The Research on ownership of cell therapy products
1. Issues concerning ownership of cell therapy products
Regarding the issue of ownership interests, American Medical Association(AMA)has pointed out in 2016 that using human tissues to develop commercially available products raises question about who holds property rights in human biological materials[1]. In United States, there have been several disputes concern the issue of the whether the donor of the cell therapy can claim ownership of the product, including Moore v. Regents of University of California(1990)[2], Greenberg v. Miami Children's Hospital Research Institute(2003)[3], and Washington University v. Catalona(2007)[4]. The courts tend to hold that since cells and tissues were donated voluntarily, the donors had already lost their property rights of their cells and tissues at the time of the donation. In Moore case, even if the researchers used Moore’s cells to obtain commercial benefits in an involuntary situation, the court still held that the property rights of removed cells were not suitable to be claimed by their donor, so as to avoid the burden for researcher to clarify whether the use of cells violates the wishes of the donors and therefore decrease the legal risk for R&D activities. United Kingdom Medical Research Council(MRC)also noted in 2019 that the donated human material is usually described as ‘gifts’, and donors of samples are not usually regarded as having ownership or property rights in these[5]. Accordingly, both USA and UK tends to believe that it is not suitable for cell donors to claim ownership.
2. The ownership of cell therapy products in the lens of Taiwan’s Civil Code
In Taiwan, Article 766 of Civil Code stipulated: “Unless otherwise provided by the Act, the component parts of a thing and the natural profits thereof, belong, even after their separation from the thing, to the owner of the thing.” Accordingly, many scholars believe that the ownership of separated body parts of the human body belong to the person whom the parts were separated from. Therefore, it should be considered that the ownership of the cells obtained from the donor still belongs to the donor. In addition, since it is stipulated in Article 406 of Civil Code that “A gift is a contract whereby the parties agree that one of the parties delivers his property gratuitously to another party and the latter agrees to accept it.”, if the act of donation can be considered as a gift relationship, then the ownership of the cells has been delivered from donor to other party who accept it accordingly.
However, in the different versions of Regenerative Medicine Biologics Regulation (draft) proposed by Taiwan legislators, some of which replace the term “donor” with “provider”. Therefore, for cell providers, instead of cell donors, after providing cells, whether they can claim ownership of cell therapy product still needs further discussion.
According to Article 69 of the Civil Code, it is stipulated that “Natural profits are products of the earth, animals, and other products which are produced from another thing without diminution of its substance.” In addition, Article 766 of the Civil Code stipulated that “Unless otherwise provided by the Act, the component parts of a thing and the natural profits thereof, belong, even after their separation from the thing, to the owner of the thing.” Thus, many scholars believe that when the product is organic, original substance and the natural profits thereof are all belong to the owner of the original substance. For example, when proteins are produced from isolated cells, the proteins can be deemed as natural profits and the ownership of proteins and isolated cells all belong to the owner of the cells[6].
Nevertheless, according to Article 814 of the Civil Code, it is stipulated that “When a person has contributed work to a personal property belonging to another, the ownership of the personal property upon which the work is done belongs to the owner of the material thereof. However, if the value of the contributing work obviously exceeds the value of the material, the ownership of the personal property upon which the work is done belongs to the contributing person.” Thus, scholar believes that since regenerative medical technology, which induces cell differentiation, involves quite complex biotechnology technology, and should be deemed as contributing work. Therefore, the ownership of cell products after contributing work should belongs to the contributing person[7]. Thus, if the provider provides the cells to the researcher, after complex biotechnology contributing work, the original ownership of the cells should be deemed to have been eliminated, and there is no basis for providers to claim ownership.
However, since the development of cell therapy products involves a series of R&D activities, it still need to be clarified that who is entitled to the ownership of the final cell therapy products. According to Taiwan’s Civil Code, the ownership of product after contributing work should belongs to the contributing person. However, when there are numerous contributing persons, which person should the ownership belong to, might be determined on a case-by-case basis.
3. Conclusion
The biggest difference between cell therapy products and all other small molecule drugs or biologics is that original cell materials are provided by donors or providers, and the whole development process involves numerous contributing persons. Hence, ownership disputes are prone to arise.
In addition to the above-discussed disputes, United Kingdom Co-ordinating Committee on Cancer Research(UKCCCR)also noted that there is a long list of people and organizations who might lay claim to the ownership of specimens and their derivatives, including the donor and relatives, the surgeon and pathologist, the hospital authority where the sample was taken, the scientists engaged in the research, the institution where the research work was carried out, the funding organization supporting the research and any collaborating commercial company. Thus, the ultimate control of subsequent ownership and patent rights will need to be negotiated[8].
Since the same issues might also occur in Taiwan, while developing cell therapy products, carefully clarifying the ownership between stakeholders is necessary for avoiding possible dispute.
[1]American Medical Association [AMA], Commercial Use of Human Biological Materials, Code of Medical Ethics Opinion 7.3.9, Nov. 14, 2016, https://www.ama-assn.org/delivering-care/ethics/commercial-use-human-biological-materials (last visited Jan. 3, 2021).
[2]Moore v. Regents of University of California, 793 P.2d 479 (Cal. 1990)
[3]Greenberg v. Miami Children's Hospital Research Institute, 264 F. Suppl. 2d, 1064 (SD Fl. 2003)
[4]Washington University v. Catalona, 490 F 3d 667 (8th Cir. 2007)
[5]Medical Research Council [MRC], Human Tissue and Biological Samples for Use in Research: Operational and Ethical Guidelines, 2019, https://mrc.ukri.org/publications/browse/human-tissue-and-biological-samples-for-use-in-research/ (last visited Jan. 3, 2021).
[6]Wen-Hui Chiu, The legal entitlement of human body, tissue and derivatives in civil law, Angle Publishing, 2016, at 327.
[7]id, at 341.
