The Healthcare Technology Report is pleased to announce The Top 25 Women Leaders in Medical Devices of 2023. Technology is advancing at a rapid pace across industries, and perhaps nowhere is that more true than in the medical device market. In fact, according to Fortune Business Insights, the global market is projected to grow from roughly $495 billion in 2022 to nearly $719 billion by 2029 at a CAGR of 5.5{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}. There is intense competition in the market, and the women on this year’s list and the companies they represent have found success innovating across a range of specialties, from insulin management systems to regenerative technologies, electrotherapy, and wireless surgical solutions.
Some of the distinguished leaders on this year’s list include Tania Saison, SVP and CCO/CRO of Edwards Lifesciences, who oversees the company’s Global Integrity Program, which establishes a comprehensive framework for ensuring compliance with applicable laws, regulations, and standards of conduct. Meanwhile, Jennifer Ernst, CEO of Tivic Health, built her company from founding to IPO in 5 years and put an award-winning medical device into market within 3 years. And Manisha Shah-Bugaj, COO of Activ Surgical, oversees the ongoing development and commercialization of the company’s products, including ActivSight™ Intelligent Light, which aims to provide enhanced visualization and real-time, on-demand surgical insights in the operating room.
The awardees on this year’s list lead from a range of positions, from President and CEO to SVP, EVP, and COO. What they have in common is their dedication to innovation in the medical device space, bringing revolutionary new devices to market and improving the lives of patients and clinicians alike. Please join us in celebrating The Top 25 Women Leaders in Medical Devices of 2023.
1. Tania Saison Company: Edwards Lifesciences Title: Senior Vice President and Chief Compliance Officer/Chief Responsibility Officer
Tania Saison is Senior Vice President and Chief Compliance Officer/Chief Responsibility Officer for Edwards Life Sciences, the global leader in patient-focused medical innovations for structural heart disease, as well as critical care and surgical monitoring. As CRO, Saison oversees the company’s Global Integrity Program with unwavering support from the Board of Directors and executive leadership. The program establishes a comprehensive framework for ensuring compliance with applicable laws, regulations, and standards of conduct, and reinforces Edwards’ culture of integrity and ethics. Saison is a member of the global senior leadership team.
Prior to Edwards, Saison served as VP and Chief Compliance Officer for Agilent Technologies. She got her start at Agilent as Senior Compliance Counsel. Previously, she was Assistant General Counsel and Head of Global Compliance for Beckman Coulter, Senior Counsel for Diageo plc, and served as an attorney for Hunton & Williams and Dewey Ballantine LLP. Saison earned her JD from Columbia Law School, her MBA from Harvard Business School, and her Bachelor of Arts in history from Columbia University.
2. Simona Serban Company: Fresenius Medical Care Title: Chief Operating Officer
Simona Serban is based in Bucharest, Romania. She currently serves as the Chief Operating Officer of Fresenius Medical Care, the world’s leading provider of products and services for individuals with kidney diseases. Fresenius aims to create a future worth living for chronically and critically ill patients — worldwide and every day. Thanks to the company’s decades of experience in dialysis, its innovative research, and its value-based care approach, it is helping patients enjoy the very best quality of life.
Prior to her COO role, Serban held assignments of increasing responsibility in the healthcare industry. This includes stints serving as a customer solutions manager and sales representative for Merck Sharp & Dohme Romania SRL. Her areas of expertise include pharmaceutical sales, product launch, market analysis, marketing management, and hospital sales, among others. She holds a degree from the Universitatea Alexandru Ioan Cuza, which is located in Iasi, Romania.
3. Aviva McPherron Company: NuVasive Title: Chief Information Officer and Senior Vice President of IT
Aviva McPherron serves as NuVasive’s Chief Information Officer and Senior Vice President of IT, and is responsible for the company’s information technology organization. NuVasive is committed to transforming surgery, advancing care, and changing lives through less invasive, procedurally integrated solutions. Since its inception in 1999, it has continually outperformed the market as the largest, spine-focused company in the world. With more than $1 billion in revenues, NuVasive has approximately 2,600 employees and operates in more than 50 countries serving surgeons, hospitals and patients.
McPherron’s previous roles include VP of Enterprise Applications and Senior Director of Business Solutions. Before joining NuVasive, she was Director of Operations for Tapestry Solutions, a Boeing Company, and has held multiple technical leadership positions delivering transformative solutions. McPherron holds a Bachelor of Science in mechanical engineering from Stanford University.
4. Elizabeth Sebern McCombs Company: BD Title: Executive Vice President and Chief Technology Officer
Elizabeth Sebern McCombs serves as Executive Vice President and Chief Technology Officer of BD (Becton, Dickinson and Company), a leading global medical technology company headquartered in Franklin Lakes, New Jersey. In this role, she is responsible for leading all R&D activities for BD, advancing new product innovation and development from early-stage concepts through launch, and sustaining the current product portfolio. She is also a member of the BD Executive Leadership Team.
McCombs joined BD in 2019 as the Senior Vice President, R&D for the BD Medical Segment, where she co-led the segment portfolio strategy and growth acceleration initiatives. Prior to joining BD, she spent more than 20 years at Johnson & Johnson (J&J), most recently as Vice President, R&D for Ethicon, J&J’s surgical device franchise. Aside from her technical credentials, McCombs has been recognized for her work driving inclusion and diversity efforts, including the support and mentorship of fellow female professionals. She holds an MBA from the University of Pennsylvania’s Wharton School of Business and both a Master of Science and Bachelor of Science in mechanical engineering from the Massachusetts Institute of Technology.
Niamh Pellegrini currently serves as Chief Commercial Officer for Nevro, a global medical device company focused on delivering innovation to improve the quality of life for patients suffering from debilitating chronic pain. Pellegrini is a proven commercial leader with over 30 years of experience in the healthcare industry. Prior to joining Nevro, she was Vice President of Global Commercial Operations for Abbott Vascular.
Before Abbott, Pellegrini served as CEO and President at Autonomic Technologies, Inc. and President, North America at Thoratec Corporation. Prior to Thoratec, she served in progressively responsible global business development, strategy, and commercial roles at Johnson & Johnson. Pellegrini currently serves on the Board of Directors of Acutus Medical. She graduated from Santa Clara University with an MBA and a Bachelor of Science in finance.
6. Lena Hagman Company: XVIVO Title: Chief Operating Officer
In December 2022, Lena Hagman was appointed Chief Operating Officer of XVIVO, the first global all organ company. Founded in 1998, XVIVO is the only medical technology company dedicated to extending the life of all major organs — so transplant teams around the world can save more lives. Hagman has extensive global operational experience within the medical device industry, and has for the last 12 years been in different executive roles within the Getinge group, a Swedish global MedTech company. Her most recent role was as Executive Vice President for Quality compliance, Regulatory and Medical Affairs, which she held for 7 years.
Throughout her career, Hagman has been active in the medical device industry, with more than 20 years in leading positions with global responsibilities in R&D, supply chain, and quality/regulatory/medical affairs. Over the years, she has led many strategic and efficiency programs and company integrations. She has deep knowledge and experience in different global medical device quality regulations and with a high customer and patient centricity focus. She holds a Bachelor of Science in chemistry and textile engineering from Chalmers University of Technology, Sweden and is based at XVIVO’s headquarters in Gothenburg.
7. Jennifer Ernst Company: Tivic Health Title: Co-Founder and Chief Executive Officer
Jennifer Ernst is the Co-Founder and Chief Executive Officer of Tivic Health, a commercial phase healthtech company focused on advancing bioelectronic medicine. Ernst has more than 20 years of experience in the commercialization of breakthrough innovation and a history of developing markets from frontier technologies. As CEO of the U.S. subsidiary of Thin Film Electronics, she helped build the company from eight to 130 people, achieved a $480 million market cap in five years, and launched international award-winning products.
Ernst has held positions at Xerox PARC, positioning research for productization through strategic partnerships and licensing, and served as chairperson of Flex, the U.S. National Consortium for Flexible and Printed Electronics, now part of SEMI. She participated in the launch of the Global Women’s Leadership Network and was named to the Inc. Female Founders 100 and to the Healthcare Technology Report Top Women Leaders in Consumer Healthtech. She received an MBA from Santa Clara University and a Bachelor of Arts from San Francisco State University.
In December 2022, Manisha Shah-Bugaj was promoted from Activ Surgical’s Chief Operating Officer, a position she had held for just under a year, to its newest Chief Executive Officer. In addition to engaging with company partners, customers, and investors, Shah-Bugaj oversees the ongoing development and commercialization of Activ Surgical products, including ActivSight™ Intelligent Light, which aims to provide enhanced visualization and real-time, on-demand surgical insights in the operating room.
Prior to joining Activ Surgical, Shah-Bugaj architected the gynecology unit at Olympus from the ground up in the U.S., ultimately serving as General Manager and Global Vice President for the company, and played an integral role in expanding the gynecology business internationally. She has more than two decades of experience, including building and implementing corporate business plans, directing regional and global businesses aligned to financial and operational targets, hiring and establishing new teams, and managing product portfolios. She holds a Master of Engineering Management and a Bachelor of Engineering in biomedical engineering, both from Dartmouth College.
9. Anna Lucsok Company: Zynex Medical Title: Chief Operating Officer
Anna Lucsok currently serves as Chief Operating Officer for Zynex Medical. Zynex, founded in 1996, markets and sells its own design of electrotherapy medical devices used for pain management and rehabilitation. The company’s proprietary NeuroMove device is designed to help the recovery of stroke and spinal cord injury patients. Zynex has also developed a blood volume monitor for use in hospitals and surgery centers.
Previously, Lucsok served as Vice President of Reimbursement and Sales Operations with Zynex. In this position, she was responsible for leading and expanding Zynex’s order, reimbursement, patient experience, and inside sales support operations. During her tenure, each of these teams consistently achieved quarterly targets, while also expanding in size. Lucsok brings more than nine years of healthcare operations experience as well as critical knowledge of revenue cycle management and medical care collections. She has been involved in various operations positions as well as management positions with Zynex since her start in 2018, including serving as Billing Manager. She previously held key positions with companies such as the University of Colorado Hospital, the U.S. Air Force based in Germany and Japan, and Schryver Medical. Lucsok holds certification in medical billing and earned her Bachelor of Science in healthcare administration and management from Colorado State University.
Sreelakshmi Kolli is Executive Vice President Chief Digital Officer for Align Technology. She is responsible for leading software, data, enterprise, cloud, and infrastructure engineering teams focused on the design and development of digital products and services. This includes defining the technology strategy and development of product software, consumer, customer, manufacturing, and enterprise applications enabling the Align Digital Platform. In addition, Kolli led Align’s global business transformation initiative aimed at delivering platforms and technology to support customer experience and simplified business processes across the company.
Kolli joined Align in June 2003 as Manager, Software Engineering and held positions of increasing responsibility leading business operations and engineering for customer-facing applications. She was promoted to Senior Vice President, Global IT in December 2012 before being promoted to her current position in April 2020. Prior to joining Align, Kolli held technical lead positions with Citadon and Accenture. She is also a member of the Board of Directors at Zimmer Biomet Holdings, Inc. Kolli earned a Master of Science in computer applications at the National Institute of Technology in Trichy, India and is a graduate of the Stanford Executive Program offered by the Stanford Graduate School of Business.
12. Deborah Gordon Company: Insulet Title: Vice President, Investor Relations
Deborah Gordon has served as Vice President, Investor Relations for Insulet Corporation since January 2015. Insulet is a roughly $1 billion medical device company dedicated to making the lives of people with diabetes easier through its OmniPod Insulin Management System. Gordon also serves on the Board of Directors of the L.S. Starrett Company, serving on the Audit Committee since July 2020 and the Compensation Committee since July 2021.
Prior to joining Insulet, Gordon served in a number of roles of increasing responsibility during her 10 years at Hologic, Inc. and Cytyc Corporation (which merged with Hologic in October 2007). Notably, she served for seven years as Hologic’s Vice President, Investor Relations and Corporate Communications and prior as Assistant Corporate Controller and Director of SEC Reporting and Technical Accounting at Cytyc. Before joining Cytyc, Gordon served in the audit practice at Deloitte & Touche for 11 years. She earned her Bachelor of Arts in business administration, with concentrations in accounting and economics, from Clark University and is a certified public accountant.
13. Suzanne Winter Company: Accuray Title: President and Chief Executive Officer
Since July 2021, Suzanne Winter has served as President of California-based medical equipment manufacturer Accuray, and in July 2022 she was promoted to Chief Executive Officer as well. In her position at the head of the company, Winter has continually driven the expansion of Accuray’s radiotherapy cancer treatment technologies, yielding record order volume and the approval of numerous novel treatments in China and beyond. She has had a significant impact on Accuray’s product portfolio and commercial momentum since joining the company.
Prior to joining Accuray, Winter held senior executive roles spanning general management, commercial operations, and business development across a range of healthcare industry segments, including radiology, neurology, and surgery. Most recently, she served as Group Vice President – Americas region at Medtronic Diabetes, where she was responsible for leading the 2,000 person commercial organization. Before Medtronic, Winter was the General Manager of GE Healthcare’s Detection and Guidance Solutions operations. She earned an MBA from Harvard Business School and a Bachelor of Science in chemistry from Saint Lawrence University.
14. Sandra Hirsch Company: Zyris, Inc. Title: President and Chief Executive Officer
Sandra Hirsch is the third founding member of Zyris, Inc., pairing decades of experience as a financial manager and CPA with a zeal for entrepreneurship sparked by her Bachelor of Science in business administration from the University of Southern California. Under her leadership as President and Chief Executive Officer, Zyris has grown from a struggling start-up to the world leader in dental isolation, distributing Isolite products throughout North America and in more than 20 countries overseas. Hirsch is defined by her family, the Zyris team, and unwavering resolve to forever change the experience of dentistry for patients and clinicians.
In 2001, Hirsch founded Innerlite Inc. with her husband Jim Hirsch, an industrial designer, and her brother-in-law Tom Hirsch, a practicing dentist. Together, they rebranded the company as Isolite Systems and launched their flagship product, the Isolite illuminated dental isolation system, in 2002. Isolite enables dental practices of all sizes to implement a technique for controlling the oral environment, providing an innovative solution for dental isolation. Offering a full line of isolation products that are minimally invasive and easy-to-use, Isolite Systems allows dental professionals to work more productively and effectively with less stress and fatigue for both themselves and their patients.
