Technology Transfer Activities Research Articles

Historical technology transfer activities and productivity of NIDLRR grantees

ABSTRACT This paper analyzes the technology-related outputs from The National Institute of Disability, Independent Living, and Rehabilitation Research (NIDILRR). We seek to answer the questions: What are the types and frequency of assistive technology (AT) technology transfer (ATTT) outputs from NIDILRR grants? How does NIDILRR’s ATTT generation compare to other granting organizations? What types of ATTT outputs occur, how, and what is the relative productivity of the most frequently funded universities and small businesses performing with funding by NIDILRR grants? An online search was conducted for indications of ATTT from grants funded from 1983–2021 through publicly available databases, the National Rehabilitation Information Center (NARIC), and the internet. This data was then categorized across relevant output types and analyzed. NIDILRR funded 662 organizations and 951 different investigators from 1983 to 2021. The NIDILRR-funded portfolio includes 6,996 papers, 438 informational websites, 163 patents, 120 software products, and 29 hardware products. Compared to the National Institutes of Health (NIH), NIDILRR produced slightly more products per dollar. Our results highlight the substantial portfolio of technology-related outputs generated with NIDILRR funding and demonstrate how productivity measures can be calculated to guide future funding strategies.

PROJECT-BASED LEARNING: THEORETICAL OVERVIEW AND PRACTICAL IMPLICATIONS FOR LOCAL INNOVATION-BASED DEVELOPMENT

The aim of this paper is to summarise and present the main features of project-based learning (PjBL) within innovation-based development. Methodology. The methodology of this study involves the use of PjBL as an educational and technology transfer tool. In an educational context, it uses a structured approach where students identify real-world problems, conduct research, develop projects, collaborate on their implementation, and reflect on their experiences to deepen learning and develop critical thinking. PjBL application scenarios cover a variety of disciplines, including STEM education, social sciences, business and humanities, enabling students to apply knowledge and skills to solve real-world problems. In the field of technology transfer, a similar PjBL principle is applied to facilitate the transfer of research innovations for practical application. This involves collaborative partnerships, technology assessment, prototyping, market validation, licensing or commercialisation, fostering innovation and translating research into tangible societal benefits. This study aims to demonstrate the effectiveness and versatility of PjBL as a transformational methodology in both the educational and technology transfer contexts. Practical implications. PjBL encourages active, experiential learning where participants interact directly with real-world problems. This hands-on approach fosters a deeper understanding of concepts and encourages innovation by allowing participants to apply theoretical knowledge in practical scenarios. PjBL can have a long-term impact on innovation by fostering a mindset of lifelong learning and continuous improvement. The skills and experiences gained through PjBL can help people become innovative thinkers and problem solvers who will contribute to positive change in their industries and local communities. Value/Originality. It is substantiated that PjBL allows participants to immerse themselves in real problems or scenarios relevant to technology transfer. By working on projects that simulate the challenges faced in the transfer process, participants gain a deeper understanding of the complexities and develop practical skills that can be directly applied in technology transfer activities.

Innovative strategy for enhancing nature-based solutions during climate technology transfer process

Recently, Nature-based Solutions (NbS) have increasingly been regarded as a new opportunity to maximize the synergies between nature, society, and the economy. In addition, especially for policymakers and practitioners engaged in climate technology transfer activities from developed to developing countries, this concept is promoted as a cost-effective, agile, and innovative way of tackling various climate challenges to achieve sustainable development goals (SDGs). Thus, in the present work, to enhance NbS as an innovative implement during the climate technology transfer, we first analyze previous NbS cases during the technical assistance activities for some SDGs accomplished by the United Nations Climate Technology Centre and Network (CTCN), such as coastal risk protection (to maximize ecosystems, Type 1), agroforestry (to restore ecosystems, Type 2) and green urban design (to create ecosystems, Type 3). Then, through in-depth interviews with NbS stakeholders, we identify dominant barriers to implementing each NbS Type in terms of innovation element: technology, market, and regulation. Finally, based on our staged innovation model considering the two-sided networks, we propose novel strategy for enhancing NbS by overcoming each barrier during the three stages of the climate technology transfer process: NbS technology assessment in the first eco-maximizing stage, blended finances for market creation in the second eco-restoring stage, and regulation incentivization in the third eco-creating stage.

University patent litigation in the United States: Do we have a problem?

