Championing cardiovascular health innovation in Europe

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European Heart Journal Advance Access published July 6, 2013

Michel Komajda1*, Andrew Coats2, Martin R. Cowie3, Neville Jackson4, Anders Svensson5, and Panagiotis Vardas1, The Cardiovascular Round Table (CRT)†


1 European Society of Cardiology, Heart House, 2035 Routes Des Colles, 06903 Sophia Antipolis, France
2 University of Warwick, Coventry, UK
3 Imperial College London, Royal Brompton Hospital, London, UK
4 Pfizer, New York, NY, USA
5 F. Hoffmann-La Roche, Basel, Switzerland


† CRT member organizations are Abbot Vascular, Astra Zeneca, Bayer Healthcare, Boehringer-Ingelheim, Bristol-Myers Squibb, GlaxoSmithKline, F.Hoffmann-La Roche, Medtronic, Merck, Novartis Pharma, Pfizer, Philips Medical Systems, Sanofi, Servier International, Siemens, St Jude Medical.
Published on behalf of the European Society of Cardiology. All rights reserved. &The Author 2013. For permissions please email: journals.permissions@oup.com


Received 31 December 2012; revised 3 April 2013; accepted 23 May 2013


Introduction

The Cardiovascular Round Table (CRT)1 is an indepen­dent forum established by the European Society of Car­diology to facilitate the exchange of scientific know­ledge between cardiologists and representatives of the pharmaceutical and medical device industries. Its pur­­pose is to provide a non-commercial environment within which experts can freely discuss future issues in cardiovascular medicine and consider the merits of newdiagnostics and treatment techniques.
The CRT is concerned that a new epidemic of cardiovascular disease (CVD) is gaining ground in Europe as a result of the growing prevalence of metabolic disorders such as obesity and diabetes, and comes at a time when support for innovation in cardiovascular medicine is waning.
The opinions expressed in this article are not nece­ssarily those of the Editors of the European Heart Journal or of the European Society of Cardiology.
The epidemic represents a massive challenge in ter­ms of managing avoidable disease and death, but it is also a huge opportunity for EU universities, compani­es, and healthcare providers to be at the forefront of a global response.
A combination of innovation and prevention education campaigns is clearly needed. Investment to develop new treatments to combat the epidemic is, however, under threat from falling margins, particularly in the pharmaceutical sector. Increased regulation, high development costs, and slow time-to-market are all cited as reasons, and the consequence is a clear shift in R&D focus to other geographical regions and medical areas likely to yield better returns.
This scenario will result in Europe’s healthcare sys­tems facing spiralling cost increases, while patients may not receive appropriate diagnosis and treatment. Europe could lose its leading position in cardiovascular-related research, science, and manufacturing just when emerging economies will have most need to pay for innovation.
Without decisive action, the CRT forecasts far-reaching social and economic consequences for Europe as the new epidemic takes hold. Already a major drain on national budgets, the outlook is likely to worsen con­siderably if left unchecked. Cardiovascular conditions currently account for over 10% of total healthcare ex­penditure across Europe and Cause significant lost pro­ductivity through workplace absence. The social impact of disability, hospitalization, informal care arra­n­ge­ments, and premature deaths on family units can­not be measured but will inevitably have a major negative im­pact.
A sustained period of reduced investment could also precipitate a rapid decline in Europe’s cardiovascular innovation and pharmaceutical industry, and lower its scientific and commercial influence. At risk is the major direct and indirect contribution2 to the European eco­nomy, export performance, and employment. Such a scenario would also damage Europe’s ability to respond to the inevitable increase in global demand for new CVD treatments, drugs, and techniques.
In making these predictions, the CRT does not seek to be alarmist. Its membership enjoys a unique per­spec­­tive of the challenges to innovation from across the complete cardiovascular spectrum and lifecycle. The CRT’s objective in writing this article is to raise the pro­file of patient needs and ensure that due consideration is given to closing the innovation gap.
While this article does not specifically address prevention education, theCRTfirmly endorses the potential forawareness campaigns. These play a major role in influencing the lifestyle choices that lower risk exposure to CVD and metabolic conditions. The power of prevention strategies was well demonstrated by a study3 of the North Karelia region of Finland in which communications were integrated with primary healthcare alongside collaboration fromthe food industry. Over 25 years, male deaths from CVD reduced by 68%.