Today, Hirsch serves as President and CEO of Isolite Systems. Under her leadership, the company has grown from a single game-changing idea to an international phenomenon, with over fifty employees at their Santa Barbara-based manufacturing and distribution center and representatives worldwide. Thousands of dentists in over twenty countries are loyal fans of the safety, comfort, and control that Isolite dental isolation provides. In the U.S., over 20{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of all dental schools have adopted their products, which will soon become the standard of care for everyday dental procedures. Hirsch and the Isolite team continue to develop products that make a difference in people’s lives. They are relentlessly focused on the pursuit of a better dental experience for every patient and have earned numerous awards and accolades for their efforts.
Tavia Walsh is a Co-Founder and the Chief Technology Officer of Pulse Technologies, an entrepreneurial startup based in Vancouver designing innovative, low-cost consumer wearable devices using emerging new conductive materials and 3D printing methods. As a biomedical engineer with both an electrical and mechanical background, Walsh has an interest in complex problem solving and design thinking; and as a founder of Pulse, she has experience in the biomedical start-up space.
Walsh co-founded Pulse Technologies in 2016. While working on Pulse, she served as a biomedical engineer for 4M BioTech from 2020-2021 and as a mechanical engineer for ViVitro Labs Inc. from 2021-2022. Walsh earned her MD from University College Dublin, her Master of Applied Science in mechanical engineering from the University of Victoria, and her Bachelor of Applied Science from The University of British Columbia.
16. Jennifer Honeycutt Company: Danaher Title: Executive Vice President
As Executive Vice President, Jennifer Honeycutt provides strategic and operational leadership for Danaher’s Environmental and Applied Solutions businesses, which includes the Product Identification and Water Quality platforms. She also oversees Danaher’s High Growth Markets and regional teams outside of China. Honeycutt originally joined Danaher with the 2000 acquisition of Hach and has held positions of increasing responsibility across multiple industries over the past 20+ years.
Leadership roles at Hach Ultra Analytics, Anderson Instrument Company (now part of Fortive), Linx Printing Technologies, Beckman Coulter Life Sciences, and Pall have given her deep knowledge of the Danaher Business System (DBS) and a unique perspective on the many ways Danaher can help realize life’s potential across its businesses. Honeycutt is a champion of the power of diversity, and a longstanding member of Danaher’s Diversity + Inclusion Council. Throughout her tenure, she has consistently delivered strong results by building high-performing teams and driving strategic M&A, innovation, and commercial execution. Honeycutt earned a Master of Arts in Technology Management from the University of Denver and Bachelor of Arts degrees in chemistry and French from Grinnell College.
Since June 2021, Pooja Pathak has served as Chief Product Officer for LumiraDx, a next-generation point of care diagnostics company based in the U.K. Founded in 2014, the company provides a comprehensive portfolio of testing solutions used by governments and leading healthcare institutions. Pathak, who previously served as LumiraDx’s Vice President of Platform Strategy, is currently responsible for product management, marketing, and medical affairs.
Prior to LumiraDx, Pathak most recently worked at Abbott as VP of Global Marketing for the Infectious Disease Emerging Markets business, which included 170 countries across Asia, EMEA, and Latin America. In this role she was responsible for a $500 million portfolio. Additionally, she has held leadership roles with Alere and Novartis Vaccines, where she focused on bringing new innovations to market, implementing integrated diagnostic and treatment programs, and rolling out global public health solutions. Pathak holds a Master of Science in chemical engineering from MIT and a Bachelor of Science in chemical engineering from the University of Illinois Chicago.
Kelli Howell has served as Executive Vice President, Clinical Strategies of Alphatec Spine since March 2018. Alphatec improves lives by providing innovative spine surgery solutions through its relentless pursuit of superior outcomes. The company is dedicated to the design, development, launch, and the delivery of spinal fusion products. Alphatec accomplishes this by working with spine surgeons to design and develop products and systems that address the entire spinal fusion procedure in the most effective and efficient way possible. Its product designs and platforms provide innovation through a focus on simplifying procedures for the surgeon with the ultimate objective of superior outcomes.
For the 18 years prior to joining Alphatec, Howell held various management positions at NuVasive, Inc., including Vice President, Research & Health Informatics from January 2017 to March 2018, Vice President, Research & Education from February 2015 to January 2017, and Vice President, Research from April 2012 to February 2015. Prior to joining NuVasive, Howell was involved in research at Orthopedic Biomechanics Laboratory (OBL), Beth Israel Deaconess Medical Center in Boston. Howell received a Master of Science in biomedical engineering from Boston University and a Bachelor of Arts in engineering sciences from Dartmouth College.
19. Alison Burdett Company: The Surgical Company Title: Chief Scientific Officer
Alison Burdett has over 30 years of experience in electronic engineering and semiconductor design, particularly in the field of ultra-low-power wireless communication for medical applications. She co-founded Toumaz in 2001 and served as the Technical Director. She became the Chief Technical Officer in 2006, responsible for delivering silicon and advanced technology programs for both consumer and healthcare divisions of the business. In 2016, the healthcare business unit of Toumaz, Sensium Healthcare, became part of The Surgical Company Group and she joined Sensium, where she became the Chief Scientific Officer, responsible for all engineering and scientific programs for the company’s digital health products.
Prior to joining Toumaz, Burdett spent time both in industry as an integrated circuit designer, and also in academia (as a Senior Lecturer of Analog IC Design with Imperial College London). She is a Visiting Researcher with the Institute of Biomedical Engineering, Imperial College. She has more than 80 peer-reviewed publications and is a named inventor on more than 20 patents. Burdett was a member of the Technical Programme Committee for the IEEE International Solid-State Circuits Conference (ISSCC) from 2009 to 2018, serving as the European Regional Chair 2012–2014 and the Technical Program Chair for ISSCC 2018. She has been an Associate Editor of IEEE Transactions on Biomedical Circuits and Systems since 2008, and is the Associate Editor-in-Chief of the IEEE Open Access Journal of Circuits and Systems. She is a Chartered Engineer and a Fellow of the Institute of Engineering and Technology. Burdett earned her PhD in analogue IC design and her bachelor’s degree in electrical and electronics engineering from Imperial College London.
From January 2018 to June 2022, Rhonda Robb served as Chief Operating Officer of Minnesota-based medical device manufacturer Cardiovascular Systems, Inc., a medical device company developing and commercializing innovative interventional treatment systems for peripheral and coronary artery disease. In her time at the company, Robb was renowned for her agile, forward-thinking leadership style, and her efforts helped bring the company to numerous new patients and a greatly expanded product line.
In the time since her departure from Cardiovascular Systems, Robb has continued to serve on the board of 4C Medical Technologies. Robb formerly served as Vice President and General Manager of the Heart Valve Therapies business at Medtronic. In that role, she was responsible for the transcatheter and surgical valve franchises. Previously, Robb held additional leadership positions in Medtronic’s Coronary, Peripheral, and Cardiac Rhythm businesses. She has strong experience leading complex businesses, growing new markets, extensive commercial experience, and a strong track record of building teams and product portfolios that have improved the quality of care for patients with cardiovascular disease. Robb holds an MBA from the University of Minnesota’s Carlson School of Management.
21. Jessica Lynch Company: DentalMonitoring Title: Chief Operations Officer – North America
Since April 2022, Jessica Lynch has been Chief Operations Officer – North America at DentalMonitoring, the leading Intelligent Platform globally which provides connected, smarter and more sustainable dental care. DentalMonitoring creates with doctors and partners an environment to deliver the best dental care to patients, synchronized with their treatment needs. Showcasing a unique, people-first leadership style, Lynch has helped the company improve financial results while enjoying sustainable organizational growth. Recent achievements by DentalMonitoring have included new advances in AI-driven dental technologies and a unique new gamified feature in its signature platform.
Prior to DentalMonitoring, Lynch served as Vice President of Operations Excellence and Vice President of Strategy for Smile Doctors. Before that, she was Chief Operating Officer for DN Orthodontics for four years. She also served as Senior VP, Doctor Relations (2010-2014) and Director of Operation Consultants (2009-2010) for OrthoSynetics, and was a physician liaison for Louisiana Medical Center and Heart Hospital, LLC. Lynch holds a Bachelor of Science in business administration from the University of Louisiana at Lafayette.
22. Rebecca Lin Company: Potrero Medical Title: Chief Strategic Officer
With her unique blend of business acumen and technical expertise, Rebecca Lin is a dynamic leader with many years of success in the healthcare industry. Today she serves as the Chief Strategic Officer for Potrero Medical, a Hayward, California-based predictive health company developing the next generation of medical devices with smart sensors and artificial intelligence. Lin, who has been with the company since October 2016, previously served as the Senior Vice President of Sales and Marketing. In that role, she built and led the commercial organization that developed go-to-market strategies for Potrero’s Accuryn Monitoring System.
Over the years, Lin has achieved success at both large corporations and startups. Prior to her work at Potrero, she was the VP of Business Development at Theranova and led marketing initiatives for C. R. Bard (now owned by Becton Dickinson), in both Shanghai and the U.S. She has also worked as a Board Fellow at the American Red Cross Bay Area, currently serves as a guest lecturer at the University of California, San Francisco and Berkeley, and spent several years in sales and training at Johnson & Johnson. Lin holds a Master of Science in management from the Stanford University Graduate School of Business and a master’s in marine biology from Sun Yat-sen University in Guangdong, China.
Kristie West is the Chief Operating Officer at Orchid Orthopedic Solutions, a global leader in medical device outsourcing services. Founded in 2005, the company’s 1,500 employees work to provide a broad array of capabilities in the world of orthopedic devices, including design, regulatory affairs, implant manufacturing, and instrument manufacturing, among other areas. West, who is a Six Sigma Black Belt and a Master Black Belt, joined Orchid in January 2022.
West came to Orchid from General Electric’s Edison Works Programs and Operations team, where she was the Senior Executive Director supporting the future of military combat and space. Prior to joining the Edison Works team, West was the Senior Executive for the Tubes & Ducts Value Stream in GE Aviation’s Supply Chain organization. She also held a number of leadership roles within GE, including Director of Operations for Unison Industries (a GE company); Executive Plant Leader for Avio Aero (a GE company), in Torino, Italy; Supply Chain Strategy Leader for GE Aviation; and CF6 Customer Programs Leader. Prior to GE, West held various leadership roles in manufacturing with Navistar and Carrier Global Corporation. She holds a Bachelor of Science in organizational leadership from Purdue University’s Polytechnic Institute.
Liz Hammack is Chief Manufacturing Officer of Pristine Surgical, a medical device company with a mission to simplify endoscopy. While Hammack joined the company in September 2021, her career began more than 30 years ago. During this time, she has worn many hats: from working on the factory floor, to holding multi-plant leadership, to operating in the boardroom. In addition to her work at Pristine, she is also the principal owner of Hammack Manufacturing Solutions, which is based in Portland, Oregon.
Prior to Pristine, Hammack spent 16 years at Medtronic, most recently serving as a Vice President of Manufacturing and Operations, AFS. In that position, she led operations, manufacturing, and supply chain integration activities for the newly formed AF Solutions business at Medtronic-CRDM. In 1981, she graduated from Oregon State University with a Bachelor of Science in industrial engineering. A proud alum, she has since served on numerous boards for the university’s College of Engineering. Furthermore, in 2013, she received Oregon State’s distinguished engineer award.
25. Dina Dubey Company: Teleflex Title: Chief Operating Officer
Dina Dubey is the Chief Operating Officer of Teleflex. Dubey’s roots with the company go back to 2011, when she started off as Director of Research and Development for Z-Medica, which was acquired by Teleflex in 2020. In this position, Dubey drove a pipeline of projects and developed and drove QuikClot Control+, the organization’s first-of-its-kind, new-generation hemostatic dressing, which ultimately resulted in commercialization of the product. On top of that, Dubey was a vital member of the executive leadership team that grew Z-Medica’s revenue from $28 million to $64.8 million.
Dubey started her career at Kensey Nash Corporation (now DSM Biomedical), where she spent eight years in engineering and management roles. In 2003, she received a Bachelor of Science in biomedical engineering from Case Western Reserve University. She also holds a Master of Science in engineering management and a Master of Science in biomedical engineering from Drexel University. More recently, Dubey completed a leadership development program from Harvard Business School Executive Education.
Future Market Insights Global and Consulting Pvt. Ltd.
Leading Medical Devices Secondary Packaging Market participants include Sonoco Products Company, Smurfit Kappa, Berry Global Group, Inc., Constantia Flexibles Group GmbH, UFP Technologies, Placon Incorporated, Steripack Group among others. China’s Medical Devices Secondary Packaging Market is projected to be worth US$ 1,270.1 million by 2033.
NEWARK, Del, Feb. 14, 2023 (GLOBE NEWSWIRE) — The global medical device secondary packaging market is expected to be worth US$ 12,409.8 million in 2023, rising to US$ 20,914 million by 2033. The adoption of medical device secondary packaging is expected to surge at a stable CAGR of 6.1{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} over the forecast period.
The medical device secondary packaging market is experiencing significant growth driven by several key factors. The increasing aging population and the associated rise in chronic diseases are driving the demand for medical devices such as pacemakers, stents, and artificial joints, leading to an increased need for proper packaging to ensure the safety and integrity of these devices. Advancements in medical technology have also led to the development of new medical devices, requiring manufacturers to invest in packaging solutions to protect them during transportation and storage.
In addition, the growing demand for minimally invasive surgical procedures is driving the need for smaller medical devices and appropriate packaging solutions to ensure safe delivery to the surgical site. Stringent regulations for medical device secondary packaging are also playing a key role in driving demand as governments around the world implement standards to protect the safety and integrity of the devices.
Furthermore, rising awareness about the importance of proper packaging in extending the shelf life of medical devices is also driving demand.
While the adoption of medical device secondary packaging is expected to experience significant growth, manufacturers are also facing several challenges. One of the prominent challenges is meeting stringent regulations and compliance requirements to ensure the safety and integrity of medical devices. Another challenge is ensuring the compatibility of packaging materials with medical devices to avoid any damage. Managing costs while maintaining high standards of quality is also a significant challenge for manufacturers as they strive to produce packaging solutions at a competitive price while meeting industry standards.
Key Takeaways from the Medical Device Secondary Packaging Market:
The paper and paperboard market is predicted to account for US$ 14,293.2 million by 2032 and to grow at a 5.5{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} CAGR throughout the projection period.
During the projection period, the plastic segment is expected to offer a growth potential of US$ 6,620.8 million. In 2022, the boxes sector accounted for about 30{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of the market. This category is also predicted to rise at a healthy 5.5{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} CAGR throughout the projection period.