In an attempt to increase revenues from patenting activities, some universities have started in recent years to pursue “overzealous” strategies to monetize their existing patents, by selling them to the highest bidder and enforcing them in court. In this paper we find quantitative evidence that patent litigation has an adverse effect on university technology transfer activities, reinforcing prior findings by Shane and Somaya (2007). However, we empirically show that universities do not litigate aggressively over patent infringement: not only do they litigate much less than patent assertion entities (PAEs), but we also observe no increase in terms of their propensity to litigate over the last two decades. Nor do we find any evidence of aggressive litigation strategies.

Using clustering to predict the effectiveness of innovative environmental protection technologies

The article examines the role of innovations in the development of the national economy. The dynamics of budgetary financing of strategic priorities of innovation and technology transfer activities in Ukraine for 2019-2021 is analyzed. The priorities, the support of which is increasing annually, and the priorities where funding is decreasing, are identified. It is proposed to carry out a predictive assessment of innovative projects using the clustering procedure. The implementation of the proposal is highlighted on the example of innovative developments in the strategic priority area "Widespread use of cleaner production technologies and environmental protection". A point system for expert evaluation of the planned scientific results of the innovation and the scientific potential of the performers is shown. The indicators that have the greatest impact on the forecast efficiency are identified. The results of clustering of innovative developments according to certain indicators are presented. The statistical indicators of average scores in each cluster are analyzed. Significant differences between the clusters have been determined using the non-parametric Mann-Whitney test. The carried out clustering provides reasonable recommendations on the feasibility of financing an innovative project based on predictive expert assessments.

다자간환경협정상의 역량강화 및 기술이전에 관한 연구

Environmental problems of a global nature, such as climate change, are urgent challenges that pose a threat not only to developing countries but also to developed countries. Therefore, in order to effectively implement Multilateral Environmental Agreements(MEAs), developed countries must take the lead and also support developing countries. Supporting developing countries that are having difficulty implementing the agreement is an essential elements as it determines the success or failure of the treaty.
 In order to effectively implement MEAs, it is necessary to establish a system to support developing countries to fulfill the environmental obligations they have accepted through technical and financial support. In particular, the international community needs to provide support to countries (mainly developing countries) that agree to the conclusion of treaties to solve specific environmental problems but do not have or lack the capacity to solve them.
 There are a number of means to support effective implementation of MEAs. Main means include financial support, technology transfer, and capacity building activities for developing countries. Looking at recent trends, provisions related to strengthening the implementation capacity of developing countries through technology transfer and financial support are gaining an important place in MEAs. Without appropriate capacity building and technology transfer, it is difficult to effectively achieve the main objectives of the relevant international environmental agreement. From this perspective, capacity building and technology transfer are essential elements for effective implementation of international environmental agreements.
 In the 2015 Paris Agreement, a treaty structure that stipulated technology transfer and capacity building in stand-alone provision(article) emerged, and in the BBNJ Agreement concluded in 2023, content related to capacity building and technology transfer was grouped into a separate chapter(Part). It has an impressive treaty structure, stipulating a total of seven articles. Capacity building and technology transfer form part of the global environmental governance architecture established by the relevant MEAs.
 In this article, I analyze the relevant provisions of major MEAs, focusing on capacity building through technology transfer for effective implementation of MEAs. First, we analyze regulations related to capacity building and technology transfer, focusing on the Convention on Biological Diversity and the United Nations Framework Convention on Climate Change, which deal with biodiversity and climate change, which are the most important issues in the international environmental field in the 21st century. Next, I examine the structure and content of the capacity building and technology transfer provisions of the BBNJ Agreement, which was recently adopted in 2023, as the treaty with the most impressive capacity building and technology transfer provisions. The structure and content of the capacity-building and technology transfer provisions of the BBNJ Agreement, which can be evaluated as a model for desirable capacity-building and technology transfer-related regulations in the future, will also have a significant impact on the UN Plastic Treaty, which is expected to be concluded as a new international environmental agreement.

The Interaction between the Investment Behavior of Transnational Corporations and the International Political and Economic System

With the development of economic globalization and world modularization, more and more economic activities transcend national boundaries, making the connection between the organic economic whole formed through foreign trade, capital flow, technology transfer and other activities become closer. Transnational Corporations (TNCs) come into being in this context, making the global convergence trend of the economies of the world in production, distribution, exchange and consumption links more obvious. Because TNCs usually conduct economic activities in two or more countries, their strong economic power will inevitably affect the economic, political, cultural and social life of the country. On the one hand, the investment and business behavior of TNCs will have a series of effects on the local economy of the host country, and in some economic fields, TNCs can even interfere with the political order of the host country. On the other hand, in the process of globalization, transnational corporations themselves will also be affected by the international political and economic situation.

