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Reporter: Aviva Lev-Ari, PhD, RN

BIOMEDevice Boston Conference 2013
April 10-11 2013, Boston, MA

 

New conference format for 2013…

Don’t miss out on 2013’s new and improved BIOMEDevice Boston Conference.

Choose from six seminar sessions across the two day conference that will deliver crucial insights and guidance on biomedical regulations, design engineering, new biomaterial innovations and product development for the medical device industry.

Six Solution Packed Seminars

April 10, 2013 April 11, 2013
10:00-11:45am Seminar 1
Advanced Technology and Device Innovation
Seminar 4
Accelerating Speed to Market 
1:00-2:45pm Seminar 2
Intelligent Design for Implantable Devices
Seminar 5
FDA Regulatory Guidance and Updates
3:15-5:00pm Seminar 3
New Innovations in Drug Device Combination Products
Seminar 6
Human Factors: Enhancing Usability and Managing Risk

Conference Speakers



Jay Crowley, Senior Advisor Patient Safety, FDA

Jay Crowley is Senior Advisor for Patient Safety, in FDA’s Center for Devices and Radiological Health. He is interested in developing and implementing new methods and techniques for identifying and resolving problems with the use of medical devices. Jay has held variety of positions over his 25 years at FDA. Currently, Jay has responsibility for implementing the Unique Device Identification requirements of the 2007 FDA Amendments Act and 2012 FDA Safety and Innovation Act. He holds a master’s degree in risk analysis and a bachelor’s degree in mechanical engineering.





Emmanuel Nyakako
, Senior VP of Global Quality & Regulatory Affairs, Zimmer Inc

 




Matthew Myers, PhD, Research Physicist, FDA 

Matthew R. Myers received his doctorate in Applied Mathematics from the University of Arizona. He worked in the research and development laboratory of Corning Glass Works, where he performed mathematical modeling of fiber drawing and other processes involving molten glass. Dr. Myers was later employed as an acoustics consultant with BBN Systems and Technologies. In 1990, Dr. Myers joined the Center for Devices and Radiological Health of the U. S. FDA. He has performed mathematical modeling in the areas of drug delivery, cardiovascular implants, virus transport, and most recently, therapeutic ultrasound. His current research areas include noninvasive methods for pre-clinical testing of focused-ultrasound surgery devices, and modeling of debris retention in reusable medical devices. Dr. Myers also performs consulting reviews on device submissions involving fluid flow and acoustic wave propagation, most recently applications to treat Parkinson’s disease and Essential Tremor with therapeutic ultrasound.




Dr. Thomas J Webster, Associate Professor, Divisions of Engineering and Orthopaedic Surgery, Brown University 

Thomas J. Webster’s degrees are in chemical engineering from the University of Pittsburgh (B.S., 1995) and in biomedical engineering from Rensselaer Polytechnic Institute (M.S., 1997; Ph.D., 2000). He is currently the Department Chair and Professor of Chemical Engineering at Northeastern University in Boston. He has graduated/supervised over 109 visiting faculty, clinical fellows, post-doctoral students, and thesis completing B.S., M.S., and Ph.D. students. To date, his lab group has generated over 9 textbooks, 48 book chapters, 306 invited presentations, at least 403 peer-reviewed literature articles, at least 567 conference presentations, and 32 provisional or full patents. His H index is 47. Some of these patents led to the formation of 9 companies. He has received numerous honors including, but not limited to: 2002, Biomedical Engineering Society Rita Schaffer Young Investigator Award; 2005, Coulter Foundation Young Investigator Award; 2011, Oustanding Leadership Award for the Biomedical Engineering Society (BMES); and Fellow, American Institute for Medical and Biological Engineering.




John (Barr) Weiner, Associate Director of Policy, Office of Combination Products, FDA 

John Barlow Weiner is the Associate Director for Policy in the Food and Drug Administration’s Office of Combination Products, which is tasked with the classification and assignment for regulation of therapeutic products (drugs, devices, biological products, and combination products), and with ensuring the sound and consistent regulation of combination products. Prior to joining OCP, Mr. Weiner was an Associate Chief Counsel in FDA’s Office of Chief Counsel, advising the agency on various issues including regulation of drugs and cross-cutting topics including the regulation of products that use nanotechnology. Before coming to FDA, Mr. Weiner was in private practice in the areas of food and drug, environmental, and related aspects of public international and trade law. He has published and lectured on topics in all three areas. Mr. Weiner received a BA from Princeton University and a JD with honors from the Columbia University School of Law.




Olivia Hecht
, Senior Marketing Manager, Wireless & Networking, Philips Healthcare

Olivia Hecht is currently Sr. Manager of Technology and Platforms Integration, for Philips Healthcare Patient Care and Clinical Informatics. She came to the healthcare industry with over 20 years in the information technology sector working in product management and product marketing for companies such as Bay Networks, an early innovator in network infrastructure; RSA Security, a leader in enterprise security; and Legra Systems, a start up manufacturer of enterprise Wi-Fi equipment. She has a Masters degree from the Massachusetts Institute of Technology and Bachelor of Science in Biology.




Joel Kent, Regulatory Affairs Manager, GE Healthcare 

Joel Kent, RAC (Canada, EU and US) is currently Manager, Regulatory Affairs for GE Healthcare, Healthcare Systems Patient Care Solutions business. He has 18 years experience in regulatory affairs covering a variety of medical devices. He holds a Bachelor of Science degree in Electrical and Biomedical Engineering from Duke University and a Master of Science in Biomedical Engineering, Worcester Polytechnic Institute. Mr. Kent has nine publications related to pulse oximetry and gastric tonometry and has been granted two US and Japanese Patents for Remote Sensing Tonometric Catheter Apparatus and Method. He is a lecturer at Northeastern University, Boston, MA and is an IEEE Senior Member and American Society for Quality (ASQ) Senior Member. In addition, he is a Regulatory Affairs Professional Society (RAPS) member serving as Vice-Chair of the RAPS Boston Chapter and member of the RAPS 2008-2011 Annual Conference Committee and RAPS Annual Conference Preconference workshop committee on Latin America Medical Device Regulations in 2012. Speaking engagements have included the RAPS Annual Conferences, Medical Devices Summit East 2011, 2012 and 2013 and the 11th annual AdvaMed Emerging Growth Company Council conference.




Pat Baird, Product Design Owner, Baxter Healthcare

Pat Baird is a Product Design Owner at Baxter Healthcare, with oversight responsibility for over $400M in installed medical devices. His previous roles included software developer, function manager, program manager, and engineering department manager. Drawing on 20 years’ experience in product development, he has published and presented over 30 papers on topics such as software development, change management, stakeholder management, and risk management. He is currently the co-chair of the AAMI Infusion Pump Standards committee, chair of the Assurance Case Technical Information Report Working Group, a US representative to the IEC standards committee, founder of the Infusion Systems Safety Council and the Coalition of Organizations Reporting Adverse Events. He has earned multiple industry awards for his work to advance patient safety. He recently completed a Masters in Healthcare Quality and Patient Safety at Northwestern University in Chicago.




Dr. Eric Ledet, Associate Professor, Rensselaer Polytechnic Institute

Eric Ledet is an Associate Professor in the Department of Biomedical Engineering at Rensselaer Polytechnic Institute where he has taught medical device design and maintained an active research program in orthopaedic biomechanics for the last 9 years. Prior to joining RPI, he served as Director of the Orthopaedic Research Program at the Albany Medical College for 9 years. He has served as a consultant to medical device companies for 15 years and is currently principal partner in three medical device startup companies. He earned a bachelor’s degree in mechanical engineering from the University of Arizona and a Master of Science and doctorate in biomedical engineering from Rensselaer Polytechnic Institute.




Judith K Meritz, Associate General Counsel, Covidien




Jeffrey Morang
, Human Factors Engineer and User Experience Analyst, Siemens Healthcare Diagnostics

Jeffrey Morang is a Human Factors Engineer for the Point of Care line of instruments at Siemens Healthcare Diagnostics. Jeff received his MS in Human Factors and Ergonomics from San Jose State University. Jeff has experience as a researcher in aeronautical human factors, focusing on human perceptual and cognitive performance, for the Virtual Airspace Modeling and Simulation Project at the NASA Ames Research Center. After graduation, he joined Future Combat Systems project at British Aerospace Systems responsible for mapping soldier roles and assessing their cognitive and physical workloads using real-time usability testing methods. Jeff has brought that expertise to his current position at Siemens where his team is responsible for employing a synergistic design and testing methodology on behalf of a variety of end users in the relatively new area of healthcare called Point of Care.




George Papandreou, VP Quality, Lutonix, CR Bard 

George Papandreou, Ph.D., is Vice President of Quality at Lutonix, a subsidiary of C.R. Bard. In his current position, George is working on drug-coated balloons for the treatment of peripheral artery disease. George has extensive experience in formulation, analytical characterization and process development. He has a proven record in the commercialization of advanced drug delivery concepts, such as drug/device combination products, and has contributed in the approval of novel therapeutic solutions, such as the CYPHER® Sirolimus-eluting Coronary Stent. He has defined the strategy to address Chemistry Manufacturing and Controls issues, and has significant expertise in troubleshooting complex technical and quality issues during research, development and manufacturing of drug products. George has earned a Ph.D. in organic chemistry, and has co-authored of over 35 publications, as well as applied and issued patents.




Eric Roden
, Associate Director, Operational Excellence, B. Braun Medical 




Marjorie Shulman
, Director, 510(K) Premarket Notification Staff, FDA




Rahul Sapreshker, Associate Professor- Electrical Engineering & Computer Science, MIT


Roger Narayan, Professor, Biomedical Engineering, North Carolina State University

Dr. Roger Narayan is a Professor in the Joint Department of Biomedical Engineering at the University of North Carolina and North Carolina State University. He is an author of over one hundred publications as well as several book chapters on processing and characterization of biomedical materials. He currently serves as an editorial board member for several academic journals, including as editor-in-chief of Materials Science and Engineering C: Materials for Biological Applications (Elsevier). Dr. Narayan has been elected as Fellow of ASM International, AAAS, and AIMBE.


 

 

 

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Author: Michael, Ward, DVM

I recently found a report, written by Mark Hollmer and published 28 November, 2012 by Fierce Medical Devices

http://www.fiercemedicaldevices.com/signup?sourceform=Viral-Tynt-

entitled, “Edwards’ mitral heart valve wins Chinese SFDA nod”.

Though I wonder why Edwards would be taking a more than 30 year-old medical device to China – only Edwards’ business leaders could answer that – I was stuck by one small paragraph that led to this writing.

“Edwards, like many device companies, has turned to China for new growth opportunities and the country factors into its long-term growth plans. Known for heart valves and hemodynamic monitoring devices, Edwards has also propelled U.S. growth with its Sapien transcatheter aortic heart valve, which won FDA approval earlier this fall to treat a larger class of patients.”