Folding cartons are expected to represent an incremental potential of US$ 1.9 billion over the projection period and to account for more than 21{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of the market by 2032.
During the projection period, the medical device secondary packaging sector in the United States is expected to exceed US$ 5,067.6 million.
This German market is predicted to provide a startling additional opportunity of US$ 1,030.4 million, making it an appealing location for both investors and producers.
By 2032, China’s medical device secondary packaging industry is expected to be worth US$ $1,270.1 million.
Who is Winning?
Product innovation, market expansion into new markets, strategic alliances and collaborations, and acquisitions are common growth tactics employed by the industry’s leading players. Startups in the market are developing innovative technologies to efficiently label medical devices.
Packaging companies may save validation time and eventually create smaller batch sizes that comply with customer specifications by applying the same processes for identical medical devices with a few minor adjustments. The use of NFC and RFID tags in packaging materials is expected to be promoted by counterfeiting, which is a serious problem with medical supplies.
Sonoco Products Company, Smurfit Kappa, Berry Global Group,Inc., Constantia Flexibles Group GmbH, UFP Technologies, Placon Incorporated, Steripack Group, Nelipak Group, Stora Enso Oyj, Winpak Ltd, Graphic Packaging International, LLC,Atlantic Packaging, Pro-tech Design & Manufacturing Inc., Scan Modul B.V., Körber AG, The BoxMaker
Ashfield, a subsidiary of UDG Healthcare plc, announced the development of three business divisions in January 2021 to expand and diversify its healthcare capabilities.
In April 2021, Amcor presented its most recent invention, the New AmSkyTM blister system. This innovation has the potential to revolutionize medical packaging sustainability.
In April 2020, Amcor’s ULTRA pouches were certified for steam sterilization at 134°C and vaporized hydrogen peroxide treatment. As a result, the pouches may be used to sterilize reusable medical equipment.
Medical Devices Secondary Packaging Market by Category
Have a Look at Related Research Reports of Packaging
Packaging Tapes Market Size: The global packaging tapes market is set to enjoy a market valuation of US$ 71.7 Bn in 2021, and register a CAGR of 4.8{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} {08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} to reach US$ 120.1 Bn by 2032.
Packaging Bins Market Forecast: Global sales of packaging bins stood at around US$ 1.9 Bn in 2021 and is slated to increase at a CAGR of 4.4{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} to reach a valuation of US$ 3.0 Bn by 2032.
FMCG Packaging Market Outlook: The global FMCG packaging market is expected to reach US$ 418.8 Bn in 2022, with sales growing at a CAGR of 5.7{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} through 2032.
Medical Device Packaging Market Sales: The global medical device packaging market is likely to reach US$ 48.1 Bn by the year 2027at a CAGR of 5.3 {08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} between 2022 and 2027.
Medical Device Trays Market Growth: Medical Device Trays Market: Medical Device Trays Industry Analysis, Regional Outlook, Market Revenue, Competitor Analysis, and Industrial Growth by Future Market Insights.
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BRAINTREE − Defibrillators for city structures and products for the nurse’s office environment at the new South Center College will be donated to the city by a foundation commenced in memory of a slain member of the board of wellbeing who was a longtime university nurse.
The $15,000 donated to pay out for the nurse’s business office furnishings and 5 defibrillators for town and school buildings is from the Laurie Melchionda Foundation. The city council voted unanimously to accept them at Tuesday night’s assembly.
Melchionda was a nurse at Boston Kid’s Medical center for 35 yrs and a nurse in the Braintree educational institutions for 25 many years in advance of leaving to develop into the director of nursing for the Weston educational institutions. She was shot and killed at her Howie Highway household in June 2020. The man billed with the criminal offense is a former neighbor who posed as a supply driver.
“Laurie served our neighborhood with excellent satisfaction and always had the greatest interests of our pupils, colleagues, household and good friends at heart,” Mayor Charles Kokoros wrote in a memo to the council. “I won’t be able to thank the foundation ample for this generous donation.”
Julianna Melchionda, Laurie’s daughter, told the council her family members is overcome with the aid they have gained.
“This is just the starting,” she explained of the donation. “It is an honor to give back again to the local community.”
Julianna Melchionda, who is also a nurse, took her mother’s seat on the board of wellness.
Town Council President Meredith Boericke expressed councilors’ gratitude for the donation.
“Thank you for your ongoing services to the neighborhood,” Boericke reported.
Also at the assembly, Braintree fire Lt. Fred Viola and a team of Braintree firefighters shown use of a LUCAS product, which stands for Lund College Cardiac Help System. The system quickly does chest compressions for cardiopulmonary resuscitation. Viola explained it has presently saved life.
“It can make our position a minimal easier, but additional importantly, it’s extra efficient,” said Viola, the department’s emergency clinical coordinator.
For instance, the device can proceed to deliver regular compressions though a individual is taken to an ambulance, Viola reported. The department acquired a person of the products with grant money, and Brewster Ambulance acquired two a lot more so all three of the department’s entrance-line engines carry them, he stated.
Many thanks to our subscribers, who assist make this protection probable. If you are not a subscriber, remember to take into consideration supporting quality neighborhood journalism with a Patriot Ledger subscription. Here is our latest supply.
The role of medical technology in improving health outcomes
Medical technology, or ‘medtech’, is of vital importance to the UK health and care system. It includes items we rely on every day, from a simple plaster for a scraped knee, to life-saving blood tests that detect cancer early and robots that can perform highly complex surgeries. Medtech products can be found in hospitals, ambulances, doctors’ surgeries and even our own homes and play a crucial role in the whole pathway of care, supporting people from prevention, through to diagnosis, treatment and ongoing management of health. Although medtech products come in many shapes and forms, they all have one thing in common – they are designed to help us understand and improve people’s health.
This document presents the inaugural UK medtech strategy and the timing could not be better. The COVID-19 pandemic highlighted the vital importance of medtech, with ventilators and lateral flow tests playing an indispensable role in our pandemic response. We must take the learnings from these experiences and use them to build a stronger future. Effective use of medtech will be critical in moving forwards from the pandemic, supporting the elective recovery plan by reducing diagnostic bottlenecks and waiting lists, and by delivering new and improved ways to treat and support patients.
Medtech can reduce health disparities by improving the assessment of health risks and help us to better manage long-term conditions, supporting people to live longer, healthier, more independent lives. Innovations in medtech will also support the NHS in delivering its net zero ambition in a variety of ways, from using materials more efficiently to the introduction of more sustainable models of care. As a significant area of spend, medtech also has an important role to play in the long-term financial sustainability of the UK health and care system.
Medtech is a vitally important industry for the UK economy, representing over half of all life sciences employment, with businesses situated across the UK and contributing billions of pounds to the economy. As a country we are known for world-leading scientific research and development capabilities, and the UK health and care system is globally recognised as a successful and trusted health system, making the UK a major player on the global healthcare stage. We must encourage ambitious, innovative research and turn innovation into real benefits for society, helping secure the position of the UK as a global science superpower. Moving forwards, we have the opportunity to make the UK an even more attractive market for businesses by improving access, shaping our own regulatory framework, leading in research and development, and maintaining a strong international market presence.
As we set out on this journey, I would like to extend my thanks to our colleagues across the health and care system, the medtech industry and devolved administrations for their valuable input. We have been exceptionally fortunate during the development of this strategy to be able to engage and collaborate with a wide range of people and organisations to help us build a broad and balanced picture of how we can drive the sector forwards, and I am confident this strategy, and the continued collaborative effort behind it, will deliver tangible benefits across the UK as a whole for patients and care providers as well as the UK medtech industry and those working in the sector.
Will Quince
Minister of State (Minister for Health and Secondary Care)
Introduction
Medical technology (medtech) is vital to helping people live more independent, healthier lives for longer. As an integral part of our health and care system, it has a vital role in our ability to deliver the best care for patients.
The UK health and care system is currently facing a sustained increase in pressure driven by rising healthcare needs. The demographics of the country are changing – the population is becoming older, people are living with more co-morbidities, and have higher expectations of the health and care system. These financial and delivery pressures have been further exacerbated by the COVID-19 pandemic.
Our approach to medtech policy must therefore go hand-in-hand with the significant transformation happening across the UK health and care system and must complement and strengthen it. Despite the importance of medtech to the health and care system, there has not to date been a central governmental approach. Moving forwards, we must co-ordinate and align action across all our system partners, and drive improvement in priority areas to deliver effective and meaningful change that benefits patients.
Aim of the strategy
This document outlines how we will ensure the health and social care system can reliably access safe, effective and innovative medical technologies that support the continued delivery of high-quality care, outstanding patient safety and excellent patient outcomes in a way that makes the best use of taxpayer money.
The medtech sector is complex, broad and varied with multiple participants and stakeholders. We will bring clarity to this complex landscape by focussing on a clear vision, centred on the most important issues. This will set the direction of travel for medtech across the UK health and care system.
Building on the broader Life Sciences Vision, this high-level document reviews the current UK medtech landscape and identifies and prioritises the areas for action. This strategy will form the basis of future implementation plans that will set out in detail how these priorities will be addressed, and how these actions will build towards achieving the vision for medtech. In some areas existing research and areas of best practice will provide frameworks from which these implementation plans can be built, but it is recognised that in some areas there will need to be additional work to determine the actions to take.
We recognise that any transformation of the medtech market is a long-term challenge and will need to be delivered incrementally through collaboration between the health system, patients, and clinical, academic and industry partners.
Definition of medical technology
A medical device is any instrument, apparatus, appliance, software, material or other article, whether used alone or in combination, together with any accessories, including the software intended by its manufacturer to be used specifically for diagnosis or therapeutic purposes or both and necessary for its proper application, which is intended by the manufacturer to be used for human beings for the purpose of:
diagnosis, prevention, monitoring, treatment or alleviation of disease
diagnosis, monitoring, treatment, alleviation of or compensation for an injury or handicap
investigation, replacement or modification of the anatomy or of a physiological process
control of conception
A medical device does not achieve its main intended action by pharmacological, immunological or metabolic means although it can be assisted by these – Medical Devices Regulations 2002 (SI 2002 No 618, as amended) (UK MDR 2002). Medical devices can be:
general medical devices – such as syringes, dressings, heart valves, ECG monitors, CT scanners and dialysis machines, including any software used to drive them
active implantable medical devices (AIMDs) – powered implants or partial implants that are left in the human body, such as implantable cardiac pacemakers, implantable nerve stimulators, cochlear implants and implantable active monitoring devices
in vitro diagnostic medical devices (IVDs) – equipment or systems intended for use in vitro to examine specimens including all instruments, software, reagents and calibrators, such as blood grouping reagents, pregnancy test kits and hepatitis B test kits
digital health and software – such as standalone software, decision support and mobile apps
Medical technology is an evolving domain, with scientific and engineering breakthroughs prompting new innovations and changing societal needs provoking creative approaches. In this strategy we will focus on general medical devices, AIMDs, IVDs, and the digital tools that drive them directly. This will include their associated uses and markets and providing support in areas of overlap between physical devices and digital tools.
Vision for medtech
Our vision focusses on 3 central objectives:
right product
right price
right place
These concepts centre on delivering the highest quality of care for patients and interact with and balance against each other – often, as focus on one component increases, focus on the others can decrease. Striking the best possible balance between these objectives is difficult, but we will aim to reach an optimal point where all 3 elements are weighted appropriately so the UK medtech sector best supports the UK health and care system in delivering improved health outcomes for patients (see figure 1).
Figure 1: the 3 core components of the medtech vision
Figure 1 shows the 3 core components of the medtech vision presented as a Venn diagram. There are 3 circles:
right product, which must be safe for all, clinically effective, innovative and sustainable
right price, which must be value for money, outcomes-focussed, whole pathway cost and quality data
right place, which must include access, availability, adoptions and resilience
The area connecting these circles represents a place of optimal balance between the objectives.
Right product
We will ensure products are clinically safe and effective for all by developing best-in-class regulations and upholding safety standards. We will encourage innovative and sustainable product development to better meet patient needs, diagnosis and outcomes.
The UK has a diverse population, and it is vitally important that every person has timely access to effective, safe, medical technology regardless of ethnicity, sex or any other attribute. We want to put clinical leadership at the forefront of medtech, making sure healthcare professionals and patients can make informed decisions on medtech products with clarity and confidence. We want to support innovation that meets the needs of the UK population, such as by addressing clinical priorities and increasing sustainability.
Right price
We will create an environment that supports the understanding and delivery of value for money and affordability across the whole patient pathway, using high-quality data to ensure that prices are reasonable for both the health system and sustainable for suppliers.
To ensure the best value for public money, the value of medtech products should not be considered in isolation but across the whole patient pathway. Affordability, long-term value and above all patient outcomes must form part of this assessment, as well as an acknowledgement that ‘lowest price’ does not always translate to ‘best value’. Ensuring we have clear, reliable data to underpin our decisions will help us to achieve this.
The importance of getting the right products at the right price will be even more important as we address the pressures on affordability presented by factors such as changing demographics and inflation.
Right place
We will ensure the UK is positioned internationally and domestically to increase access, diversity and resilience in the supply market, to get technology to the patients and healthcare professional who need them.
Confidence in the availability of medtech products at the time they are needed is critical to the functioning of the health and care system. Access to the right products, delivery of them via a responsive and resilient supply chain and supporting their adoption into the UK health and care system ensures everyone has access to medical technology as and when they need it.
The medtech landscape
UK medtech key facts and figures
The UK has a large and diverse medical technology industry, with a broad footprint across the UK. Medtech products are used by millions of patients every day and are critical to our health and social care system. The medtech landscape is unique and complex in many aspects.
For both the core medtech and service and supply chain sectors, the South East, London and the East of England account for 41{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of the employment, and 59{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} is located outside of these regions, with significant UK-wide regional clusters. A significant amount of medtech employment in the UK, around 31{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}, is in small and medium-sized enterprises (SMEs), which make up over 85{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of the companies in the UK medtech sector.
Figure 2 illustrates the UK medtech industry figures. The UK medtech industry has an annual turnover of £27.6 billion. This includes:
138,100 UK jobs
over £5 billion in exports annually
31{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of life sciences turnover
over 85{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} SMEs
4,190 UK businesses
Sources: Bioscience and health technology sector statistics 2020, MedTech Europe’s facts and figures 2021 and DHSC estimates 2021 based on multiple data sources.
