The Evolving Framework Of Biotechnology Law - A Global Regulatory Perspective
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THE EVOLVING FRAMEWORK OF BIOTECHNOLOGY
LAW: A GLOBAL REGULATORY PERSPECTIVE
Saisha Sinha, LLM, Damodaram Sanjivayya National Law University
ABSTRACT
Biotechnology represents one of the most dynamic and transformative domains of modern science, influencing health, agriculture, environment, and industry. Its integration with law has created a complex regulatory landscape involving patentability, ethical governance, biosafety, and international compliance. This paper examines the evolving framework of biotechnology laws through legal research, case analysis, and policy evaluation. By analysing landmark judgments like Diamond v. Chakrabarty and Monsanto Technology LLC v. Nuziveedu Seeds Ltd. , it highlights the challenges in balancing innovation with public welfare, intellectual property rights, and ethical constraints. The paper concludes with recommendations for harmonized global regulations and sustainable legal development.
Keywords: Biotechnology Law, Intellectual Property Rights (IPR) in Biotechnology, Bioethics and Genetic Privacy, Regulation of Genetically Modified Organisms (GMOs), Patentability of Life Forms.
Objectives of Legal Research: Legal research in the field of biotechnology pursues the following objectives:
1. To study existing legal frameworks regulating biotechnology.
2. To identify gaps, ambiguities, and jurisdictional overlaps in current laws.
3. To assess the ethical, intellectual property, and environmental dimensions of
biotechnology.
4. To propose policy and legal reforms ensuring sustainable and equitable biotechnology
development. Introduction: Biotechnology stands at the crossroads of science and innovation, merging biological understanding with technological advancement to transform critical sectors such as healthcare, agriculture, pharmaceuticals, and environmental management. Yet, with every breakthrough comes a parallel rise in legal and ethical complexities that demand thoughtful and vigilant regulation. The field known as Biotech Law encompasses a wide spectrum of statutes, regulations, international agreements, and judicial decisions that collectively shape how biotechnology is researched, developed, commercialized, and applied. At its core, this body of law seeks to strike a delicate balance fostering innovation while safeguarding public health, ensuring ethical integrity, protecting intellectual property, and mitigating environmental risks.
Legal research in this evolving area requires more than a surface understanding of the rules; it demands a deep engagement with diverse legal systems and scientific contexts. Scholars and practitioners must navigate the overlapping jurisdictions of regulatory bodies such as the FDA, USDA and EPA in the United States analyse landmark judgments and stay alert to legislative changes that continuously redefine the field. As biotechnology progresses at an unprecedented pace, the legal frameworks surrounding it must evolve accordingly remaining adaptive and forward-looking, yet grounded in the enduring principles of justice, ethics, and social responsibility.
Comprehensive Scope of Biotechnology Laws: The scope of biotechnology laws is remarkably vast, extending across a wide range of applications that reshape biological processes and redefine innovation in multiple sectors. In healthcare and medicine, these laws regulate complex areas such as gene editing through CRISPR technology, cloning, and stem cell research, ensuring that advancements in medical science adhere to ethical standards and patient safety norms. They also govern clinical trials and protect patient privacy through frameworks like the Health Insurance Portability and Accountability Act,1996 (HIPAA). In agriculture and food production, biotechnology laws oversee the regulation of genetically modified (GM) crops, the approval of biofertilizers and biopesticides, and the labelling of biotech-derived food products to ensure transparency and consumer choice.
Biosafety protocols for field trials further safeguard ecosystems from unintended genetic contamination. Within the pharmaceutical sector, legal frameworks guide the protection of biopharmaceutical patents, outline approval pathways for biosimilars and biologics, and regulate every stage of drug discovery and development, from licensing to intellectual property enforcement1. Finally, in the realm of environment and sustainability, biotechnology laws address environmental concerns through the regulation of waste treatment and bioremediation practices, oversight of biofuels and renewable bioenergy sources, and the protection of biodiversity under access and benefit-sharing principles. Collectively, this expansive legal landscape reflects the dual imperative of fostering scientific innovation while ensuring that biotechnology serves humanity responsibly and sustainably2.