[8]Okano, M., Takebayashi, S., Okumura, K., Li, E., Gaudray, P., Carle, G. F., & Bliek, J. UKCCCR guidelines for the use of cell lines in cancer research. Cytogenetic and Genome Research, 86(3-4), 1999, https://europepmc.org/backend/ptpmcrender.fcgi?accid=PMC2363383&blobtype=pdf (last visited Jan. 3, 2021).
I.Introduction Recently, many countries have attracted by Israel’s technology innovation, and wonder how Israel, resource-deficiency and enemies-around, has the capacity to enrich the environment for innovative startups, innovative R&D and other innovative activities. At the same time, several cross-border enterprises hungers to establish research centers in Israel, and positively recruits Israel high-tech engineers to make more innovative products or researches. However, there is no doubt that Israel is under the spotlight in the era of innovation because of its well-shaped national technology system framework, innovative policies of development and a high level of R&D expenditure, and there must be something to learn from. Also, Taiwanese government has already commenced re-organization lately, how to tightly connect related public technology sectors, and make the cooperation more closely and smoothly, is a critical issue for Taiwanese government to focus on. Consequently, by the observation of Israel’s national technology system framework and technology regulations, Israel’s experience shall be a valuable reference for Taiwanese government to build a better model for public technology sectors for future cooperation. Following harsh international competition, each country around the world is trying to find out the way to improve its ability to upgrade international competitiveness and to put in more power to promote technology innovation skills. Though, while governments are wondering how to strengthen their countries’ superiority, because of the differences on culture and economy, those will influence governments’ points of view to form an appropriate national innovative system, and will come with a different outcome. Israel, as a result of the fact that its short natural resources, recently, its stunning performance on technology innovation system makes others think about whether Israel has any characteristics or advantages to learn from. According to Israeli Central Bureau of Statistics records, Israel’s national expenditures on civilian R&D in 2013 amounted to NIS 44.2 billion, and shared 4.2% of the GDP. Compared to 2012 and 2011, the national expenditure on civilian R&D in 2013, at Israel’s constant price, increased by 1.3%, following an increase of 4.5% in 2012 and of 4.1% in 2011. Owing to a high level of national expenditure poured in, those, directly and indirectly, makes the outputs of Israel’s intellectual property and technology transfer have an eye-catching development and performance. Based on Israeli Central Bureau of Statistics records, in 2012-2013, approximately 1,438 IP invention disclosure reports were submitted by the researchers of various universities and R&D institutions for examination by the commercialization companies. About 1,019 of the reports were by companies at the universities, an increase of 2.2% compared to 2010-2011, and a 1% increase in 2010-2011 compared to 2008-2009. The dominant fields of the original patent applicants were medicines (24%), bio-technology (17%), and medical equipment (13%). The revenues from sales of intellectual property and gross royalties amounted to NIS 1,881 million in 2012, compared to NIS 1,680 million in 2011, and increase of 11.9%. The dominant field of the received revenues was medicines (94%). The revenues from sales of intellectual property and gross royalties in university in 2012 amounted to NIS 1,853 million in 2012, compared to NIS 1,658 million in 2011, an increase of 11.8%. Therefore, by the observation of these records, even though Israel only has 7 million population, compared to other large economies in the world, it is still hard to ignore Israel’s high quality of population and the energy of technical innovation within enterprises. II.The Recent Situation of Israel’s Technology Innovation System A.The Determination of Israel’s Technology Policy The direction and the decision of national technology policy get involved in a country’s economy growth and future technology development. As for a government sector deciding technology policy, it would be different because of each country’s government and administrative system. Compared to other democratic countries, Israel is a cabinet government; the president is the head of the country, but he/she does not have real political power, and is elected by the parliament members in every five years. At the same time, the parliament is re-elected in every four years, and the Israeli prime minister, taking charge of national policies, is elected from the parliament members by the citizens. The decision of Israel’s technology policy is primarily made by the Israeli Ministers Committee for Science and Technology and the Ministry of Science and Technology. The chairman of the Israeli Ministry Committee for Science and Technology is the Minister of Science and Technology, and takes charge of making the guideline of Israel’s national technology development policy and is responsible for coordinating R&D activities in Ministries. The primary function of the Ministry of Science and Technology is to make Israel’s national technology policies and to plan the guideline of national technology development; the scope includes academic research and applied scientific research. In addition, since Israel’s technology R&D was quite dispersed, it means that the Ministries only took responsibilities for their R&D, this phenomenon caused the waste of resources and inefficiency; therefore, Israel government gave a new role and responsibility for the Chief Scientists Forum under the Ministry of Science and Technology in 2000, and wished it can take the responsibility for coordinating R&D between the government’s sectors and non-government enterprises. The determination of technology policy, however, tends to rely on counseling units to provide helpful suggestions to make technology policies more intact. In the system of Israel government, the units playing a role for counseling include National Council for Research and Development (NCRD), the Steering Committee for Scientific Infrastructure, the National Council for Civil Research and Development (MOLMOP), and the Chief Scientists Forums in Ministries. Among the aforementioned units, NCRD and the Steering Committee for Scientific Infrastructure not only provide policy counseling, but also play a role in coordinating R&D among Ministries. NCRD is composed by the Chief Scientists Forums in Ministries, the chairman of Planning and Budgeting Committee, the financial officers, entrepreneurs, senior scientists and the Dean of Israel Academy of Sciences and Humanities. NCRD’s duties include providing suggestions regarding the setup of R&D organizations and related legal system, and advices concerning how to distribute budgets more effectively; making yearly and long-term guidelines for Israel’s R&D activities; suggesting the priority area of R&D; suggesting the formation of necessary basic infrastructures and executing the priority R&D plans; recommending the candidates of the Offices of Chief Scientists in Ministries and government research institutes. As for the Steering Committee for Scientific Infrastructure, the role it plays includes