Translate this page into:
One world, one forum: Harmonizing the medical device regulatory framework
* Corresponding author: Dr. Vyas Madhavrao Shingatgeri, Department of School of Biological Science, Apeejay Stya University, Gurugram, Haryana, India. vstoxpath@gmail.com
-
Received: ,
Accepted: ,
How to cite this article: Sah H, Lomash V, Sharma D, Shingatgeri VM. One world, one forum: Harmonizing the medical device regulatory framework. Future Health. doi: 10.25259/FH_40_2025
Abstract
India is late when it comes to recognizing the versatility of medical devices and their intended use. Medical devices are an important part of healthcare, yet they are an extraordinarily heterogeneous class of products. Whether used externally or internally, on humans or animals, for diagnosis, treatment, prevention, mitigation, or conception of diseases or disorders, medical devices have become the face of the healthcare sector. The global medical devices market size was valued at $518.46 billion in 2023 and is projected to grow from $542.21 billion in 2024 to $886.60 billion by 2032, exhibiting a compound annual growth rate (CAGR) of 6.3%. While the US, EU, and Japan lead the MedTech sector, India has historically focused on pharmaceuticals, leading to an 80% import dependency in its MedTech sector. Nevertheless, the introduction of the Indian Medical Devices Rules, 2017, marked a significant turning point, making India the 4th largest Asian market, projected to reach $50 billion by 2030. However, regulatory harmonization remains a concerning challenge due to diverse frameworks, limited global participation, high compliance burdens, market access barriers, and insufficient international collaboration. The article aims to advocate for a unified global framework under the “One World, One Forum” concept, comparing the Indian medical devices regulation with global market leaders, including the US, the EU, and Japan. The study aims to examine the impact of regulatory frameworks through an extensive retrospective review of literature. The paper also aims to propose promising strategies to enhance exports, streamline approvals, and ensure equitable access to safe medical devices.
Keywords
European Union
Harmonized regulatory framework
India
Japan
Medical device
One word one reform
Unified regulation
United States
HIGHLIGHTS
1. Challenges of the Current System
-
Variability among international regulatory bodies poses challenges for innovation, public safety, market entry, and regulatory approvals.
-
Global disparities in classification, lack of harmonization, and divergent regulatory frameworks contribute to trade deficits, economic strain, and profit erosion.
2. “One World, One Forum” Concept
-
Proposes a globally unified regulatory framework for medical devices to ensure consistency in safety, accessibility, and compliance.
-
Potential benefits include:
-
Faster market approvals
-
Reduced compliance costs
-
Increased global trade
-
Promote safety and quality
-
Improve accessibility and traceability
-
Secure vulnerability.
-
3. Recommendations
-
Adoption of the “One World, One Forum” approach to standardize MedTech services, practices, and quality benchmarks.
-
Expansion of the International Medical Device Regulators Forum (IMDRF) to include a broader range of countries.
-
Develop and implement globally accepted standards and materiovigilance network for medical devices. Establishment of globally accepted standards and a strong materiovigilance network for medical devices.
-
Alignment of national regulatory frameworks with international standards to streamline approval processes and enhance global trade.
4. Conclusion
-
Harmonization of medical device regulations benefits both patients and the MedTech industry by ensuring safety, efficiency, and innovation.
-
Strengthening international collaboration and harmonization efforts will create a unified regulatory ecosystem, placing all medical devices under a common regulatory framework.
INTRODUCTION
Medical devices have undoubtedly been the backbone of the healthcare sector, a fact that became evident during the COVID-19 pandemic. The lack of sufficient medical devices and equipment, such as ventilators, led to the tragic loss of lives, underscoring their importance. The versatility of medical devices is reflected uniformly in the harmonized definition, albeit with differences in regulatory jurisdictions. Becoming a global leader in healthcare hinges on recognizing and implementing the significance of medical devices effectively. The developed countries that acted swiftly, such as the United States (US), the European Union (EU), and Japan, emerged as global market leaders in the MedTech sector. These nations also collaborated to establish the Global Harmonization Task Force on Medical Devices (GHTF) in 1992,1 with the objective of aligning regulatory requirements, ensuring device safety, performance, and quality, fostering innovation, and facilitating international trade. During this period, India, as a developing nation, was making significant strides in its pharmaceutical and biopharmaceutical sectors, eventually becoming a global pharma and biopharma leader. However, the importance of medical devices was overlooked due to historical exploitation, delayed realization, and insufficient focus, resulting in a heavy reliance on imports, which have now increased from 70% to 80%,2,3 while exports have reduced to only 17%.4 This dependency underlines a huge gap between imports vs. exports and thus provides scope and opportunity for domestic manufacturers, policymakers, and regulatory authorities.
Nevertheless, Damini Sharma and Chandra et al. 2020,5 appraise the year 2018 as a landmark year for the Central Drugs Standard Control Organization (CDSCO), as medical devices were formally recognized as a separate category from drugs due to the introduction of the Indian Medical Devices Rules, 2017 (IMDR), under the Drugs and Cosmetics Act, 1940 (D&C). These were amended as Medical Devices (Amendment) Rules, 2020, which came into force in April 2020. These rules cover various aspects of device-related regulations, including classification, registration, manufacturing and import, labelling, sales, and post-market requirements. Within the span of just 6 years, the Indian medical technology (MedTech) sector has become the 4th largest medical device market in Asia, among the top 16th markets of the world. Currently, the Indian medical device market is growing at a CAGR of 15%, and it is expected to reach $50 billion by 2030, thus making India one of the fastest-growing markets in the world.6,7
However, despite these advancements, challenges remain in fully harmonizing the Indian medical device regulations with the global standards. With rapid advancements in medical device technology, a continuous effort is required to revamp and harmonize the regulatory standards to bring them in line with advanced regulations like the EU & FDA. Globally, the International Medical Device Regulators Forum (IMDRF) has been formed, which is a group of medical device regulators from around the world that have voluntarily come together to harmonize the regulatory requirements for medical products that vary from country to country. IMDRF develops internationally agreed-upon documents related to a wide variety of topics affecting medical device preparation, QMS, SaMD, AI, Product submission, and Good regulatory review. Only 35 jurisdictions, including India, are part of the International Medical Device Regulators Forum (IMDRF), despite the presence of 195 countries and over 300 intergovernmental organizations (IGOs).8 This highlights a significant disparity in regulatory harmonization, leading to barriers in market access, increased compliance costs, and delays in technological innovation. To overcome these challenges, a unified global regulatory framework is necessary to streamline medical device approval processes, reduce compliance burdens, and ensure consistent safety and quality standards worldwide.
This article aims to emphasize the “One World, One Forum” concept, which seeks to align international regulatory bodies under one common umbrella with universally accepted standards and regulations. The study has also analyzed the IMDR through an extensive review of literature, while comparing it with some international jurisdictions, including the US, EU, and Japan, which are the major players in the global MedTech market. Additionally, the paper has also been supported by some recent and historically significant case studies to illustrate the impact of regulatory policies. Finally, strategic recommendations have been proposed in alignment with the “One World, One Forum” concept, with the objective of establishing a harmonized regulatory framework essential for enhancing exports, streamlining approval processes, and ensuring equitable access to safe and effective medical devices across the world.