Key Legal Issues in Biotechnology: Biotechnology, though celebrated for its immense potential to reshape medicine, agriculture, and the environment, introduces a series of complex legal dilemmas that test the adaptability 1 Trump, Benjamin et al. , Governing Biotechnology to Provide Safety and Security and Address Ethical, Legal, and Social Implications, Front. Genet. 1052371 (2023), https://www. ncbi. nlm. nih. gov/pmc/articles/PMC9873990 (last visited Nov. 13, 2025). 2 Durga Prasad Mindala et al. , Regulations for Health Care Biotechnology Products in Major Markets of the World, in Biotechnology Business – Concept to Delivery 131 (Arpita Saxena ed. , Springer 2020) (DOI:10. 1007/978-3-030-36130-3_7 (last visited Nov. 13, 2025).
and moral compass of modern legal systems. These challenges do not exist in isolation—they are deeply intertwined with questions of ownership, accountability, and humanity’s relationship with nature itself. One of the most debated and enduring issues concerns the patentability of life forms and genetic material. Can elements of nature such as genes, microorganisms, or biological processes be owned or monopolized? Legal systems around the world continue to wrestle with this question. While patent laws aim to encourage innovation by rewarding inventors, the idea of patenting living organisms raises ethical unease and philosophical questions about whether life should ever be subject to private ownership. Courts have often struggled to determine where innovation ends and where nature begins.
For instance, defining whether a gene sequence or a modified cell line constitutes an “invention” or merely a “discovery” has significant implications for scientific progress, access to healthcare, and global equity. Closely linked to this are the ethical and privacy concerns that accompany genetic technologies. With the rise of genomic databases and DNA-based diagnostics, questions of consent, confidentiality, and misuse of personal genetic data have become increasingly urgent. There is a growing fear that genetic information, if inadequately regulated, could lead to discrimination, stigmatization, or even genetic surveillance. Ethical frameworks must therefore evolve to protect human dignity while allowing legitimate scientific inquiry to thrive3. The commercialization and licensing of biotechnological innovations add another layer of complexity.
Biotechnology is an inherently global enterprise research may take place in one country, clinical testing in another, and commercialization across multiple markets. This crossborder nature often leads to conflicts of jurisdiction, enforcement challenges, and disparities in intellectual property protection. Smaller research entities or developing countries can find themselves at a disadvantage when negotiating licenses or accessing essential biotechnologies, further widening the global innovation gap. Equally significant are the issues of biosafety and biosecurity, which aim to prevent biotechnology from causing environmental or public health harm.
Laboratory containment standards, field trial regulations, and risk assessment mechanisms are essential to ensure that 3 European Group on Ethics in Science and New Technologies, Opinion on Ethical Questions Arising from the Commission Proposal for a Council Directive on the Legal Protection for Biotechnological Inventions (Sept. 30, 1993), available at https://www. capurro. de/ege. html (last visited Nov. 13, 2025).
genetically modified organisms (GMOs) or experimental pathogens do not escape into ecosystems or threaten biodiversity. The global community must also contend with the darker side of scientific advancement dual-use research, where biotechnological knowledge intended for peaceful purposes could be misused for harmful or even bioterrorist activities. The emergence of cutting-edge technologies like CRISPR gene editing, synthetic biology, and AI-driven genomics further complicates the legal landscape. These tools challenge traditional definitions of what it means to “create” or “modify” life. They blur boundaries between the natural and the artificial, between human intention and algorithmic design. Lawmakers now face the urgent task of determining how existing intellectual property, safety, and ethical frameworks can adapt to technologies that evolve faster than regulation itself 4.
Ultimately, the central challenge of biotechnology law is one of balance how to protect human and environmental well-being without stifling discovery. It demands a legal framework that is both principled and pragmatic: one that promotes innovation while upholding ethical integrity, ensures accountability without hindering research, and prioritizes public welfare alongside commercial interest. As biotechnology continues to advance, the law must not merely react it must anticipate, guide, and humanize the trajectory of scientific progress. Key Regulatory Authorities in India: India’s legal framework for biotechnology is built upon a series of interlinked legislative acts that together promote innovation while safeguarding ethical, environmental, and public health interests.
The Biological Diversity Act, 2002 serves as a cornerstone, ensuring the conservation of biodiversity and equitable sharing of benefits arising from the use of genetic resources. The Patents Act, 1970 (as amended in 2005) plays a pivotal role in regulating intellectual property rights, balancing incentives for inventors with accessibility for the public particularly significant in sectors like pharmaceuticals and agricultural biotechnology. Complementing these are the Environment Protection Act, 1986, which provides the overarching framework for biosafety and environmental monitoring of genetically modified organisms (GMOs), and the Drugs and Cosmetics Act, 1940, which governs the approval, safety, and quality control of biopharmaceuticals and genetically engineered drugs. 4 World Intellectual Property Organization, A Primer on Technology Transfer in the Field of Biotechnology – Ch.