This discussion will address the current trend of Western companies attempting to penetrate China’s medical device market. As one who is often asked to speak at public meetings on this topic, I have given frequent and serious reflection on my experiences with and knowledge of this topic.

The uninitiated Western medical device companies may not realize that China is very much different from other major countries, in the areas of

  • marketing/sales,
  • regulatory affairs,
  • clinical research, and
  • hospital practices.

Historically, SFDA has been active since the 1990’s; however, their initial focus was limited to understanding and approving pharmaceuticals. Thus, SFDA’s

  • regulations,
  • extent of product and therapeutic knowledge, and
  • GCP certification programs

have been primarily focused on drugs. With the exception of the counterfeit medicine epidemic, global pharmaceutical companies have become well entrenched and enjoy a strong presence in China’s hospitals. That does not mean they are making great profits.

Counterfeit drug enterprises in China have steadily grown into a lucrative opportunity since the 1990s. Often supported by local government and Chinese Military investment, counterfeit drug manufacturing plants can be rapidly set up and also re-established, if subjected to raids by SFDA officials. These fake medications have found their way into China’s pharmacies and hospitals, and now are a threat to the United States. The loss of bona fide sales as well as the money required to fight this criminal element significantly erodes the profits of major pharmaceutical companies.

In and above the aforementioned challenge to global pharmaceutical companies, all biomedical companies must share a considerable portion of any given patient population with Chinese Traditional Medicine (CTM). CTM has enjoyed centuries of development and use and it is an integral part of China’s society. Medical schools and hospitals teach and offer CTM therapies. Given the paucity of health insurance among the majority of China’s population and limited disposable income to pay for expensive medical treatments, CTM offers an attractive alternative – one that is deeply entrenched within the culture and also easily affordable. For reasons to which I will allude later, CTM lends itself to a culture that readily accepts anecdotal evidence and rarely scrutinizes medical therapies for compelling clinical evidence.

Medical devices have their own unique challenges to address. Initially, many of them are not readily apparent to any neophyte company that expects ‘business as usual’ when introducing products to China. Unlike Japan, where one of the biggest barriers to market entry rests in dealing with a well-organized, challenging, and complex regulatory authority, SFDA is a ‘work in progress’. China is the only country, of which I am aware, where the regulatory authority (SFDA) has asked experts in global companies for helpful guidance on the approval and oversight of medical devices. Couple that with the national governments focus on making it easier for Chinese medical device companies to access the market, and it’s easy to understand why several large home-born enterprises, such as Microport Medical, enjoy large shares of the domestic market for most indications.

For many years, and even today, many companies refuse to go to China for fear of having their technology reverse engineered and copied. This fear is fueled by China’s lack of effective laws on intellectual property (IP). Even where laws do exist, they are rarely enforced. This fear on the part of Western companies is irrational, which is why the major global medical device companies and many smaller organizations, including Edwards LifeSciences, have concluded that threats to their IP are no more an issue in China than in any other region of the world.

That is not to say copycat devices don’t exist in China. Many observers are curious as to how these large domestic medical device companies in China could have product portfolios that closely replicate those of the major global companies. To illustrate this point – during the 1990s, I knew a Chinese woman in Southern California who worked in QA and, therefore, had access to drawings, test results, and manufacturing processes for any of her current company’s product portfolios. Her open confession to me was that, after another year or so, she planned to go back to China to establish her own catheter company, using all the knowledge and information she had gathered in her job. Western media have uncovered a lot of copying of company proprietary information by Chinese citizens who find jobs in the USA or Europe. Many ‘industrial spies’ are highly qualified engineers and scientists who make valuable contributions to all aspects of product development. In spite of their devotion to product development, one can understand their culturally-inbred insensitivity toward issues of confidentiality and intellectual property.

Some readers might be thinking right now, “Damned if you do!” (going to China) and “Damned if you don’t!” (opting to stay in a protective mode outside China). Some might conclude that, if Western countries open up their doors to foreign engineers and scientists, no IP is safe. However, one only has to look at WL Gore (Flagstaff AZ), which experienced an American-bred and educated manufacturing ‘associate’ relocating down the mountain to Phoenix to establish a company that was alleged to have incorporated biomaterials, knowhow, and manufacturing processes inherent to Gore. Though the latter is uncommon, it does underscore the point that industrial espionage is not just a China-based challenge; however, in most Western countries, rigorous enforcement of strict IP laws is quite effective in keeping ‘copycat’ medical devices, including those that originate in China, off the market. Given this perspective, avoiding China only for fear of IP threats is irrational.

In September 2012, in Northern California, I met with a VP of International Business for one of the largest of China’s domestic medical device companies. I was curious about his company having no presence in the U.S. market and their international focus on African and South American countries – both regions being weak in enforcing laws on IP. Given his company’s limited global focus and his admission that the company leadership in Shanghai only understood China’s processes and had no appreciation of or interest in appropriate development and expensive testing of medical devices sufficient to achieve CE Mark or 510(k) clearance, Western medical device business leaders can breathe easy about the prospect of a company in China threatening market share in Europe, USA and many other Western countries with copycat devices.

This is just one of several instances where China’s culture and laws are deeply entrenched in the medical device community, resulting in unique perspectives and practices. Some of these differences and limitations make it very difficult for China’s physicians to compete with their Western counterparts in such areas as publishing in Western peer-reviewed medical journals and in carrying out quality research with medical devices. A significant challenge for Western medical device companies is to assure that their China-trained customers have sufficient skills to use their devices. Two-day training programs for physicians have proven to be quite ineffective.

There are many endemic factors, which contribute to the lack of sufficient technical skill and therapeutic proficiency on the part of China’s medical device users. Some of these are

(a) strong tendency to be dogmatic and carry on with older therapeutic approaches (justification is based on having treated large numbers of patients with long-established methods);

(b) hospital hierarchical management style, with older physicians at the top who direct all staff members to propagate older methods;

(c) medical school training does not include experience with newer medical devices;

(d) Western medical devices are often sold at Western prices, leaving so many uninsured patients unable to pay for these therapies (limited use of Western devices); and,

(e) the role of CTM further erodes opportunities to get valuable experience.

Edwards LifeSciences may enjoy early market penetration with a 30-year-old heart valve. Most companies initially focus on

  • Beijing,
  • Shanghai,
  • Guangzhou and
  • a few other major cities,

where more patients have health insurance and/or sufficient cash to pay for expensive treatments. But, to gain major market share, prices would have to come down dramatically, something many multi-national medical device companies are reluctant to consider.

The above comments are only a cursory reflection of some of the key challenges facing a company interested in the medical device market in China. I have not mentioned the unique challenges for

  • marketing and
  • distribution or the rather unique approach one must adopt to
  • sponsor and manage clinical trials in China.

A STORY OF LAGGING BEHIND:

For more than a decade, medical device applications, modernization, and market expansion in China have lagged well behind a more mature pharmaceutical domain. Compounding this is another gap created between a hierarchical, dogmatic, and historically/culturally-entrenched medical community and those components of China’s society (examples are, IT, capitalism, banking, fashion) that have dramaticall expanded, modernized, and brought economic prosperity. I believe that the aforementioned gaps have narrowed in recent years and can be increasingly narrowed such that many Western medical devices will find a formidable market presence in China.

Other related articles on Medical Devices for Cardiac Repair published on this Open Access Online Scientific Journal. include the following:

August 7, 2012 – Transcatheter Aortic Valve Implantation (TAVI): risk for stroke and suitability for surgery

http://pharmaceuticalintelligence.com/2012/08/07/transcatheter-aortic-valve-implantation-tavi-risky-and-costly-2/

August 2, 2012 – Transcatheter Aortic Valve Implantation (TAVI): Risky and Costly

http://pharmaceuticalintelligence.com/2012/08/02/transcatheter-aortic-valve-implantation-tavi-risky-and-costly/

June 4, 2012 – Investigational Devices: Edwards Sapien Transcatheter Aortic Valve Transapical Deployment http://pharmaceuticalintelligence.com/2012/06/04/investigational-devices-edwards-sapien-transcatheter-heart-valve/

June 10, 2012 — Investigational Devices: Edwards Sapien Transcatheter Aortic Heart Valve Replacement Transfemoral Deployment http://pharmaceuticalintelligence.com/2012/06/10/investigational-devices-edwards-sapien-transcatheter-aortic-heart-valve-replacement-transfemoral-deployment/

1/29/2013 — Direct Flow Medical Wins European Clearance for Catheter Delivered Aortic Valve

http://pharmaceuticalintelligence.com/2013/01/29/direct-flow-medical-wins-european-clearance-for-catheter-delivered-aortic-valve/

6/19/2012 Executive Compensation and Comparator Group Definition in the Cardiac and Vascular Medical Devices Sector: A Bright Future for Edwards Lifesciences Corporation in the Transcatheter Heart Valve Replacement Market

http://pharmaceuticalintelligence.com/2012/06/19/executive-compensation-and-comparator-group-definition-in-the-cardiac-and-vascular-medical-devices-sector-a-bright-future-for-edwards-lifesciences-corporation-in-the-transcatheter-heart-valve-replace/

2/12/2013 Clinical Trials on transcatheter aortic valve replacement (TAVR) to be conducted by American College of Cardiology and the Society of Thoracic Surgeons

http://pharmaceuticalintelligence.com/2013/02/12/american-college-of-cardiologys-and-the-society-of-thoracic-surgeons-entrance-into-clinical-trials-is-noteworthy-read-more-two-medical-societies-jump-into-clinical-trial-effort-for-tavr-tech-f/

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FDA Pending 510(k) for The Latest Cardiovascular Imaging Technology

Curator: Aviva Lev-Ari, PhD, RN

 

UPDATED on 11/22/2018

  • Device Approvals, Denials and Clearances

https://www.fda.gov/MedicalDevices/ProductsandMedicalProcedures/DeviceApprovalsandClearances/default.htm

  • FDA clears AI technology that evaluates echocardiograms – Ultrasound Images

https://www.healthdatamanagement.com/news/fda-clears-ai-technology-that-evaluates-echocardiograms

  • Heart Murmur Detection done by AI Algorithm (Eko Core and Eko Duo) Devices Outperform most Auscultatory Skills of Cardiologists

https://pharmaceuticalintelligence.com/2018/11/21/heart-murmur-detection-done-by-ai-algorithm-eko-core-and-eko-duo-devices-outperform-most-auscultatory-skills-of-cardiologists/

  • FDA Clears Remote Multichannel ECG Compared to Holter

https://www.cardiovascularbusiness.com/topics/electrophysiology-arrhythmia/fda-clears-remote-multichannel-ecg-compared-holter

  • Arterys Cardio AI – MR Images

Arterys CEO Fabien Beckers, along with Michael Poon, MD, Northwell Health cardiologist, will present “The Potential of a Web Platform to Transform Medical Imaging with AI and Cloud Computation” in the 2018 RSNA Machine Learning Showcase, Tuesday November 27 at 11:30am CST. Arterys will provide demonstrations of its AI-powered, web-based solutions, including:

Arterys Cardio AIMR combines the power of deep learning and cloud computing to automate analysis of cardiac MR images. By eliminating many tedious, manual tasks, Arterys Cardio AI enables clinicians to quickly and easily identify, determine treatment for and track heart problems. It is the first and only commercial solution to offer deep learning-based semi-quantitative perfusion and quantitative delayed enhancement analysis*.

https://www.marketwatch.com/press-release/arterys-to-demonstrate-suite-of-ai-powered-cloud-based-medical-image-analysis-solutions-at-rsna-2018-2018-11-21/print

  • AI software for detecting brain bleeds receives FDA approval – CT Images

The FDA recently administered 510(k) clearance to software developed by MaxQ AI that uses AI to detect brain bleeds on CT images, according to a report published Nov. 8 by AI in Healthcare.  