providing advices concerning budgets and the development framework of technology basic infrastructures; providing counsel for Ministries; setting up the priority scientific plans and items, and coordinating activities of R&D between academic institutes and national research committee. At last, as for MOLMOP, it was founded by the Israeli parliament in 2002, and its primary role is be a counseling unit regarding technology R&D issues for Israel government and related technology Ministries. As for MOLMOP’s responsibilities, which include providing advices regarding the government’s yearly and long-term national technology R&D policies, providing the priority development suggestion, and providing the suggestions for the execution of R&D basic infrastructure and research plans. B.The Management and Subsidy of Israel’s Technology plans Regarding the institute for the management and the subsidy of Israel’s technology plans, it will be different because of grantee. Israel Science Foundation (ISF) takes responsibility for the subsidy and the management of fundamental research plans in colleges, and its grantees are mainly focused on Israel’s colleges, high education institutes, medical centers and research institutes or researchers whose areas are in science and technical, life science and medicine, and humanity and social science. As for the budget of ISF, it mainly comes from the Planning and Budgeting Committee (PBC) in Israel Council for Higher Education. In addition, the units, taking charge of the management and the subsidy of technology plans in the government, are the Offices of the Chief Scientist in Ministries. Israel individually forms the Office of the Chief Scientist in the Ministry of Agriculture and Rural Development, the Ministry of Communications, the Ministry of Defense, the Ministry of National Infrastructures, Energy and Water Resources, the Ministry of Health and the Ministry of Economy. The function of the Office of the Chief Scientist not only promotes and inspires R&D innovation in high technology industries that the Office the Chief Scientist takes charge, but also executes Israel’s national plans and takes a responsibility for industrial R&D. Also, the Office of the Chief Scientist has to provide aid supports for those industries or researches, which can assist Israel’s R&D to upgrade; besides, the Office of the Chief Scientists has to provide the guide and training for enterprises to assist them in developing new technology applications or broadening an aspect of innovation for industries. Further, the Office of the Chief Scientists takes charge of cross-country R&D collaboration, and wishes to upgrade Israel’s technical ability and potential in the area of technology R&D and industry innovation by knowledge-sharing and collaboration. III.The Recent Situation of the Management and the Distribution of Israel’s Technology Budget A.The Distribution of Israel’s Technology R&D Budgets By observing Israel’s national expenditures on civilian R&D occupied high share of GDP, Israel’s government wants to promote the ability of innovation in enterprises, research institutes or universities by providing national resources and supports, and directly or indirectly helps the growth of industry development and enhances international competitiveness. However, how to distribute budgets appropriately to different Ministries, and make budgets can match national policies, it is a key point for Israel government to think about. Following the Israeli Central Bureau of Statistics records, Israel’s technology R&D budgets are mainly distributed to some Ministries, including the Ministry of Science and Technology, the Ministry of Economy, the Ministry of Agriculture and Rural Development, the Ministry of National Infrastructures, Energy and Water Resources, the Israel Council for Higher Education and other Ministries. As for the share of R&D budgets, the Ministry of Science and Technology occupies the share of 1.7%, the Ministry of Economy is 35%, the Israel Council for Higher Education is 45.5%, the Ministry of Agriculture and Rural Development is 8.15%, the Ministry of National Infrastructures, Energy and Water Resources is 1.1%, and other Ministries are 7.8% From observing that Israel R&D budgets mainly distributed to several specific Ministries, Israel government not only pours in lot of budgets to encourage civilian technology R&D, to attract more foreign capitals to invest Israel’s industries, and to promote the cooperation between international and domestic technology R&D, but also plans to provide higher education institutes with more R&D budgets to promote their abilities of creativity and innovation in different industries. In addition, by putting R&D budgets into higher education institutes, it also can indirectly inspire students’ potential innovation thinking in technology, develop their abilities to observe the trend of international technology R&D and the need of Israel’s domestic industries, and further appropriately enhance students in higher education institutes to transfer their knowledge into the society. B.The Management of Israel’s Technology R&D Budgets Since Israel is a cabinet government, the cabinet takes responsibility for making all national technology R&D policies. The Ministers Committee for Science and Technology not only has a duty to coordinate Ministries’ technology policies, but also has a responsibility for making a guideline of Israel’s national technology development. The determination of Israel’s national technology development guideline is made by the cabinet conference lead by the Prime Minister, other Ministries does not have any authority to make national technology development guideline. Aforementioned, Israel’s national technology R&D budgets are mainly distributed to several specific Ministries, including the Ministry of Science and Technology, the Ministry of Economy, the Ministry of Agriculture and Rural Development, the Ministry of National Infrastructures, Energy and Water Resources, the Israel Council for Higher Education, and etc. As for the plan management units and plan execution units in Ministries, the Office of the Chief Scientist is the plan management unit in the Ministry of Science and Technology, and Regional Research and Development Centers is the plan execution unit; the Office of the Chief Scientist is the plan management unit in the Ministry of Economy, and its plan execution unit is different industries; the ISF is the plan management units in the Israel Council for Higher Education; also, the Office of the Chief Scientist is the plan management unit in the Ministry of Agriculture, and its plan execution units include the Institute of Field and Garden Corps, the Institute of Horticulture, the Institute of Animal, the Institute of Plan Protection, the Institute of Soil, Water & Environmental Sciences, the Institute for Technology and Storage of Agriculture Products, the Institute of Agricultural Engineering and Research Center; the Office of the Chief Scientist is the plan management unit in the Ministry of National Infrastructures, Energy and Water Resources, and its plan execution units are the Geological Survey of Israel, Israel Oceanographic and Limnological Research and the Institute of Earth and Physical. As for other Ministries, the Offices of the Chief Scientist are the plan management units for Ministries, and the plan execution unit can take Israel National Institute for Health Policy Research or medical centers for example.