5: Role of Intellectual Property in Biotechnology Commercialization (2017), https://www. wipo. int/webpublications/a-primer-on-technology-transfer-in-the-field-of-biotechnology/en/5-role-of-intellectual-propertyin-biotechnology-commercialization. html (last visited Nov. 13, 2025).
Additionally, the GMO Rules, 1989, formulated under the Environment Protection Act, specifically regulate the manufacture, import, use, and release of genetically engineered organisms to ensure biosafety. Collectively, these legislative instruments reflect India’s commitment to balancing technological advancement with ecological integrity, ethical responsibility, and public welfare. Case Laws: • Diamond V. Chakrabarty5: held that a human-made, genetically engineered microorganism is patentable under Section 101 of the U. S. Patent Act. The Court ruled (5:4 majority) that since the bacterium was a product of human ingenuity and not naturally occurring, it qualified as patentable subject matter. Chief Justice Burger emphasized that U. S.
patent law is broad and inclusive, covering "anything under the sun that is made by man," and that the terms “manufacture” and “composition of matter” include living things if they are human-made. • Monsanto Technology Llc V. Nuziveedu Seeds Ltd6: The Monsanto Bt Cotton case clarified the limits of patent protection in agricultural biotechnology. The key questions were whether the Bt gene and the GM cotton plant could be patented, how Section 3(j) restricts patents on plants and seeds, how the Patents Act interacts with the PPVFR Act, and whether Monsanto could enforce licensing terms if its patent was not valid. The Court held that the Bt gene construct, as a DNA sequence, may be patentable if it meets the standards of an invention, but once inserted into a plant, the resulting seed or plant variety cannot be patented because Section 3(j) bars such protection.
Instead, plant varieties fall under the Protection of Plant Varieties and Farmer’s Act (PPVFR Act), which safeguards farmers’ rights. The Court did not rule on the patent’s ultimate validity but stressed that biotechnology disputes must respect both patent law and plant variety law. The judgment strikes a balance between rewarding innovation and protecting farmers’ rights, reaffirming India’s commitment to food security, biodiversity, and public interest. It now serves as an important precedent for future GMO and agri-tech patent disputes.
5 Diamond v. Chakrabarty, 447 U.S. 303 (1980).
6 Monsanto Technology LLC v. Nuziveedu Seeds Ltd., (2019) 3 SCC 381 (India).
Ethical and Social Dimensions: Beyond statutes and enforcement mechanisms, biotechnology law is deeply shaped by ethical and social considerations. These dimensions are critical in ensuring that scientific progress aligns with societal values and human rights rather than undermining them. At the heart of biotechnology ethics lies the principle of human dignity. Advances in germline editing, reproductive cloning, and genetic enhancement raise profound moral questions about the sanctity of human life and the boundaries of scientific intervention. Legal systems must carefully navigate these issues to prevent misuse and maintain respect for personhood and moral autonomy. Genetic privacy and data security form another crucial pillar. The explosion of genomic databases and DNA testing services has created unprecedented opportunities for research and diagnosis but also for misuse.
There is growing concern over unauthorized access, potential discrimination by employers or insurers, and the commodification of genetic data. Laws such as HIPAA and specialized genetic privacy legislation aim to protect individuals by regulating the collection, storage, and disclosure of genetic information. Equity and access represent yet another pressing challenge. Despite ground breaking scientific achievements, the benefits of biotechnology especially in the pharmaceutical and healthcare sectors are often concentrated among wealthier nations and populations. The ongoing debate over “access to medicines” underscores the moral responsibility of states and corporations to ensure that essential biotechnological innovations are affordable and globally accessible.