Background

Every year, 4.3 million Europeans die4 from the effects of CVD, while treatment and related costs are estimated at E196 billion/annum. It remains Europe’s leading killer despite scientific advances that have arrested—and even reversed—the steep year-on-year mortality incre­ase that used to characterize CVD statistics5. By any measure, the global fight against CVD has been very successful. Research from the USA6 has shown that, of the 6-year increase in life expectancy between 1970 and 2000, _65% of the increase—or almost 4 full years—is due to reductions in CVD mortality alone. As positive as this scenario is, CVD remains by far the leading cause of death and the new epidemic has the potential to threaten the advances made to date. The same US research shows that increased life expectancy due to improved cancer therapies is only ~3 months (Figure 1).

Figure 1. Cumulative contribution to life expectancy increase, 1970–2000.

Figure 1. Cumulative contribution to life expectancy increase, 1970–2000.

Many of the advances originated in Europe, the result of sustained R&D innovation and cooperation between academics, cardiologists, scientists, and industry. Notable among them have been the following:

  • diagnostic imaging tools including radiology and cardiovascular ultrasound;
  • new interventional procedures for arrhythmias and coronary artery disease;
  • development and exploitation of drug families in­cluding ACE inhibitors, statins, beta-blockers, ARBs, and anti-thrombotic/thrombolytic agents;
  • better understanding of CVD risk factors.

Now, however, Europe is facing a series of emerging trends related to cardiovascular health that could threaten to overwhelm healthcare systems. The rapidly ageing European population is a factor that creates significant problems with many long-term implications. By 2050, the number of people over 50 will rise by 35% and over 85 by 300%. Even if the current rates of diseases in these age groups remain static, many millions more Europeans will suffer from CVD.

There has been a dramatic rise in the detection of cardio-metabolic disorders such as diabetes, while obesity is also a major concern7. The International Diabetes Federation reports thatover 50 millionadults in the EU have diabetes8 and that this number will grow to 64 million by 2030. Other research suggests that 66% of these will die from heart disease or stroke9. Recent work by the Chronic Diseases Collaborating Group10 asserts that, globally, one in nine adults has a measured body mass index ≥30 kg/m2, while the International Association for the Study of Obesity (IASO) states that adult obesity rates in some EU27 countries exceeds 23%11. The incidence of atherosclerosisrelated CVD is expected to accelerate and adverse lifestyle factors such as poor exercise regimes, high fat and sugar diets, and alcohol and tobacco consumption continue to present major risks, especially in the younger population.
Against this backdrop, it is not surprising that an increase in the number of European deaths from CVD and cardio-metabolic disorders is forecast12. According to the WHO, CVD and diabetes accounted for over 50% of all global deaths from non-communicable diseases worldwide in 2008 and 30% of all deaths, while the global cost of treatment over the next 20 years has been estimated at a staggering $24 trillion (Figure 2)12.

Figure 2. Global distribution of deaths from non-communicable diseases (NCDs).

Figure 2. Global distribution of deaths from non-communicable diseases (NCDs).

To illustrate the scale of the epidemic faced by Europe,we can look at forecastsmade in the USA. The American Heart Association (AHA) warned in a recent Policy Statement that, by 2030, over 40% of the US population will have at least one form of CVD13. This deeply concerning statistic has profound health and socio-economic implications for Europe, and clearly demonstrates a compelling need for R&D to come up with new treatment strategies and products that sup­port those strategies alongside, of course, prevention education.

Having noted the trends, and the difficulties in sustaining improved cardiovascular health levels, cardiologists have identified a number of key areas in which additional R&D is urgently required:

  • treatment of chronic and acute heart failure, especially when associated with preserved ejection fraction;
  • prevention and treatment of cardio-metabolic diseases;
  • treatment of arrhythmias, especially related to atrial fibrillation for which there is 25% prevalence in the 80+ population;
  • development of moreeffective and safer anti-throm­botic and antiatheroma drugs.

It is therefore worrying to observe that, when innovation is most needed, and indeed when the likelihood of future export opportunities is highest, R&D activity in Europe appears to be stagnating. The CRT contends that EuropeanR&Dactivity should be an absolute priority at least as long as cardiovascular disorders remain a leading cause of avoidable death.

The innovation landscape

Cardiovascular-related innovation in Europe is charac­terized by reductions in pharmaceutical R&D pro­duc­­tivity and strong evidence that CVD is no lon­ger regarded as a priority area. Research carried out by Thomson Reuters suggests that global pharmaceutical R&D investment has failed to keep pace with sales growth and may have fallen since 200814. Over the period 2000–10, the analysis points to a 20% increase in time-to-market for new drugs with, almost certainly, a consequential increase in development costs. These findings clearly put pressure on those making investment decisions to ensure the best returns (Figure 3).