The commercial landscape is broad and highly varied
There are just under 2 million products registered for use on the UK market (Medicines and Healthcare products Regulatory Agency (MHRA) figures April 2022). Currently, around a third of spend in the NHS (an estimated 33{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}) is on implants and prostheses, and surgical equipment, which account for 17{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} and 16{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}, respectively, of annual spend in the UK on medtech (DHSC internal analysis) (see figure 3).
Figure 3: the top 10 medtech product types by spend, 2021
Figure 3 illustrates the top 10 medtech product categories by spend (DHSC internal analysis, December 2021). The figure is titled ‘relative NHS spend by medtech product type’ and shows a ring divided into 11 segments demonstrating the percentage of spend on medtech product types. These are:
implants and prosthesis 17{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}
other 13{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}
Sources: MHRA figures, April 2022 and DHSC internal analysis, NHS purchasing for 12 months to December 2021. Early analysis based on NHS purchase order data, categorised by eClass category, and further grouped into custom medtech categories. Original data on file.
The supply chains for medical technology products are diverse
Supply chains often involve multiple stages and can span across multiple countries, relying on extensive use of outsourcing for materials, components, assembly and supporting services (such as sterilisation and logistics). Many medtech products are made from multiple sub-components and rare materials, and these further add to the complexity of the supply chain. In 2021, the UK imported around £7.5 billion of medtech products, excluding materials and subcomponents.
Medtech is a high-paced area of innovation
In 2021, the UK made 471 medical technology patent applications – 1 in 12 of all UK patents – to the European Patent Office. This focus on novel technology is supported by a broad range of funding and support schemes. The desire to stimulate and support innovation has resulted in a wide range of initiatives being set up in this space. In 2021, there were around 60 different programmes supporting innovative technologies, representing over £1 billion of funding (estimates based on NHS Accelerated Access Collaborative data and DHSC internal analysis, May 2022).
Despite the multiple pathways and significant funding, the innovation frameworks can be difficult to navigate, with the majority supporting only one of the many steps in the route to market – it is up to the innovator to research and link different programmes.
The development of the strategy
We have taken a multi-faceted approach to strategy development to take into account the currently available evidence, the views and needs of our stakeholders, and the wider priorities of the government. In developing the strategy, it has been a priority for us to understand and align with these vital points. This strategy seeks to support the existing work across the broader health and care landscape and to avoid duplicating any existing actions where these are already proving to be effective. Instead, we wish to focus on areas where there are gaps and significant opportunities for improvements.
Together these approaches have given us a broad understanding of the sector from many different viewpoints and have allowed us to take these into account to build an ambitious but achievable vision and strategy.
More information on the development of the strategy is available in Annex A: approach to strategy development.
Engaging with our stakeholders
Through extensive engagement with stakeholders across the UK health and social care system we have identified the policy priorities which will enhance UK strengths, the most pressing challenges we face, and where we can bring about the most significant change for the UK medtech sector.
Industry, the health and care system, and patients
Dialogue between government, industry, the clinical and commercial healthcare community and patient groups has shown a very consistent picture – the medtech sector currently has many strengths, and it is our ambition to maintain and support these while responding to the challenges we face. We have combined stakeholder feedback with an overview of initiatives across government and our delivery partners to identify the policy priorities we wish to focus on in this strategy.
Alignment across governments
Many aspects of health policy and operational management are devolved and therefore it is for the devolved administrations to determine priorities and approaches for addressing these. However, some areas of health policy are reserved. Consequently, it is widely recognised that actions and initiatives in one country are likely to have an effect on other parts of the United Kingdom. This is particularly true in England due to its larger population, which in turn drives a much higher demand for medtech products and services.
In view of this, while the strategy sets out priorities and actions that will be taken forward in England, we are keen to ensure that the implications that this work may have for the other parts of the United Kingdom are recognised, and that we continue to work collaboratively across the nations so that the UK as a whole can benefit from the improved outcomes. This principle of continued engagement and collaboration also applies to specific initiatives within the devolved administrations in the interests of sharing learning and drawing on the breadth of expertise and experience present from across the UK for the benefit of all.
In keeping with this, the strategy has been developed through collaboration across the UK with industry, our delivery partners and the devolved administrations. Although there are different organisations and approaches across Scotland, Wales, Northern Ireland and England, there are many areas of synergy, and strong consensus on the value of medtech and the need for an increased focus on this area.
We will continue to work closely with the devolved administrations, the NHS in Scotland and Wales, Health and Social Care Northern Ireland, and all other health and care organisations across the UK to facilitate delivery of our vision in all parts of the UK, with the aim of improving patient outcomes for all.
Aligning with broader strategic aims
Wider government priorities
The importance of the medtech sector means many of the top-level priorities of the government impact the sector, and in turn the sector can have significant impact on these priorities. These priorities are reflected in many government policies and strategies, including but not limited to:
The ambitions of the medtech strategy have been designed to align with wider government priorities such as:
growing the UK economy by supporting a vibrant medtech industry, helping secure the position of the UK as a global science superpower
clearing the backlog of elective care by helping to reduce pressure on the NHS, using fewer resources and delivering better outcomes through informing effective healthcare purchasing, championing sustainability, embracing innovative technology and improving health data
capitalising on post-EU exit opportunities by building our own regulatory regime for medical devices to improve patient safety, increase transparency and promote innovation
levelling up by creating an environment for the medtech industry to thrive, increasing opportunities for careers that develop specialists in local areas across the UK
boosting research and development and supporting innovation and adoption by encouraging ambitious innovative research and supporting the processes to turn innovative ideas into tangible benefits for patients and healthcare professionals
strengthening the union by working together to share knowledge and best practice to deliver benefit for the UK as a whole
For further detail on alignment with wider government strategy, see Annex B: areas for shared engagement.
Building on supporting infrastructure
UK research and development supports the entire medtech product lifecycle, from early development through to implementation, and this sustains and stimulates the pipeline of medtech products, driving innovation while generating the evidence required for adoption. UK research and development funding, through funders such as the National Institute for Health and Care Research (NIHR) and UK Research and Innovation (UKRI), represents an area of strength where multiple government initiatives and strategies combine to deliver a wider goal.
The structures in place have clear aims and strong relationships with all parts of the health and care system. For example, the NIHR research infrastructure, which facilitates early translational, clinical and applied health research, brings together leading academics, clinicians and NHS providers to work with medtech innovators, to help them generate the evidence needed by MHRA and NICE. This underlying research and development system, coupled with sources of research and development funding, make the UK an attractive place for both industry and academia to base their research, providing expertise to deliver research studies and linkages to support pull-through to the UK health and care system. The UK research and development environment represents an area where multiple partners work effectively together to deliver a consistent and comprehensive landscape. As such, the strategy does not seek to fundamentally change these existing structures, but rather to work with and build upon them, as it is recognised that they are vital enablers in delivering the vision for medtech.
The support of key enablers in the UK landscape provides an environment for medtech to thrive. In the Medicines and Healthcare products Regulatory Agency (MHRA) and the National Institute for Health and Care Excellence (NICE) we have internationally respected regulatory and guidance bodies with world-class standards and a strong patient focus. The route to market can be relatively fast. Regulatory systems have shown their ability to respond with agility to global incidents – for example, 22 critical products were given exceptional use authorisation in a rapid response to the COVID-19 pandemic. Work is already underway to maximise opportunities in the current landscape, such as new regulatory powers post-EU exit. The regulatory space has clear ownership with work well underway to maximise opportunities in the current landscape. However, we do recognise that regulation is a fundamental part of realising our ambitions, so we will work closely with our regulators to ensure that our priorities are supported by the appropriate regulations and guidance.
We will continue to work with system stakeholders to deliver this ambitious vision, including the NHS Transformation Digital Policy Unit, on the areas of overlap between physical devices and digital tools to implement this strategy and guide the development of future NHSE digital strategies.
Supporting existing sector initiatives
As well as the many positives in the sector, there are some areas that could be further strengthened. Several of these areas have already been identified and are the focus of existing initiatives that are already well developed and resourced and are well aligned with our vision. These range from sustainability initiatives to routes to market, from data programmes to frameworks to improve patient safety. To name only a few, some important examples include:
the work towards the new UK Medical Devices Regulatory Framework
the NHS Core20PLUS5 approach to tackling health disparities at both national and system levels
progress to meet the NHS net zero ambition
the work across the Accelerated Access Collaborative (AAC) for ground-breaking innovations
the actions following the publication of the Independent Medicines and Medical Devices Safety Review
These programmes are owned by many of our delivery partners across the medtech sector, and have well-developed evidence, governance and implementation plans in place.
We need to embrace sustainability, meet the NHS net zero targets by 2045, and promote innovation that can deliver clinically safe and effective products that are better for the planet. Sustainability is a broad and important area, with a clear plan and owner in the form of Greener NHS. In this strategy we will concentrate our focus on where aligning with sustainable initiatives can support medtech priorities such as supply resilience.
For more detail on these initiatives and how they align with the strategy, see Annex B: areas for shared engagement.
Our 4 priority areas
Having considered the broader landscape and current activity, we have identified the gaps and opportunities where we wish to prioritise additional effort. Together with the existing work in the sector, the following priority areas will support us in delivering the right product, for the right price, in the right place.
Priority 1: resilience and continuity of supply
Continuity of supply of medtech is critical to the provision of ongoing care to patients and so must be robustly guaranteed. Medtech supply chains are reliant on multiple nations and vulnerable to disruptions to global trading agreements and models created by global events and actions of nation states. The capacity of supply chains to respond to shocks is limited, and when there are shortages, it is often difficult to source compatible alternatives. There is currently a high reliance on stockpiles to ensure continuity of supply. Multiple organisations have a responsibility to ensure supply is robust and that the supply of medical technologies continues in the event of emerging issues. There is a clear need to set direction of travel for the mid and long term in a way that proactively addresses resilience and pre-emptively plans for and mitigates risks to supply that exist in the current system.
Priority 2: innovative and dynamic markets
Innovative medtech offers an important opportunity to improve patient outcomes and help deliver best value for taxpayer money. Despite this, it is not always clear what the health and social care system wants and needs, and this can be further complicated by high levels of unwarranted variation in product use across the NHS, and barriers to switching between products. There are many initiatives and pathways designed to address specific challenges, in particular new and transformative product innovations. The area would benefit from additional coherence and co-ordination for new and existing products in the system to help ensure patients have access to the best products, faster.
Priority 3: enabling infrastructure
In order to deliver our ambitions in the medtech sector we need an underlying framework of enablers that will support our work. A lack of enablers in the sector can limit the opportunities for positive change. A lack of clear data and metrics can make it difficult to understand both the current situation and emerging trends in the sector. Unclear mechanisms for engagement can limit the collaboration and collective action achieved across government, industry and the wider health and care system. Improving these areas will lift barriers to delivering patient outcomes, and allow us to take clear, well-informed decisions across the sector.
Priority 4: specific market focusses
Medtech represents an exceptionally diverse area, so any approach must recognise the complexity of this sector. Although there are many similarities across medtech, many issues and challenges are specific to particular types of technology, clinical specialties, patient populations and place of use. Making meaningful difference means focussing on, understanding and tackling these specific problems as well as working towards an overall vision. We will look to proactively identify these areas and ensure we adapt our broader strategy to best meet their specific needs.
The following sections outline the key challenges in each of the priority areas, and how we plan to address them.
Figure 4: current activity and identified gaps for strategy priority areas that contribute to the medtech vision
Figure 4 sets out which wider government priorities and selected sector initiatives contributed to the development of the medtech vision, and the gaps identified which will be addressed by the 4 priority areas. The wider government priorities are across the whole of the UK and include strategies, white papers and reports such as build back better, the Life Sciences Vision, levelling up, UK research and development roadmap, the UK innovation strategy and the Cumberlege report.
Selected sector initiatives are:
sustainability (NHS) – this includes net zero, single use plastics and resource efficiency
innovation (NIHR and AAC) – this includes research investment, access and horizon scanning
research (HRA) – this includes transparency, ethnical reviewing and promoting patient interests
regulation (MHRA) – this includes safety and UK MDR
supply and distribution (NHS Supply Chain) – this includes procurement, range management and logistics
international leadership (DIT) – this includes exports, growth and inward investment
procurement (NHS) – this includes capability building, balanced evaluation and competition
clinical quality (NICE, Health Technology Wales) – this includes evaluation and innovation
digital (NHS Transformation Directorate) – this includes digitalisation, data, innovation and transformation
Priority 1: resilience and continuity of supply
Continuity of supply of medical equipment, devices and consumables is essential for the consistent delivery of safe, high-quality patient care. The UK medtech sector has functioned well through a variety of commercial and logistical models to maintain continuity of supply across an extensive range of products. The variety of suppliers, supply channels and products available has provided a level of systemic resilience that has largely insulated the health and social care system from short-term supply disruptions.
However, increasing consolidation in the sector and globalisation of production and supply chains has reduced some of this resilience, exposed the sector to a broader range of threats and made it more vulnerable to global events and actions of nation states. Recent events including the COVID-19 pandemic and the war in Ukraine, and the subsequent disruption of global trading and logistics systems has brought to light vulnerabilities within many critical medtech supply chains where an over-reliance on single locations or sources of materials and supporting services exists. It is reasonable to expect that more of these global events will happen in the future. Recent developments in the geopolitical landscape signal the potential for far greater disruption in the future. We must therefore put systems, plans and strategies in place to proactively prepare for emerging risks in a way that will allow us to effectively mitigate impacts as and when they arise, as well as improving the overall resilience of global supply chains.
A shared responsibility for supply resilience
It is recognised that government needs to play a part in securing continuity of supply, especially in the face of major incidents and events. However, supply resilience needs to be at the forefront of considerations for medtech businesses’ sourcing, production and supply chain models, particularly for the most critical medical technologies.
Strengthening contractual requirements could support this – however, we also acknowledge the value that voluntary initiatives can bring in establishing best practice principles of supply resilience management more broadly across the sector.
UK medtech flexible manufacturing capacity and capability
The globally extended nature of supply chains coupled with limited UK based production capability and capacity presents a further vulnerability to supply. While it is recognised that not all products will be wholly made in the UK, maintaining the basic capabilities to support production of a broad range of medical technologies requires greater focus. Existing schemes, such as the Life Sciences Innovative Manufacturing Fund, will support this ambition to support growth in the UK life sciences sector and to improve the UK’s ability to respond to major shocks or trading constraints.
Establishment of these capabilities and capacity also has a role to play in the realisation of our ambition to establish greater use of commercially viable and resilient circular economy models for medical technologies where the supporting infrastructure for reuse, remanufacture and materials recovery will need to be located near to the point of use.