In the context of agriculture, similar debates revolve around farmers’ rights to save and reuse genetically modified seeds without facing punitive patent restrictions. These ethical considerations profoundly influence legal and policy development. They have led to specific prohibitions, such as bans on reproductive cloning, and to the establishment of stringent oversight mechanisms like Institutional Review Boards (IRBs) for research involving human subjects. Ultimately, the law does not merely regulate biotechnology it reflects society’s collective conscience about how far humanity should go in reshaping life itself. Emerging Challenges and Future Directions: Biotechnology today stands at an extraordinary crossroads. Scientific progress is advancing
faster than ever before, often outpacing the ability of laws and ethics to keep up. This accelerating innovation has opened up breath-taking possibilities for improving human life, but it also brings with it a host of complex questions about how far society should go—and how we should regulate what we create. As biotechnology moves into new frontiers, the law must evolve from a tool that merely reacts to change into one that anticipates it, guiding progress with foresight, integrity, and compassion. One of the most transformative areas is advanced gene editing, particularly the emergence of next-generation techniques like base editing and prime editing. These innovations allow scientists to make incredibly precise changes to DNA, potentially curing inherited diseases that were once untreatable. Yet, with this power comes deep ethical and legal tension.
A crucial distinction exists between somatic editing, which affects only the treated individual, and germline editing, which alters the genetic makeup of future generations. Germline modification touches the core of human identity and heredity, raising profound questions about consent, equity, and the moral limits of science. Many countries, including India and members of the European Union, currently prohibit germline editing for reproduction, but as technology becomes more accessible, enforcing these boundaries and deciding where to draw them will only grow more difficult. The integration of artificial intelligence (AI) into biotechnology adds yet another layer of complexity. AI now helps researchers discover new drugs, predict disease patterns, and analyse vast genetic datasets in ways no human could.
However, this revolution brings a set of unresolved legal and ethical challenges: if an AI system “creates” a new drug molecule or a treatment algorithm, who owns it? Can a machine be recognized as an inventor? And who is accountable if an AI-driven diagnostic tool makes a life-altering error? Current patent laws, built around human creativity, struggle to address these questions. Regulators must also ensure that AI systems remain transparent and unbiased, protecting patients’ privacy and preventing algorithmic discrimination in healthcare7. Another rapidly emerging frontier is synthetic biology, where scientists design and construct entirely new organisms or biological systems. The potential benefits are extraordinary from developing bioengineered bacteria that clean up pollution to creating sustainable biofuels and 7 Haim V.
Levy, Revisiting Patent Law Paradigms: Legal, Economic, and Ethical Implications of AI-Driven Inventions in the Biosciences: Introducing the Universal Model of Augmented Invention, 2 Law, Ethics & Technology (2025), https://papers. ssrn. com/sol3/papers. cfm? abstract_id=5416734 (last visited Nov. 13, 2025)
new medicines. But synthetic biology also carries biosecurity risks, as these same tools could be misused to create harmful biological agents. The line between scientific progress and potential danger is thin, making it essential to strengthen global biosafety standards, ensure transparent laboratory oversight, and promote international collaboration to prevent misuse while allowing innovation to flourish. Beyond these scientific challenges, biotechnology’s increasingly global nature poses significant legal and policy hurdles. Research collaborations, genetic data sharing, and the trade of biological materials often cross-national borders, exposing inconsistencies between countries’ regulations. Differences in patent laws, biosafety norms, and data protection frameworks create uncertainty for researchers and companies working internationally.
Issues like cross-border transfer of genetic data, international licensing, and enforcement of intellectual property rights remain some of the toughest obstacles to overcome. To bridge these gaps, stronger cooperation between national governments, international organizations, and the scientific community is essential. Global frameworks such as the TRIPS Agreement and the Nagoya Protocol on Access and Benefit-Sharing offer promising pathways, but they must be implemented with fairness and flexibility, respecting both innovation and local sovereignty. Ultimately, the future of biotechnology law depends on how effectively we balance progress with responsibility. Laws must evolve not only to control science but to guide it ethically encouraging discovery while safeguarding human values, equity, and environmental integrity.
This means crafting flexible, forward-looking policies that can adapt as technology changes, and ensuring that ethics, transparency, and justice remain at the heart of every decision. The goal is not to slow innovation, but to humanize it to ensure that biotechnology continues to serve humanity, protect life, and uplift the shared future of generations to come. Bioethics, Human Dignity, and Intellectual Property in Biotechnology: The ethical and legal dimensions of biotechnology are deeply intertwined, reflecting the need to balance scientific ambition with respect for human dignity and global equity. As innovations in genetic science push the boundaries of what is biologically and ethically permissible, law becomes both a guardian and a guide protecting fundamental rights while enabling responsible progress.
