imaging, since a nodule still has to be located and characterised, and that is a narrower claim than a screening test but it sits exactly where this market is constrained. The driver suits populations in which smoking history is poorly recorded or in which a fixed pack-year threshold excludes people at genuine risk. It also allows screening to be initiated from a routine blood draw rather than from a specialist conversation. That matters for the counselling requirement as well, since a test result gives a clinician a concrete reason to hold the shared decision-making conversation rather than raising screening unprompted. Identification can also begin in a setting the patient has already attended for another purpose, which removes the need to bring them in specifically.
Table of contents
13 chapters · 145 sections · 341 pages · click to expandGeographic analysis
North America
Largest shareIn 2026, North America is expected to account for the largest share of the market. The large share of this region is mainly due to national coverage having been in place since 2015 and revised in February 2022, to procedure prices well above those obtained elsewhere, and to a large eligible population of which only a quarter is currently screened, which concentrates both the current activity and the available growth there. The region also differs from North America in that programmes are commissioned centrally rather than ordered individually, so a single national decision moves regional volume in a way no clinical trend does. Forecasting European activity therefore depends on tracking commissioning decisions and rollout schedules rather than on clinical adoption curves.
Europe
Fastest growthHowever, Europe is projected to register the highest CAGR during the forecast period. The rapid growth of this region is attributed to organised and targeted programmes being established at national and regional level rather than left to clinical discretion, to those programmes procuring identification, imaging and nodule management as systems over several years, and to the region starting from a low base of screening activity. Germany, the United Kingdom, Poland, France and Italy account for most of the European position.
Asia-Pacific
Asia-Pacific holds a position in which screening is established in Japan, South Korea, Taiwan and parts of China, with high smoking prevalence in several countries creating large eligible populations, while a substantial proportion of lung cancer in the region occurs in people who have never smoked and therefore falls outside criteria built on pack-years. That mismatch is the reason risk-model based selection is of particular interest in the region, and domestic scanner manufacture in China lowers the cost per scan materially.
Latin America
Latin America and the Middle East & Africa remain small positions in which organised programmes are largely absent, screening is opportunistic within private provision, and the constraint is the combination of scanner access, the capacity to manage detected nodules and the absence of structured smoking history in records. Brazil has the most developed activity in Latin America, and neither region is likely to contribute materially to global value within the forecast period. Opportunistic screening within private provision accounts for what activity exists, and the absence of structured smoking history in records is as much an obstacle there as it is in the established markets.
Competitive landscape
Imaging manufacturers supply the scanners and the nodule analysis software that runs alongside them, and reach programmes through installed bases in radiology departments. Specialist software companies supply nodule characterisation and risk prediction tools cleared for that purpose, several of which are used in European organised programmes. Imaging service operators perform scans under contract and in some cases own the analysis software. Blood-based test developers address selection rather than detection and are at an earlier stage of regulatory progress.
Programme contracts rather than departmental purchases are becoming the route to market, because organised programmes procure identification, invitation, imaging, reporting and recall as a system over several years rather than buying a scanner or a licence. A supplier able to deliver across primary care and radiology therefore competes for work that a supplier of any single component cannot bid for, and the incumbent position in radiology does not transfer automatically to that contest.
Clearance for a specific lung screening claim separates the software suppliers, since a tool cleared for lung nodule detection or for malignancy risk estimation can be specified in a programme tender while a general image analysis product cannot. That requirement favours the specialists who pursued narrow clearances over the larger manufacturers whose strength is the installed scanner base.
Key players operating in the global Lung Cancer Screening Market are Siemens Healthineers AG (Germany), GE HealthCare Technologies Inc. (U.S.), Koninklijke Philips N.V. (Netherlands), Canon Inc. (Japan), United Imaging Healthcare Co., Ltd. (China), RadNet, Inc. (U.S.), Optellum Ltd (U.K.), Coreline Soft Co., Ltd. (South Korea), Qure.ai Technologies Private Limited (India), Median Technologies S.A. (France), Riverain Technologies, LLC (U.S.), and Delfi Diagnostics, Inc. (U.S.).
Companies are identified at registered legal entity level, and capability held within a group is attributed to the entity that owns it. Canon Medical Systems is not listed separately, because it sits within Canon Inc. and appears here under that parent, and the nodule analysis software acquired by RadNet, Inc. appears under that company rather than under its former names. Delfi Diagnostics, Inc. and Median Technologies S.A. are included on the basis of tests and software in regulatory development rather than fully approved supply, and that status is stated in each profile. The companies profiled were verified as active in the supply of lung cancer screening imaging, software or tests as of October 2026. Computed tomography scanner manufacture considered as capital equipment, diagnostic imaging performed after symptoms present, bronchoscopy and biopsy devices, pathology and molecular testing of diagnosed tumours, smoking cessation products and services, and lung cancer therapeutics were excluded.
- Siemens Healthineers AG · Germany
- GE HealthCare Technologies Inc. (U.S.)
- Koninklijke Philips N.V. · Netherlands
- Canon Inc. · Japan
- United Imaging Healthcare Co., Ltd. · China
- RadNet, Inc. (U.S.)
- Optellum Ltd (U.K.)
- Coreline Soft Co., Ltd. · South Korea
- Qure.ai Technologies Private Limited · India
- Median Technologies S.A. · France
- Riverain Technologies, LLC (U.S.)