Supporting interoperability
The widespread use of equipment designed only to work with proprietary consumables (only available from a single supplier) increases vulnerability to supply disruption events as it is not possible to use alternative consumable products and replacing entire systems quickly is often impractical given limited availability of replacement equipment, training requirements and financing pressures. The impact of this was felt sharply in intensive and critical care areas at the height of the pandemic and placed undue pressure on already overstretched logistics systems through the need to carry products across duplicated ranges.
While it is recognised that in some cases designing bespoke consumables to work with equipment can help design in safety, experiences of the past couple of years call for a fresh look at the way products are designed and the scope to remove unnecessary inflexibility, especially where the supply arrangements for these products are insufficiently resilient. Where there are clear safety benefits to proprietary models there is a need to establish a range of heightened resilience requirements for the suppliers of these systems that reflects the risk to patient lives and wellbeing presented in the event of a disruption.
Industry has worked effectively in the past with the health system and government to develop universal design specifications and standards which incorporate critical safety elements – for example, the development of ENFit and associated standard ISO80369-3 to prevent potentially fatal errors in the connection of enteral feeding tubes.
Resource security and efficiency
The high prevalence of single use devices supplied into the UK health and care system created additional pressure when responding to the rapid increases in patient demand created by COVID-19. In many cases production and logistics systems had insufficient capacity to continue supplying devices in quantities required. Some of this pressure could have been alleviated if products and supply models were designed to facilitate greater decontamination, reuse or remanufacture of devices. The heavy reliance on single use models of supply also heightens exposure to volatility and vulnerabilities in the supply of raw materials and components, as highlighted by trade restrictions resulting from the conflict in Ukraine.
Moving towards devices that are designed to be decontaminated and reused, or that can be remanufactured, would help to reduce our reliance on both raw material availability and the capacity of production and logistics. To achieve long-term resilience in supply, the medtech industry increasingly needs to design products in a way that reduces the demand on virgin materials, makes better use of recycled materials and ultimately increases the extent to which the supply of medtech can shift to support significantly higher levels of reuse, remanufacture and materials recovery.
Figure 5: causes and actions for priority 1: resilience and continuity of supply
Figure 5 sets out the cause, problem, key impacts of priority 1 and the corresponding actions required. These are:
reduced levels of sector resilience and lack of consistent resilience requirements for industry means there is high reliance on government and health system reserves. This causes a reactive approach to resilience and inefficiency. To address this, we must balance the burden of resilience
primary manufacturing capability for consumables largely offshore means there is limited medtech manufacturing capacity and capability in the UK. This causes limited ability to response to shocks and support growth in UK life sciences. To address this, we must increase UK medtech manufacturing capability and capacity
equipment is designed to work with proprietary consumables and limited use of universal standards for critical medtech systems means there is exposure to single points of failure in supply chains. This causes highly restricted ability to maintain care provision in the event of disruption. To address this, we must enhance resilience through interoperability
over reliance on single use supply model and reducing access to cheap materials, energy and labour mean exposure to resource shortages and price volatility. This causes increase frequency and severity of disruptions impacting patient care and safety. To address this, we must improve resource security and efficiency
The aims of priority 1 will be achieved by:
balancing the burden of resilience: we will work with NHSE on the development of procurement policy to promote the proportionate application of requirements for resilience, alongside an assessment of the potential for voluntary initiatives and regulatory enhancements that can facilitate a proactive approach to supply resilience
increasing UK medtech manufacturing capability and capacity: we will work with industry, OLS, the Department for Business, Energy and Industrial Strategy (BEIS) and the UK health and care system in identifying the manufacturing capability and capacity that is needed in the UK to substantively enhance the UK medtech sector’s resilience, and to assess synergies with the wider Life Sciences Vision and other government aims to identify viable models for investment
enhancing resilience through interoperability: we must clearly identify areas of care where proprietary models are unwarranted. As far as possible, the health system should adopt clinically appropriate standardisation specifications to support interoperable systems. Where this is not possible, we should work with industry to establish minimum supply resilience standards for proprietary systems
improving resource security and efficiency: we must reduce the volume of single use devices used in the UK health and care system through the increased adoption of multi-use and remanufactured solutions, while maintaining quality and safety of patient care. We should reduce the overall quantity of plastics and the proportion of virgin fossil hydrocarbon-based plastics used in medtech products, exploring the scope to make greater use of recycled materials and biopolymers. We will seek collaboration with industry and research partners to facilitate a shift to increased resource efficiency. We will explore how we can create an environment that supports commercially viable models that increase levels of reuse, remanufacture and materials recovery, taking into consideration supporting services such as decontamination and conformity assessment
These actions will help deliver the following benefits:
greater resilience to global shocks and reduced levels of disruption of the supply of medtech will enhance system performance through less interruptions to the efficient delivery of safe, high-quality care products for patients, improving patient experience and outcomes
Priority 2: innovative and dynamic markets
Whether looking at regulation, procurement or product selection, the UK medtech market largely embodies the principles and approaches of a free and open market. While regulation exists to protect patients by ensuring minimum standards, choice and competition are the primary market mechanics.
Choice, whether exercised by patients or healthcare professionals, has driven significant benefits. However, it is not without challenges, primarily the sheer volume of products on the market. Today MHRA have almost 2 million different products registered for use in the UK, of which we estimate that around 500,000 different product types are regularly used in the NHS. Most individual trusts will use around 30,000 different products – this is a tremendous number of products to navigate.
To make it more challenging, stakeholders report that of the 500,000 products regularly used, the majority of these claim in some way to be innovative. Although these claims are generally genuine, they often refer to incremental innovations and improvements. The challenge for the UK health and care system is intelligently exercising choice across such a diverse range of products and innovations in a way that maximises value for money, where patient outcomes are a fundamental component of that value. To address this challenge, a common language and framework for discussing and communicating innovation is needed.
This abundance of products contributes towards the widely acknowledged ‘adoption challenge’: products may reach the market, but they can struggle to be procured and used in the NHS when there are multiple competing products, many of which are claiming similar innovations with competing benefits.
Previous attempts to address adoption have primarily focussed on setting up supplementary innovation support, processes and funding streams that identify and implement products in highly specific priority fields. These operate in addition to the main routes to market. This approach has improved adoption in certain areas, but the proliferation of schemes created has increased the complexity that innovators need to navigate. Critically, these schemes are primarily focussed on innovative, individual, pre-market devices and are small compared to the overall scale of the medtech market. Despite some specific successes, this approach has not addressed the underlying structural adoption challenge. This means that innovative, new technologies take longer to reach patients than might be necessary.
Contracting and pricing levers may be able to tackle some of the issues of the adoption problem. However, to address the root cause of the challenge, we need to create a coherent, end to end environment that provides increased clarity, alignment and a reasonable apportionment of risk for innovators, clinical and commercial professionals.
Effectively exercising choice
Meaningfully comparing product quality, performance and pathway cost is difficult and resource intensive. Exercising this choice effectively across such a broad range of products is especially demanding in a health and care system which is already facing staffing and monetary pressures.
Most assessments rely primarily on reports done by others but there are variations in specification, and standards between evaluations. By the time they start to be adopted into the market, most medtech products have been evaluated multiple times, by multiple different people against multiple differing standards, through both formal and informal pathways. There is no national repository of evaluations or consolidated NHS view of product quality.
These multiple competing evaluations create significant cost, inefficiency, confusion and frustration for both the UK health and care system and industry partners, creating a situation where most suppliers can provide at least one piece of evidence that confirms their product is the best. Inappropriate comparators, lack of consideration of the cost of change and a gap between theoretical and real-world experience of using the products are often cited as issues. Adopting a new product can also require wider changes, such as additional user training, patient education and even modifications of clinical pathways. The resources needed to implement these can be significant, and the system only has a finite capacity to make changes. The appropriate use of real-world evidence in support of a robust, class based, evaluation process is therefore essential to support effective decision making and choice.
In this environment, despite theoretically having significant choice and a plethora of innovations to choose from, lack of clear evidence to allow meaningful comparisons across a class of products means the risks of moving away from a known product are often perceived by the system to outweigh the potential benefits. This results in relatively low levels of switching between products and suppliers in practice. The high amount of product variation and low levels of product switching impacts the ability to achieve the right product, in the right place, for the right price (see Lord Carter’s 2015 report on productivity in NHS hospitals). The appropriate use of real-world evidence in support of a robust, class based, evaluation process is therefore essential to support effective decision making and choice. By focussing on a smaller number of products that represent the best options for patients and the best value for money, the system can help guide meaningful clinical choice and reduce unwarranted variation.
National clinical and technical product leadership
We already have some areas of exceptionally strong clinical leadership, where national clinical teams build consensus on specifications among healthcare professionals, evaluate products against best practice, patient experience and outcomes, and highlight where innovative technologies are most needed. Typically, this happens for complex surgical items, although there are notable exceptions in other areas such as wound care. However, many products, especially those that are not exclusive to individual specialisms, do not enjoy the same level of clinical focus and leadership across a class of products.
Even accounting for local variations in services, there are more similarities than differences in how the UK health and care system uses most products. Expanding this clinically led national approach across all areas of medtech would significantly simplify the commercial landscape for both industry and the health and care system.
Focussing innovation in the right places
At a strategic level, the UK health and care system provides industry with an overall signal of future intent through high level strategies such as the NHS Long Term Plan and the healthcare missions of the government’s Life Sciences Vision. In addition to this, the medtech industry takes many steps to understand demand more granularly, but given the many diverse communities of patients, healthcare professionals and other professionals across the NHS, these signals can be divergent and disconnected from clinical and commercial processes. In the absence of a clear central signal across the breadth of products, it often ultimately falls to industry to drive the direction of product development.
Industry often describes the difficulty of accurately predicting where innovation will be widely adopted. Given the risk, cost and complexity, it is logical for industry to prioritise incremental improvements of existing products over developing transformative innovations, even if these could potentially have a greater impact on NHS services. Where industry does take a chance on these transformative innovations, the cost of any commercially unsuccessful products can be significant.
The response to the COVID-19 pandemic has shown industry’s capability to respond, at speed, to clear granular demand signals from the NHS. Lateral flow tests, ventilators and respiratory support equipment were developed and manufactured rapidly against nationally provided target product profiles. We need to learn from this experience and provide industry with a clearer, more granular demand signal for it to respond to across all products, and the confidence of intent to buy through a clear procurement and commitment-based process to reduce commercial risk.
Figure 6: causes and actions for priority 2 – innovative and dynamic markets
Figure 6 sets out the cause, problem, key impacts of priority 2 and the corresponding actions required. These are:
the medtech product landscape is constantly changing and product expertise exists primarily in specialist pockets – this means there is a lack of consistency in product use across the NHS. As a result, the best products are not always those that are adopted – to resolve this we need national clinical leadership for products
radical innovations can be high cost and high risk for industry to pursue and there is a wide range of divergent stakeholder views on innovation with the NHS, which means industry is not always confident in what the NHS wants. As a result, innovations offered may not reflect clinical needs – to resolve this we need clear demand signalling
disconnect between evaluation process and real-world experience of product use and lack of consistent specification and standards for detailed evaluation mean NHS and industry resources are wasted on repeated evaluation. As a result, we are unable to meaningfully compare product quality and value across classes – to resolve this we need streamlined, class-based product evaluation
there are no clear criteria to meet to describe a product as innovative and benefits of innovative products are not always clearly expressed or understood. This means it’s difficult to prioritise the most impactful innovations. As a result, transformative innovations are less likely to be prioritised – to resolve this we need an innovation classification framework
there is difficulty comparing quality, performance and change costs over a wide product range, and product changes have wider impacts, and capacity of the system to make changes is finite. This means there is lack of switching between suppliers and products and, as a result, loss of commercial advantage of buying at scale. To resolve this, we need to converge activities around an end-to-end innovation pathway
The aims of priority 2 will be achieved by:
national clinical leadership for products: we must take the excellent examples of strong clinical product focus, consideration of the patient voice, support for specification setting, product evaluation, and usage guidance, and adopt these principles more broadly across product classes
clear demand signalling: we must work towards providing industry with a co-ordinated national signal on detailed priorities for innovation by product segment. We must seek to reflect the priority of these signals within established processes, including regulatory, research, evaluation and procurement processes – for example, exploring options for volume commitments or purchasing at scale to support industry confidence in bringing new innovations to market while securing the best value for the health and care system
streamlined, class-based product evaluation: health partners must work together with industry to develop a streamlined system of product evaluation that is regarded by both as the gold standard. In addition to quality and cost considerations across the product pathway, evaluations should consider a broad range of product comparators, the costs and risks of transition, and incorporate real-world evidence from product usage in specialist NHS test facilities
innovation classification framework: we must work collaboratively with our stakeholders to agree a meaningful way to classify innovation that should include a commonly agreed language and a way to determine the value of innovation in terms of impact, be this value for money, efficiency, or patient outcomes and experience. This framework should assist the system in understanding incremental versus transformative innovations and prioritising their evaluation and adoption
converge activities around an end to end innovation pathway: we need to create a clear, scalable, end to end pathway that meets the needs of the UK health and care system and industry. This will support the development of the Innovative Devices Access Pathway (IDAP) which aims to enable manufacturers to provide their innovative devices to healthcare professionals and patients at the earliest, safe opportunity
These actions will help deliver the following benefits:
clearer signals on what the health and care system wants means greater clarity for industry on where innovation focus should be placed, and faster adoption of prioritised products to tackle diseases and health issues sooner
clearer communication around innovation will enable the NHS to focus on the most innovative products that make the biggest impact on patient outcomes
more appropriate product selection will reduce the administrative burden on health and care professionals, and lead to better patient outcomes and better value for money. Faster adoption of prioritised innovative products enhances the UK’s positioning as a great place to develop products
Priority 3: enabling infrastructure
Ensuring delivery of the medtech vision will also require the further development of key enablers. In other comparable sectors, such as medicines, there are clear systems, processes and data collections. These cover most products in great levels of detail and granularity and are underpinned by contractual relationships with industry. The medtech sector has not yet developed these enablers to the same level of maturity or scope. This has been sufficient while the sector has been in a relatively stable and steady state, however the ever-increasing complexity of the market, the pace of innovation and the challenges around major shocks such as the pandemic necessitate a new approach that will build a stronger infrastructure of enablers. This will allow us to be more proactive in the sector – for example, by using data and stakeholder engagement to drive better demand signalling.
These vital enablers underpin all the priority areas we have identified, and if we are to successfully deliver our vision, we must improve and expand these strong foundations.