Impact of Government Organizational Reform to Research Legal System and Response Thereto (2) – Observation of the Swiss Research Innovation SystemImpact of Government Organizational Reform to Research Legal System and Response Thereto (2) – Observation of the Swiss Research Innovation System I. Foreword Switzerland is a landlocked country situated in Central Europe, spanning an area of 41,000 km2, where the Alps occupy 60% of the territory, while it owns little cultivated land and poor natural resources. In 2011, its population was about 7,950,000 persons[1]. Since the Swiss Federal was founded, it has been adhering to a diplomatic policy claiming neutrality and peace, and therefore, it is one of the safest and most stable countries in the world. Switzerland is famous for its high-quality education and high-level technological development and is very competitive in biomedicine, chemical engineering, electronics and metal industries in the international market. As a small country with poor resources, the Swiss have learnt to drive their economic and social development through education, R&D and innovation a very long time ago. Some renowned enterprises, including Nestle, Novartis and Roche, are all based in Switzerland. Meanwhile, a lot of creative small-sized and medium-sized enterprises based in Switzerland are dedicated to supporting the export-orientation economy in Switzerland. Switzerland has the strongest economic strength and plentiful innovation energy. Its patent applications, publication of essay, frequencies of quotation and private enterprises’ innovation performance are remarkable all over the world. According to the Global Competitiveness Report released by the World Economic Forum (WEF), Switzerland has ranked first among the most competitive countries in the world for four years consecutively since 2009[2]. Meanwhile, according to the Global Innovation Index (GII) released by INSEAD and the World Intellectual Property Organization (WIPO) jointly, Switzerland has also ranked first in 2011 and 2012 consecutively[3]. Obviously, Switzerland has led the other countries in the world in innovation development and economic strength. Therefore, when studying the R&D incentives and boosting the industrial innovation, we might benefit from the experience of Switzerland to help boost the relevant mechanism in Taiwan. Taiwan’s government organization reform has been launched officially and boosted step by step since 2012. In the future, the National Science Council will be reformed into the “Ministry of Science and Technology”, and the Ministry of Economic Affairs into the “Ministry of Economy and Energy”, and the Department of Industrial Development into the “Department of Industry and Technology”. Therefore, Taiwan’s technology administrative system will be changed materially. Under the new government organizational framework, how Taiwan’s technology R&D and industrial innovation system divide work and coordinate operations to boost the continuous economic growth in Taiwan will be the first priority without doubt. Support of innovation policies is critical to promotion of continuous economic growth. The Swiss Government supports technological research and innovation via various organizations and institutions effectively. In recent years, it has achieved outstanding performance in economy, education and innovation. Therefore, we herein study the functions and orientation of the competent authorities dedicated to boosting research and innovation in Switzerland, and observe its policies and legal system applied to boost the national R&D in order to provide the reference for the functions and orientation of the competent authorities dedicated to boosting R&D and industrial innovation in Taiwan. II. Overview of Swiss Federal Technology Laws and Technology Administrative System Swiss national administrative organization is subject to the council system. The Swiss Federal Council is the national supreme administrative authority, consisting of 7 members elected from the Federal Assembly and dedicated to governing a Federal Government department respectively. Switzerland is a federal country consisting of various cantons that have their own constitutions, councils and governments, respectively, entitled to a high degree of independence. Article 64 of the Swiss Federal Constitution[4] requires that the federal government support research and innovation. The “Research and Innovation Promotion Act” (RIPA)[5] is dedicated to fulfilling the requirements provided in Article 64 of the Constitution. Article 1 of the RIPA[6] expressly states that the Act is enacted for the following three purposes: 1. Promoting the scientific research and science-based innovation and supporting evaluation, promotion and utilization of research results; 2. Overseeing the cooperation between research institutions, and intervening when necessary; 3. Ensuring that the government funding in research and innovation is utilized effectively. Article 4 of the RIPA provides that the Act shall apply to the research institutions dedicated to innovation R&D and higher education institutions which accept the government funding, and may serve to be the merit for establishment of various institutions dedicated to boosting scientific research, e.g., the National Science Foundation and Commission of Technology & Innovation (CTI). Meanwhile, the Act also provides detailed requirements about the method, mode and restriction of the government funding. According to the RIPA amended in 2011, the Swiss Federal Government’s responsibility for promoting innovation policies has been extended from “promotion of technology R&D” to “unification of education, research and innovation management”, making the Swiss national industrial innovation framework more well-founded and consistent[8] . Therefore, upon the government organization reform of Switzerland in 2013, most of the competent authorities dedicated to technology in Swiss have been consolidated into the Federal Department of Economic Affairs, Education and Research. Under the framework, the Swiss Federal Government assigned higher education, job training, basic scientific research and innovation to the State Secretariat for Education, Research and Innovation (SERI), while the Commission of Technology & Innovation (CTI) was responsible for boosting the R&D of application scientific technology and industrial technology and cooperation between the industries and academy. The two authorities are directly subordinate to the Federal Department of Economic Affairs, Education and Research (EAER). The Swiss Science and Technology Council (SSTC), subordinate to the SERI is an advisory entity dedicated to Swiss technology policies and responsible for providing the Swiss Federal Government and canton governments with the advice and suggestion on scientific, education and technology innovation policies. The Swiss National Science Foundation (SNSF) is an entity dedicated to boosting the basic scientific R&D, known as the two major funding entities together with CTI for Swiss technology R&D. The organizations, duties, functions and operations of certain important entities in the Swiss innovation system are introduced as following. Date source: Swiss Federal Department of Economic Affairs, Education and Research official website Fig. 1 Swiss Innovation Framework Dedicated to Boosting Industries-Swiss Federal Economic, Education and Research Organizational Chart 1. State Secretariat of Education, Research and Innovation (SERI) SERI is subordinate to the Department of Economic Affairs, Education and Research, and is a department of the Swiss Federal Government dedicated to managing research and innovation. Upon enforcement of the new governmental organization act as of January 1, 2013, SERI was established after the merger of the State Secretariat for Education and Research, initially subordinate to Ministry of Interior, and the Federal Office for Professional Education and Technology (OEPT), initially subordinated to Ministry of Economic Affairs. For the time being, it governs the education, research and innovation (ERI). The transformation not only integrated the management of Swiss innovation system but also unified the orientations toward which the research