At the heart of biotechnology ethics lies the principle of human dignity. Advances such as human germline editing, cloning, and genetic enhancement challenge our understanding of personhood and the sanctity of life. These developments provoke difficult questions: should humanity alter its genetic heritage, and who decides the moral limits of such power? Legal frameworks worldwide grapple with these concerns, establishing strict prohibitions on practices like reproductive cloning and requiring rigorous informed consent for experimental procedures involving genetic modification. In doing so, the law affirms that the human body and its genetic code cannot be reduced to mere instruments of innovation but must be treated with inherent moral worth. Closely tied to these issues is the protection of genetic privacy and data security.
As genomic sequencing and personalized medicine become commonplace, vast amounts of genetic information are collected, stored and analysed often across borders. While this data holds immense potential for advancing healthcare, it also raises fears of discrimination, stigmatization, and surveillance if misused. Legislation such as the Health Insurance Portability and Accountability Act (HIPAA) in the United States and emerging genomicspecific privacy laws seek to ensure that genetic information remains confidential and used only with the individual’s consent. The challenge for lawmakers is to craft regulations that safeguard privacy without stifling the collaborative data-sharing that drives scientific discovery. The question of equity and access remains one of biotechnology’s most pressing moral tests.
Cutting-edge therapies, including gene therapies and biologic drugs, often carry exorbitant costs, making them inaccessible to much of the world’s population. This disparity fuels the ongoing “access to medicines” debate, highlighting the tension between intellectual property protection and the human right to health. Similar challenges extend to agriculture, where farmers in developing nations may face restrictions on reusing patented genetically modified seeds, further deepening global inequalities. Ensuring that the benefits of biotechnology are shared equitably requires legal systems that integrate social justice into the heart of innovation policy8. 8 Institute of Medicine (U. S. ), Committee on Assessing Genetic Risks, eds. , Assessing Genetic Risks: Implications for Health and Social Policy (Washington, D. C. : National Academies Press, 1994), available at https://www. ncbi. nlm.
nih. gov/books/NBK236044/ (last visited Nov. 13, 2025).
Central to these issues is the framework of Intellectual Property (IP) rights, particularly patent law the cornerstone of the biotechnology industry. Patents provide vital incentives for innovation by granting inventors exclusive rights to their discoveries, encouraging investment in high-risk, high-cost research. However, the biological nature of biotechnological inventions constantly tests the boundaries of traditional IP doctrines. One recurring dilemma is determining what qualifies as patentable subject matter whether isolated genes, modified cells, or natural substances altered by human ingenuity can truly be “owned. ” Courts and patent offices worldwide continue to refine these definitions, seeking to distinguish between humanmade inventions and discoveries of nature. Equally complex is the scope of claims that patents should cover.
Overly broad claims on technologies like CRISPR gene-editing or diagnostic methods can hinder subsequent innovation and limit public benefit. At the same time, too narrow a scope may fail to provide sufficient incentive for private investment. The research exemption which allows limited use of patented technologies for academic or experimental purposes also remains a grey area, often blurred between public-interest research and commercial exploitation. These challenges underline the need for nuanced legal interpretation and continual adaptation of IP systems. The lack of international harmonization further complicates matters. Patent eligibility criteria, enforcement standards, and biotechnology regulations differ widely across jurisdictions between the United States, the European Union, and Asia creating uncertainty for innovators operating in global markets.
Differences in data-sharing regulations, licensing norms, and technology transfer policies can slow down cross-border collaboration and increase compliance burdens. Achieving greater global coherence will require sustained cooperation between national legislatures and international organizations such as the World Intellectual Property Organization (WIPO) and the World Trade Organization (WTO). Looking ahead, biotechnology law faces a new generation of emerging challenges. Novel genetic tools like base editing and prime editing introduce finer levels of precision but also raise new ethical dilemmas regarding germline interventions. The integration of artificial intelligence in drug discovery and diagnostics brings complex questions of IP ownership can an AI be an inventor and necessitates stronger oversight of algorithmic transparency and safety.