Data
Existing data initiatives
Data continues to be a priority area for enabling improvement in the health sector. The Independent Medicines and Medical Devices Safety Review, chaired by Baroness Cumberlege, has resulted in the creation of a Pelvic Floor Registry and more focus on patient safety. DHSC and NHS Transformation Directorate published its final data saves lives strategy in June 2022, setting out how we’re harnessing the potential of data in health and care while maintaining the highest standards of privacy and ethics.
Since January 2021, all medical devices have been required to be registered with the MHRA before they can be placed on the market in Great Britain. This is enabling a greater degree of information to be shared across the healthcare system and public, while enhancing MHRA’s market surveillance activities. There is also a range of commercial data held by NHS organisations like NHS Supply Chain.
These initiatives (across safety, regulation, procurement and commercial areas) have tended to be independent of one another, resulting in pockets of very rich data but with gaps and difficulties in creating a more joined up picture.
Improving data standards and linkages
Data collection and management in medtech is currently purpose led rather than approached holistically for the sector – there are a range of registries, databases and survey collections maintained by different organisations on different topics and sub-sectors for different end purposes. The decentralised nature of medtech data means there is no single data standard, making it difficult to cross-reference data from different sources at a national scale. The scale of the market (around 2 million products) further compounds this complexity. Lack of central oversight limits governance for data development meaning important data is often missed or difficult to find. The lack of standards also results in lower data quality. This fragmented data landscape makes it difficult to build up a central picture of UK medtech in a consistent, transparent and practically useful way. Having higher quality, joined-up, comprehensive data for medtech will make it easier to compare products, reducing search time and making it easier to make informed choices to select the right product, at the right price, in the right place.
Encouraging proactive data collection
Data collection in medtech is often driven by short-term needs and responses to incidents. This was highlighted in the Independent Medicines and Medical Devices Safety Review, which noted that registries are often established only after safety issues have been identified. The ability to gather and understand data in a more proactive way could result in significant patient benefit in the medium term.
One of the most important lessons from the pandemic was the need for a more systematic and proactive approach to data gathering on equipment. There is a clear need to gain insights to answer retrospective, real-time or future looking questions with sufficient accuracy, so that sound, timely decisions can be made routinely and flexibly. We are looking to build on this momentum and drive further improvements in this space with the development of the National Equipment Tracking Information System (NETIS).
By encouraging proactive data collection and improving data standards and linkages, we can work with our partners across the medtech industry and the UK health and care system to build the medtech data system over time and gradually reduce the effort it takes to navigate the current medtech landscape and allow for a greater number of priority areas of focus.
Relationship with industry
Creating channels for industry and government to engage centrally
Overall, there are many examples of strong partnerships and working relationships between government and the medtech industry, on specific topics, or in response to individual events. In these relationships can be found gold standards for best practice in collaboration, and proof that a collaborative mindset can be designed into the avenues through which we work. However, many of these relationships focus on broader issues than medtech alone, or conversely are focussed on responding to very specific needs or incidents. As a result of this, government and industry can engage in inconsistent ways, driven by their priorities and pressures at any given point in time, rather than building a broader strategic relationship centred around the needs of the medtech sector.
To progress our joint priorities, industry and government must find a way to engage in a more open and collaborative way that recognises and acknowledges and commits to tackle them with collective action. This will only be possible if the right supporting infrastructure to support this is put in place.
We want to strengthen our collaborative working with industry increasingly over time, building from specific moments of engagement into systems and processes that guide both health and care system and industry activities. We recognise that the diversity and scale of the industry makes it challenging to build a central representative voice, and that this will take time to develop and perfect – however, the benefits to the industry and government over the longer term are likely to be transformative.
Identifying priority areas for collaboration
We have already identified several priority areas where a collaborative approach with industry can be particularly impactful. These include:
joint development of a circular economy approach that will enable greater utilisation of reuse, remanufacture and material recovery within the medtech market, as part of our actions identified in priority 1
working together to drive improvements in data collection and sharing, including encouraging the approach of ‘collect once, use often’
collaborating with industry to understand inflationary pressures with the view to devise a long-term policy position as part of our overarching aim of ‘right price’
We will continue to work with industry on these and other important areas as part of our ongoing commitment to collaborative working.
Figure 7: causes and actions for priority 3: enabling infrastructure
Figure 7 sets out the cause, problem, key impacts of priority 3 and the corresponding actions required. These are:
data is focussed on individual purposes (for example, purchasing), there is a lack of national data standards and varying quality across sources, general acceptance of lack of transparency, and data collection is often reactive (for example, a response to an incident) rather than proactive. This means there is a lack of compatibility between data sources, inaccurate and incomplete data, it is time-consuming to get the right information and there are patches of data with no holistic overview. As a result, it is effort intensive to undertake systemic data analysis so can only focus on a limited number of priorities – to address this we must build a trusted data picture
no structured mechanism for collective action between industry and government, and government and industry choose routes of engagement inconsistently according to their priorities and pressures. This means relationships are transactional rather than holistic and as a result, it is difficult to agree and execute shared direction and strategy for the sector. To address this, we need to establish a collaborative partnership with industry
The aims of priority 3 will be achieved by:
building a trusted data picture – we must increase the proactive gathering of data regarding medical technology. We must champion increased data quality as well as standards and linkages and work with all stakeholders to encourage the approach of ‘collect once, use often’. We will ensure this data is built upon, shared and used in a consistent manner without gaps or discrepancies. This must be supported by a common nomenclature and system of markers. We will work with our health and care system partners to create a reliable and trusted picture that informs what is needed to deliver on operational and strategic objectives
collaborative partnership with industry – we must establish a culture of collaborative working between industry, government and the clinical and commercial communities of the health and care system. We must create an environment where frank discussions and transparency are the norm, while respecting commercial sensitivities. We will use this collaboration to set shared vision and direction for the medtech sector
These actions will help deliver the following benefits:
clear and timely signals when there are issues with products will allow us to take swift action to ensure continuity of patient care
more efficient use of existing equipment and more transparent pricing will help to achieve better value for money
stakeholder agreement on the data picture will enable coordinated action making it easier to use data across different datasets. This will form a basis for more insights and proactive action to be taken
Priority 4: specific market focusses
While medtech represents an exceptionally diverse range of products, the majority of these are designed, developed, selected and procured through broadly comparable systems and predominantly face common challenges. The overarching vision and priorities of the strategy have been developed to be relevant to all parts of this broad sector. However, we recognise that some specific segments of the market face particular challenges. In these areas, we will work to apply the principles of the strategy at a more granular level. This may be in the form of tailoring the broader elements of the strategy to best fit the needs of a particular market, or through supporting the aims of the strategy through the addition of specific actions to tackle singular issues.
This approach has already been used with success in other areas of the health and social care system. There is significant ongoing work around the use of digital and artificial intelligence both in medtech products and as standalone products, and during the pandemic dedicated strategies were adopted to ensure sufficient respiratory, renal and enteral capacity.
We expect that the areas of focus will change and expand over time as market conditions and clinical requirements change. At present, we believe there are 2 main medtech areas that would benefit from an increased focus:
medtech in the community
diagnostics
The vast majority of medtech spend is in secondary care, but there is also significant spend, roughly £1 billion a year, in community care, including primary care. These medtech items are used day to day by patients in the community and are also known as appliances. They include continence products, such as stoma or ostomy bags, dressings for long-term wound care, and reagent strips for home testing (for example, of blood glucose or ketones).
Figure 8: components of the Part IX Drug Tariff
The figure illustrates the 4 components:
IXA: general appliances – for example, wound care, lymphedema garments
IXB: incontinence appliances – for example, incontinence belts, catheter values
IXC: stoma appliances – for example, ostomy bags and systems
IXR: reagents – for example, blood glucose testing strips, urine ketone testing strips
Although these products are typically identical to those used in secondary care, in the community they are sourced and supplied through fundamentally different supply chains and mechanisms to reach patients. Suppliers apply to be listed on Part IX of the Drug Tariff, patients are prescribed products (in the same way as medicines) and have their prescriptions dispensed either through local pharmacies or, given the specialist nature of many of the products, through dedicated dispensing appliance contractors (DACs).
The mechanics by which appliances are provided to patients in the community have changed little since they were established in the 1980s, in stark contrast to the rapid development of medtech and the substantial evolution of community care services over this same period.
While the fundamental principles of these mechanics, Part IX prescription and reasonable choice remain generally sound, there is opportunity to review and improve these arrangements to better reflect today’s operational environment, and to deliver better outcomes for patients and the taxpayer.
The specific differences in mechanics and supply chain bring opportunities and challenges alike, and these need to be factored into a more focussed strategy for medtech in the community:
promoting meaningful choice: while the current system is based on choice, it is not always easy for patients, healthcare professionals, or purchasers to exercise this choice in practice. We intend to support choice through making it easier to compare, contrast and select the most appropriate products
modernising administrative arrangements: today’s system has its roots in a one size fits all approach originally dating from the 1980s. There are significant opportunities to rationalise existing processes, creating faster access and systems that are better aligned across primary and secondary care
embracing new commercial and service models: since its inception, a variety of new approaches have been developed that today work in parallel to the Part IX system. We need to maximise the opportunity these provide while maximising transparency and ensuring quality
These actions will help deliver the following benefits:
patients and clinicians will be supported to make better choices about the products available to them to treat and manage their conditions
modernised administrative arrangements will streamline and increase the speed of our systems, allowing them to perform more efficiently
transparency of systems across the NHS will enable better decisions and reduce variations in service between places
Diagnostics
Medtech products play a vital role in diagnostic services, which are crucial to supporting preventative care and the delivery of world leading, safe and effective treatment. The NHS carries out over 1.5 billion diagnostic tests every year and more than 85{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of clinical pathways involve a diagnostic test (see Item 5: diagnostics capacity). Diagnostics are a significant part of the UK Life Sciences sector, with £2.9 billion in turnover and employing more than 15,000 people in the UK.
Figure 9: components that sit under diagnostics
The figure illustrates the 5 components of diagnostics are:
imaging services – for example, CT scans and MRI scans
pathology – for example, biopsies and blood tests
endoscopy – for example, colonoscopy and gastroscopy
physiological measurements – for example, electrocardiograms or lung function tests
genomics – for example, genetic rare diseases screening
Diagnostic services include imaging services, pathology, endoscopy, physiological measurement and genomics. All these services are vital to ensuring that patients get the right care quickly and efficiently.
Over the last 2 years, the COVID-19 pandemic has demonstrated the importance of fast and accurate diagnostic testing, genome sequencing and the existence of robust diagnostic infrastructure to process and share results. The wide adoption of home lateral flow testing has demonstrated the potential for increased use of diagnostics outside formal clinical settings to support earlier diagnosis.
Demand for diagnostics is continuing to rise and waiting lists have increased following the reduction in availability of services during the pandemic, so it is vital that we continue to improve and expand our diagnostic capacity. In tackling these challenges, we have an opportunity to move to a more patient-centric model of care, and to better connect our world-leading life sciences sector with the NHS to transform elective diagnostics with the latest technologies.
Diagnosis closer to the patient
Community diagnostic centres (CDCs) provide a range of elective diagnostics away from acute facilities. These centres will reduce pressure on hospitals, improve patients’ access to tests, increase capacity, and speed up diagnosis and referral for treatment through a more productive, efficient, personalised and integrated model of care.
Digital and technological transformation
Innovation will play a critical role in the future of diagnostic services, so we must ensure that research and development is directed towards diagnostics in a way that maximises impact. We need to make sure that we maintain the focus on advancing diagnostic technologies and adoption across the NHS to support better treatment and outcomes for patients and help the NHS to focus resources where they are most needed.
Digital transformation of diagnostics through new technologies such as artificial intelligence (AI) will also enable the current imaging and pathology workforce to optimise their working patterns and better support the growth in capacity of imaging services. This will transform how people receive their tests and test results, delivering more accurate and timely results.
Based on broad engagement across the diagnostics sector, 4 areas for priority action in the diagnostics sector have been identified that will facilitate increased access, earlier diagnosis, innovation adoption and efficiency.
These 4 diagnostic priorities are:
1. Elective recovery
We must support the NHS to adopt more efficient models of care that will help tackle the elective backlog. We will establish up to 160 CDCs by March 2025, supported by appropriate workforce plans. We will build pathology network maturity, and deliver enhanced digital infrastructure that will improve efficiency, interoperability and availability of diagnostics across the health system.
2. Early diagnosis
We will work to improve patient outcomes through early detection and diagnosis, meaning patients can receive treatment when there is a better chance of achieving a complete cure. We will utilise additional capacity and increased public awareness and acceptance of self-administered testing built through the pandemic to increase uptake of early screening. We will also enable earlier diagnosis of cancer and detection of relapses through the rapid introduction of new genomic technologies.
3. Industry engagement
We will provide clear demand signalling to industry to support innovation in the UK diagnostics sector. The existing NHSE Demand Signalling Programme will work with a clinical advisory group to identify and drive innovations that support early diagnosis and will have the greatest impact on health outcomes. An NHS-led review of diagnostics commissioning will ensure benefits across the pathway are recognised, and that regulatory and evaluation processes are simplified and clarified. This aligns with the broader medtech priorities of national clinical leadership for products, clear demand signalling and streamlined evaluation.
4. Pandemic preparedness
We will use the legacy of investment during COVID-19 to ensure preparedness for any future pandemic. UKHSA, through the Centre for Pandemic Preparedness, will work in conjunction with NHSE and the pathology networks to ensure that diagnostic facilities are ready for future pandemics and that existing infrastructure and latent capacity is capable of being mobilised.
These actions will help deliver the following benefits:
providing more efficient and effective models of care and detecting and treating diseases earlier will support elective recovery in the health and care system by reducing pressure on acute services and will improve patient experience and outcomes
access to CDCs will offer care to patients outside of hospital settings in a way that is more personalised, convenient and supports improved patient access to healthcare
promoting the UK as a thriving global hub of diagnostic innovation and advancement will support and enhance the UK’s reputation as a great place to develop products
supporting the health system to scale up diagnostic testing and genome sequencing rapidly and effectively will help to mitigate the greater impacts on wider society and the economy of any future disease threats
Conclusions and next steps
Medtech is a large and diverse industry that plays a significant role in both the UK economy and the UK health and care system. It has largely operated without significant central intervention and approaches to date have been driven by need rather than through a planned strategic approach.