“The Accipio Ix Intracranial Hemorrhage platform uses AI technology to automatically analyze non-contrast head CT images, and can do so without impacting a physician’s workflow, altering the original series or storing protected health information,” according to the article.

The clinical diagnostics intelligence platform company hopes that the software can help physicians prioritizes patients who show symptoms of brain bleeds.

With FDA approval, the AI software can be sold for commercial use within the U.S. and will be on display during this year’s Radiological Society of North America (RSNA) Annual Meeting in Chicago.

https://www.healthimaging.com/topics/artificial-intelligence/ai-detection-software-brain-bleeds-fda-approved

 

  • More in Artificial Intelligence

SOURCE

https://www.healthimaging.com/topics/artificial-intelligence/ai-detection-software-brain-bleeds-fda-approv

Cardiovascular Medical Devices in the News

March 13, 2018 — Determining the best occluder device size necessary to properly seal the left atrial appendage (LAA) before implanting the device may be feasible with the assistance of 3D printing, according to two separate presentations at ECR 2018 in Vienna.

SOURCE

https://www.auntminnieeurope.com/index.aspx?sec=sup&sub=car&pno=2

  • Machine learning can help assess atherosclerosis
    February 7, 2018 — Machine-learning techniques analyze imaging measurements to automatically stratify patients by the level of atherosclerotic burden, offering the potential of personalized prediction of disease progression and more effective treatment for individual patients, according to researchers from Italy.  Discuss

SOURCE

https://www.auntminnieeurope.com/index.aspx?sec=sup&sub=car&pno=3

  • CCTA biomarker may predict mortality from heart disease
    August 28, 2018 — The use of coronary CT angiography (CCTA) to measure fatty tissue around arteries could help predict the risk of mortality from heart disease, according to research published online on 28 August in the Lancet and being presented at the European Society of Cardiology congress in Munich.  Discuss

SOURCE

https://www.auntminnieeurope.com/index.aspx?sec=sup&sub=car&pno=1

  • SCOT-HEART: CCTA cuts risk of heart attack, death by 41%
    August 25, 2018 — Patients with chest pain who underwent coronary CT angiography (CCTA) with standard care had a markedly lower rate of myocardial infarction or death from coronary artery disease than those who only received standard care in a new study, published on August 25 in theNew England Journal of Medicine.  Discuss

SOURCE

https://www.auntminnieeurope.com/index.aspx?sec=sup&sub=car&pno=1

 

 

SOURCE

https://www.healthdatamanagement.com/tag/cardiovascular-disease

FDA’s Medical Devices Frontier in 2013

Michelle McMurry-Heath

Office of the Center Director, Center for Devices and

Radiological Health, U.S. Food and Drug Administration (FDA)

and

Margaret A. Hamburg

Office of the Commissioner, FDA

In their article Creating a Space for Innovative Device Development stated that the FDA announces a partnership with a new nonprofit organization—the Medical Device Innovation Consortium (MDIC) —to advance regulatory science in the medical technology arena.

The promise of MDIC is to eliminate the currently existing shortfalls in applied research in areas such as health-related engineering and regulatory science, which comprises the development of new tools, standards, and approaches to assess a product’s safety, efficacy, quality, and performance.

MDIC will foster regulatory science breakthroughs in the medical technology space with the ultimate goal of improving human health.

FDA and LifeScience Alley (LSA; https://www.lifesciencealley.org)—a biomedical science trade association—have worked together to develop the first medical device public-private partnership (PPP) whose sole objective is to advance the entire spectrum of regulatory science in this sector. MDIC will facilitate this groundbreaking collaboration among federal agencies, nonprofit organizations, industry, academic institutions, and other trade associations such as MassMedic (www.massmedic.com) and the California Healthcare Institute (www.chi.org). Key goals:

(1) encourage members to leverage their resources by focusing jointly on precompetitive

(2) early-stage technology development ef orts that otherwise would not take place because of the organizational structure of the device sector.

About 75% of the more than 5,000 device manufacturers in the United States are small companies with fewer than 20 employees (3).

Start-up device companies have limited capital, and a startup’s future of en depends on the success of one complex device. Advances in regulatory science would speed the translation of these next-generation technologies.

Medical Devices sector lacks the resources to support regulatory science research, as well as mechanisms for working together to pool their resources to solve scientific issues.

MDIC members will make it a priority to develop regulatory methods and tools that can be adopted by the medical device community and will provide a forum for medical device stakeholders to securely share proprietary precompetitive data. Each advance achieved by medical device stakeholders through the sharing and leveraging of resources will assist industry in developing new REGULATORY SCIENCE Creating a Space for Innovative Device Development.

GOALS OF PARTNERING WITH MDIC

MDIC was designed with f exibility in mind, so that it can adapt to address the most pressing needs of patients and of the device industry as they evolve over time.

In keeping with the goal of stakeholder engagement, MDIC is currently recruiting founding members who will work jointly with FDA to determine research priorities for the endeavor.

Much like other successful PPPs in the pharmaceutical space, such as the Foundation for NIH or Critical Path Institute, the founding members will be asked to represent their stakeholder communities in

(i) suggesting the most promising areas for research collaboration,

(ii) raising funds to support these areas of investigation, and then

(iii) issuing requests for grant proposals.

Researchers and engineers from all sectors—industry, government, academia, or nonprofit organizations—will be encouraged to apply, and preference will be given to research consortia that cross sectors and take interdisciplinary approaches to problems.

MDIC strives to support science conducted by research teams that have innovative ideas for the development of tools and methods for medical device design, testing, and regulatory approval.

MDIC’s potential to improve patient care is computational modeling and simulation of human pathophysiology, which can be used to augment in vitro and animal disease models in the preclinical stages of device development.

FDA’s Center for Devices and Radiological Health (CDRH) expects computational modeling to accelerate and streamline the regulatory review process but first needs to develop a strategy for assessing the technology’s credibility—its usefulness, quality, and reproducibility. CDRH has begun to develop a technological framework called the Virtual Physiological Patient (4), which, once completed, will provide a model for the human body as a single complex system. 

However, cross-sector research teams are required to develop the normal and diseased reference models that will serve as benchmarks for device performance and safety. Using computational modeling and simulation, device designs can potentially be ref ned even before they enter clinical trials, improving safety for patients and reducing the cost of device development for companies, computational modeling and simulation, device designs can potentially be ref ned even before they enter clinical trials, improving safety for patients and reducing the cost of device development for companies.

Another emerging research area is medical device interoperability—the development of devices that seamlessly operate with other medical devices and information systems (5). MDIC could establish a framework to identify gaps in the interoperability field, prioritize the gaps, and then fund research accordingly.

MDIC also could help prioritize the development of standards for innovative interoperable medical devices and build test beds for these technologies. is research will help to ensure that interoperability issues do not pose a hazard to patients.

With the emergence of new materials in medical devices, FDA must develop updated biocompatibility standards based on the most recent scientific advances.

MDIC could support the development of new preclinical biocompatibility assays that predict potential adverse health responses in people exposed to biomaterials or nanoparticles (6).

INNOVATION INFRASTRUCTURE With today’s fiscal realities, FDA cannot rely on government-funded “Manhattan projects” to bridge the funding gap for regulatory science. Partnerships bring together private-sector expertise, academic science ingenuity, and federal regulatory knowledge, and new structures are needed to promote these multifaceted collaborations.

It would be convenient if such partnerships formed organically, but all too of en, bureaucratic red tape gets in the way of sensible scientif c collaboration. MDIC will serve as a collaborative freeway to biomedical discovery and development by forming a foundation that makes it easy for industry, academia, and government to come together to set research priorities; to pool their distinct intellectual capital; and then to work together to advance knowledge that modernizes regulatory science and improves patient access to high-quality medical technology.

Sci. Transl. Med. 4, 163fs43 (2012)

[ScienceTranslationalMedicine.org 5 December 2012 Vol 4 Issue 163 163fs43]

Statistics on Device use — Number of procedures in the United States (2009)

Number of domestic inpatient procedures (N = 48 million per year)

  • Insertion of coronary artery stent: 528,000
  • Diagnostic ultrasound: 902,000
  • CT scan: 497,000
  • Arteriography and angiocardiography: 1.9 million
  • Cardiac catheterization: 1.1 million
  • Total hip replacement: 327,000
  • Total knee replacement: 676,000

Source:

U.S. Centers of Disease Control www.cdc.gov/nchs/fastats/insurg.htm

This sector is best known for

  • surgical instruments,
  • cardiology devices, and
  • orthopedic implants, it also includes all of the
  • diagnostic tests and
  • imaging equipment currently used to pinpoint disease 
  • companion diagnostics, which are needed to fulfill the promise of personalized medicine (1).

FDA 510 (k) Pending for the Latest Cardiovascular Imaging Technology

Editor’s choice of the most innovative technology at RSNA 2012
By:

Dave Fornell

December 11, 2012
Toshiba is developing a radiation dose alert to show interventionalists how much dose they have delivered to their patient from X-ray angiography.
 The latest advances in cardiovascular imaging are usually shown first at the Radiological Society of North America (RSNA) annual meeting, the largest radiology show in the world, held the last week of November in Chicago. After spending five days walking three expo halls filled with more than 600 product vendors, the following is my editor’s choice for the most innovative new cardiovascular imaging technology.

New Angiography Systems

Siemens unveiled two new 510(k)-pending angiography systems, the Artis Q and Artis Q.zen, which incorporate new X-ray tube, detector and imaging software technology that can help reduce dose significantly, while offering improved image quality.