Meanwhile, the rise of synthetic biology the creation of entirely new life forms and genetic circuits demands updated biosafety and biosecurity protocols to prevent misuse and unintended
consequences. In this fast-evolving landscape, the law must evolve not reactively but proactively. Biotechnology operates beyond national boundaries, and so too must its governance. Issues such as cross-border data transfer, international licensing, and the enforcement of IP rights require a harmonized legal response grounded in ethics, inclusivity, and cooperation. The ultimate goal of biotechnology law is not merely to regulate science, but to humanize innovation ensuring that scientific progress serves humanity as a whole, preserving both our shared future and the dignity that defines us.
CONCLUSION
Biotechnology today stands as a symbol of how far human curiosity and creativity can reach. It has transformed the way we heal diseases, grow food, and protect the environment offering solutions once thought impossible. Yet, with this power comes deep responsibility. The rapid pace of biotechnological innovation has outstripped the capacity of many legal systems to keep up, creating a constant need for laws that are not just reactive but visionary laws that can guide science with wisdom, empathy, and foresight. The evolution of biotech law has shown that innovation cannot exist in isolation from ethics or justice. Each scientific breakthrough whether in gene editing, synthetic biology, or artificial intelligence brings with it new moral questions and legal uncertainties.
Landmark cases like Diamond Chakrabarty and Monsanto Technology as discussed above have reminded us that while intellectual property rights are essential to encourage discovery, they must never come at the cost of public welfare or environmental balance. The true purpose of law in biotechnology is not only to reward innovation but also to protect life, uphold fairness, and ensure that progress benefits all. As new frontiers emerge, the challenge lies in building legal frameworks that evolve alongside technology. Future laws must be flexible enough to adapt to scientific change, yet grounded in enduring human values dignity, safety, and equity. This requires open dialogue among scientists, lawmakers, and communities, so that the governance of biotechnology reflects both technical understanding and collective conscience.
Ultimately, biotechnology is not just a scientific journey; it is a human one. It forces us to
reflect on who we are, what we value, and how we wish to shape the future. The task before us is to create laws that nurture innovation while keeping humanity at its centre laws that transform science into service, and discovery into shared progress. If we can achieve that balance, biotechnology will not only redefine our capabilities but reaffirm our commitment to life itself.
REFERENCES:
I. Statutes and Legal Instruments
Health Insurance Portability and Accountability Act of 1996, Pub. L. No. 104-191, 110 Stat. 1936 (codified as amended in scattered sections of 18, 26, 29, and 42 U.S.C.). • European Group on Ethics in Science and New Technologies, Opinion on Ethical Questions Arising from the Commission Proposal for a Council Directive on the Legal Protection for Biotechnological Inventions (Sept. 30, 1993), available at https://www.capurro.de/ege.html • World Intellectual Property Organization, A Primer on Technology Transfer in the Field of Biotechnology – Ch. 5: Role of Intellectual Property in Biotechnology Commercialization (2017), available at https://www.wipo.int/web-publications/a-primer-on-technologytransfer-in-the-field-of-biotechnology/en/5-role-of-intellectual-property-inbiotechnology-commercialization.html
II. Case Law:
Diamond v. Chakrabarty, 447 U.S. 303 (1980). • Monsanto Technology LLC v. Nuziveedu Seeds Ltd., (2019) 3 SCC 381 (India).
III. Books and Reports:
Institute of Medicine (U.S.), Committee on Assessing Genetic Risks, Assessing Genetic Risks: Implications for Health and Social Policy (Washington, D.C.: National Academies Press 1994), available at https://www.ncbi.nlm.nih.gov/books/NBK236044/
IV. Journal and Academic Articles:
Benjamin Trump et al., Governing Biotechnology to Provide Safety and Security and Address Ethical, Legal, and Social Implications, 13 Frontiers in Genetics 1052371 (2023), available at https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9873990 • C. Gyngell et al., The Ethics of Germline Gene Editing, Frontiers in Genetics 7 (2016), available at https://pmc.ncbi.nlm.nih.gov/articles/PMC5573992/
Durga Prasad Mindala et al., Regulations for Health Care Biotechnology Products in Major Markets of the World, in Biotechnology Business – Concept to Delivery 131 (Arpita Saxena ed., Springer 2020), DOI: 10.1007/978-3-030-36130-3_7 • Haim V. Levy, Revisiting Patent Law Paradigms: Legal, Economic, and Ethical Implications of AI-Driven Inventions in the Biosciences: Introducing the Universal Model of Augmented Invention, 2 Law, Ethics & Technology (2025), available at https://papers.ssrn.com/sol3/papers.cfm?abstract_id=5416734