Medtech products and markets have developed rapidly, and together with the changes brought about by the UK leaving the EU and lessons we have learnt from COVID-19 we need to act now to ensure that the sector is sustainable for the future, and that our resources are focussed where they will improve the overall health of the nation.
We will do this by making sure the health and social care system can reliably access safe, effective and innovative medical technologies that support the continued delivery of high-quality care and excellent patient outcomes in a way that makes the best use of taxpayer money, delivered by our vision of ‘right product, right price, right place’.
Recognising the work that is already underway within the sector, we see 4 key priority areas for fresh national focus:
resilience and continuity of supply
innovative and dynamic markets
enabling infrastructure
specific market focusses
This strategy sets our vision for medtech, and the central strategic elements where we expect to see different and increased focus over the next 5 to 10 years. In developing these plans, we will be sure to consider several factors that will be critical to success:
a joined-up approach to the strategy: we need to consider the strategy as a whole and be aware of how the different elements and priorities interact. We cannot work in silos
clear, meaningful metrics: we must set clear targets that directly align to the core priorities of the strategy and have a robust way to measure progress
strong collaboration: we will set out a framework for industry collaboration and use this to develop detailed implementation plans for each workstream. At all times we will make sure we seek continual engagement and feedback from all our stakeholders including the best way to engage patient groups
supported and empowered leadership: we must ensure that senior leadership across the sector is fully committed to the vision, and that we provide them with the support they need to embed engagement throughout their organisations
implementation capacity: many of the transformations we want to achieve are significant, both in terms of ambition and timescale. We must ensure that we support the change process with the right resources and skills
ambitious but realistic timelines: the vision set out here is a long-term goal that we will need to work towards in stages. We must consider how to divide this into milestones without losing the momentum that is already in place
We are committed to realising the benefits that advances in medtech can bring, both to the individual patient, and to the UK economy. We call on our colleagues across industry and the UK health and social care system to share our ambition and work with us to create lasting positive change. We will continue to engage collaboratively with all stakeholders and consult on proposed changes ahead of delivery and implementation.
The future of the medtech landscape
The medtech strategy will deliver the following actions:
the Medtech Directorate will set up the appropriate governance structures to achieve the aims set out in the strategy
the DHSC Director for Medtech will oversee the governance, implementation and ongoing activities in the sector
we will work with stakeholders to develop an implementation plan
An implementation plan for the strategy will be published in early 2023, outlining the planned achievements for each priority.
Priority 1: resilience and continuity of supply
The implementation plan will aim to achieve the following:
medtech suppliers proactively adopt effective contingency measures to ensure continuity of supply and engage early to resolve emerging problems
a broad medtech sector located and led from the UK that excels at all stages of product life cycle, from research and development, to design, production, maintenance, repair and remanufacture
medtech systems are interoperable by default, making exceptions only where there is clear evidence of overwhelming benefits for patient outcomes and safety
medtech systems support reuse, remanufacturing and materials recovery by default, reducing reliance on vulnerable sources of raw materials and the exposure this brings to price volatility and hostile acts
Priority 2: innovative and dynamic markets
The implementation plan will aim to achieve the following:
for every product type we have a clear, recognised clinical voice articulating practitioners’ needs for medtech
we have granular clarity of the NHS’s priorities for innovation which are reflected in systems and processes
we have a clear, readily accessible and clinically driven national view of the relative qualities of the products available
conversations have moved away from general terms of ‘innovation’ to use more specific and meaningful language
a clear pathway from pre-registration through to commercial adoption which enables rapid progression for priority, innovative products
Priority 3: enabling infrastructure
The implementation plan will aim to achieve the following:
we have extensive coverage of medtech data from products being put on the market to their specific use. The data captured has the necessary granularity and frequency for the risk it is trying to mitigate
we have clear, readily accessible, consistent, and a trusted view of medtech data. Products are easily identifiable across datasets with minimal effort and medtech datasets can be linked and used for a range of purposes, not just what they were originally gathered for
the NHS and industry work as trusted partners with consistent mechanisms to communicate NHS demand, support clinical leadership in industry engagement, encouraging innovation in clinical areas of greatest need, planning how innovations will be procured by the NHS to deliver patients the right products, at the right price and in the right place
Priority 4: specific market focusses
The implementation plan will aim to achieve the following:
as well as a significant choice of product, clinicians and patients have access to unbiased resources to help them compare and select the most appropriate product
the processes for entry, maintenance and exit from Part IX are modernised to reflect our modern digital environment and speed of innovative product development
there is convergence towards good practice operating models
there is ready access to diagnostic testing, regardless of location, enabling earlier interventions and the improved patient outcomes associated with this
there are fast, accurate, widespread and personalised diagnostics undertaken close to the patient through CDCs and at the point of care
the UK is a thriving global hub of diagnostics innovation and advancement, supporting improved and more affordable healthcare here in the UK and abroad
we have a health system that is able to scale up diagnostic testing and genome sequencing in step with the rapid and effective response to infectious disease threats and pandemics
Annex A: approach to strategy development
1. Establishing the Medtech Directorate
During the pandemic response, an Oxygen, Ventilation, Medical Devices and Clinical Consumables Programme was set up jointly by DHSC and NHSE to deliver a 4-phase programme of COVID-19 response. Through the programme, everyone who needed oxygen or medtech was able to access it.
The pandemic highlighted the value and need to have a targeted, standalone medtech strategy. The new Medical Technologies Directorate within the department was announced in May 2021. Programme activities were brought into DHSC in September 2021 and clustered with other medtech policy to form a new Medtech Directorate. The directorate has staff focussing in:
supply resilience and engagement
strategy
policy and regulation
operations
data and analysis
Post-COVID, medtech faces a different set of strategic challenges, and the purpose of the directorate is to ensure that our long-term strategy for the sector reflects these.
2. Overarching strategy development
We have taken a multi-faceted approach to strategy development that takes into account the currently available evidence, the views and needs of our stakeholders, and the wider priorities of the government. As part of this process, we conducted the following:
cross-government policy reviews to understand the top-level priorities that could impact the sector, align our vision and actions with existing policy, and identify areas where there was already well-established action in place, and where gaps existed where we could directly add value through the strategy
data analysis of current trends in medtech across several existing sources to establish broad commercial information and the shape of the wider landscape
industry roundtables with a variety of businesses and trade associations to discuss the most pressing issues for the sector, and to present and gain feedback on initial areas for exploration
international reviews to establish the approach to medtech by our international peers and determine any areas of consensus and best practice that could inform our policy
focussed sustainability research including a comprehensive literature review to develop a detailed understanding of the specific sustainability challenges facing medtech and surface potential paths to action
focussed innovation pathway mapping following on from strong stakeholder feedback on the area, to capture the full detail of existing funding and support mechanisms and determine the degree of alignment and ease of navigation for innovators
ongoing stakeholder engagement to gain feedback and guide direction of the strategy as it developed
Together these approaches have given us a broad understanding of the sector from many different viewpoints and have allowed us to take these into account to build an ambitious but achievable vision and strategy.
3. Diagnostics
The pandemic gave impetus for the department to take an overarching view of diagnostics and to review the challenges and opportunities in the sector. As a result, last summer ministers asked officials to develop a strategy for diagnostics that would bring together changes necessary for the NHS to:
tackle the backlog in diagnostic tests
improve engagement with and use of the diagnostics industry
improve the effectiveness of diagnostics
use the legacy from investment in COVID-19 testing
Following an initial roundtable including representatives from across government and industry, the team spoke to over 100 stakeholders from across government, academia and industry. This included a survey of industry representatives and a series of industry webinars, and a clinical advisory group led by the department’s Chief Scientific Adviser.
The department started considering the need, and opportunities, to improve usage of medtech within the community health system in 2019. These considerations were paused to enable the health system to prioritise its COVID-19 response, and now form part of the Medtech Directorate core remit.
The strategic focusses were developed in consultation with a wide range of health system and industry stakeholders. Given the wide range of differing organisations involved in this sector, effective collaboration and engagement will be essential: we look forward to working closely with relevant partners to develop increasing clarity on the details of how best to achieve these objectives.
Annex B: areas for shared engagement
1. Alignment across government – further detail
Many organisations and programmes are already supporting aspects of our vision and it is aligned with, and complemented by, many other wider government strategies. Across these initiatives, we have identified the following central themes:
levelling up
international leadership and investment
innovation
demand signalling
improving data
boosting research and development
upskilling and re-skilling
net zero
Further detail on the specific details of these policies, reviews and initiatives can be found below.
Levelling up
59{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of medtech jobs are outside South East England, with significant UK-wide regional clusters. Increased focus on this industry supports the government’s levelling up agenda and will increase job opportunities outside the South East and London.
The strategy will ensure medtech is timely, available and accessible to all regardless of location, ethnicity, sex or other attributes to address health disparities.
Alignment across government:
International leadership and investment
The medtech strategy will support the ambition for the UK to be a science superpower and world leader. Research and development is a government priority, this will promote innovation within medtech.
Alignment across government:
Innovation
The medtech strategy will prioritise and drive innovation within the sector. It will also support improved management of SMEs and upskilling of workers to drive innovation and growth and ensure products are safe and suitable for all.
Alignment across government:
Demand signalling
The medtech strategy will prioritise clear demand signalling by the NHS and partnership between clinicians, industry and government to agree direction of the sector. The strategy will prioritise streamlined product evaluation, and health partners must work together to develop a coherent system of product evaluation and identify where priority areas are.
Alignment across government:
Improving data
The decentralised nature of data within the medtech sector means there is no clear single data standard, making it difficult to cross-reference and share data. By increasing the opportunity for data partnerships and providing real-world data alongside clinical and genomic the medtech strategy will support demand signalling, efficiency, patient safety, value for money and innovation.
Alignment across government:
Boosting research and development
The medtech strategy will boost focus and investment in research and development and support more collaboration between private businesses and public businesses to increase the potential for innovation. By championing innovation and fast stream technologies to market through reduced bureaucracy, the medtech strategy will bolster output of innovative products and breakthrough technologies.
Alignment across government:
Upskilling and re-skilling
The medtech strategy will support innovation upskilling and training employees by encouraging a vibrant medtech industry. This will enable individuals to progress within the industry and grow the skills of the medtech workforce. The strategy will support the voice of academics within the medtech industry utilising their understanding of the sector and innovation to ensure a holistic approach to implementation of the strategy.
Alignment across government:
Net zero
The medtech strategy will support sustainability and meeting the NHS net zero target. The strategy outlines the need to find clinically safe and effective products that are better for the environment through reuse and remanufacture.
Globus Health-related (NYSE:GMED) and NuVasive (Nasdaq:NUVA) today introduced an settlement to mix in an all-inventory transaction.
The deal values NuVasive at $3.1 billion, with Globus shareholders owning around three-fourths of the recently merged enterprise.
BTIG analysts raised the question of likely anti-have confidence in troubles for the deal, which would make the next-premier backbone tech firm at the rear of Medtronic.
“We accept that the spine market place is very aggressive, with a quantity of providers (100+), but in the present-day natural environment, we imagine it will weigh on investors’ minds. Management could only say that the attorneys are reviewing anything at this point,” reported Ryan Zimmerman and Sam Durno at BTIG.
Shares of GMED dropped extra than 16{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} at $64.57 apiece in early morning investing. NUVA shares rose more than 4{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} at $47.93 apiece. MassDevice‘s MedTech 100 Index, which features stocks of the world’s biggest healthcare unit organizations, was up extra than 12{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}.
Turning out to be the major musculoskeletal technological innovation company in the globe
The two musculoskeletal technologies firms share a vision concentrated on improving individual treatment, according to a news launch. By yearly income, NuVasive and Globus Healthcare are already the No. 7 and No. 8 major orthopedic device corporations in the environment, respectively.
Under the phrases of the settlement — which both equally companies’ boards unanimously accredited — NuVasive shareholders receive .75 of a share of Globus Course A frequent stock for each and every share of NuVasive frequent inventory owned at closing. Based on the exchange ratio, the implied share price for NuVasive totals $57.72. That quantities to an fairness price of $3.1 billion.
Pursuing the closing of the transaction, 28{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of ownership goes to NuVasive shareholders. Meanwhile, the remaining 72{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} belongs to Globus shareholders on a fully diluted basis.
NuVasive CEO Chris Barry explained the businesses share “complementary abilities, geographic footprints and purchaser bases.”
“This transaction displays our mission to turn out to be the primary musculoskeletal technological innovation enterprise in the earth by creating merchandise that market healing in people with musculoskeletal issues,” reportedDan Scavilla, president and CEO of Globus Professional medical. “With NuVasive, we can aid assist much more clients via major innovation and growing our professional attain to deliver excellent assistance to our surgeon and healthcare facility partners. We look ahead to combining the NuVasive and Globus Professional medical groups to capitalize on the many prospects to boost patient care and produce sustainable shareholder worth.”
Globus, NuVasive lay out the advantages of their mixture
The companies mentioned the transaction accelerates their tactics to focus on the $50 billion musculoskeletal marketplace. That incorporates backbone, orthopedics, enabling technological know-how, electric power applications, biologics and more.
Globus and NuVasive deliver a merged existence in far more than 50 nations with more than 5,000 personnel. They come to feel a more substantial profits firm permits more penetration into current and future marketplaces.
Moreover, Globus and NuVasive reported their complementary products enable the generation of a thorough, impressive portfolio. They also just about every provide “respective operational rewards,” including Globus’ manufacturing ability and NuVasive’s distribution networks.
Other advantages include things like upside profits possible and powerful money profiles and price creation opportunities.
How the merged firm would work
Upon closing, the blended corporation is set to feature an 11-member board. It consists of all 8 administrators from Globus’ board and 3 from NuVasive’s.
The arrangement sees David Paul, Globus board chair, set to serve as chair of the put together company’s board. Scavilla usually takes on the position of CEO, although the corporation picked Globus CFO Keith Pfeil for the similar function at the blended organization.
NuVasive CEO Chris Barry “will assistance integration organizing of the mixed organization.”
Timeline and monetary outlook
Globus and NuVasive anticipate the transaction to shut in the middle of this calendar year. It stays matter to shareholder approval from both equally sides, regulatory acceptance and other customary circumstances.
The two companies confirmed preliminary fiscal year-conclusion final results as section of the merger announcement. Globus assignments 6.8{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} gross sales growth and NuVasive anticipates 5.5{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} income advancement for the full year.
Ahead of 2023, Globus expects to enhance gross sales by at minimum 7{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} and NuVasive expects to grow by at the very least 6{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}.