To gain a thorough understanding of the current landscape, a systematic literature review was conducted utilizing advanced search functionalities across prominent academic databases. A systematic approach was employed using advanced search options, primarily on Google Scholar, the search strategy also encompassed specialized repositories such as ONOS, PubMed, IEEE Xplore, ScienceDirect, and the Indian digital repository Shodhganga. These databases were selected for their broad coverage of multidisciplinary studies, particularly in the domains of the Indian medical devices regulatory frameworks.
Keywords were selected to represent the research themes, including “healthcare,” “medical devices,” “quality management,” “software-based medical devices,” “risk assessment,” “PMS,” “materiovigilance,” “regulation,” “legislation,” “framework,” “India,” “IMDRF “EU,” “USA,” and “Japan,” were strategically used in combination with Boolean operators, and symbols were used to refine search results: “AND” ensured all specified terms were included, “OR” broadened the scope with related terms, “NOT” to eliminate items containing specific words, “-” excluded irrelevant terms, and “+” emphasized specific terms. To further concise the results, additional keywords such as “challenges,” “discussion,” “barriers,” “gaps,” “opportunities,” “policy analysis,” “global analysis,” “standardization,” “harmonization” “implementation,” “SMEs” “innovation,” “cost-effectiveness,” were used to identify more relevant papers. Figure 1 represents the PRISMA flowchart, which details the process of identification, screening, and inclusion of publications relevant to this review, ensuring clarity and coherence.

- PRISMA flow diagram for identification, screening and inclusion of publications for this review.
REVIEW OF LITERATURE
Comprehensive gap analysis of the IMDR
The Indian Medical Device Regulatory Framework, despite its evolution, faces significant challenges and gaps that hinder its efficiency. The COVID-19 pandemic exposed the dire shortage of medical equipment, emphasizing the need for robust domestic manufacturing capabilities to reduce reliance on imports, which currently account for 70-75% of medical devices.5,9-12 Studies emphasize that Public-Private Partnerships (PPP) are suggested as a solution to drive innovation and economic growth.5 However, complex legal terminologies in the IMDR create barriers for stakeholders, necessitating user-friendly regulatory statutes.5,9,10,13,14 The Materiovigilance Programme of India (MvPI) was established to promote the safety of medical devices through post-market surveillance. The IPC serves as the National Coordination Centre for MvPI. Adverse event reporting form (MDAE Reporting Form) is available both in English and Hindi, for use by manufacturers/importers/distributors, healthcare professionals, and others. A major issue is the lack of awareness regarding adverse event reporting, leading to unreported adverse events and potential patient safety risks, which can be improved by regular training programs and workshops to strengthen materiovigilance efforts.7,9,10,15-20 The IMDR also lacks well-defined standards and guidelines for quality benchmarks,21,22 particularly for high-risk devices, unlike global counterparts such as the EU MDR and IVDR, which provide a broader range of tools and methodologies for PMS. Additionally, India lacks a national registry or comprehensive healthcare database that systematically maintains the details of the patients’ central safety database system, which should be accessible to the stakeholders for reporting and tracking adverse events.7,13,22 India did not have an adequate mechanism for real-time data collection to monitor device performance. Regulatory transparency by systematic disclosure of information regarding device approvals, adverse event reports, and post-market studies is yet to be captured in a unified reporting portal and made available for public view. These are essential to foster public trust and accountability.
India’s regulatory framework is further strained by the absence of unified legislation for software as a medical device (SaMD) and AI-driven technologies, despite projections indicating their widespread adoption.13,14 There is a web of laws involving different regulatory bodies, with each having an independent aspect to consider. Current regulations do not address critical concerns such as software updates, patient data security, and informed consent, putting India behind international regulatory advancements. In a true sense, the current Indian regulations on the use of software as a medical device (SaMD) are still emerging with an increase in the use of AI technologies. Additionally, classification challenges persist, particularly for AI-driven and software-based medical devices, leading to inconsistencies in regulatory oversight.5,13,23-28 The misalignment of IMDR with global standards further restricts international trade and market competitiveness, particularly in the case of IVDs, where experts recommend a separate regulatory framework similar to the EU IVDR.7,29-35 The industry also suffers from a shortage of qualified regulatory professionals, which delays approvals and impairs compliance.5,9,10,12,22,32,33,36,37 The cost burden of compliance remains another major hurdle, especially for startups and small manufacturers, as high licensing fees and clinical investigation costs discourage innovation.5,10,13,18,33 Furthermore, India faces significant regulatory approval delays, often taking three to four years, a phenomenon referred to as “medical device lag,” which deters foreign investment and weakens domestic industry growth.5,7,9,13,14,33,36,38-40 Addressing these issues requires harmonization with global standards, streamlining approval processes, and fostering a regulatory ecosystem that promotes innovation while ensuring patient safety. Experts suggest forming a dedicated regulatory division within the CDSCO to oversee SaMD, developing structured regulatory education programs to bridge the talent gap, and reducing administrative inefficiencies to accelerate market access. Strengthening PMS mechanisms, institutionalizing clearer quality benchmarks, and aligning regulatory frameworks with international best practices will be essential for the Indian MedTech industry to thrive. A shorter regulatory approval timeline can attract foreign investors, increase exports, reduce imports, and strengthen the indigenous supply chain. Additionally, introducing academic curriculums for postgraduate specializations or diploma programs focusing on regulatory affairs in Indian universities could help bridge this gap, producing a larger pool of skilled professionals to meet industry demands. Implementing these reforms will not only enhance compliance and patient safety but also position India as a competitive global hub for medical device manufacturing and innovation. A retrospective review of 46 publications from 2018 to 2024 revealed 14 major challenges confronting the Indian MedTech sector, as detailed in Table 1(a,b), and Figure 2.