The new X-ray tube is intended to help physicians identify small vessels up to 70 percent better than conventional X-ray tube technology. The Artis Q.zen combines this innovative X-ray source with a new detector technology designed to support interventional imaging in ultra low-dose ranges to patients, doctors and medical staff, particularly during more complex, longer interventions.

The second generation of Siemens’ flat emitter technology replaced the coiled filaments used in conventional X-ray tubes to emit electrons. Flat emitters are designed to enable smaller quadratic focal spots that lead to improved visibility of small vessels.

The Artis Q.zen combines the X-ray tube with a detector technology that allows detection at ultra-low radiation levels. It can image with doses as low as half the standard levels applied in angiography. Instead of detectors based on amorphous silicon, a new crystalline silicon structure of the Artis Q.zen detector is designed to be more homogenous, allowing for more effective amplification of the signal, greatly reducing the electronic noise.

Siemens also introduced new software applications for interventional imaging. Clear Stent Live freezes an enhanced image of a stent during deployment with the balloon radio-opaque markers and uses it as an overlay on live fluoroscopy. Siemens says the main application will be for better visualization when implanting overlapping stents or stenting bifurcation lesions. It also helps suppress and stabilize heart motion on the image.

Other new 3-D applications are designed to image the smallest structures inside the head. Their high spatial resolution is crucial for imaging intracranial stents or other miniscule structures such as the cochlea in the inner ear. Moving organs such as the lungs can be imaged in 3-D in less than three seconds, reducing motion artifacts and the required amount of contrast agent.

GE Healthcare showcased its IGS (Image Guided System) 750 hybrid OR angiography system. It was displayed at RSNA 2011, but did not receive FDA clearance until earlier this year. It offers the mobility of a mobile C-arm, but the image quality and software features of a ceiling or floor mounted fixed system. It uses laser guidance for very accurate positioning. It can rove around the room on a powered caster system to enable different positioning around the table, or be parked out of the way during open surgical procedures.

Hands-Free Physician Control of Images

GestSure displayed a new, FDA-cleared system that allows interventionalists in the cath lab, or surgeons in the operating room, to pick reference images to display on the overhead screens in the room and manipulate the images all hands-free. It allows physicians to pick and enlarge the images they need for better procedural navigation, while maintaining the sterile field.

A video sensor detects all the people in the work area and displays their outlines on a separate screen, with each person assigned a specific color. When one of those people raises their arms in the “hands up” pose, the system detects this and allows the person control of the system. Using the right arm/hand, they can scroll through images and use the left arm/hand as a mouse click by a pushing motion forward. The system detects the motions and translates them in real time to mouse actions on the overhead screen.

The software works as a vendor-neutral layer on top of existing PACS or advanced visualization software.

Outpatient, Office-Based Catheter Interventions

Outpatient, office-based peripheral vascular procedures are an increasing trend, according to GE healthcare, which showcased a new “mobile hybrid OR” solution. The trend includes setting up an outpatient cath lab in an office setting to reduce the costs of using hospital ORs or cath labs. The room system GE highlighted centers around its OEC 9900 Elite mobile C-arm and Venue 40, which is combined with a ultrasound system in an all-in-one unit. The GE Venue 40 tablet ultrasound system is mounted within the OEC 9900 Elite C-arm’s workstation to reduce the floor space required.

Wireless Ultrasound Transducer

Siemens introduced the world’s first wireless transducer ultrasound system, the Acuson Freestyle. It eliminates the impediment of cables in ultrasound imaging by using a battery-powered transducer, about the size of a large TV controller. The transducer can be submerged for cleaning. It is capable of 90 minutes of continuous scanning before the battery needs to be recharged.

The Freestyle is a point-of-care system that will expand ultrasound’s use in interventional and therapeutic applications. The transducer can be used to image up to 10 feet from the console. Siemens said it hopes to refine and expand the wireless transducer technology to its other systems in the coming years.

Engineers had to overcome several issues to create a wireless transducer. For example, a cardiac echo requires about 40 frames per second and each frame is equal to about 1 megabyte of data. To accommodate the amount of data and speed the computer processing involved, some of the electronics are placed in the transducer rather than processing the data in the machine console. The wireless system transmits the data over an 8 GHz ultrawideband radio frequency to the console. The amount of data and the bandwidth transmitted by the transducer is equal to about 10 4G smart phones working continuously.

Noiseless MRI

GE Healthcare introduced its 510(k)-pending noiseless MRI Silent Scan technology that it hopes to introduce in 2013 for its MR450W 1.5T system. The technology addresses one of the most significant impediments to patient comfort — excessive noise generated during the exam that can be in excess of 110 decibels. A combination of software and a pulse sequence lowers the noise level to that of a chirping bird outside a window.

Historically, acoustic noise mitigation techniques have focused on insulating components and muffling sound as opposed to treating the noise at the source. With Silent Scan, acoustic noise is essentially eliminated by employing a new advanced 3-D acquisition and reconstruction technique called Silenz, in combination with GE Healthcare’s proprietary design of the high-fidelity MR gradient and RF system electronics. Silent Scan is designed to eliminate the noise at its source.

640-Slice CT Scanner

Toshiba unveiled its 640-slice Aquilion One Vision edition CT scanner. The vendor already offers the highest-slice system on the market, the 320-slice Aquilion One. The new system is equipped with a gantry rotation of 0.275 seconds, a 100 kw generator and 320 detector rows (640 unique slices) covering 16 cm in a single rotation, with the industry’s thinnest slices at 500 microns (0.5 mm). The system can accommodate larger patients with its 78 cm bore and fast rotation, including bariatric and patients with high heart rates.

FFR-Like CT Culprit Vessel Analysis

TeraRecon released new research software in response to fractional flow reserve (FFR)-CT analysis being developed by HeartFlow. The HeartFlow software uses a supercomputing algorithm to look at the fluid dynamics of the iodine contrast flow in coronary vessels to calculate a virtual a FFR number, similar to invasive pressure wire based FFR in the cath lab. TeraRecon’s Lesion Specific Analysis software cannot calculate FFR, but uses the same principle of tracking contrast flow in the myocardium. It uses lobular decomposition to look at each vessel segment to determine the tissue it feeds to show areas of ischemia and the expected culprit vessel segment. It shows a color contrast level maps on a 3-D model of the heart and in a coronal view of the left ventricle. Automated detection boxes highlight suspected ischemic areas of interest and identifies the vessel responsible for supplying blood to the region.

Radiation Dose Monitoring

Radiation dose monitoring solutions have been shown at previous RSNAs, but were highlighted by several companies this year as several states began implementing requirements for radiology departments to record patient dose. Dose records will have the most application with CT systems, especially for longer duration, higher dose cardiac exams, and catheter based angiography. Angiography is becoming an increasing issue due to the longer duration of more complex transcatheter interventions.

Toshiba demonstrated a work-in-progress dose tracking software for its Infinix-i angiography system. It can be displayed on a screen in the cath lab to show the approximate radiation dose that has been delivered cumulatively to specific areas of a patient. It takes into consideration the amount of time, power setting used and orientation of the C-arm to show a color-coded map of radiation delivery projected on a human figure. The colors change in real time as X-ray imaging continues. It is designed to be a visual reminder to physicians about the dose the patient has received and that they may want to change the location of the C-arm.

Sectra demonstrated 510(k)-pending Dose Track software, which radiology or cardiology departments can use to track radiation dose by patient, machine, physician, technologist, procedure type and room. The system can be set up to create alerts if a reasonable amount of dose if exceeded for a particular exam, or if certain physicians or technologists are using higher than average doses.

OLED Displays

Flat panel display technology migrated from CRT screens to LCDs over the past decade. The next major innovation in display technology is OLED, which offers even smaller components, faster response time than LCD, and the ability to display quick motion with virtually no blur. Sony showed the new PVM-2551MD OLED medical-grade monitor, which incorporates technology to achieve pure black, faithful to the source signal. By providing superb color reproduction, especially for dark images, surgeons can observe very subtle details such as the faint color difference between various tissues and blood vessels.

Aesthetically Pleasing Cath Labs

Philips Healthcare displayed video of its recent install of the Ambient Experience in a cath lab. The system uses colored lighting, subtle room design details and projected image visual effects to calm patients and make procedure rooms look less clinical. The installation highlighted allowed doctors or patients to choose a theme, such as a tropical rainforest, where diffused, indirect lighting would take a green hue and a photo projection on the ceiling of a tropical scene. Philips said at facilities that have installed these type of labs, patient satisfaction rose, as did staff morale. They say doctors and staff compete to use these rooms at some facilities.

Single Detector Spectral CT Imaging

Philips introduced an innovative work-in-progress CT system that uses new detector technology to simplify spectral imaging, offering soft tissue image quality similar to MRI. Currently, CT special imaging can be performed using systems with two X-ray tubes and two detectors. The new system in development uses a single X-ray source and a single detector that has two layers of detectors, one on top of the other, for high and low energy.

Better Transcatheter Mitral Valve Repair Guidance

Philips’ showed its new Echo Navigator system, designed to synchronize views from TEE ultrasound with the orientation on live angiography. The primary application is to aid navigation during transcatheter mitral valve procedures, which require very accurate 3-D echo navigation to deploy devices like the Abbott MitraClip.

3-D Sculptures From 3-D Datasets

Taking 3-D images shown on 2-D display screens to a true physical 3-D form, Vidar Systems/3D Systems displayed the new Z Printer 450. It takes any 3-D advanced visualization dataset and can print the image in true 3-D using gypsum powder (the same material used to make drywall), standard color ink jet printer cartridges and a binding agent. The image is saved as an STL file and sent to the printer, which prints 1/10th of a millimeter each pass, up to 2 cm per hour.

The 3-D sculptures it created can be printed in color, eliminating the need to paint the models.

The printer offers a new way to create 3-D anatomical models for medical education, complex surgical planning and cosmetic reconstruction. Another application suggested at RSNA was to print sculptures for sale to the patients, such as fetal faces taken from 3-D obstetrics ultrasound exams.

The company printed a full-sized, 3-D, color heart during the show using a cardiac CT dataset on a thumb drive provided by one of the advanced visualization vendors in the same hall.

  • Siemens unveiled the world’s first wireless ultrasound transducer at RSNA 2012.

http://www.dicardiology.com/article/latest-cardiovascular-imaging-technology

REFERENCES

1. S. Desmond-Hellmann, Toward precision medicine: A new

social contract? Sci. Transl. Med. 4, ed3 (2012).

2. J. S. Altshuler, E. Balogh, A. D. Barker, S. L. Eck, S. H. Friend,

G. S. Ginsburg, R. S. Herbst, S. J. Nass, C. M. Streeter, J. A.

Wagner, Opening up to precompetitive collaboration. Sci.

Transl. Med. 2, 52cm26 (2010).