and innovation policy should be boosted. SERI’s core missions include “enactment of national technology policies”, “coordination of research activities conducted by higher education institutions, ETH, and other entities of the Federal Government in charge of various areas as energy, environment, traffic and health, and integration of research activities conducted by various government entities and allocation of education, research and innovation resources. Its functions also extend to funding the Swiss National Science Foundation (SNSF) to enable SNSF to subsidize the basic scientific research. Meanwhile, the international cooperation projects for promotion of or participation in research & innovation activities are also handled by SERI to ensure that Switzerland maintains its innovation strength in Europe and the world. The Swiss Science and Technology Council (SSTC) is subordinate to SERI, and also the advisory unit dedicated to Swiss technology policies, according to Article 5a of RIPA[9]. The SSTC is responsible for providing the Swiss Federal Government and canton governments with advice and suggestion about science, education and innovation policies. It consists of the members elected from the Swiss Federal Council, and a chairman is elected among the members. 2. Swiss National Science Foundation (SNSF) The Swiss National Science Foundation (SNSF) is one of the most important institutions dedicated to funding research, responsible for promoting the academic research related to basic science. It supports about 8,500 scientists each year. Its core missions cover funding as incentives for basic scientific research. It grants more than CHF70 million each year. Nevertheless, the application science R&D, in principle, does not fall in the scope of funding by the SNSF. The Foundation allocates the public research fund under the competitive funding system and thereby maintains its irreplaceable identity, contributing to continuous output of high quality in Switzerland. With the support from the Swiss Federal Government, the SNSF was established in 1952. In order to ensure independence of research, it was planned as a private institution when it was established[10]. Though the funding is provided by SERI, the SNSF still has a high degree of independence when performing its functions. The R&D funding granted by the SNSF may be categorized into the funding to free basic research, specific theme-oriented research, and international cooperative technology R&D, and the free basic research is granted the largest funding. The SNSF consists of Foundation Council, National Research Council and Research Commission[11]. Data source: prepared by the Study Fig. 2 Swiss National Science Foundation Organizational Chart (1) Foundation Council The Foundation Council is the supreme body of the SNSF[12], which is primarily responsible for making important decisions, deciding the role to be played by the SNSF in the Swiss research system, and ensuring SNSF’s compliance with the purpose for which it was founded. The Foundation Council consists of the members elected from the representatives from important research institutions, universities and industries in Swiss, as well as the government representatives nominated by the Swiss Federal Council. According to the articles of association of the SNSF[13], each member’s term of office should be 4 years, and the members shall be no more than 50 persons. The Foundation Council also governs the Executive Committee of the Foundation Council consisting of 15 Foundation members. The Committee carries out the mission including selection of National Research Council members and review of the Foundation budget. (2) National Research Council The National Research Council is responsible for reviewing the applications for funding and deciding whether the funding should be granted. It consists of no more than 100 members, mostly researchers in universities and categorized, in four groups by major[14], namely, 1. Humanities and Social Sciences; 2. Math, Natural Science and Engineering; 3. Biology and Medical Science; and 4. National Research Programs (NRPs)and National Centers of Competence in Research (NCCRs). The NRPs and NCCRs are both limited to specific theme-oriented research plans. The funding will continue for 4~5years, amounting to CHF5 million~CHF20 million[15]. The specific theme-oriented research is applicable to non-academic entities, aiming at knowledge and technology transfer, and promotion and application of research results. The four groups evaluate and review the applications and authorize the funding amount. Meanwhile, the representative members from each group form the Presiding Board dedicated to supervising and coordinating the operations of the National Research Council, and advising the Foundation Council about scientific policies, reviewing defined funding policies, funding model and funding plan, and allocating funding by major. (3) Research Commissions Research Commissions are established in various higher education research institutions. They serve as the contact bridge between higher education academic institutions and the SNSF. The research commission of a university is responsible for evaluating the application submitted by any researcher in the university in terms of the school conditions, e.g., the school’s basic research facilities and human resource policies, and providing advice in the process of application. Meanwhile, in order to encourage young scholars to attend research activities, the research committee may grant scholarships to PhD students and post-doctor research[16]. ~to be continued~ [1] SWISS FEDERAL STATISTICS OFFICE, Switzerland's population 2011 (2012), http://www.bfs.admin.ch/bfs/portal/en/index/news/publikationen.Document.163772.pdf (last visited Jun. 1, 2013). [2] WORLD ECONOMIC FORUM [WEF], The Global Competiveness Report 2012-2013 (2012), http://www3.weforum.org/docs/WEF_GlobalCompetitivenessReport_2012-13.pdf (last visited Jun. 1, 2013); WEF, The Global Competiveness Report 2011-2012 (2011), http://www3.weforum.org/docs/WEF_GCR_Report_2011-12.pdf (last visited Jun. 1, 2013); WEF, The Global Competiveness Report 2010-2011 (2010), http://www3.weforum.org/docs/WEF_GlobalCompetitivenessReport_2010-11.pdf (last visited Jun. 1, 2013); WEF, The Global Competiveness Report 2009-2010 (2009),. http://www3.weforum.org/docs/WEF_GlobalCompetitivenessReport_2009-10.pdf (last visited Jun. 1, 2013). [3] INSEAD, The Global Innovation Index 2012 Report (2012), http://www.globalinnovationindex.org/gii/GII%202012%20Report.pdf (last visited Jun. 1, 2013); INSEAD, The Global Innovation Index 2011 Report (2011), http://www.wipo.int/freepublications/en/economics/gii/gii_2011.pdf (last visited Jun. 1, 2013). [4] SR 101 Art. 64: “Der Bund fördert die wissenschaftliche Forschung und die Innovation.” [5] Forschungs- und Innovationsförderungsgesetz, vom 7. Oktober 1983 (Stand am 1. Januar 2013). For the full text, please see www.admin.ch/ch/d/sr/4/420.1.de.pdf (last visited Jun. 3, 2013). [6] Id. [7] Id. [8] CTI, CTI Multi-year Program 2013-2016 7(2012), available at http://www.kti.admin.ch/?lang=en&download=NHzLpZeg7t,lnp6I0NTU042l2Z6ln1ad1IZn4Z2qZpnO2Yuq2Z6gpJCDeYR,hGym162epYbg2c_JjKbNoKSn6A-- (last visited Jun. 3, 2013). [9] Supra note 5. [10] Swiss National Science Foundation, http://www.snf.ch/E/about-us/organisation/Pages/default.aspx (last visited Jun. 3, 2013). [11] Id. [12] Foundation Council, Swiss National Science Foundation, http://www.snf.ch/E/about-us/organisation/Pages/foundationcouncil.aspx (last visited Jun. 3, 2013). [13] See Statutes of Swiss National Science Foundation Art.8 & Art. 9, available at http://www.snf.ch/SiteCollectionDocuments/statuten_08_e.pdf (last visited Jun. 3, 2013). [14] National Research Council, Swiss National Science Foundation, http://www.snf.ch/E/about-us/organisation/researchcouncil/Pages/default.aspx (last visted Jun.3, 2013). [15] Theres Paulsen, VISION RD4SD Country Case Study Switzerland (2011), http://www.visionrd4sd.eu/documents/doc_download/109-case-study-switzerland (last visited Jun.6, 2013). [16] Research Commissions, Swiss National Science Foundation, http://www.snf.ch/E/about-us/organisation/Pages/researchcommissions.aspx (last visted Jun. 6, 2013).