| Parameter | India (IMDR, 2020) | FDA, US | MDR, EU |
|---|---|---|---|
| Registration process | IMDR under CDSCO: Devices don’t need exhaustive Pre-Marketing Clinical Safety data | 510(K) or PMA (Proof of device’s efficacy and safety) | CE certificate -Proof of the device’s performance. UDI-DI (Annex VI) and other core data elements (Annex VI) |
| Adverse event (safety) database | No database for central reporting of adverse events, and no accessibility to the public. | Reporting by manufacturers and healthcare institutions to the FDA is mandatory. CDRH created the Post-Approval studies database. | EUDAMED is the central database for MD. Accessible to the public |
| Post Marketing evidence |
- Vigilance reporting by the manufacturer - Post marketing Clinical investigation- limited period only - Adverse reaction is mentioned in Clinical Investigation and not in clinical performance evaluation - PSUR |
- 21 CFR part 822 Post-market surveillance of class II and class III devices - Post Marketing Surveillance plan, - MDR, MedWatch (A program for health professionals and the public) - Post marketing surveillance studies for certain devices |
- Post marketing surveillance report (PMSR) - Periodic safety update report (PSUR) - Post marketing clinical follow-up (PMCF) - Post-marketing Clinical Investigation - CER/PER – throughout the lifecycle of the device |
| PSUR Structure and Frequency |
Structure proposed for PSUR Every 6 months for the first 2 years, annually thereafter for the subsequent 2 years |
MDR system for PSUR submission - High-Risk Devices (Class III)- Annually - Moderate risk (Class II) - Every 2 years - Low risk (Class I) -only PMSR |
PSUR Frequency: - At least annually for Class IIb and Class III - At least every 2 years for Class IIa devices or when necessary - No PSUR for Class I devices |
| PSUR requirement | For all classes of devices |
- Not necessary for Low risk category devices- only on request - Must for moderate and high-risk category devices |
- For class IIa, IIb, and Class III devices - Class C & D IVD devices |
| Software as a Medical Device (SaMD) |
- No one regulation governs the software development and use - Many government agencies and departments are involved - Classified under four categories: Class A, B, C, D - Clinical validation required for efficacy, safety, and intended use - The regulatory landscape is still evolving |
- FDA 21 CFR 820 and FDA 21 CFR Part 11 - Categorized based on intended purpose and targeted Healthcare situation. as Class I, II and III based on risk posed - Distinguishes between SaMD and Software In a Medical Device (SiMD) - Report adverse event in Form FDA3500A - PMS is performed |
- Specific regulation monitors the risk categorization and PMS: Rule 11 of EU-MDR, alongside Annex VIII - Clinical Evaluation for CER & PER - EU AI Act imposes additional requirements for AI-enabled medical devices |
IMDR: Indian Medical Devices Rules, CDSCO: Central Drugs Standard Control Organization, FDA: Food and Drug Administration, PMA: Premarket Approval, UDI-DI: Unique Device Identification – Device Identifier, CFR: Code of Federal Regulations, MDR: Medical Device Regulation, CDRH: Center for Devices and Radiological Health, PSUR: Periodic Safety Update Report, PMSR: Post Marketing Surveillance Report, CER: Clinical Evaluation Report, PER: Performance Evaluation Report, SaMD: Software as a Medical Device, SiMD: Software in a Medical Device, EUDAMED: European Database on Medical Devices, EU-MDR: European Union Medical Device Regulation 2017/745, IVD: In-Vitro Diagnostics.
| S. No. | Challenges | Problem outcomes | Recommendations |
|---|---|---|---|
| 1 | Lack of sufficient medical equipment | Equipment shortages led to fatalities. | Increase local production capacity. |
| 2 | Need for PPPs | Limited resources and slow growth. | Enhances funding and resource allocation. |
| 3 | Heavy reliance on imports | 70-80% of imports lead to trade deficit, high costs, and supply chain risks. | Boost local medical device manufacturing. |
| 4 | Complex legal terminologies | Complexity can pose a barrier for healthcare professionals and can cause compliance issues | To develop a supportive regulatory library, centralized databases, user-friendly websites, and detailed guidance documents to aid in understanding and interpretation. |
| 5 | Lack of awareness of the adverse event reporting | Underreported issues can lead to safety concerns | Increase training, awareness of reporting among all the stakeholders |
| 6 | Lack of quality benchmark | Inconsistent device standards, quality, and safety can be compromised. | Harmonization with international quality standards. |
| 7 | Gaps in the PMS system | Delays in identifying and addressing safety issues and adverse events. | Need for a centralized surveillance database access for the public. |
| 8 | Lack of a regulatory framework for software-based medical devices | Lack of data protection legislation, at a very nascent stage to regulate SaMDs. | A dedicated regulatory division within the CDSCO to oversee software-based medical devices. |
| 9 | Lack of harmonized standards and guidelines | Lack of alignment can hinder trade and limit global competitiveness. | Needs to be harmonized with the EU and IMDRF framework. |
| 10 | Shortage of qualified regulatory personnel in the MedTech sector | Hampers the commercialization of innovative medical devices, chances of mistakes, and the delay for approval is very high. | Need for industry-academia collaboration, introduction for certification, and degree programs |
| 11 | Challenges in risk-classification | Lead to regulatory oversight, potentially resulting in some devices being excessively regulated while others remain under-regulated. | Need to be harmonized with the international framework and guidelines. |
| 12 | Need for separate IVD legislation | Significant barrier to the growth of the IVD industry in India. | Need for standalone legislation specifically for IVDs. |
| 13 | Cost burden | The cost of regulatory compliance can slow down the industry. | Subsidies, reduced compliance costs. |
| 14 | Delayed regulatory approval process | Delay extends up to 3-4 years, market entry barriers, and loss in product portfolio | Authorities can adopt an AI-driven automation review system and enhance workforce training programs. |
PPPs: Public-Private partnerships; CDSCO: Central Drugs Standard Control Organization; EU: European Union; IMDRF: International Medical Device Regulatory Forum; IVD: In-vitro diagnostics; PMS: Post-Market surveillance; AI: Artificial Intelligence; SaMD: Software as Medical Device

- Analysis of key challenges in the Indian medical devices regulatory framework based on the literature review. PPPs: Public-private partnerships; IVD: In-vitro diagnostics; PMS: Post-market surveillance; SaMD: Software as medical device.
Comparative analysis with the international regulatory framework
Currently, the Indian medical devices market is valued at around $11 billion, placing India at 16th position in the global ranking.11 The Indian medical device sector is in transition from reliance on imports to a possible worldwide manufacturing center for MedTech by 2030. The Indian MedTech market is expected to grow from its present 2023–2024 valuation of US$12 billion to US$50 billion. Within 25 years, the Indian medical device industry’s present 1.65% worldwide market share is anticipated to increase to 10%–12%.
The US is the main market for India’s MedTech exports, which totaled US$3.8 billion in 2023–2024. However, the recent decisions to increase tariffs by President Donald Trump’s administration could make Indian drug & medical devices more expensive in the US market, potentially shrinking exports and forcing the Indian MD & pharma sector to look beyond the US.
An alternative is the free trade agreement (FTA) with the UK & EU, which is being discussed. This might result in zero tariffs on medical devices imported into the EU from India, potentially increasing the competitiveness of Indian products. However, the EU’s demand for zero tariffs on medical products continues to impose stringent regulations that make it challenging for Indian exports to reach EU markets. Under these circumstances, it is obvious that India would negotiate for reciprocity to reach a fair-trade agreement. The EU is still a significant market in 2024, with USD 1.15 billion in imports and USD 580 million in exports.