A total of 179 out of the possible 663 students (27{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} completion) completed the online survey in June 2020. Median age of students was 19 years (IQR 18–28 years) and there were approximately three times as many females as males (Table 1), reflective of the undergraduate health sciences cohort (70{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} female). Student numbers were also reflective of the broader enrolment numbers in the programs (i.e., occupational therapy is the largest program). Just over half (53{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}; n = 94) of students had no prior experience in undertaking a Bachelor degree, and 76{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of students had not completed any online courses prior to enrolment.
Table 1 Demographic characteristics
Quantitative results to the sense of belonging questionnaire
In terms of students’ sense of belonging to the university, the majority felt ‘quite’ or ‘extremely’ happy with their choice of university (74{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}) and felt ‘quite’ or ‘extremely’ welcomed by the university (68{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}). While most students felt respected by both staff (70{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}) and students (60{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}) at the university, students reported less connectiveness (23.5{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f}) to the university. Only 20{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of students reported they felt they were understood as an individual, and only 13{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} felt they ‘quite’ or ‘extremely’ mattered to others at the university (Table 2).
Table 2 Online learning and Sense of Belonging to the University [1]
Table 3 shows how the online learning experiences impacted on students’ perception of the course; 27{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of students felt ‘quite’ or ‘extremely’ connected to staff while 16{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of students felt ‘quite’ or ‘extremely’ connected to other students. While 49{08cd930984ace14b54ef017cfb82c397b10f0f7d5e03e6413ad93bb8e636217f} of students rated 4 and above for the level of respect that they received from other students and their contribution towards the subject, students who had prior higher education felt less respected than students who had no prior higher education (p = 0.03). When asked how the online subject had contributed to understanding, knowledge/skills in their chosen health profession, about half of the students rated the online subject highly (rating 4 and above). Students who had prior higher education indicated higher ratings of understanding and knowledge/skills compared to students without prior higher education (p = 0.07 and p = 0.03 respectively). There was also a significantly higher proportion of students with no prior higher education who identified the online learning experience as either ‘quite’ or ‘extremely’ likely to impact their intention to continue with their current course (p = 0.001).
Table 3 Impact of online profession-specific subject on perception of the course
Qualitative results
Qualitative findings provided insight into experiences of staff and students during the rapid, unplanned transition to online learning. Student questionnaire responses included two open-ended questions expanding on enablers and barriers to sense of belonging. These yielded 145 enablers and 254 barriers to students’ feeling a sense of belonging. Data were subjected to qualitative content analysis by two authors and categories are presented in Additional file 1.
Three focus groups were conducted: two student sessions, each with two students enrolled in Speech Pathology and Paramedicine, and one academic session with five participants. Four full time academics and one casual academic participated from a total population of nine eligible academics. Using the processes described in the methods, focus group analysis was compared with the survey content analysis and the authors identified synergies between them. Findings were then integrated under a global theme, underpinned by organising and basic themes. The following themes reflect triangulation between academic and student focus group data in addition to survey responses.
Global theme—navigating belonging during the COVID-19 crisis: a shared responsibility
“We are in this together…making the best of this”
This theme explores sense of belonging creation during this period as a shared process, where participants perceived they worked together to get through the crisis. Students and academics encountered many challenges as they transitioned to online learning but despite hard times, were able to engage positively. The global theme revealed students and academics were navigating belonging during the COVID-19 crisis, and this journey was a shared responsibility. Both groups were working to achieve positive student engagement that would in turn create a sense of belonging in first-year students. A strong commitment of working hard to make the best out of this was mutually acknowledged.
Students perceived academics had done “a really good job at making sure we belonged…in those first few weeks that we were on campus but even more so probably while we were in Zoom” (Student-Astrid-Focus Group). Academics perceived students were actively engaged in making online learning work and were collegial and collaborative.
The shared experiences about navigating belonging during the COVID-19 crisis, have been captured under four organising themes: dimensions of belonging, individual experiences and challenges, reconceptualising teaching and learning, and relationships are central to belonging. Within each organising theme, basic themes were identified that provide depth to the organising theme (Fig. 1). Additional files 1 and 2 present a summary of the quotes obtained from the open-ended surveys and focus groups respectively, that contribute to the themes in Fig. 1.
Fig. 1
Pictorial representation of the global, organising, and basic themes
Organising theme: dimensions of belonging
This theme outlines that belonging is a multidimensional experience with several facets underpinning participants’ experiences. Students and academics identified several dimensions of belonging in relation to first year students’ experiences, as illustrated by two basic themes that sit under the organising theme: what it means to belong, and layers of belonging.
Basic theme: what it means to belong
This theme explores the idea that belonging at university is underpinned by feeling valued and connected. Academics and students agreed that having a sense of being valued by the university and a desire to have an active connection across all aspects of university life was important for students.
Belonging as a student was gained through a connection with the “vocation” (Student-Claire-Focus Group) or the course and career, and with people who will “be there” (Student-Claire-Focus Group) for them. Furthermore, support of academics was critical to gaining a sense of belonging. It was noted by academics and students, that when students feel they belong at university, they are actively engaged in their learning, and this sense of belonging in turn shapes their overall identity. Students can then “actually sort of relax and become themselves” (Staff-Brooke).
Belonging to their cohort, their course, their future profession, and their university was important for students. One academic noted that the “concept of acceptance” is part of the sense of belonging and goes “both ways” (Staff-Brooke).
Both academics and students agreed that the rapid change to online learning due to COVID-19, meant that developing a sense of belonging was challenged.
Basic theme: layers of belonging
This theme identified layers of belonging reflected in participants’ experiences. Peer, academic and professional layers each contributed to an overall sense of belonging and key examples are provided below.
Peers
Belonging to peers was described as “having that connection to someone that’s going through exactly the same thing as what you’re going through” (Student-Astrid-Focus Group). Students were concerned that when learning moved online that this sense of belonging would be jeopardised by less opportunities for in-person interaction.
Academics
Being connected to academics was perceived by students as directly impacting learning, with one student commenting: “…when they’re not connecting with the teacher, they’re not connecting with the content, they’re not connecting with the feedback. That’s when you develop this sense of feeling like you just don’t belong” (Student-Emily-Focus Group).
Academics perceived it was also important for students to develop a sense of belonging to the university community.
Profession
Belonging to a profession was identified as an important feature of belonging by academics and students. Studying a degree with a clear professional identity facilitated first year students to feel they belonged compared to those undertaking general health science degrees which may have multiple pathways and career options less directly aligned to first year studies.
One academic actively encouraged first year students to belong to their professional association as a way of fostering belonging in first years.
Organising theme—Individual experiences and challenges
This theme outlines that while there are similarities in participants’ experiences, individuals have unique contexts and factors shaping their experiences. Academics and students reflected upon personal impacts of the COVID-19 pandemic on their teaching or learning and how they responded as individuals to the ensuing challenges. Two basic themes emerged: Challenges of transition and recognising different learning preferences.
Basic theme —challenges of transition
This theme explored the significant challenges of transitioning to online teaching and learning. For some students, the transition to online learning offered potential benefits of flexibility and reduced travel time. Two of the four students in the focus groups opted for online learning opportunities available in other subjects of study prior to the pandemic to efficiently manage their study and external commitments. Nonetheless, the pandemic brought a raft of personal challenges that diminished these expected benefits. Covid-related changes to family employment, reduced access to childcare support and non-optional home schooling presented new concerns.
Clearly, students missed the opportunity to focus attention on their learning needs when balancing childcare demands and home-schooling during lockdowns.
Unlike a conventional online courses where students choose or plan to be online, the sudden, unexpected, and unplanned move to online study was prefaced by a short period (four weeks) of in-person class time. This initial in-person time was identified as being key to relationship building.
Academics identified positive experiences and challenges during the transition to online learning. The rapid change presented a problem to be solved and individuals could “embrace it and to work effectively…as a team” (Staff-Jane). Quickly strategizing and responding to the demands of online learning required team knowledge, experience, and support. Hence, enhanced team culture was a further positive for academics, being “present for each other” (Staff-Brooke).
Basic theme : recognising different learning preferences
This theme identifies experiences of online learning influenced by personal attributes, individual expectations and learning preferences. Such key factors impacted students’ capacity to maintain focus on academic goals after the rapid change to online learning. Some students reflected that barriers were not solely a feature of online learning environments, reporting that competing priorities, including work commitments and limited contact time with staff as pre-existing challenges to belonging. However, some students directly attributed their limited engagement and reduced motivation to the online learning environment.
Students suggested that active engagement “comes down to personality” (Student-Astrid- Focus Group). If a student was not shy they were comfortable to come forward and participate online. Some students perceived clear links between personal discipline, engagement, commitment, and achievement in online learning environments.
Further, students perceived effective (and ineffective) online group functioning reflected personalities of individual members, with some groups/personalities seen as being able to organise whilst other groups lacked leadership and cohesion.
Students who perceived themselves as active engagers reported being drawn towards other students who demonstrated motivation to interact and learn. Other students perceived their personalities or learning preferences were misaligned with the expectations of belonging in online learning environments and focussed upon tasks rather than connection.
Academics recognised student diversity and a need to reflect and re-evaluate expectations of students in online environments. They accepted that some students may be quietly engaging and learning to belong, but this was harder to observe in online compared to in-person learning environments.
Organising theme—relationships are central to belonging
This theme identified the relationship between all parties as a fundamental aspect of creating a sense of belonging. Two basic themes were influential in shaping perceptions of how relationships and connections contribute to belonging: collaboration with peers is fundamental, and effective and regular communication with staff is necessary.
Basic theme —collaboration with peers is fundamental
This theme revealed collaboration with student peers was a key element of creating a sense of belonging. The degree of social interaction with student peers and opportunities to create friendships contributed to feelings of belonging. Accordingly, students found it problematic when peers neglected to turn cameras on during classes, making interaction very difficult. Visualisation of peers and use of cameras in online classes impacted students’ opportunities to get to know each other.
Challenges posed by online learning were further highlighted in the student survey through a focus on non-academic aspects of university and campus life. Typically, university campuses offer interactional opportunities through clubs, sport, and shared spaces to learn and socialise. Campus life, students suggested, may facilitate learning and personal development. Absence of this type of interaction was linked to barriers in developing friendships and consequently a lesser sense of belonging as reflected in Additional file 1.
Basic theme— communication with academics is necessary
This theme outlined that communicating with academics was a key component of creating a sense of belonging. With less opportunities for peer support, there was stronger reliance on the academic-student connection, although students reported positive and negative interactions with academics during online learning.
Positive interactions and individualised communication with academics enhanced student sense of satisfaction and belonging. Furthermore, students in the focus groups reported a feeling of trust and a bond created by a shared challenge. Survey responses echoed this sentiment, noting that academics were “non-judgmental and supportive” (Student Survey 18) and created a sense of camaraderie. However, when students perceived impersonal communication from academics, they felt less connected or believed that teaching had become a “transaction” (Student-Astrid- Focus Group). Perceived levels of enthusiasm and engagement from academics influenced student’s perceptions of connection and belonging.
Students identified the online environment as a barrier to communication with academics. While systematic and university level communication was perceived as a useful source of information, students prioritised individualised communication from academic staff as key to belonging.
Academics concurred that effective communication was challenged in online environments, missing non-verbal cues and responsivity that characterises a classroom environment. Although the online learning environment provides an opportunity for academics to connect professionally with students, there were students who left their cameras off, with one academic noting they didn’t push this issue because there are many reasons for students choosing this option.
Organising theme: reconceptualising teaching and learning
This theme reveals how academics and students reconceptualised their expectations and modes of teaching and learning, to manage the crisis. It was not easy for academics or students, and many strategies were employed to make it work, with two basic themes emerging: challenges to online teaching and learning, and strategies to engage and connect.
Basic theme: challenges of online teaching and learning: “how do I make this work?”
This theme outlined many challenges faced by both academics and students during a rapid change to online mode. With the rapid change to online learning, academics asked themselves, ‘How do I make this work?’.
Managing workload
Academics reported their workload increased significantly, and they “found it a juggling act” (Staff-Louise) to meet their teaching requirements. Administrative loads consequently increased when reduced in-person contact with students led to more electronic communication. Academics needed to up-skill in online teaching in a short time frame and perceived this responsibility as all encompassing.
The rapid switch to online learning attracted significant academic workload, implementing and adapting content to see how material “might play out in a Zoom environment…[where]…everything takes longer” (Staff-Natalie).
Some students noticed a temptation to disengage from online learning, which meant balancing their workload and study demands became a challenge as they also faced significant workload and stressors in their personal lives due to COVID-19.
Class dynamics
Academics and students spoke about the change to classroom dynamics. The online environment was noted as being one in which it was difficult to read the room to see how students were progressing with their work. Others tried to use humour to enliven a class, only to have the Zoom frame freeze, killing the mood they were trying to create. Hence, staff felt teaching online was less conversational, flexible and responsive compared to face-to-face. Moreover, academics missed hands-on practical elements; a big shift for some programs.
Technological challenges
Academics learnt new skills quickly, but often these skills would be challenged when technology failed. Some academics reported a sense of vulnerability due to technological ineptitude but acknowledged that making mistakes in front of students could humanise the experience. Academics also acknowledged that some students did not have adequate technological resources to meet changes in their learning requirements when classes were placed online.
Basic theme: strategies to engage and connect
This theme reflected the strategies academics and students employed to remain engaged and connected. Academics worked hard to enhance online learning and hoped to connect with students and engage them in activities. Students too were active and appreciated academics’ efforts to facilitate engagement and connection. Underlying many of the strategies adopted by academics was a deep concern for student welfare during this time. Therefore, many academics aimed to ensure students were engaged and connected with each other and with the academic team. Academics built in small group opportunities during online teaching so students could connect, learn, and socialise.
Staff also spoke about informing students they could contact staff for support. One staff member described crossing the divide and actively discouraging a ‘them and us’ dynamic between students and staff.
A variety of teaching tools were identified by staff to build connection and promote engagement. Such tools included interactive quizzes, ice breakers activities, integrating reflective practices into activities and ‘drop in’ sessions. Staff also encouraged students to establish social media groups or other group experiences outside the classroom. Some staff members arrived early to zoom classes and left late to enable students to connect informally.
Students appreciated staff attempts to provide these activities. Students found these initiatives helpful, recognising staff placed effort into knowing students personally and focussing on student wellbeing and achievement. Students cited examples of provision of extra resources, mini-lectures, additional question and answer sessions, and fast response times to student queries. Students also initiated their own engagement strategies, including using group and personal messaging over platforms such as Facebook messenger.