The Tax Benefit of “Act for Establishment and Administration of Science Parks” and the Relational Norms for InnovationThe Tax Benefit of “Act for Establishment and Administration of Science Parks” and the Relational Norms for Innovation “Act for Establishment and Administration of Science Parks” was promulgated in 1979, and was amended entirely in May 15, 2018, announced in June 6. The title was revised from “Act for Establishment and Administration of Science ‘Industrial’ Parks” to “Act for Establishment and Administration of Science Parks” (it would be called “the Act” in this article). It was a significant transition from traditional manufacture into technological innovation. For encouraging different innovative technology enter into the science park, there is tax benefit in the Act. When the park enterprises import machines, equipment, material and so on from foreign country, the import duties, commodity tax, and business tax shall be exempted; moreover, when the park enterprises export products and services, it will have given favorable business and commodity tax free.[1] Furthermore, the park bureaus also exempt collection of land rent.[2] If they have approval for importing or exporting products, they do not need to apply for permission.[3] In the sub-law, there is also regulations of bonding operation.[4] To sum up, for applying the benefit of the act, enterprises approved for establishment in science parks still require to manufacture products. Such regulations are confined to industrial industry. Innovative companies dedicate in software, big data, or customer service, rarely gain benefits from taxation. In other norms,[5] there are also tax deduction or exemption for developing innovative industries. Based on promoting innovation, the enterprises following the laws of environmental protection, laborers’ safety, food safety and sanitation,[6] or investing in brand-new smart machines for their own utilize,[7] or licensing their intellectual property rights,[8] can deduct from its taxable income. In addition, the research creators from academic or research institutions,[9] or employee,[10] can declare deferral of the income tax payable for the shares distributed. In order to assist new invested innovative enterprises,[11] there are also relational benefit of tax. For upgrading the biotech and new pharmaceuticals enterprises, when they invest in human resource training, research and development, they can have deductible corporate income tax payable.[12] There is also tax favored benefits for small and medium enterprises in using of land, experiment of research, technology stocks, retaining of surplus, and additional employees hiring.[13] The present norms of tax are not only limiting in space or products but also encouraging in “research”. In other word, in each steps of the research of innovation, the enterprises still need to manufacture products from their own technology, fund and human resources. If the government could encourage open innovation with favored taxation, it would strengthen the capability of research and development for innovative enterprises. Supporting the innovation by taxation, the government can achieve the goal of scientific development more quickly and encourage them accepting guidance. “New York State Business Incubator and Innovation Hot Spot Support Act” can be an example, [14]the innovative enterprises accepting the guidance from incubators will have the benefit of tax on “personal income”, “sales and use” and “corporation franchise”. Moreover, focusing on key industries and exemplary cases, there are also the norms of tax exemption and tax abatement in China for promoting the development of technology.[15]The benefit of tax is not only in research but also in “the process of research”. To sum up, the government of Taiwan provides the benefit of tax for advancing the competition of outcomes in market, and for propelling the development of innovation. In order to accelerate the efficiency of scientific research, the government could draw lessons from America and China for enacting the norms about the benefit of tax and the constitution of guidance. [1] The Act §23. [2] Id. §24. [3] Id. §25. [4] Regulations Governing the Bonding Operations in Science Parks. [5] Such as Act for Development of Small and Medium Enterprises, Statute for Industrial Innovation, Act for the Development of Biotech and New Pharmaceuticals Industry. [6] Statute for Industrial Innovation §10. [7] Id. §10-1. [8] Id. §12-1. [9] Id. §12-2. [10] Id. §19-1. [11] Id. §23-1, §23-2, §23-3. [12] Act for the Development of Biotech and New Pharmaceuticals Industry §5, §6, §7. [13] Act for Development of Small and Medium Enterprises Chapter 4: §33 to §36-3. [14] New York State Department of Taxation and Finance Taxpayer Guidance Division, New York State Business Incubator and Innovation Hot Spot Support Act, Technical Memorandum TSB-M-14(1)C, (1)I, (2)S, at 1-6 (March 7, 2014), URL:http://www.wnyincubators.com/content/Innovation%20Hot%20Spot%20Technical%20Memorandum.pdf (last visited:December 18, 2019). [15] Enterprise Income Tax Law of the People’s Republic of China Chapter 4 “Preferential Tax Treatments”: §25 to §36 (2008 revised).