Indian gadgets’ adoption in important regulated markets is restricted by their non-participation in the Medical Device Single Audit Program (MDSAP). The MDSAP was developed by the IMDRF to streamline the regulatory process for medical device manufacturers and promote consistency among participating regulatory authorities. Through MDSAP, medical device makers can undergo a single audit to ensure compliance with regulatory standards across many markets, including the US, Australia, Brazil, Canada, and Japan. India must review its participation in these global harmonization programs and implement changes, such as pursuing mutual recognition agreements (MRAs) with the regulated markets in line with the ISO (International Organization for Standardization) harmonized norms, to facilitate exports in the EU and other emerging regulated markets.
To improve India’s standing among the elite groups, various research studies and comparative analyses have been conducted to bridge the gaps between developing and developed countries. Accordingly, this section aims to perform a literature review-based comparative analysis of India in relation to the global medical device market leaders, including the USA, the EU, and Japan. A comparative analysis of these four major regulatory jurisdictions has been shown in Figure 3.

- Comparative analysis of regulatory jurisdictions between US, EU, India, and Japan. CDSCO: Central drugs standard control organization; EC: European commission; FDA: Food and drug administration; PMDA: Pharmaceuticals and medical devices agency; SME: Small and medium enterprise.
Sustainable framework
“Safety, efficacy, and security of humans” is the motto of the US Food and Drug Administration (USFDA). The projected revenue in the medical devices market in the USA is set to close at $181 billion in 2024, which is 16 times more than that of India. Despite this significant gap, Pawar et al. 2023,34 provided a supportable context to explain this desperation. The authors highlighted a historical fact that the USFDA was the first regulatory body in the world, established in 1906, with the Medical Device Amendments enacted in 1976. This early start gives the USA a clear first-mover advantage over other countries and organizations in framing a sustainable regulatory framework for medical devices. In contrast, due to colonial exploitation, India’s regulatory framework was established much later. The CDSCO was formed in 1940, and the IMDR was introduced in the year 2017. This 40-year regulatory lag between the two countries accounts for much of the disparity and offers a reasonable explanation for the differences in market size and structure.
Global disparities
Sethi et al. 201741 and Sandeep 201636 drew attention to an interesting and ironic scenario. Although the USA is the market leader and despite having significant global influence, India has aligned its medical devices rules with the EU and IMDRF models, rather than adopting a USFDA-centric approach. The authors believe that this position aligns India strategically to embrace the goals of the GHTF. The GHTF was established in 1992 and was later replaced by the International Medical Devices Regulators Forum (IMDRF) in 2012.
Regulatory structure
Another disparity lies in the regulatory structure. The USFDA is a single agency overseeing the regulation of food, drugs, medical devices, biologics, cosmetics, etc. This centralized system imposes a complex regulatory ecosystem, potentially impacting efficiency. In contrast, India benefits from a more segregated system with dedicated ministries, departments, and authorities to handle various essential products, allowing for better specialization and focus. To further enhance this advantage, India could explore strategies to optimize coordination and communication between these dedicated entities
Divergence in risk classification
Divergence in risk classification systems highlights variations in regulatory stringency, risk perception, and market access requirements across different jurisdictions. The US has the highest import shares in the Indian MedTech market. According to a report by the United States International Trade Commission (USITC), the US exports 70% of medical goods to India, and has 22% of import shares in its medical device market.42 Shristi 2024,21 Chatterjee and Dohan 2021,23 Ganapathy K. 2021,26 Dipika Jain 2022,24 Ramachandran et al. 2023,13 and Suravarapu and Yetukuri 2023,28 underscore that the IMDR does not provide a comprehensive definition for all categories of medical devices. For instance, emerging technologies like software-driven or AI-based devices often lack clear classifications or definitions within the framework. This ambiguity can lead to inconsistent regulatory oversight, potentially resulting in some devices being excessively regulated while others remain under-regulated. Additionally, India adopts a harmonized four-tier risk-based classification system, while the USA employs a three-level risk-based classification system for medical devices, which can pose limitations when it comes to effectively regulating a wide range of medical devices. For example, a non-invasive glucose monitoring device might be Class I in the US, but its classification in India could vary in both Class A and Class B category depending upon the device’s exact features, specifications, safety, and purpose of intended use.
Lack of a harmonized regulatory framework for software-based medical devices
The EU Parliament has recently published the EU AI Act, EU 2024/1689, which aims to provide harmonized legislation for AI.43 Aboy et al. (2024)44 appraise the USFDA’s authorization of over 690 software-based medical devices, emphasizing the growing importance of this technology in healthcare settings.45 Cha KH. 2023,46 briefly discussed that the USFDA has specialized entities such as the Office of Science and Engineering Laboratories (OSEL), and the Division of Imaging, Diagnostics, and Software Reliability (DIDSR), under the Centre for Devices and Radiological Health (CDRH). These dedicated laboratories and divisions regulate high-tech algorithm-based medical technologies, including software, artificial intelligence (AI), deep learning, and machine learning-based medical devices.
Ramachandran et al. 202313 and Hoda MN. 2023,14 pointed out that India still lacks laws for the protection of digital data and remains in the nascent stages of regulating software-based medical devices. The CDSCO has recognized only 60 different types of SaMD-based medical devices, and they are classified into four risk-based categories based on the IMDRF classification.47 This highlights India’s need for a more structured approach to govern emerging technologies effectively.
Economic strain and profitability erosion
The EU medical device market is valued at approximately $167 billion, around 15 times the size of India’s market. However, Markiewicz et al. 2017,48 Carl and Hochmann 2023,49 and Maci et al. 202450 shed light on the challenges faced by these countries, particularly concerning the implementation of the EU MDR. The study revealed that most of the European companies are struggling to implement MDR due to increased workload for technical documentation, higher resource expenditure and costs, and a lack of clarity regarding new requirements. Consequently, many companies are responding by downsizing their product portfolios, leading to potential supply shortages and a loss of competitive advantage within the market. In a nutshell, continuous research and surveys are key to success in the landscape of regulatory affairs. Although India is relatively new to the MedTech market, it’s encouraging to see the rapid growth of this sector. However, it is also essential for the Indian regulators, scientific fraternity, economists, global analysts, and other stakeholders to work collaboratively to identify the gaps, hurdles, and challenges that hinder market growth. As we face revolutionary technologies, expanding markets, and fierce global competition, regulatory authorities must evolve proactively to keep pace with these rapid changes.
Medical device lag
The term medical device lag refers to the significant delays in regulatory approval processes. Amaral et al. 202440 and Maeda H. & NG DB. 202251 highlighted an issue in their study on Japanese regulations for medical devices. Japan accounts for 25% of the global MedTech market share, making it the world’s second-largest medical device market, currently valued at $28.97 billion. The Pharmaceuticals and Medical Devices Agency (PMDA), established in 2004, oversees medical devices and IVDs per the Pharmaceuticals and Medical Devices Act, 2014 (PMD Act).52 Despite having a regulatory framework aligned with the USFDA, Japanese MedTech companies face the persistent issue of delayed regulatory approvals, which can extend up to 3–4 years. These delays place Japan at a disadvantage, even though the country has highly advanced healthcare resources and infrastructure. Additionally, Joshi et al. 202118 and Chandan et al. 2021,12 emphasized that Japan remains a challenging market for foreign medical device companies due to linguistic barriers. The need to communicate with non-English-speaking PMDA authorities creates hurdles in documentation, licensing, marketing, and labelling processes. The requirement for extensive and costly translations further exacerbates this language-regulatory barrier, deterring foreign investors.