3. U.S. commerce department study; www.ita.doc.gov/td/

health/Medical%20Device%20Industry%20Assessment%

20FINAL%20II%203-24-10.pdf.

4. Regulatory science in FDA’s Center for Devices and

Radiological Health: A vital framework for protecting

and promoting public healthwww.fda.gov/AboutFDA/

CentersOffices/OfficeofMedicalProductsandTobacco/

CDRH/CDRHReports/ucm274152.htm#.

5. Driving Biomedical Innovation: Initiatives for Improving

Products for Patients; www.fda.gov/AboutFDA/

ReportsManualsForms/Reports/ucm274333.htm.

6. G. D. Prestwich, S. Bhatia, C. K. Breuer, S. L. Dahl, C. Mason,

R. McFarland, D. J. McQuillan, J. Sackner-Bernstein, J. Schox,

W. E. Tente, A. Trounson, What is the greatest regulatory

challenge in the translation of biomaterials to the clinic?

Sci. Transl. Med. 4, 60cm14 (2012).

7. Between Invention and Innovation. NIST GRC 02-841;

www.atp.nist.gov/eao/gcr02-841/contents.htm.

8. Justin D Pearlman, MD, ME, PhD, FACC, MA; Chief Editor: Eugene C Lin, MD

Imaging in Coronary Artery Disease, Nov 13, 2012

http://emedicine.medscape.com/article/349040-overview

9. Markus Schwaiger, MD; Sibylle Ziegler, PhD; and Stephan G. Nekolla, PhD

PET/CT: Challenge for Nuclear Cardiology

THE JOURNAL OF NUCLEAR MEDICINE • Vol. 46 • No. 10 • October 2005

 

Other articles related to this topic Published on this Open Access Online Scientific Journal include the following:

New Definition of MI Unveiled, Fractional Flow Reserve (FFR) CT for Tagging Ischemia

http://pharmaceuticalintelligence.com/2012/08/27/new-definition-of-mi-unveiled-fractional-flow-reserve-ffrct-for-tagging-ischemia/

FDA: Strengthening Our National System for Medical Device Post-market Surveillance

http://pharmaceuticalintelligence.com/2012/09/07/fda-strengthening-our-national-system-for-medical-device-post-market-surveillance/

Gaps, Tensions, and Conflicts in the FDA Approval Process: Implications for Clinical Practice

http://pharmaceuticalintelligence.com/2012/07/31/gaps-tensions-and-conflicts-in-the-fda-approval-process-implications-for-clinical-practice/

To Stent or Not? A Critical Decision

http://pharmaceuticalintelligence.com/2012/10/23/to-stent-or-not-a-critical-decision/

Read Full Post »

 Reporter: Aviva Lev-Ari, PhD, RN

Ernst & Young (“E&Y”) has published their fifth annual report on the state of the medical technology industry.

Below are the link to this report and also a link to an excerpt from the report displaying charts of the industry’s performance.

Definition of the Global Medical Technology Industry

In this report, medical technology (medtech) companies are defined as companies that primarily design and manufacture medical

technology equipment and supplies and are headquartered within the United States or Europe. For the purposes of this report, we have placed Israel’s data and analysis within the European market, and any grouping of the US and Europe has been referred to as “global.”

This wide ranging definition includes medical device, diagnostic, drug delivery and analytical/life science tool companies, but excludes distributors and service providers such as contract research organizations or contract manufacturing organizations.

By any measure, medical technology is an extraordinarily diverse industry. While developing a consistent and meaningful classification system is important, it is anything but straightforward. Existing taxonomies sometimes segregate companies into scores of thinly populated categories, making it difficult to identify and analyze industry trends.

Furthermore, they tend to combine categories based on products (such as imaging or tools) with those based on diseases targeted by those products (such as cardiovascular or oncology), which makes it harder to analyze trends consistently across either dimension. To address some of these challenges, we have categorized medtech companies across both dimensions —products and diseases targeted.

All publicly traded medtech companies were classified as belonging to one of five broad product groups:

Imaging:

companies developing products used to diagnose or monitor conditions via imaging technologies, including products such as MRI machines, computed tomography (CT) and X-ray imaging and optical biopsy systems

Non-imaging diagnostics:

companies developing products used to diagnose or monitor conditions via non-imaging technologies, which can include patient monitoring and in vitro testing equipment

Research and other equipment:

companies developing equipment used for research or other purposes, including analytical and life science tools, specialized laboratory equipment and furniture

Therapeutic devices:

companies developing products used to treat patients, including therapeutic medical devices, tools or drug delivery/infusion technologies

Other:

companies developing products that do not fi t in any of the above categories were classifi ed in this segment

In addition to product groups, this report tracks conglomerate companies that derive a significant part of their revenues from medical technologies. While a conglomerate medtech division’s technology could technically fall into one of the product groups listed above (e.g., General Electric into “imaging” and Allergan into “therapeutic devices”), all conglomerate data is kept separate from that of the nonconglomerates.

This is due to the fact that, while conglomerates report revenues for their medtech divisions, they typically do not report other financial results for their medtech divisions, such as research and development or net income.

Conglomerate companies:

United States

3M Health Care

Abbott: Medical Products

Agilent Technologies: Life Sciences and Chemical Analysis

Allergan: Medical Devices

Baxter International: Medical Products

Corning: Life Sciences

Danaher: Life Sciences & Diagnostics

Endo Health Solutions: AMS and HealthTronics

GE Healthcare

Hospira: Devices

IDEX: Health & Science Technologies

Johnson & Johnson: Medical Devices & Diagnostics

Kimberly-Clark: Health Care

Pall: Life Sciences

Europe

Agfa HealthCare

Bayer HealthCare: Medical Care

Beiersdorf: Hansaplast

Carl Zeiss Meditec

Dräger: Medical

Eckert & Ziegler: Medizintechnik

Fresenius Kabi

Halma: Health and Analysis

Jenoptik: Medical

Novartis: Alcon

Philips Healthcare

Quantel Medical

Roche Diagnostics

Sanofi : Genzyme Biosurgery

SCA Svenska Cellulosa Aktiebolaget: Personal Care

Sempermed

Siemens Healthcare

Smiths Medical

The big picture

Despite lingering financial and regulatory uncertainties, US and European publicly held medtech companies delivered another strong performance in 2011. For both conglomerates and pure-play companies, revenue growth in 2011 outpaced 2010 growth rates. Net income increased by 14% — the third consecutive year of double digit growth, and certainly impressive in today’s challenging economic climate.

So far, the medical technology industry appears to be weathering a period of slower global economic growth. However, for an industry that was accustomed to double-digit revenue growth, considerable margins and a predictable sales-and regulatory environment, the long-term future may still be turbulent. The industry’s financial performance will likely continue to be challenged by low economic growth in developed markets, the prospect of austerity measures in many countries, a looming Eurozone debt crisis and an imminent 2.3% medical device tax in the US. And while the US Supreme Court’s upholding of the Affordable Care Act has removed some of the uncertainty in the US, the regulatory environment continues to grow ever more complex around the globe.

As payers tackle runaway health care costs, medtech will face rising pricing pressures and expanded use of comparative effectiveness — making organic growth in western markets more challenging. Efforts to heighten disease management and preventive care, and other efforts to drive efficiency within the health care system, may impact both product utilization and profitability. The cost of not adapting the traditional medtech business model to stay ahead of these trends could be disastrous.

Public company data 2011                 2010 % change

Revenues $331.7                                          $313.9 6%

Conglomerates $142.3                                $132.8 7%

Pure-play companies $189.4                     $181.0 5%

R&D expense $12.6                                        $12.1 4%

SG&A expense $60.3                                    $57.4 5%

Net income $19.9                                          $17.4 14%

Cash and cash equivalents and short-term investments $39.2      $39.4 -1%

Market capitalization $436.1                                                              $465.9 -6%

Number of employees 725,900                                                           702,200 3%

Number of public companies 411                                                        423 -3%

Source: Ernst & Young and company financial statement data.

Numbers may appear to be inconsistent due to rounding.

Data shown for US and European public companies.

Market capitalization data is shown for 30 June 2011 and 30 June 2012.

Medical technology at a glance, 2010–2011

(US$b, data for pure-play companies except where indicated)

Medtech companies — long known for innovation, reinvention and risk-taking in product development — will need to apply the same principles to business model development. These trends and implications are discussed more fully in this year’s point of view article.

US and European publicly held medtech companies delivered another strong performance in 2011

Since we first published Pulse of the industry back in 2008 (using 2007 figures), a number of medtech firms have seen their revenues grow significantly. It is notable that 6 of the 10 fastest-growing companies over the period 2007–11 — led by spinal device company NuVasive and Intuitive Surgical (maker of the da Vinci Surgical System) — expanded their top lines mostly through organic growth and without the assistance of sizeable mergers or acquisitions. Corning Life Sciences was the only conglomerate to make the top 10 list.

Selected fast-growing US medtechs by revenue growth, 2007–2011

(US$m)

Companies 2007                          2011 CAGR

NuVasive $154                                 $541 37%

Alere $767                                       $2,387 33%

Life Technologies $1,282             $3,776 31%

Intuitive Surgical $601                 $1,757 31%

Illumina $367                                 $1,056 30%

Hologic $738                                   $1,789 25%

Corning Life Sciences $305            $595 18%

Thoratec $235                                   $423 16%

Greatbatch $319                                $569 16%

ResMed $716                                    $1,243 15%

Source: Ernst & Young and company financial statement data.

Companies in italics have made significant acquisitions between 2007 and 2011.

CAGR= Compounded Annual Growth Rate. 6 of the 10 fastest-growing companies expanded their top lines mostly through organic growth

Selected fast-growing European medtechs by revenue growth, 2007–2011

(US$m)

Source: Ernst & Young and company financial statement data.

Companies in italics have made significant acquisitions between 2007 and 2011.

CAGR= Compounded Annual Growth Rate.

Companies        Location          2007                   2011                CAGR

Fresenius Kabi        Germany        $2,782                $5,515                     19%

Sonova Holding      Switzerland      $926                 $1,827                   19%

ELEKTA                   Sweden              $674                 $1,217                    16%

Qiagen                     Netherlands       $650               $1,170                    16%

Stratec Biomedical Systems Germany $94               $165                     15%

Sempermed             Austria               $300                 $517                      15%

Syneron Medical         Israel               $141                  $228                    13%

Given Imaging             Israel               $113                  $178                     12%

William Demant Holding Denmark $1,010             $1,501                    10%

Essilor International France            $3,986               $5,829                  10%

While the fastest-growing companies in the US were fueled largely by organic growth, the four fastest-growing firms in Europe were aided by significant acquisitions. Germany’s Fresenius Kabi holds the distinction of having the biggest expansion in both real dollar and percentage terms on this list.