Figure 3. Changes in pharmaceutical industry productivity 2000–10.

Figure 3. Changes in pharmaceutical industry productivity 2000–10.

KMR Group, however, takes a different perspective and states that, while global pharmaceutical R&D activity is still rising, it is actually translating into fewer marketable products15. Its research indicates that the ratio of new molecular entities (NMEs) at pre-clinical development to those that eventually make it through to product approval has increased from 12:1 (2003–07) to 30:1 (2007–11). This trend is repeated at all stages of development and appears to show a ‘kill’ policy at the first sign of risk.
In terms of cardiovascular innovation, both theWHO and the EU have recognized that R&D activity is insufficient to meet the anticipated need. Yet, analysis by Thomson Reuters14 (see Figure 4) shows that the number of new CVD drug development programmes has dramatically reduced over the last few years and that CVD has not occupied a place in the Top 5 active research areas since 2005.

Figure 4. Active research therapeutic areas; 2005–10.

Figure 4. Active research therapeutic areas; 2005–10.

Other research has identified that cardiovascular-related R&D has experienced the biggest contraction in what is a general decline in overall R&D activity16. This is reinforced by US data that confirm that, of 2900 drugs currently in R&D, just 312 are targeted at CVD17. Other US research shows the stark contrast between CVD drug development and CVD device development18. In the area of valvular heart disease, for instance, there are just two drugs currently in trials, while the pipeline of new devices indicates a total of 20 in trials or awaiting approval (Figure 5).

Figure 5. Pipeline comparison; cardiovascular drugs and devices.

Figure 5. Pipeline comparison; cardiovascular drugs and devices.

The investment shift onto devices and other medical areas including cancer, infectious diseases, and neuro­logy, although understandable, is nevertheless disturbing given that CVD-related mortality remains the main cause of death, and cardiovascular morbidity is predicted to sharply increase.

Europe’s R&D investment crisis

The scale of the challenge facing Europe’s pharmaceutical companies is shown in recent research19 by the European Federation of Pharmaceutical Industries Associations (EFPIA). This highlights that out of 5000 R&D ‘starts’, just one makes it to product launch while the Economist suggests that each new drug reaching market will cost an average of E1.3 billion to develop20. The decline in European Cardiovascular R&D productivity appears more marked than in other jurisdictions. This has been widely attributed to corporate pressure for higher returns on investment (ROI) from development projects in response to rapidly rising development costs driven by changes to European regulatory and clinical trial processes.
In a recent interview, Sir Andrew Witty, Chief Executive of GlaxoSmithKline, highlighted that the European market no longer drives investment decisions in the way it once did21. He particularly cited pricing pressure and noted that year-on-year reductions of 6–7% were normal. He added, ‘Europe is saying it’s not very interested in new products. It doesn’t mean we’re not going to develop them for Europe but we’re going to prioritize countries that want to prioritize innovation and that’s clearly America, Japan and some of the leading countries in emerging markets.’
European R&D is characterized by high costs due to lengthy timescales and a complex approval process, exacerbated by high wages and operational expenditure22.This combination of rising cost and reducing revenues is clearly an unsustainable mix. Although Europe’s 2001 Clinical Trials Directive established very high stan­dards of patient safety, it has led to an environment that delays time-to-market and has deterred investment. Analysis shows a 15–25% decrease in the number of clinical trials conducted in Europe between 2007 and 201123. Further evidence of the deteriorating situa­tion is provided by research showing that the number of NME marketing approvals is stagnating24.
While reaffirming its total support for patient safety, the CRT welcomes the announcement that the Clinical Trials Directive is to be revised while noting that new procedures will not be ready until at least 2016. It is vital to ensure that over-zealous benefit and risk assessments do not delay this important initiative, and that it addresses major imbalances in the scale of patient trials under which oncology drugs can gain approval with far smaller and faster registration programmes than cardiovascular—yet another factor deterring CV-related investment.
Time-to-market is the crucial factor in making investment decisions. With a patent life of 20 years and a typical end-to-end approval process in Europe that can exceed 15 years, there is only a short window to fully exploit intellectual property value. Reducing the process by just 1 year will have profound benefits to ROI and to where R&D investment is committed. The recent closure of mainstream R&D facilities in Europe by companies including Astra Zeneca, Merck, GlaxoSmithKline, Pfizer, and Sanofi is clear evidence of an investment crisis that has to be addressed and a regulatory environment that must be simplified.
Moving beyond the complexity of the regulatory environment, there are other factors which are contributing to the decline in CVD-related innovation in Europe. These include the following:

  • each European country imposes unique pricing and reimbursement systems;
  • research projects by government, academia, scientific bodies, and industry display multiple levels of responsibility;
  • ‘Open’ markets encourage cross-border parallel trading.
  • Austerity-led cost reduction programmes impact pricing, delay payment terms and increase the commercial risk of supply contracts.
  • Costly post-approval regulatory demands affect pharmacovigilance and marketing processes.