In contrast, India did not have an independent act for medical devices till 2018; instead, they have been regulated under the D&C Act of 1940. The new regulations for medical devices in India were released in 2017, which were then amended as Medical Devices (Amendment) Rules, 2020. However, unlike Japan, the IMDR established a crystal timeline for regulatory review and approval, which can extend up to ±120 days. Moreover, India benefits from a linguistic advantage, as English is one of the official government-accepted languages, facilitating easier communication and compliance with foreign regulatory authorities.
DISCUSSION
Lessons from medical device case studies
A unique feature of medical devices is their classification based on risk levels. Regulatory frameworks across all jurisdictions categorize medical devices into a minimum of three and a maximum of four tiers of classification. A comprehensive risk-based classification of medical devices, IVD, and SaMD within the regulatory frameworks of the IMDRF, India, EU, Japan, and the US have been presented in Table 2. However, the fundamental principle for classification remains the same. The classification starts with low-risk medical devices, for which regulatory approvals are relatively easy, as these devices pose minimal risk to the end user’s health. Examples include bandages, cotton wool, and stethoscopes. But, as the level of risk increases, the probability of harm to life rises. Consequently, risk assessment, quality management, and testing protocols become more stringent, clinical or performance evaluation is a mandatory requirement, inspections and post-market surveillance are intensified, and safety measures are reinforced, leading to heightened regulatory oversight.
| Risk-classification | IMDRF | India | EU | Japan | US |
|---|---|---|---|---|---|
| Medical devices | |||||
| Low | A | A | I | General | I |
| Low-Moderate | B | B | IIa | Controlled | II |
| Moderate-High | C | C | IIb | Highly controlled | III |
| High | D | D | III | ||
| In-Vitro Diagnostics | |||||
| Low | A | A | A | I | I |
| Low-Moderate | B | B | B | II | II |
| Moderate-High | C | C | C | III | III |
| High | D | D | D | IV | |
| Software as Medical Devices | |||||
| Low | I | A | I | I | I |
| Low-Moderate | II | B | IIa | II | II |
| Moderate-High | III | C | IIb | III | III |
| High | IV | D | III | IV | |
IMDRF: International Medical Device Regulatory Forum; EU: European Union; US: United States
However, despite stringent regulatory checklists, the following case studies reported by several studies have highlighted the disparities, lapses, inconsistencies, and negligence, which have resulted in serious adverse events (SAEs). According to Rule 3(zq), Chapter I of the IMDR,53 an SAE is defined as an untoward medical occurrence that leads to death or a serious deterioration in the subject’s health, which can result in:
-
i.
Life-threatening illness or injury;
-
ii.
Permanent impairment of a body structure or a body function;
-
iii.
In-patient hospitalization or prolongation of existing hospitalization;
-
iv.
Medical or surgical intervention to prevent life-threatening illness or injury or permanent impairment to a body structure or a body function; or
-
v.
Fetal distress, fetal death, or a congenital abnormality, or birth defect.
Medical device callouts, while crucial for patient safety, could have immediate setbacks, including delays in treatment, financial burden to patients, and increased scrutiny from regulatory agencies, but enable preventative actions to keep patients safe. By identifying design, manufacturing, or usage flaws, data analysis aids in better product development and testing procedures. To make sure that the rules are adjusted and that the devices are continuously enhanced for safety and efficacy, the medical device industry and regulatory bodies can learn a lot from these investigations and evaluate and update procedures.
Major serious adverse events in medical devices
India
Menon 2024,54 highlighted that one of the most significant SAEs in India was the 2010 recall of Johnson & Johnson’s ASR hip implant, which adversely affected 4,700 patients in India and over 93,000 globally, serving as a wake-up call for regulators.55-56 The ASR implants were metal-on-metal bearing implants that generate debris from wear, leading to component loosening, malalignment, infection, dislocation, metal sensitivity, and pain, and the need for revision surgeries within 5 years. The company acknowledged that the device had a 12% revision rate within five years of implantation, but internal documentation later revealed that the company knew of a 37% revision rate within less than 5 years of implantation. The incident highlighted the dire need for stringent regulatory oversight and acted as a catalyst for the comprehensive development of the IMDR. Nonetheless, the Medical Devices Rules of 2017 must include the creation of centralized patient registries and the bolstering of India’s Materiovigilance Program to track adverse occurrences, with initiatives on enhanced cooperation with global regulatory bodies.
In addition, Mewada et al. 2025,57 reported 2,075 cases of total cardiac stents-related SAEs. The study further underlines those patients with multiple stents face a significantly higher risk of life-threatening complications, including death.
Japan
The Pharmaceuticals and Medical Devices Agency (PMDA) has well-structured databases and robust systems for post-marketing safety measures and medical device recalls. However, the country is facing serious issues related to the underreporting of adverse events. Gagliardi et al. 2018,58 highlighted that cardiovascular-related SAEs account for 9.2% of Class 1 cases out of the total adverse events. However, 51% of the SAE cases were not reported by the industry to the PMDA within the mandatory 15-day timeframe, and 10.9% of cases were reported to healthcare providers only after 15 to 30 days, despite the regulatory requirement for timely reporting. These unreported SAEs raise significant concerns about the lack of awareness of regulatory frameworks among Japanese healthcare stakeholders. To address these gaps, the authors strongly advocate for spreading awareness through global collaboration, continuous workshops, panel discussions, and training programs aimed at educating healthcare stakeholders to effectively participate in materiovigilance efforts.
United States
Despite being known for its world-class and stringent regulatory framework, the United States has also experienced multiple serious Class I recalls.
-
Medtronic Implantable Cardioverter Defibrillators (ICDs) and Cardiac Resynchronization Therapy Defibrillators (CRT-Ds) were recalled due to 28 incidents and 22 serious injuries.59
-
InfuTronix Nimbus and Nimbus II Infusion Pump Systems (February 2024) – The recall was triggered due to multiple potential failure modes, including battery failure, upstream blockage (occlusion), system errors, drug product leakage, high or low flow rates, and damaged housing. This SAE led to 3,698 complaints, 6 serious injuries, and 1 death.60
-
Abbott HeartMate II and HeartMate 3 Left Ventricular Assist System (LVAS) (May 2024) – The recall was issued due to extrinsic outflow graft obstruction, caused by biological material build-up in the HeartMate outflow graft. This led to 273 reported injuries and 14 deaths.61
European Union
Even devices developed by renowned companies, backed by strong research publications, approved by top-tier regulators, and promising a better quality of life have resulted in severe consequences.