Strengthening Taiwan’s Pharmaceutical Resilience: Legal Reflections from the European Union’s Critical Medicines ActStrengthening Taiwan’s Pharmaceutical Resilience: Legal Reflections from the European Union’s Critical Medicines Act 2025/11/15 Introduction: From Vulnerability to Vision For Taiwan, an island state positioned at the crossroads of geopolitical tension and globalized medical trade, the question of pharmaceutical resilience is no longer a technical concern but a constitutional one. A nation’s ability to secure the continuous availability of essential medicines defines not only its public health capacity but the very credibility of its governance. In this light, the European Union’s (hereunder, the “EU”) proposed Critical Medicines Act (hereunder, “EU CMA”) offers Taiwan an illuminating case of how law can move beyond crisis management toward systemic foresight[1]. Resilience in the pharmaceutical sector is not merely about supply stability; it embodies a triple constitutional function—protecting life and health as fundamental rights, safeguarding national security through stable access to critical goods, and reinforcing trust in regulatory governance. Law thus becomes the medium through which uncertainty is rendered governable. The global pandemic revealed that the absence of legal foresight can paralyze even the most advanced health systems, exposing the structural fragility behind administrative efficiency. While Taiwan’s current pharmaceutical regulatory framework remains largely event-driven, reactive, and post-facto, the EU CMA exemplifies an industry-oriented, anticipatory, and pre-emptive model. The contrast underscores a jurisprudential lesson: resilience cannot be legislated through emergency decrees alone; it must be architected through a continuous, legally structured process that anticipates vulnerabilities before they materialize. This article identifies three foundational principles embedded in the EU CMA—visibility, diversification, and agility—and explores how these principles could guide Taiwan in constructing a forward-looking pharmaceutical resilience regime. The goal is not imitation, but inspiration—extracting from the EU experience a conceptual framework for a resilient Taiwanese pharmaceutical order. The EU CMA as a Law of Foresight The EU CMA represents a paradigm shift in pharmaceutical governance. Instead of fragmented national reactions to shortages, the Act establishes a Union-wide framework “to strengthen the availability and security of supply of critical medicinal products” through coordinated information systems, joint vulnerability assessments, and strategic industrial actions[2]. Its architecture reflects a policy-cycle logic: identification of critical medicines (Union list), assessment of vulnerabilities (harmonized monitoring), and action to strengthen capacity (strategic projects, coordinated procurement). Each stage is legally codified and procedurally transparent. The EU CMA thus transforms resilience from a policy aspiration into a governance architecture mandated by law. This approach reveals a fundamental evolution in regulatory philosophy: from law as reaction to law as anticipation. The EU does not merely respond to pharmaceutical disruptions; it legislates the ability to foresee them. This transformation elevates resilience from a managerial tool to a juridical principle that guides administrative behavior and industrial coordination. In this sense, the EU CMA operates as a constitutional statute of preparedness—one that embeds strategic vigilance within the ordinary operations of the market. Moreover, the Act’s systemic design demonstrates a rare synthesis of industrial, health, and competition policies under a unified legal grammar. By integrating economic instruments (such as incentives for local production) with public health imperatives (such as the availability of essential drugs), the EU CMA transforms siloed policy domains into a coherent resilience regime. It institutionalizes coordination not as an afterthought but as a binding legal discipline. Crucially, the EU’s approach embodies what might be called the legality of anticipation: law as an instrument that compels foresight. Resilience here is treated as a public good, transcending national borders but rooted in legal coordination. For Taiwan—whose pharmaceutical imports are geographically concentrated and whose market size limits domestic leverage—the lesson is profound: foresight must be institutional, not intuitive. Visibility: Law as an Instrument of Anticipation At the heart of the EU CMA lies the principle of visibility—the legalization of information as a tool of preparedness. The Act mandates the creation of a Union list of critical medicines[3] and a continuous monitoring system for supply vulnerabilities, coordinated through the Critical Medicines Coordination Group[4]. By institutionalizing information flows, the EU transforms data into a public good and transparency into an act of resilience. Visibility performs a dual function. On one hand, it is technocratic, enabling states to detect early signals of supply risk. On the other, it is constitutional, embedding accountability within knowledge. Uncertainty, when unregulated, leads to discretion; when structured, it becomes a risk, which law can govern. The EU CMA thus converts chaos into cognition—an epistemic transformation at the heart of modern administrative law. For Taiwan, this implies a shift from episodic crisis reporting toward permanent, cross-sectoral data governance. Information duties should not be seen as bureaucratic burdens but as civic infrastructures that permit collective foresight. Visibility, therefore, is not simply about surveillance but about legally enabling knowledge—the first step toward prevention rather than post-hoc management. Diversification: Embedding Resilience into Market Rationality The second principle, diversification, redefines efficiency itself. The EU CMA promotes manufacturing capacity within Europe under the doctrine of “open strategic autonomy”[5]. It supports Strategic Projects that enhance production, encourages cooperation with like-minded countries, and authorizes procurement methods that reward resilience factors alongside price—what EU law calls “MEAT” (Most Economically Advantageous Tender)[6]. This reframes the very idea of market rationality: security and competition are not opposites but complements. Law functions here as a corrective to market myopia, ensuring that the invisible hand does not ignore visible fragility. By quantifying resilience as a measurable value, the EU transforms precaution into an economic variable. For Taiwan—whose procurement and reimbursement systems have historically emphasized price containment—this perspective opens conceptual space. Resilience should not be perceived as inefficiency, but as intertemporal justice: a society’s investment in its future continuity. A diversified system—of suppliers, regions, and regulatory instruments—creates not redundancy but adaptability. In this sense, diversification