The company’s growth was in large part fueled by the addition of APP Pharmaceuticals, which it acquired for US$3.7 billion in 2008. Of the six commercial leaders on this list, five had made sizeable purchases, while the smaller “other” companies grew mostly through organic means.

Future Growth

Fueling future growth Mergers & acquisitions

The big picture

Merger and acquisition (M&A) activity among US and European medical technology companies remained vibrant in the year ended June 30, 2012. While 2011–12’s total of US$35.0 billion was well below the levels seen over the last two years, those two years were driven by megadeals done by Novartis (which paid US$41.2 billion to Nestlé for the remaining 75% of Alcon it didn’t already control) and Johnson & Johnson (which paid US$19.7 billion for Synthes). On a normalized basis (after removing the impact of the aforementioned megadeals), 2011–12’s total deal value was more in line with previous years — 25% below the prior year and 16% above the year before that.

Although no megadeals were consummated in 2011–12, there were eight transactions valued at more than US$1 billion, versus 12 the year before. The year’s largest deal was between private equity firm Apax Partners, two Canadian pension funds and Texas-based wound care company Kinetic Concepts Inc. (KCI). The US$6.3 billion Apax/KCI deal was particularly notable, as the US$6.3 billion represented one of the largest leveraged buyouts — across all industries — since the onset of the financial crisis in 2008. Two other private equity firms were also involved in multibillion-dollar M&As: Cinven sold off Swedish diagnostics company Phadia to Thermo Fisher Scientific for US$3.5 billion, and TPG Capital acquired in vitro diagnostics maker Immucor for nearly US$2 billion.

SOURCES:

Pulse of the Industry – Ernst & Young

http://www.ey.com/Publication/vwLUAssets/Pulse_medical_technology_report_2012/$FILE/Pulse_medical_technology_report_2012.pdf

Pulse of the Industry: Medical Technology Report 2012 – Industry performance

http://www.ey.com/GL/en/Industries/Life-Sciences/Pulse–medical-technology-report-2012—Mergers-and-acquisitions—medtechdata 

Read Full Post »

FDA: Strengthening Our National System for Medical Device Post-market Surveillance

Reporter: Aviva Lev-Ari, PhD, RN

 

September 7, 2012 | By Damian Garde

The FDA wants industry feedback on a host of new post-market surveillance initiatives, designed to better track, analyze and report the performance of medical devices.

In a report released Thursday, the agency proposes a four-point plan to improve its post-market system, including the previously announced unique ID program and a modernization of MedWatch. The agency is taking any and all opinions from devicemakers and members of the healthcare community through its website, and the FDA plans to host public meetings on the plan this month.

 

Here’s a summary of the four points:

 

Establish a unique device ID system: In keeping with its July announcement, the FDA wants to require devicemakers to tag their products with an alphanumeric code, disclosing the device’s production information, serial number, manufacturing date and expiration date. The goal is to help the FDA and healthcare community to more accurately track and analyze device-related adverse events. Once rolled out, the ID system will cost the industry $65 million, the FDA has said.

Promote international device registries: The agency isn’t looking to found a huge, centralized registry, housing data on device uses and reactions. Instead, the FDA wants to help governments and private outfits set up and operationalize smaller registries, sharing data with one another to keep tabs on device performance. The agency plans to host a series of public workshops to educate would-be registry founders on the best way to move forward.

Modernize adverse event reporting: Currently, the FDA relies on spontaneous reporting for when devices go awry, primarily using its voluntary MedWatch system. That model is inherently limited, the agency says, and it wants to institute automated reporting systems in hospitals, encourage more electronic reporting, develop a mobile app for MedWatch and update the MAUDE adverse event database, which the FDA says is technologically outdated.

Develop new tools and methods for post-market surveillance: This is the catch-all part of the FDA’s plan, in which the agency discusses future innovations that could generate, synthesize and interpret post-market data to drive decision-making. For instance, the FDA wants to automate data analysis to identify spikes in adverse events across disparate data sources. The agency also proposes instituting quantitative decision analysis in its post-market deliberations, aiming to better standardize its methods.

http://www.fiercemedicaldevices.com/story/fda-unveils-plan-device-surveillance/2012-09-07?utm_medium=nl&utm_source=internal

http://www.fda.gov/downloads/AboutFDA/CentersOffices/OfficeofMedicalProductsandTobacco/CDRH/CDRHReports/UCM301924.pdf

 

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Patient Access to Medical Devices — A Comparison of U.S. and European Review Processes

Reporter: Aviva Lev-Ari, PhD, RN

 

Saptarshi Basu, M.P.A., and John C. Hassenplug, M.Sc.

N Engl J Med 2012; 367:485-488  August 9, 2012

The U.S. process for approving innovative, high-risk medical devices has been criticized for taking longer than the European approval process.1 This contention is often used to support the argument that the Food and Drug Administration (FDA) should lower its standards for approving medical devices, since a slow approval process is delaying Americans’ access to innovative and lifesaving technology. But a review of the data, using appropriate end points, suggests instead that it takes the same amount of time or less for patients to gain access to innovative, high-risk medical devices in the United States as it does in the four largest European markets (Germany, France, Italy, and Britain)2 — largely because patient access is generally delayed until reimbursement decisions are made, which often takes substantially longer in Europe than in the United States.

To compare the United States and Europe fairly on this front, three criteria must be considered: the level of device innovation, equivalent start and end points, and patient access as defined by time to reimbursement. First, we focused on innovative, high-risk devices because in the United States such devices require the strongest evidence of clinical benefit and are the subject of most debates about the relative effectiveness of approval processes in different countries. Furthermore, previous studies have shown that lower-risk devices achieve market access in a similar amount of time in the United States and in Europe.

Second, an accurate comparison of time to market access requires measurement of the total time that elapses between application submission and market access. Previous studies have compared the chronologic dates of application submission and market access, but the date an application is submitted varies from country to country.

Third, patient access should be equated with the availability of reimbursement rather than with device approval, because broad patient access to a new device doesn’t occur until reimbursement by a national or third-party payer is available. Previous comparisons of the U.S. and European systems have used the approval date to measure process duration, but innovative, high-risk devices don’t reach a market where most patients can benefit from them immediately after gaining regulatory approval, though they may be accessible to patients who can afford to pay out of pocket. Rather, there is a second level of review through which public or private insurers decide whether and at what price they will pay for a device. Generally, public systems take longer than private insurers to make reimbursement decisions, and significantly more Europeans than Americans have public insurance. Two thirds of the U.S. population is covered by private health insurance, whereas only a fifth receives publicly funded reimbursement, primarily administered by the Centers for Medicare and Medicaid Services (CMS).

For both private and public systems in the United States, the pathway to patient access to a device starts with the submission of an application to the FDA. The FDA reviews innovative, high-risk devices for safety and effectiveness (clinical benefit) under the premarket approval (PMA) process, and information on the duration of reviews is publicly available. In fiscal year 2011, the FDA approved 40 applications for PMA. The average review time was 13.1 months, with 8.4 months attributed to FDA review time, and 4.7 months to the time the agency waits for the sponsor to address deficiencies in the application (“sponsor time”).3 CMS provides reimbursement for the majority of devices when they earn FDA approval. For a limited number of devices each year, however, CMS conducts a national coverage determination in response to external requests for validation or for devices that have limited or conflicting evidence of clinical benefit. This process averaged 8.6 months over the past 5 fiscal years.4 Although it is difficult to obtain data on how long private insurers take to make coverage decisions, anecdotal information from private insurers suggests that decisions are made within a few weeks to a few months after FDA approval, depending on the amount and quality of evidence of clinical benefit.

In Europe, by contrast, most of the 27 member countries of the European Union (EU) have publicly financed health care systems; such systems cover approximately four fifths of the populations of the four largest device markets. All EU countries require devices to first obtain a Conformité Européenne (CE) marking, which refers to a symbol shown on products that indicates market approval throughout the EU. The CE marking process is conducted by for-profit, third-party “notified bodies” that have been accredited by a member country to assess device safety and performance but do not evaluate effectiveness (which requires more clinical data). Although publicly available data are limited, anecdotal information from notified bodies suggests that the process takes 1 to 3 months, excluding sponsor time.

Most European patients do not have access to innovative, high-risk devices as soon as the devices receive a CE marking. Each country must first make a decision about reimbursement, a process that varies substantially among countries.5 Though a CE marking can be granted on the basis of fewer clinical data than are required for FDA approval, European standards for reimbursement are often similar to or higher than those that the FDA imposes for device approval. European countries may require additional data on the device’s safety and effectiveness, as well as on cost-effectiveness.

In France, a centralized body makes reimbursement decisions after assessing the safety and effectiveness of individual devices. Reimbursement decisions in Italy are devolved to the various regions, and Britain and Germany conduct broader assessments of device types or procedures, rather than of individual devices. Typically, innovative devices not covered under an existing diagnosis-related group (DRG) require review under the lengthier Health Technology Assessment process, which assesses safety, clinical benefit, and cost-effectiveness. Government-provided information on time to reimbursement varies by country. Estimated time frames are an average of 71.3 months in Germany, a range of 36.0 to 48.0 months in France, a range of 16.4 to 26.3 months in Italy, and an estimated 18 months in Britain.

Using this information, we determined that the time it takes to bring innovative, high-risk devices to patients in the United States is similar to or shorter than that in the top four European markets (seefigureComparison of Time to Market in Premarket Approval and Reimbursement Processes.). The public (CMS) process in the United States takes approximately as long as those in Italy and Britain, approximately half as long as that in France, and less than a third as long as that in Germany. The difference in time to market access is even greater when it comes to private insurers (covering the majority of the U.S. population), which often make reimbursement decisions within a few months after FDA approval.

To further illustrate this point, we compared the time to approval for five innovative, high-risk medical devices available in France, Italy, and the United States (see tableComparison of Time to Market Access for Five Innovative Devices in France, Italy, and the United States.). These case studies indicate that the average time to market access for these devices was 26.3 months in France, 30.8 months in Italy, and 15.3 months in the United States.

These numbers may not fully capture the reasons why a device reaches the market more quickly in one country than in another and do not reflect experiences with all innovative, high-risk devices. However, unless one uses equivalent standards in terms of the level of risk, the start and end points of the process, and the key end point of market access, accurate comparisons cannot be made.

Disclosure forms provided by the authors are available with the full text of this article at NEJM.org.

This article was published on August 1, 2012, at NEJM.org.

SOURCE INFORMATION

From the Office of Planning, Office of the Commissioner, Food and Drug Administration, White Oak, MD.