Innovation matters

Innovation in Europe flourished because of regulated infrastructure, highly qualified and motivated scientific talent, open markets, and political stability. The European intellect has made significant contributions to techniques and treatments, with many notable achievements.
Innovation matters most, of course, to European patients. Improving the quality of life should, in itself, be the fundamental reason to resolve the innovation gap. However, innovation in cardiovascular R&D also matters to taxpayers. The estimated financial burden of CVD is currently E196 billion annually of which E105 billion is direct healthcare costs, with a further E47 billion assessed as the loss of productivity across the European economy due to sickness and absence and E44 billion as the costs of informal family-based care.
In addition, pharmaceuticals is a strategic industry across Europe. Its economic importance is demonstrated by 2010 estimates1, which show a trade balance of E70 billion on total exports worth E270 billion, and total employment of 640 000. R&D alone employs 115 000 highly qualified staff, and has an annual budget of E27 billion. This represents 17% of Europe’s total business R&D investment across all industrial sectors.
The lack of CVD innovation inevitably has conse­quences. Shifting the focus of R&D from cardiovascular to other medical areas may well satisfy short-term bu­siness imperatives but does nothing to improve CVD morbidity and mortality. Shifting the focus of R&D away from Europe will have a major impact on eco­no­mic performance, social cohesion, and scientific know­ledge. Despite current concerns, Europe still offers po­si­tive advantages as a location for cardiovascular-re­la­ted R&D:

  • established EU-wide processes for quality control and regulatory approval;
  • extensive, mobile talent pool including experienced researchers;
  • proximity to leading universities with a track record in innovation and fundamental research;
  • track record of collaboration between industry and academia;
  • access to important data sources;
  • EU funding and support for innovation;
  • established government research organizations;
  • pan-European cooperation.

Recommendations

Stakeholders should urgently come together in a forum to openly discuss the issues raised in this article and allocate actions. As a minimum, the participants should be drawn from the EU, national healthcare authorities, national finance ministries, academia, medical societies, and representatives of the pharmaceutical and medical device industries. The agenda needs to focus on the following:

  • to undertake a review of the issues that are driving R&D investment to other jurisdictions;
  • to develop and implement a strategic plan that reverses the decline in cardiovascular-related R&D in Europe;
  • to simplify the clinical trials environment for new CV drugs and devices;
  • to better target EU funding and investment through, for instance, tax incentives and sponsored development programmes;
  • to encourage Europe’s pharmaceutical industry to develop the necessary drugs;
  • to consolidate and extend Europe’s proven scientific leadership and successful track record;
  • to review patent duration in the context of development timescales and scale of investment;
  • to encourage cross-border and cross-discipline co­llaboration and networking;
  • to improve communications between professional cardiovascular and cardio-metabolic communities and the pharmaceutical industry on one side, and patients on the other.

Call to action

The CRT invites:

  • EU institutions and national governments to co­mmit to steps that establish a more favourable environment for cardiovascular R&D however it is funded.
  • EU institutions and national governments to allocate additional public funding to encourage more cardiovascular R&D programmes and respond to the threat to public health.
  • policy makers to measure and analyse the cost of inaction compared with the benefits of a vibrant cardiovascular R&D environment.
  • policy makers to investigate and propose forward-looking regulatory measures that balance patient safety with a climate for genuine R&D innovation.
  • pharmaceutical companies to review the commercial risk environment relating to cardiovascular R&D and reassess investment decisions in light of the potential epidemic.
  • cardiologists and scientists to make concerted efforts to identify further needs in CVD, prioritize them, highlight them, and lobby for pre-emptive funding to address the expected increase in NCDs.

These actions, together with aggressive promotion of prevention strategies including lifestyle factor changes, can address the threat of a cardio-metabolic epidemic in Europe.

Conflict of interest: The views expressed in this article represent a consensus of the authors and do not necessarily reflect the views of the organizations that employ, retain, or contract with the authors.

References

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