Laura Webber and Olivia Seifert
In 2024, the World Health Organization (WHO) reported that noncommunicable diseases (NCDs) – including cardiovascular diseases, chronic kidney disease, obesity, hypertension, and diabetes – account for approximately 75% of all deaths worldwide. This positions cardiovascular, renal, and metabolic (CVRM) conditions as among the most pressing public health challenges globally. These conditions are chronic, complex, and interconnected – and their health and economic impact continues to grow. As populations age and rates of multimorbidity rise, health systems face increasing pressure to act earlier and more effectively.
For pharmaceutical and biotech companies working in CVRMs, understanding future disease burden is essential for long-term strategy by informing decisions regarding where and when to invest resources for maximum impact of return. This is important when developing therapeutic interventions, but also for identifying where those interventions can have the greatest impact, and for making the case to act sooner.
In this context, epidemiological modelling is playing a growing role in evidence generation.
Why disease burden modelling matters
While real-world data and clinical trial results remain foundational, they do not provide the broader picture of population-level disease dynamics over time. Epidemiological modelling allows teams to estimate future burden, and forecast how disease prevalence, incidence, and outcomes will evolve over time, as well as how interventions might change those trajectories.
This is particularly relevant for CVRM diseases, which often remain undetected in patients until complications arise in more advanced disease stages. Whether it’s heart failure, chronic kidney disease (CKD), or type 2 diabetes, the same pattern often holds: late diagnosis results in costly management of the condition downstream.
A central aim of disease burden modelling is to shift that paradigm – quantifying the benefits of earlier intervention and using this data to support the design of healthcare systems and interventions that diagnose and treat disease sooner (see Case Study 1, below).
Case Study 1
Company: Amgen (Horizon Therapeutics)
Condition: Gout as a co-morbidity of CKD
Objective: Raise awareness of the health and economic burden and demonstrate impact of intervention scenarios
Outcomes: Study projected a substantial increase in comorbid gout and CKD. However, improved use of urate lowering interventions could mitigate this growth and reduce the health and economic burdens of gout.
More info: https://link.springer.com/epdf/10.1007/s40744-024-00681-2
Turning evidence into action
Using burden of disease studies to generate evidence is relevant to cross-functional teams within pharmaceutical and biotech companies, including those working in Medical Affairs, Policy and Public Affairs, Commercial Strategy and Business Development, and Real-World Evidence and Health and Economic Outcomes Research (HEOR) teams. Epidemiological modelling is increasingly being used to guide:
1. R&D prioritisation
2. Market access and commercial strategy
3. Global health and equity planning
4. Strategic foresight and policy engagement
5. Investor and stakeholder engagement
In each case, the aim is the same: generate credible, scalable evidence that supports early action, shapes policy environments, and positions the company as a leader in disease management (see Case Study 2 below) – especially critical in the field of CVRM, where disease burden is rising but progress is often slow.
Case Study 2
Company: AstraZeneca
Condition: CKD
Objective: Raise awareness of the health and economic burden and demonstrate impact of intervention scenarios
Outcomes: Across the 31 participating countries/regions, the total prevalence of CKD was projected to rise. Screening methods CKD were found to be cost-effective in general populations worldwide.
More info: https://www.insideckd.com/
Microsimulation: Capturing the complexity of CVRM
The progression of CVRM conditions is shaped by dynamic, patient-level factors – including age, comorbidities, and treatment access – that evolve over time. Traditional modelling methods often miss this complexity, relying on static inputs and population-level assumptions.
Microsimulation offers a more granular approach which makes it particularly well-suited to CVRM diseases. It models individual patients, capturing dynamic risk factors that can be modified over time. This allows for richer forecasting of outcomes – making microsimulation a valuable tool for policymakers who wish to consider how a specific demographic may be affected by a condition well into the future, as illustrated in Case Studies 3 and 4 below.
Case Study 3
Organisation: Nesta
Condition: Obesity and related non-communicable disease
Objective: Produce a toolkit that evaluates the health impact and cost of obesity-reduction initiatives for use by policy makers
Outcomes: Quantified the 5-year health impact and cost-effectiveness of 30 different obesity policies in the UK.
More info: https://blueprint.nesta.org.uk/
Case Study 4
Organisation: EASL (European Association for the Study of the Liver)
Condition: Chronic Liver Disease and Liver Cancer
Objective: To estimate the impact of policy interventions on liver diseases in several European countries
Outcomes: The study showed how policies targeting drivers of alcohol consumption and obesogenic products via a harmonized fiscal policy framework, could markedly reduce the number of Europeans with CLD or liver cancer.
More info: https://www.sciencedirect.com/science/article/abs/pii/S0168827823052972?dgcid=coauthor
Microsimulation captures:
What microsimulation delivers:
For commercial, policy, and investor-facing teams, this brings a new level of clarity: sharper value stories, more confident market assessments, and a stronger case for early and equitable action.
The evolving role of epidemiological modelling
As pharmaceutical and biotech organisations expand their role in shaping health policy, demonstrating value beyond the product is critical. Burden of disease modelling, and microsimulation in particular, provides a way to generate robust, adaptable insights at scale to support this shift.
In fragmented systems, modelling provides a shared, data-driven foundation for multi-stakeholder dialogue. In complex disease areas, it helps visualise long-term value. And in competitive therapeutic spaces, it strengthens positioning with clear, scenario-based insights.
With CVRM conditions projected to account for an ever-larger share of global healthcare spending, the need to quantify unmet burden in this area is key, not just for meeting internal planning needs, but for shaping the environments in which new interventions are introduced, and the future of care.
Contact HealthLumen today to learn about how our burden of disease modelling expertise can help generate evidence to support your strategic decision-making.