-
Abbott MitraClip® Delivery System – Giordano et al. 2018,62 examined this Class I recall approved under Class IIB (high risk) for patients with severe symptomatic mitral insufficiency, passed all European regulatory requirements, carried the CE mark, and was approved by the European Commission, European Association of Cardiac Surgery, and the European Society of Cardiology. However, a critical clip detachment failure occurred during a percutaneous mitral valve repair procedure, leading to patient death.
The case studies of SAEs across different jurisdictions underscore the urgent need for a globally harmonized regulatory framework for medical devices. While individual regulatory agencies like the CDSCO, PMDA, USFDA, and EU have established stringent frameworks, however, inconsistencies in adverse events reporting, delays in recalls, and lapses in regulatory oversight highlight the necessity for a unified approach to medical device safety. These cases raise numerous questions regarding the value of human life, patient safety, product quality, clinical evidence reliability, and public trust in regulatory authorities. These incidents highlight the need for a more robust system, a reliable framework, and reproducible safety outcomes to prevent future SAEs and ensure public health.
One world, one forum
India has given the motto of “One Earth, One Family, One Future” at its G20 summit of 2023. The MedTech sector also needs this global collaborative approach to ensure its performance, safety, and quality. The concept of “One World, One Forum” provides a globally unified platform to promote safety, ensure accessibility, improve traceability, and secure vulnerability. Here are some strategic eight suggestions for enhancing the international medical device regulatory framework.
One world, one framework
A standardized regulatory framework should be developed to harmonize medical device laws, standards, and compliance requirements worldwide. By aligning with existing global frameworks like IMDRF and World Health Organization (WHO) guidance, this initiative will reduce inconsistencies, enhance patient safety, accelerate approvals, and standardize audit procedures and inspections across regulatory agencies. This will improve trade and reduce regulatory costs for manufacturers. Implementation will require international collaboration to create a universally accepted regulatory framework, standards, and guidelines.
One world, one certification
The CE (Conformité Européenne) mark signifies the proof of product conformity assessment as per the EU legislation, which is well accepted among all 27 nations of the EU. Similarly, a globally recognized certification system should be introduced to validate medical devices for multiple jurisdictions through a single approval process. This will eliminate redundant regulatory approvals, allowing manufacturers to access global markets more efficiently. Implementation will involve mutual recognition agreements among the regulatory bodies and the adoption of common safety and performance standards.
One world, one labeling standard
The IMDRF has established harmonized principles for labeling for medical devices and IVDs,63 which ensures consistency in product information, safety warnings, and instructions for end users. A single labeling format will prevent misinterpretation, improve patient safety, and reduce manufacturing costs.
One world, one registration system
A unified medical device registration database should be created, allowing companies to submit product details once for approval across multiple countries. This system will streamline market entry, reducing administrative and cost burdens. Implementation will require regulatory authorities to integrate their existing databases and adopt interoperable digital solutions.
One world, one surveillance system
A unified materiovigilance network should be developed to track the lifecycle, performance, and adverse events of medical devices. This system will enhance real-time data sharing and monitoring across regulatory agencies, ensuring transparency and prompt assessment, and spreading awareness of global adverse event reporting among all stakeholders. Implementation will involve cooperation, data-sharing agreements, and investment in advanced materiovigilance infrastructure.
One world, one clinical trial network
A harmonized clinical investigation and performance evaluation framework should be established to facilitate cross-border clinical studies and accelerate medical device approvals. This will enhance research quality, promote intellectual property rights, reduce duplication, and facilitate innovation. Implementation will require the alignment of ethical guidelines, regulatory approvals, and patient safety protocols across jurisdictions.
One world, one digital health standard
A global standard should be developed for regulating software-based medical devices, digital therapeutics, and telemedicine solutions. This will ensure interoperability, security, and patient data protection.
One world, one training standard
Regulatory affairs (RA) is a specialized domain requiring expertise in extensive documentation, collaboration with technical teams to gather data, and a thorough understanding of relevant regulations, amendments, and procedures. Qualified RA professionals play a crucial role in ensuring that products remain compliant with evolving market regulations. The whole MedTech fraternity is lacking these professionals, consultants, and firms. This shortage hampers the commercialization of innovative medical devices, as manufacturers often lack access to essential resources to navigate the regulatory approval process. A globally accepted regulatory training program should be introduced for RA professionals to support manufacturers, innovators, and inventors. Standardized education and academic curriculums for postgraduate specializations or diploma programs focusing on medical device regulatory affairs could help to bridge this gap, producing a larger pool of skilled professionals to meet industry demands.
WAY FORWARD
The medical devices sector is supported by four fundamental pillars: safety, performance, reproducibility, and availability. These pillars ensure that medical devices are effective, reliable, and accessible for patient care and end users. They also form the foundation for regulatory compliance, innovation, and market acceptance. Medical devices are the most emerging technology and serve as a promising face of the modern healthcare system. However, the diversity in regulatory frameworks across the globe presents a significant challenge for a promising future in the growth and harmonization of the MedTech sector. Over the past few decades, the medical device industry has faced stagnation, leading to a narrow expansion in developed and developing countries. The comparative analysis of these regions underscores the urgent need for a unified framework, International Corporation, industry-academia collaboration, and public-private partnerships to ensure the sustainable growth and development of the MedTech sector. Furthermore, this article also provides an extensive analysis of case studies related to the Class 1 SAEs of medical devices. These case studies offer valuable lessons for regulatory authorities, policymakers, and enforcement bodies, emphasizing the need to prioritize consumer safety and security.
The article recommends the “One World, One Forum” approach as a promising solution to achieving consistency in healthcare services, practices, and quality and safety benchmarks. Such an approach would simplify regulatory processes on a global scale and build confidence and trust among consumers in the medical devices they purchase or use. Additionally, the article emphasizes the importance of international collaboration and harmonization efforts to align global regulatory frameworks, thereby putting all medical devices under one common umbrella.
The CDSCO has already taken a significant step in this direction by becoming an affiliated member of the International Medical Device Regulators Forum (IMDRF).64 The IMDR provides a strong foundation for medical devices and IVD regulation, offering a harmonized approach that has been adopted across various regulatory jurisdictions. However, further advancements are necessary to enhance top-notch quality and PMS benchmarks, promote ease of compliance, overcome import dependency, facilitate manufacturing and export capabilities, and establish a central safety database accessible to the public. By aligning its regulations with international standards, India can improve its business ecosystem, support SMEs, attract foreign investment, position itself as a global leader in the MedTech industry, and contribute to overall public health advancements.
CONCLUSION
The global medical device regulatory landscape faces challenges due to fragmented frameworks, inconsistent classifications, and trade barriers. The “One World, One Forum” approach aims to establish a unified regulatory system that enhances patient safety, streamlines approvals, reduces compliance costs, and promotes global trade. Expanding IMDRF, aligning national regulations with international standards, and implementing a strong materiovigilance network are crucial steps. Harmonization will not only drive innovation and economic growth but also ensure equitable access to safe and effective healthcare solutions. A globally coordinated regulatory framework is the key to strengthening MedTech governance and improving public health outcomes.