- Delfi Diagnostics, Inc. (U.S.)
Expert perspectives
The American Lung Association 2026 Lung Health Barometer reports that only 24.5% of eligible individuals are currently being screened, with 24.8% among women and 24.0% among Black individuals, that only 25% of cases are diagnosed early on SEER 2022 data where the five-year survival rate climbs to 65%, and that among 4,000 people surveyed only 33% were aware of the screening available to those who are eligible. The United States Preventive Services Task Force recommendation dated 9 March 2021 gives annual screening with low-dose computed tomography a grade B in adults aged 50 to 80 years with a smoking history of at least 20 pack-years who currently smoke or who quit within the past 15 years, following shared decision-making about the benefits, limitations and harms, and advises stopping once a person has not smoked for 15 years or when a health problem limits life expectancy or the ability to have lung surgery. The previous recommendation applied to ages 55 to 80 with a 30 pack-year history. A screening programme with randomised evidence, a grade B recommendation in force since 2021 and national coverage since 2015 that reaches a quarter of its eligible population is failing at delivery rather than at design. National coverage determination 210.14, applying to claims with dates of service on or after 10 February 2022, requires a beneficiary to be 50 to 77 years old, to have no signs or symptoms of lung cancer, to have a smoking history of at least 20 pack-years, to be a current smoker or to have quit within the last 15 years, and to hold an order for the screening. A counselling and shared decision-making visit must take place before the first scan and be documented in the medical record, covering determination of eligibility, shared decision-making using one or more decision aids, counselling on annual screening adherence, the effect of comorbidities and the willingness to undergo diagnosis and treatment, and counselling on remaining smoke-free or on quitting with tobacco cessation interventions where appropriate. The reading radiologist must be board certified or board eligible with the American Board of Radiology or an equivalent organisation, and the imaging facility must use a standardised lung nodule identification, classification and reporting system. Eligibility turns on a smoking history in pack-years and a quit date, which most records do not hold in structured form, so a health system cannot list its eligible patients from its own data and a counselling appointment has to precede every scan. The binding constraint is therefore shifting from imaging capacity and reimbursement to the identification and recall of people who already qualify.
Expenditure is expected to continue moving from imaging towards identification through 2036, since a programme can only scan the patients it can first find, and the software that extracts smoking history, prompts its capture and maintains a registry of eligible and due patients grows faster than the scanning it enables. Organised programmes are expected to continue replacing opportunistic ordering, which moves procurement from departmental budgets to multi-year programme contracts. Risk-model selection is expected to displace fixed pack-year criteria where programmes are funded on cancers detected per scan.
For companies planning entry or expansion, supplying the identification and recall infrastructure addresses the obstacle that imaging capacity cannot, carries recurring licence revenue rather than per-scan payment, and is bought by programme commissioners rather than radiology departments. Mobile and community delivery reaches the population in which smoking prevalence is highest and attendance lowest. A clearance for a specific lung nodule or malignancy risk claim is what allows a software product to be specified in a programme tender at all.
Nodule classification consistency limits programme quality, because a low-dose scan finds nodules in a substantial proportion of those screened and most are benign, so variation between readers and sites produces either unnecessary investigation or missed cancers. The counselling visit requirement lengthens the pathway and consumes primary care capacity, and the mismatch between a recommendation extending to 80 and Medicare coverage ending at 77 leaves a discontinuity that has no clinical basis and that a clinician has to explain.
Overall, the core of demand through the forecast period will continue to sit in low-dose computed tomography screening procedures ordered opportunistically against fixed risk-factor criteria and performed in hospitals and academic centres across North America, while the fastest growth will come from eligibility, registry and navigation software, blood-based biomarker testing, organised and targeted national programmes, risk-model based selection, mobile screening units and European markets.
Customer perspectives
Clinical Director, Targeted Lung Health Check Programme
This perspective confirms that identification rather than imaging capacity is the limiting factor, because eligibility depends on data that records do not hold in structured form. It supports the conclusion that expenditure is moving towards registries, smoking-history capture and recall rather than towards additional scanning.
Consultant Radiologist, Screening Reporting Hub
This perspective confirms that nodule classification consistency rather than detection governs programme performance, since most findings are benign. It supports the requirement for a standardised identification, classification and reporting system and explains why nodule characterisation software is purchased alongside imaging.
General Practitioner, Urban Primary Care Practice
This perspective confirms that the required counselling visit places a clinician appointment ahead of every imaging appointment and consumes constrained primary care capacity. It also explains why awareness and outreach determine participation more than clinical willingness, given that only a third of people surveyed knew the screening was available. It also indicates that delivering the counselling requirement through physicians alone is unlikely to scale to the population the recommendation covers. Navigator-delivered counselling is the response most programmes have adopted where regulations permit it. That shift also changes who a supplier of decision aids and documentation tools sells to.
Frequently asked questions
The market was valued at USD 4.15 billion in 2025 and is estimated at USD 4.85 billion in 2026.
Cite this report
Meticulous Research. (2026). Lung Cancer Screening Market - Global Opportunity Analysis and Industry Forecast (2026-2036) (Report No. MRHC - 1042442). Meticulous Market Research Pvt. Ltd. https://www.meticulousresearch.com/product/lung-cancer-screening-market-7125