is law’s expression of prudence in an interconnected economy. Agility: From Administrative Response to Legal Readiness The third principle, agility, captures the law’s capacity to act swiftly yet lawfully. The EU CMA institutionalizes flexibility through accelerated procedures for strategic projects, coordinated procurement frameworks, and crisis response mechanisms[7]. These powers are accompanied by procedural safeguards and sunset clauses, ensuring proportionality and reversibility. Agility thus represents legality in motion: action without arbitrariness. It reconciles speed with scrutiny by embedding emergency measures within predefined legal channels. The lesson for Taiwan is both institutional and philosophical—true readiness is not improvisation, but preparation that preserves legitimacy. In Taiwan’s current system, regulatory energy peaks during emergencies and dissipates thereafter. A mature resilience framework would instead cultivate continuous readiness—administrative structures that learn, anticipate, and adapt. Agility, understood legally, means codifying responsiveness as a standing competence of governance. It is the hinge connecting foresight and execution, legality and flexibility. Taiwan’s Legal Trajectory: From Event-Driven to Industry-Oriented Regulation Comparatively, Taiwan’s Pharmaceutical Affairs Act—even with its proposed amendments—remains largely event-driven and post-crisis in design[8]. Regulatory intervention often follows episodes of shortage or disruption. While recently introduced draft revisions strengthening supply chain obligations[9], these proposed revisions still operate primarily within a reactive paradigm. By contrast, the EU CMA envisions an industry-oriented, anticipatory, and system-based model. It embeds resilience into the legal DNA of pharmaceutical policy—linking regulation, industrial strategy, and public health. For Taiwan, this means evolving from regulatory firefighting to regulatory design: from curing failures to cultivating foresight. To achieve this, Taiwan’s legal development must transcend compliance formalism and embrace a culture of legal learning—where rules are not static commands but adaptive instruments of governance. The transition from event-driven to foresight-driven lawmaking will not only strengthen national health security but also elevate Taiwan’s position in the network of like-minded economies pursuing resilient supply systems. Conclusion: Toward a Resilient Legal Modernity The EU Critical Medicines Act demonstrates that law can be an architecture of anticipation. Its three pillars—visibility, diversification, and agility—form a grammar of resilience that integrates market mechanisms, administrative capacity, and democratic legitimacy. For Taiwan, the value of this model lies not in replication but in reflection. Visibility teaches that knowledge must be institutionalized. Diversification reminds us that resilience can coexist with efficiency. Agility shows that speed and legality are not mutually exclusive. Together, they suggest a new philosophy of governance: one that replaces reaction with design, and uncertainty with structured foresight. Yet the deeper lesson of the EU CMA is that resilience is not simply a functional attribute of a regulatory system—it is a constitutional virtue of modern states. To build resilience is to affirm the social contract anew: to promise citizens not that crises will never occur, but that when they do, institutions will stand ready, transparent, and just. This transforms law from a mirror of disorder into an instrument of collective composure. For Taiwan, embracing resilience as a constitutional principle means reimagining the relationship between law, science, and sovereignty. In a world where disruption is perpetual—whether by pandemics, trade shocks, or technological change—resilience becomes the language through which legality and modernity converge. It marks the transition from governing by reaction to governing by imagination. While the EU CMA relies on the Union’s vast market power to incentivize and coordinate pharmaceutical resilience, Taiwan faces a distinct structural challenge: its market size, though dynamic, cannot generate comparable leverage on a global scale. This asymmetry compels Taiwan to craft a dual strategy—anchoring its domestic resilience through legal foresight, while simultaneously aligning with international frameworks that promote secure and diversified supply chains. How Taiwan can reconcile these two imperatives—maintaining openness and integration with global partners, yet safeguarding autonomous resilience at home—will define the next frontier of its pharmaceutical governance. It is within this strategic and normative intersection that the Institute for Information Industry’s Science and Technology Law Institute (STLI) will continue its research efforts, exploring legal architectures capable of linking Taiwan’s national resilience with the broader ecosystem of global health security. Ultimately, resilience is not merely a regulatory principle but a moral commitment to time—a covenant between generations that law will foresee, prepare, and preserve. As Taiwan refines its pharmaceutical governance, the lesson from the EU CMA is both institutional and existential: to govern resilience is to govern the future itself, and to govern the future is to affirm the dignity of foresight as the highest form of rule of law. [1] EUROPEAN COMMISSION, Proposal for a Regulation of the European Parliament and of the Council laying down a framework for strengthening the availability and security of supply of critical medicinal products as well as for improving the availability of, and access to, medicinal products of common interest (Critical Medicines Act), COM(2025) 102 final (Mar. 11, 2025), https://health.ec.europa.eu/document/download/2abe4fc8-059e-47d9-a20a-d9e3bfc5dc2c_en?filename=mp_com2025_102_act_en.pdf (last visited Nov. 2, 2025). [2] id. at Page 17. [3] id. at Page 27. [4] id. at Page 35. [5] CRITICAL MEDICINES ALLIANCE, STRATEGIC REPORT OF THE CRITICAL MEDICINES ALLIANCE (Feb. 28, 2025), https://health.ec.europa.eu/document/download/3da9dfc0-c5e0-4583-a0f1-1652c7c18c3c_en?filename=hera_cma_strat-report_en.pdf (last visited Nov. 2, 2025). [6] EUROPEAN COMMISSION, Proposal for a Regulation of the European Parliament and of the Council laying down a framework for strengthening the availability and security of supply of critical medicinal products as well as for improving the availability of, and access to, medicinal products of common interest (Critical Medicines Act), COM(2025) 102 final (Mar. 11, 2025), https://health.ec.europa.eu/document/download/2abe4fc8-059e-47d9-a20a-d9e3bfc5dc2c_en?filename=mp_com2025_102_act_en.pdf (last visited Nov. 2, 2025). [7] id. at Page 7. [8] Pharmaceutical Affairs Act (Taiwan), Ministry of Justice, https://law.moj.gov.tw/ENG/LawClass/LawAll.aspx?pcode=L0030001 (last visited Nov. 2, 2025). [9] 〈衛生福利部公告「藥事法」部分條文修正草案〉,法源法律網,https://www.lawbank.com.tw/news/NewsContent.aspx?NID=206187.00(最後瀏覽日:2025/11/03)。