Author contribution
HS: (Conceptualization-Equal, Formal analysis-Equal, Methodology-Equal, Writing—original draft-Equal, Writing—review & editing-Equal); VL: (Methodology-Equal, Writing—review & editing-Equal, Supervision-Equal); DS: (Methodology-Equal, Writing—original draft-Equal, Supervision-Equal), and VMS: (Supervision-Equal, Writing—original draft-Equal, Writing—original draft-Equal).
All declarations by the authors are correct and validated.
Ethical approval
Institutional Review Board approval is not required.
Declaration of patient consent
Patient’s consent not required as there are no patients in this study.
Financial support and sponsorship
Nil.
Conflicts of interest
There are no conflicts of interest.
Use of artificial intelligence (AI)-assisted technology for manuscript preparation
The authors confirm that there was no use of Artificial Intelligence (AI)-Assisted Technology for assisting in the writing or editing of the manuscript and no images were manipulated using AI.
References
- International medical device regulators forum (IMDRF). GHTF archives; 1992. Available from: https://www.imdrf.org/ghtf [Last accessed on 26 Feb 2025].
- Indian medical device sector: Insights from patent filing trends. BMJ Innov. 2017;3:167-75.
- [CrossRef] [Google Scholar]
- India brand equity foundation. Medical devices industry in India. 2024. Available from: https://www.ibef.org/industry/medical-devices [Last accessed on 6 Jan 2025].
- Medical buyer. India’s exports of medical devices. 2023. Available from: https://www.medicalbuyer.co.in/indias-exports-of-medical-devices-up-by-17/ [Last accessed on 6 Jan 2025].
- Fortune business insights. Medical devices industry analysis; 2025. Available from: https://www.fortunebusinessinsights.com/industry-reports/medical-devices-market-100085 [Last accessed on 28 Feb 2025].
- A review of medical device regulations in India, comparison with European Union and way-ahead. Perspect Clin Res. 2022;13:3-11.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- University of Pennsylvania. International Relations. 2025. https://guides.library.upenn.edu/c.php?g=1274605&p=9481230#:∼:text=There%20are%20more%20than%20300,Permanent%20Offices%20at%20UN%20Headquarters [Last accessed on 26 Feb 2025].
- Medical device regulation in India: What dermatologists need to know. Indian J Dermatol Venereol Leprol. 2019;85:133-7.
- [CrossRef] [PubMed] [Google Scholar]
- Terror of 10 MB, a cross-sectional study investigates the regulation to the prospective of medical device. J Adv Pharm Technol Res. 2020;11:89-94.
- [CrossRef] [PubMed] [Google Scholar]
- Most influential countries in the international medical device trade: Network-based analysis. Physica A. 2022;604:127889.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- B. V. C, Venkatesh MP, M. A, Krishna PD, S. I. Comparison of medical device regulations in India, Japan and South Korea. JPRI 2021:8-23.
- [Google Scholar]
- Ramachandran A, Malhotra P, Soni D. Current Regulatory Landscape of Software as Medical Device in India: Framework for Way Forward. 2023 10th International Conference on Computing for Sustainable Global Development (INDIACom), New Delhi, India, 2023, pp. 305-310.
- Hoda MN. Proceedings of the 17th INDIACom; 2023 10th International conference on computing for sustainable global development (INDIACom): (15-17 March 2023). India-Com; 2023.
- Factors influencing the reporting of adverse medical device events: Qualitative interviews with physicians about higher risk implantable devices. BMJ Qual Saf. 2018;27:190-8.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- Materiovigilance: An Indian perspective. Perspect Clin Res. 2018;9:175-8.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- Materiovigilance: Concept, structure and emerging perspective for patient’s safety in India. Drug Res (Stuttg). 2020;70:429-36.
- [CrossRef] [PubMed] [Google Scholar]
- A global comparison of implementation and effectiveness of materiovigilance program: Overview of regulations. Environ Sci Pollut Res Int. 2021;28:59608-29.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- Awareness, attitude, and practice of materiovigilance among medical professionals at a tertiary care institute of national importance: A cross-sectional study. Perspect Clin Res. 2022;13:94-8.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- “Navigating the landscape of medical device failures: Challenges, regulations, and materiovigilance”. J Pharmacovigilance & Drug Saf. 2023;20:13-19.
- [PubMed] [Google Scholar]
- Understanding medical device regulations in India: A guide to regulatory compliance. Legal service India.. 2024;17890
- [Google Scholar]
- Development of a comprehensive regulatory model for medical devices. BIO Integration.. 2024;5:972.
- [CrossRef] [Google Scholar]
- Artificial intelligence for healthcare in India. Policy initiatives, challenges, and recommendations. Int J Healthc Inf Syst Inform. 2021;16:1-11.
- [Google Scholar]
- Regulation of digital healthcare in India: Ethical and legal challenges. Healthcare (Basel). 2023;11:911.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- Digital health: Trends, opportunities and challenges in medical devices, pharma and bio-technology. CSIT. 2023;11:11-30.
- [CrossRef] [Google Scholar]
- Artificial intelligence and healthcare regulatory and legal concerns. Telehealth and Medicine Today. 2021;6 Available at: https://doi.org/10.30953/tmt.v6.252
- [CrossRef] [Google Scholar]
- The potential for artificial intelligence in healthcare. Future Healthc J. 2019;6:94-8.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- Software programmes employed as medical devices. World J Curr Med Pharm Res 2023:67-74.
- [CrossRef] [Google Scholar]
- Sella Senthil. Harmonized technical guidance to industry and regulatory authorities for premarket and post market phase of medical devices, main focus towards in-vitro diagnostic medical devices (IVD). Doctor of philosophy (Ph.D.) Thesis. JSS Academy of Higher Education Research; 2022.
- In-vitro diagnostics (IVDs) innovations for resource-poor settings: The Indian experience. Afr J Science, Technology, Innovation Dev. 2017;9:617-36.
- [Google Scholar]
- New approaches to learning and regulation in medical devices and diagnostics: Insights from Indian cancer care. Innovation and Development. 2023;13:361-84.
- [CrossRef] [Google Scholar]
- A comparative study of medical device regulation between countries based on their economies. Expert Rev Med Devices 2024:1-12.
- [CrossRef] [Google Scholar]
- Regulatory approval process for advanced dressings in India: An overview of rules. J Wound Care. 2019;28:S32-4.
- [CrossRef] [PubMed] [Google Scholar]
- A Review on approval process and regulation of medical devices as per US FDA and CDSCO. Int J Drug Reg Affairs. 2023;11:61-70.
- [CrossRef] [Google Scholar]
- Evolving regulatory landscape: A review of the Indian medical device rules 2017 and amendments. Multidisciplinary Int Res J Gujarat Technological Univ. 2024;6(1)
- [Google Scholar]
- Medical device regulations: A current perspective. J Young Pharm. 2015;8:06-11.