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Gaps, Tensions, and Conflicts in the FDA Approval Process: Implications for Clinical Practice

Reporter: Aviva Lev-Ari, PhD, RN

 

FDA 501(k) Approval Process

Posted by DCNGA » Wed Nov 03, 2010 4:24 pm

Medical Devices: Gaps, Tensions, and Conflicts in the FDA Approval Process: Medical Devices

Author: Richard A. Deyo, MD, MPH, Departments of Medicine and Health Services and the Center for Cost and Outcomes Research, University of Washington, Seattle

The FDA’s approach to approving medical devices differs substantially from the approach to drugs, being in some ways both more complex and less stringent.[13] The FDA’s authority over devices dates only to 1976. Device legislation was a response, in part, to public outcry over some well-publicized device failures. The most prominent was the Dalkon Shield—an intrauterine contraceptive device associated with serious infections.[14] In contrast, the FDA’s authority over drugs dates to 1938, although it existed in weaker form starting in 1906.[15]

With few exceptions, given the timing of the FDA’s authority, devices introduced before 1976 were never required to undergo rigorous evaluation of safety and efficacy. With the huge volume of “things” that suddenly fell under its purview, the FDA had to prioritize its resources and efforts.

One way of prioritizing was to focus first on safety. Evaluation of effectiveness, in many cases, was reduced to engineering performance: does the device hold up under its intended uses, does it deliver an electric current as advertised? The potential benefits for relieving pain, improving function, or ameliorating disease did not generally have to be demonstrated.

Another way of prioritizing was to assign categories of risk associated with the devices. Rubber gloves seemed less risky than cardiac pacemakers, for example. So the agency assigned devices to 1 of 3 levels of scrutiny. Class I devices have low risk; oversight, performed mainly by industry itself, is to maintain high manufacturing quality standards, assure proper labeling, and prevent adulteration. Latex gloves are an example.

At the other extreme, class III devices are the highest risk. These include many implantable devices, things that are life-supporting, and diagnostic and treatment devices that pose substantial risk. Artificial heart valves and electrical catheters for ablating arrhythmogenic foci in the heart are examples. This class also includes any new technology that the FDA does not recognize or understand. New components or materials, for example, may suggest to FDA that it should perform a more formal evaluation. In general, these devices require a “premarket approval,” including data on performance in people (not just animals), extensive safety information, and extensive data on effectiveness. This evaluation comes closest to that required of drugs. In fact, Dr. Kessler says, these applications “look a lot like a drug applications: big stacks of paper. They almost always require clinical data—almost always. And they often require randomized trials. Not always, but often” (L. Kessler, personal communication). These devices are often expensive and sometimes controversial because of their costs.

Class II devices are perhaps the most interesting. They comprise an intermediate group, generally requiring only performance standards. Examples would be biopsy forceps, surgical lasers, and some hip prostheses. The performance standards focus on the engineering characteristics of the device: does it deliver an electrical stimulus if it claims to, and is it in a safe range? Is it made of noncorrosive materials? Most of these devices get approved by the “510(k)” mechanism. The 510(k) approval requires demonstrating “substantial equivalence” to a device marketed before 1976. “And,” says Kessler, “the products that have been pushed through 510(k) are astonishing” (L. Kessler, personal communication).

Kessler points out, “For the first 5 to 10 years after 1976, this approach made sense. But in 2001, 25 years after the Medical Device Amendment, does it make sense? There was a lot of stuff on the market that wasn’t necessarily great in 1975—why would you put it back on the market now?” (L. Kessler, personal communication). The new device need not prove superiority to the older product—just functional equivalence. If a company wants to tout a new device as a breakthrough, why would it claim substantial equivalence to something 25 years old?

The reason is that the 510(k) process is easier and cheaper than seeking a premarket approval. The 510(k) process usually does not require clinical research. In the mid-1990s, a 510(k) application on average required 3 months for approval, and about $13 million. A premarket approval required, on average, about a year and $36 million. Both are modest compared with new drug approvals. The process by which the agency decides if something is “equivalent enough” to be approved by the 501(k) mechanism is subjective.

Because pre-1976 devices were not subject to any rigorous tests of clinical effectiveness, a newly approved device may be equivalent to something that has little or no therapeutic value. Doctors, patients, and payers therefore often have little ability to judge the value of new devices. As an example, the FDA still receives 510(k) applications for intermittent positive pressure breathing machines.[12] Yet a thorough review by the federal Agency for Health Care Policy and Research found that these devices offer no important benefits.[16]

How much do manufacturers take advantage of the easier 510(k) approach? Since 1976, nearly 98% of new devices entering the market in class II or III have been approved through the 510(k) process.[13] In 2002, the FDA reported 41 premarket approvals and 3708 approvals through the 510(k) process.[17]

“It is a good thing to learn caution from the misfortunes of others.”

“If you wish to succeed in life, make perseverance your bosom friend, experience your wise counselor, caution your elder brother, and hope your guardian genius.”

Dr. Richard A. Deyo, has published an article on this topic in 2004. His observations and references are most valuable for our Blog.

For fulll article go to:

JABFP March–April 2004 Vol.17 No.2 http://www.science.smith.edu/departments/Biochem/Chm_357/Articles/Drug%20Approval.pdf

 

HEALTH CARE POLICY

Author:  Richard A. Deyo, MD, MPH

Despite many successes, drug approval at the Food and Drug Administration (FDA) is subject to gaps, internal tensions, and conflicts of interest. Recalls of drugs and devices and studies demonstrating advantages of older drugs over newer ones highlight the importance of these limitations. The FDA does not compare competing drugs and rarely requires tests of clinical efficacy for new devices. It does not review advertisements before use, assess cost-effectiveness, or regulate surgery (except for devices). Many believe postmarketing surveillance of drugs and devices is inadequate. A source of tension within the agency is pressure for speedy approvals. This may have resulted in “burn-out” among medical officers and has prompted criticism that safety is ignored. Others argue, however, that the agency is unnecessarily slow and bureaucratic. Recent reports identify conflicts of interest (stock ownership, consulting fees, research grants) among some members of the FDA’s advisory committees. FDA review serves a critical function, but physicians should be aware that new drugs may not be as effective as old ones; that new drugs are likely to have undiscovered side effects at the time of marketing; that direct-to-consumer ads are sometimes misleading; that new devices generally have less rigorous evidence of efficacy than new drugs; and that value for money is not considered in approval. J Am Board Fam Pract 2004;17: 142–9.

The process of drug development and approval by the United States Food and Drug Administration (FDA) was recently reviewed by Lipsky and Sharp.1 Using clinical literature and web sites addressing FDA procedures, that review concisely described the FDA’s history, the official approval process, and recent developments in drug approval. However, it did not delve into common misconceptions about the FDA, tensions within the agency, or conflicts of interest in the drug approval process. The rapidly growing business of medical device development, distinct from the drug approval process, also was not addressed. Although most aspects of the FDA review process are highly successful, its limitations deserve careful consideration, because they may have important implications for choosing treatments in practice.

Recent recalls of drugs and devices call attention to limitations of the approval process.2–4 Recent news about complications of hormone replacement therapy5,6 and new data supporting the superiority of diuretic therapy over newer, more expensive alternatives for hypertension7 emphasize gaps in the process. Clinicians should be aware of regulatory limitations as they prescribe treatments and counsel patients, so they have realistic ideas about what FDA approval does and does not mean.

Because controversies relating to internal conflicts or political issues are infrequently reported in scientific journals, this discussion draws not only on scientific articles, but also internet resources, news accounts, and interviews.The goal was not to be exhaustive, but to provide examples of tensions, conflicts, and gaps in the FDA process. As Lipsky and Sharp noted, the FDA approves new drugs and devices (as well as assuring that foods and cosmetics are safe).It monitors over $1 trillion worth of products, which represents nearly a fourth of consumer spending.1 In the medical arena, the basic goal of the FDA is to prevent the marketing of treatments that are ineffective or harmful.

However, the agency faces limitations that result from many factors, including the agency’s legal mandate, pressures from industry, pressures from advocacy groups, funding constraints, and varied political pressures.

Pressures for Approval

Perhaps the biggest challenge and source of friction for the FDA is the speed of approvals for drugs and devices. Protecting the public from ineffective or harmful products would dictate a deliberate, cautious, thorough process. On the other hand, getting valuable new technology to the public—to save lives or improve quality of life—would argue for a speedy process. Some consumer protection groups claim the agency is far too hasty and lenient, bending to drug and device company pressure. On the other hand, manufacturers argue that the agency drags its feet and kills people waiting for new cures. Says Kessler: “That’s been the biggest fight between the industry, the Congress, and the FDA over the past decade: getting products out fast” (L. Kessler, personal communication).

To speed up the review process, Congress passed a law in 1992 that allowed the FDA to collect “user fees” from drug companies. This was in part a response to AIDS advocates, who demanded quick approval of experimental drugs that might offer even a ray of hope.These fees, over $300,000 for each new drug application, now account for about half the FDA’s budget for drug evaluation, and 12% of the agency’s overall $1.3 billion budget.18 The extra funds have indeed accelerated the approval process.By 1999, average approval time had dropped by about 20 months, to an average of a year.In 1988, only 4% of new drugs introduced worldwide were approved first by the FDA.By 1998, FDA was first in approving two thirds of new drugs introduced worldwide.The percentage of applications ultimately approved had also increased substantially.18 Nonetheless, industry complained that approval times slipped to about 14 months in 2001.19

In 2002, device makers announced an agreement with the FDA for similar user fees to expedite approval of new devices, and Congressional approval followed with the Medical Device User Fee and Modernization Act.20 Critics, such as 2 former editors of the New England Journal of Medicine, argue that the user fees create an obvious conflict of interest. So much of the FDA budget now comes from the industry it regulates that the agency must be careful not to alienate its corporate “sponsors.”21

FDA officials believe they remain careful but concede that user fees have imposed pressures that make review more difficult, according to The Wall Street Journal .22 An internal FDA report in 2002 indicated that a third of FDA employees felt uncomfortable expressing “contrary scientific opinions” to the conclusions reached in drug trials.Another third felt that negative actions against applications were “stigmatized.”

The report also said some drug reviewers stated “that decisions should be based more on science and less on corporate wishes.”22  The Los Angeles Times reported that agency drug reviewers felt if drugs were not approved, drug companies would complain to Congress, which might retaliate by failing to renew the users’ fees 18 (although they were just re-approved in summer, 2002).This in turn would hamstring FDA operations and probably cost jobs.

Another criticism is that the approval process has allowed many dangerous drugs to reach the market. A recent analysis showed that of all new drugs approved from 1975 to 1999, almost 3% were subsequently withdrawn for safety reasons, and 8% acquired “black box warnings” of potentially serious side effects. Projections based on the pace of these events suggested that 1 in 5 approved drugs would eventually receive a black box warning or be withdrawn. The authors of the analysis, from Harvard Medical School and Public Citizen Health Research Group, suggested that the FDA should raise the bar for new drug approval when safe and effective treatments are already available or when the drug is for a non–life-threatening condition.2

According to The Los Angeles Times, 7 drugs withdrawn between 1993 and 2000 had been approved while the FDA disregarded “danger signs or blunt warnings from its own specialists. Then, after receiving reports of significant harm to patients, the agency was slow to seek withdrawals.” These drugs were suspected in 1002 deaths reported to FDA. None were life-saving drugs.They included, for example, one for heartburn (cisapride), a diet pill (dexfenfluramine), and a painkiller (bromfenac). The Times reported that the 7 drugs had US sales of $5 billion before they were recalled.18

After analysis, FDA officials concluded that the accelerated drug approval process is unrelated to the drug withdrawals. They pointed out that the number of drugs on the market has risen dramatically, the number of applications has increased, and the population is using more medications.3  More withdrawals are not surprising, in their view. Dr. Janet Woodcock, director of the FDA’s drug review center and one of the analysts, argued that “All drugs have risks; most of them have serious risks.”

She believes the withdrawn drugs were valuable and that their removal from the market was a loss, even if the removal was necessary, according to The Los Angeles Times.18 Nonetheless, many believe the pressures for approval are so strong that they contribute to employee burnout at FDA.In August 2002, The Wall Street Journal reported that 15% of the agency’s medical officer jobs were unfilled.22 Their attrition rate is higher than for medical officers at the National Institutes of Health or the Centers for Disease Control and Prevention. The Journal reported that the reasons, among others, included pressure to increase the pace of drug approvals and an atmosphere that discourages negative actions on drug applications.

Attrition caused by employee “burnout” is now judged to threaten the speed of the approval process. In 2000, even Dr. Woodcock acknowledged a “sweatshop environment that’s causing high staffing turnover.”18 FDA medical and statistical staff have echoed the need for speed and described insufficient time to master details.18,19  An opposing view of FDA function is articulated in an editorial from The Wall Street Journal, by Robert Goldberg of the Manhattan Institute. He wrote that the agency “protects people from the drugs that can save their lives” and needs to shift its role to “speedily put into the market place… new miracle drugs and technologies…. ” He argues that increasing approval times for new treatments are a result of “careless scientific reasoning” and “bureaucratic incompetence,” and that the FDA should monitor the impact of new treatments after marketing rather than wait for “needless clinical trials” that delay approvals.23

Thus, the FDA faces a constant “damned if it does, damned if it doesn’t” environment. No one has undertaken a comprehensive study of the speed of drug or device approval to determine the appropriate metrics for this process, much less the optimal speed. It remains unclear how best to balance the benefits of making new products rapidly available with the risks of unanticipated complications and recalls.

Postmarketing Surveillance of New Products

Although user fees have facilitated pre-approval evaluation of new drugs, the money cannot be used to evaluate the safety of drugs after they are marketed. Experts point out that approximately half of approved drugs have serious side effects not known before approval, and only post-marketing surveillance can detect them. But in the opinion of some, FDA lacks the mandate, the money, and the staff to provide effective and efficient surveillance of over 5000 drugs already in the marketplace. 24 Although reporting of adverse effects by manufacturers is mandatory, late or non reporting of cases by drug companies are major problems. Some companies have been prosecuted for failure to report, and the

FDA has issued several warning letters as a result of late reporting. Spontaneous reporting by practitioners is estimated to capture only 1% to 13% of serious adverse events. 25  Widespread promotion of new drugs—before some of the serious effects are known—increases exposure of patients to the unknown risks. It is estimated that nearly 20 million patients (almost 10% of the US population) were exposed to the 5 drugs that were recalled in 1997 and 1998 alone.26 The new law allowing user fees for device manufacturers does not have the same restriction on post-marketing surveillance that has hampered drug surveillance.

Conflicts of Interest in the Approval Process

Another problem that has recently come to light in the FDA approval process is conflict of interest on the part of some members of the agency’s 18 drug advisory committees. These committees include about 300 members, and are influential in recommending whether drugs should be approved, whether they should remain on the market, how drug studies should be designed, and what warning labels should say. The decisions of these committees have enormous financial implications for drug makers.

A report by USA Today indicated that roughly half the experts on these panels had a direct financial interest in the drug or topic they were asked to evaluate. The conflicts of interest included stock ownership, consulting fees, and research grants from the companies whose products they were evaluating. In some cases, committee members had helped to develop the drugs they were evaluating. Although federal law tries to restrict the use of experts with conflicts of interest, USA Today reported that FDA had waived the rule more than 800 times between 1998 and 2000.

FDA does not reveal the magnitude of any financial interest or the drug companies involved.27 Nonetheless, USA Today reported that in considering 159 Advisory Committee meetings from 1998 through the first half of 2000, at least one member had a financial conflict of interest 92% of the time. Half or more of the members had conflicts at more than half the meetings. At 102 meetings that dealt specifically with drug approval, 33% of committee members had conflicts.27 The Los Angeles Times reported that such conflicts were present at committee reviews of some recently withdrawn drugs.18

The FDA official responsible for waiving the conflict-of-interest rules pointed out that the same experts who consult with industry are often the best for consulting with the FDA, because of their knowledge of certain drugs and diseases. But according to a summary of the USA Today survey reported in the electronic American Health Line, “even consumer and patient representatives on the committees often receive drug company money.”28  In 2001, Congressional staff from the House Government Reform Committee began examining the FDA advisory committees, to determine whether conflicts of interest were affecting the approval process.29

Conclusion

Despite derogatory comments from some politicians and some in the industries it regulates, the FDA does a credible job of trying to protect the public and to quickly review new drugs and devices. However, pressures for speed, conflicts of interest in decision-making, constrained legislative mandates, inadequate budgets, and often limited surveillance after products enter the market mean that scientific considerations are only part of the regulatory equation. These limitations can lead to misleading advertising of new drugs; promotion of less effective over more effective treatments; delays in identifying treatment risks; and perhaps unnecessary exposure of patients to treatments whose risks outweigh their benefits.

Regulatory approval provides many critical functions. However, it does not in itself help clinicians to identify the best treatment strategies. Physicians should be aware that new drugs may not be as effective as old ones; that new drugs are likely to have undiscovered side effects at the time they are marketed; that direct-to-consumer ads are sometimes misleading; that new devices generally have less rigorous evidence of efficacy than new drugs; and that value for money is not considered in the approval process. If clinicians are to practice evidence-based and cost-effective medicine, they must use additional skills and resources to evaluate new treatments. Depending exclusively on the regulatory process may lead to suboptimal care.

REFERENCES

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2.Lasser KE, Allen PD, Woolhandler SJ, Himmelstein DU, Wolfe SM, Bor DH.Timing of new black box warnings and withdrawals for prescription medications. JAMA 2002;287:2215–20.

3.Friedman MA, Woodcock J, Lumpkin MM, Shuren JE, Hass AE, Thompson LJ.The safety of newly approved medicines: do recent market removals mean there is a problem? JAMA 1999;281:1728 –34.

4.Maisel WH, Sweeney MO, Stevenson WG, Ellison KE, Epstein LM.Recalls and safety alerts involving pacemakers and implantable cardioverter-defibrillator devices. JAMA 2001;286:793–9.

5.Rossouw JE, Anderson GL, Prentice RL, et al. Risks and benefits of estrogen plus progestin in healthy postmenopausal women: principal results from the Women’s Health Initiative randomized controlled trial. JAMA 2002;288:321–33.

6.Grady D, Herrington D, Bittner V, et al. Cardiovascular disease outcomes during 68 years of hormone therapy: Heart and Estrogen/progestin Replacement Study Follow-up (HERS II). JAMA 2002;288:49–57.

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9.Moore TJ. Deadly medicine: why tens of thousands of heart patients died in America’s worst drug disaster. New York: Simon and Schuster; 1995.

10.Petersen M. Diuretics’ value drowned out by trumpeting of newer drugs. The New York Times 2002 Dec 18;Sect A:32.

11.Gorelick PB, Richardson D, Kelly M, et al. Aspirin and ticlopidine for prevention of recurrent stroke in black patients: a randomized trial. JAMA 2003;289: 2947–57.

12.Gahart MT, Duhamel LM, Dievler A, Price R. Examining the FDA’s oversight of direct-to-consumer advertising. Health Aff (Millwood) 2003 Suppl W3– 120–3.

13.Ramsey SD, Luce BR, Deyo R, Franklin G. The 148 JABFP March–April 2004 Vol.17 No.2  limited state of technology assessment for medical devices: facing the issues. Am J Manag Care 1998;4 Spec No:SP188–99.

14.Merrill RA. Modernizing the FDA: an incremental revolution. Health Aff (Millwood) 1999;18:96–111.

15.Milestones in US food and drug law history. United States Food and Drug Administration. http://www. fda.gov/opacom/backgrounders/miles.html, accessed 8/19/02.

16.Handelsman H. Intermittent positive pressure breathing (IPPB) therapy. Health Technol Assess Rep 1991;(1):1 9.

17.FDA Center for Devices and Radiological Health. Office of Device Evaluation annual report 2002. Available at: URL:http://www.fda.gov/cdrh/annual/ fy2002/ode/index.html.

18.Willman D. How a new policy led to seven deadly drugs. The Los Angeles Times 2000 Dec 20;Sect. A:1.

19.Adams C, Hensley S. Health and Technology: drug makers want FDA to move quicker. Wall Street Journal 2002 Jan 29; Sect.B:12.

20.Adams C. FDA may start assessing fees on makers of medical devices. The Wall Street Journal 2002 May 21;Sect.D:6.

21. Angell M, Relman AS.Prescription for profit. The Washington Post 2001 Jun 20; Sect.A:27.

22.Adams C. FDA searches for an elixir for agency’s attrition rate. The Wall Street Journal 2002 Aug 19;Sect.A:4.

23. Goldberg R.FDA needs a dose of reform.The Wall Street Journal 2002 Sep 30;Sect.A:16.Available at: URL: http://www.aei.brookings.org/policy/page. php?id113

24.Moore TJ, Psaty BM, Furberg CD. Time to act on drug safety. JAMA 1998;279:1571–3.

25.Ahmad SR. Adverse drug event monitoring at the Food and Drug Administration: your report can make a difference. J Gen Intern Med 2003;18:57–60.

26.Wood AJJ. The safety of new medicines: the importance of asking the right questions. JAMA 1999;281:

1753–54.

27. Cauchon D.FDA advisers tied to industry.USA Today 2000 Sep 25; Sect.A:1.

28.Cauchon, D. Number of drug experts available is limited. Many waivers granted for those who have conflicts of interest. USA Today 2000 Sep 25;Sect. A:10.

29.Gribbin A. House investigates panels involved with drug safety. Mismanagement claims spur action. The Washington Times 2001 Jun 18;Sect.A:1.

 

 

 

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