- [CrossRef] [Google Scholar]
- Achieving health equity through healthcare technology: Perspective from India. J Family Med Prim Care. 2023;12:1814-7.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- FDA-approved artificial intelligence and machine learning (AI/ML)-enabled medical devices: An updated landscape. Electronics. 2024;13:498.
- [CrossRef] [Google Scholar]
- Integration of cutting-edge technologies such as internet of things (IoT) and 5G in health monitoring systems: A comprehensive legal analysis and futuristic outcomes. glslawjournal. 2023;6:13-20.
- [Google Scholar]
- Global regulatory challenges for medical devices: Impact on innovation and market access. Appl Sci. 2024;14:9304.
- [CrossRef] [Google Scholar]
- Medical Devices Regulation in United States of America, European Union and India: A Comparative Study. Pharmaceut Reg Affairs. 2017;06
- [CrossRef] [Google Scholar]
- Mihir Torsekar. U.S.-India Trade Tensions and Medical Devices. 2019. Available from: https://www.usitc.gov/publications/332/executive_briefings/ebot_mihir_torsekar_india_medical_devices_pdf.pdf [Last accessed on 7 Feb 2025].
- The European parliament and the council of the European Union. Regulation (EU) 2024/1689: EU artificial intelligence (AI) Act.; 2024:144. https://eur-lex.europa.eu/legal-content/EN/TXT/PDF/?uri=OJ:L_202401689. [last accessed on 7 Feb 2025]
- Navigating the EU AI Act: Implications for regulated digital medical products. NPJ Digit Med. 2024;7:237.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- USFDA. Artificial intelligence and machine learning (AI/ML)-Enabled medical devices. 2024. Available from: https://www.fda.gov/medical-devices/software-medical-device-samd/artificial-intelligence-and-machine-learning-aiml-enabled-medical-devices [Last accessed on 7 Feb 2025].
- Cha KH. Software as a medical device (SaMD) at the FDA: Regulatory science and review. In: Proceedings - 2023 IEEE John Vincent Atanasoff Symposium on Modern Computing, JVA 2023. Institute of Electrical and Electronics Engineers Inc.; 2023:71-74.
- Drug controller general (India). Classification of medical device pertaining to software under the provisions of medical devices rules, 2017. FDA Bhawan, New Delhi; 2021. Available at: https://cdsco.gov.in/opencms/resources/UploadCDSCOWeb/2018/UploadPublic_NoticesFiles/Software.pdf
- Early assessment of medical devices in development for company decision making: An exploration of best practices. J Commer Biotechnol. 2017;23:15-30. Available at: http://doi.org/10.5912/jcb780
- [CrossRef] [Google Scholar]
- Impact of the new European medical device regulation: A two-year comparison. Biomed Tech (Berl). 2023;69:317-26.
- [CrossRef] [PubMed] [Google Scholar]
- Medical device regulation and its impact on the industry: A case study of Czech companies. E+M. 2024;27:32-49.
- [CrossRef] [PubMed] [Google Scholar]
- Regulatory approval with real-world data from regulatory science perspective in Japan. Front Med (Lausanne). 2022;9:864960.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- A study of medical device regulation management model in Asia. Expert Rev Med Devices. 2016;13:533-43.
- [CrossRef] [PubMed] [Google Scholar]
- Medical devices rules 2017. Chapter 1, Rule 3(Zq):Serious adverse events. 2017. Available at: https://cdsco.gov.in/opencms/resources/UploadCDSCOWeb/2022/m_device/Medical%20Devices%20Rules,%202017.pdf
- Regulatory gaps in India’s medical device framework: The case of Johnson and Johnson’s faulty hip implants. World J Orthop. 2024;15:1124-3.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- Central drugs standard control organisation (CDSCO). Report of the expert committee to address the issue of faulty ASR hip implants. 2018. Available from: https://cdsco.gov.in/opencms/opencms/system/modules/CDSCO.WEB/elements/common_download.jsp?num_id_pk=ODQ0 [Last accessed on 21 Jan 2025].
- Press information bureau G of IM of H and FW. Health ministry approves compensation formula for hip implant cases. 2018. Available from: https://pib.gov.in/Pressreleaseshare.aspx?PRID=1554266 [Last accessed on 21 Jan 2025].
- A retrospective study of reported adverse events associated with cardiac stents in Indian population. Expert Rev Med Devices. 2025;22:149-53.
- [CrossRef] [PubMed] [Google Scholar]
- Factors influencing the reporting of adverse medical device events: Qualitative interviews with physicians about higher risk implantable devices. BMJ Qual Saf. 2018;27:190-8.
- [CrossRef] [PubMed] [PubMed Central] [Google Scholar]
- US food drug administration (USFDA). Medtronic recalls implantable cardioverter defibrillators (ICDs) and cardiac resynchronization therapy defibrillators (CRT-Ds) with glassed feedthrough for risk of low or no energy output during high voltage therapy. 2023. Available from: https://www.fda.gov/medical-devices/medical-device-recalls/medtronic-recalls-implantable-cardioverter-defibrillators-icds-and-cardiac-resynchronization-therapy#:∼:text=Medical%20Device%20Recalls-,Medtronic%20Recalls%20Implantable%20Cardioverter%20Defibrillators%20(ICDs)%20and%20Cardiac%20Resynchronization%20Therapy,Output%20During%20High%20Voltage%20Therapy&text=The%20FDA%20has%20identified%20this,cause%20serious%20injuries%20or%20death [Last accessed on 24 Feb 2025].
- US food drug administration. InfuTronix, LLC Recalls Nimbus and Nimbus II infusion pump systems for multiple device failures that may cause severe injury and death. 2024. Available from: https://www.fda.gov/medical-devices/medical-device-recalls/infutronix-llc-recalls-nimbus-and-nimbus-ii-infusion-pump-systems-multiple-device-failures-may-cause [Last accessed on 25 Feb 2025].
- US food drug administration (USFDA). Abbott/Thoratec Corp. Recalls HeartMate II and HeartMate 3 Left Ventricular Assist System (LVAS) Due to Long-Term Buildup Causing an Obstruction. 2024. Available from: https://www.fda.gov/medical-devices/medical-device-recalls/abbottthoratec-corp-recalls-heartmate-ii-and-heartmate-3-left-ventricular-assist-system-lvas-due [Last accessed on 24 Feb 2025].
- On a defective Mitraclip® system: Considerations on the medical device regulation in Europe. Monaldi Arch Chest Dis. 2018;88:901.
- [CrossRef] [PubMed] [Google Scholar]
- Jeffrey Shuren. Principles of Labeling for Medical Devices and IVD Medical Devices. 2024. Available from: https://www.imdrf.org/sites/default/files/2024-04/IMDRF%20GRRP%20WG%20N52%20%28Edition%202%29.pdf [Last accessed on 22 Feb 2025].
- Press Information Bureau of India. Central drugs standard control organization under ministry of health family welfare becomes affiliate member of the international medical device regulators forum. 2024. Available from: https://pib.gov.in/PressReleasePage.aspx?PRID=2061397 [Last accessed on 26 Feb 2025].