Technology Transfer Assessment in Regional Business Contexts

This paper proposes a procedure for the organization of meetings between leaders of research groups and representatives of R&D&I departments in companies that is inspired by speed dating. The participating candidates were first assessed and selected based on their potential for an effective linkage in accordance with certain relevant variables taken from the literature on efficiency in technology and knowledge transfer activities. The process and findings of the application of this procedure were analyzed through the action research methodology in a real case, where 12 research groups and 55 companies participated in a pilot project fostered by the public authorities. Although meetings represent a common formula to promote collaboration between universities and industry, very few academic papers have analyzed the appropriate procedures for the organization of such meetings, which could help organizers not only to achieve the best interaction possible but also to improve the matching between a research group and the companies that are potentially interested in forming a stable collaboration for sustainable transfer activities. The results show that this procedure allows research groups to efficiently achieve first contact with companies in order to assess the potential for more lasting and sustainable collaboration.

Intellectual property coordinators' cohorts: A study into the imprints in university technology transfer

The primary aim of Technology Transfer Offices (TTOs) is to enhance technology transfers, resulting in the commercialization of science. Technology transfer has typically been analyzed at the individual level of the core research staff or with the focus on the TTO as a whole, overlooking the fact that the university technology transfer is administered by intellectual property (IP) coordinators. This paper focuses on exposing a potentially crucial factor in technology transfer; the effects of cohorts based on imprinting. The imprinting theory implies that imprints are persistent and manifest themselves in the core activities of the IP coordinators' cohorts in the long term. We bring to light the effects of IP coordinators' cohorts on patenting and licensing, and test a conceptual model of inter-cohort variability. We analyze the patenting and licensing data of 18,393 patent cases and 845 licensed cases, handled by 63 IP coordinators. In combination with human resource data, we show that in the technology transfer process, IP coordinators’' cohorts matter. Using discriminant analysis, we demonstrate that some aspects of technology transfer activities are more typical for one cohort than the others. Variations between cohorts suggest that they are influenced by the prevailing practices inside the TTO at the time of hiring. Cohort patterns are also distinct in the two key technology transfer activities (patenting and licensing). Regression analysis shows that cohort effects remain resistant to erosion even when faced with subsequent changes as captured by organizational and individual time-period effects.

Barriers to Third Mission: organizational and individual antecedents

The fulfillment of the University’s Third Mission has led the university to become a key actor for social and economic development in its regions of influence through a much closer linkage with the different agents in its environment. Thus, the literature has highlighted both the benefits derived from the Third University Mission, the difficulties inherent in the process and the existence of various barriers that can hinder its consolidation in the academic environment. Within the framework of these studies, it has been possible to identify three types of barriers to adopting the third mission: process, researcher, and ally or partner. It is worth mentioning that most of the research developed to date has focused on the study of the impact of the barriers on the development of the Third Mission but not on the analysis of the factors that can influence or attenuate the perception of these barriers. This is surprising if one considers that identifying these factors is relevant in designing strategies to promote the University’s Third Mission. Therefore, this article aims to identify the factors that influence or attenuate the researcher’s perception of different types of barriers to developing Third Mission activities. The study was based on data from a survey applied to a sample of academics categorized in the National System of Science, Technology and Innovation of Colombia and linked to 6 higher education institutions in the Colombian Caribbean region. Binary logistic regression models were established to analyze the data obtained. The results obtained suggest that, in addition to the researcher's previous experience in the external sector, their perception of the existence of processes or support services provided by the university for the promotion of relationships with actors in the socioeconomic environment is important to mitigate the barriers perceived during the development of Third Mission activities, especially when these activities are located in the support for the management and execution of technology transfer activities. In particular, it was found that as the academic's perception of the policies and procedures, support activities, and the university's technology transfer capacity improves, the barriers of both the researcher and those associated with the process are dissipated. This implies that universities should advance in the institutionalization of the third mission and in strengthening the functions of promotion, advice and support, as well as promotion structures and thus be able to mitigate the perceived barriers to the development of the University’s Third Mission.

Penerapan Pengendalian dengan Agens Hayati Lokal untuk Solusi Permasalahan Serangan OPT pada Tanaman Padi Organik di Desa Bumi Agung, Tegineneng, Pesawaran

OPT problems are still a major obstacle to organic rice cultivation due to limited understanding and control skills. The aim of implementing community service activities is to provide additional skills and insight regarding OPT control technology with local biological agents to solve the problem of organic rice farming in Bumiagung village, Tegineneng, Pesawaran. Technology transfer activities regarding the application of control with local biological agents to solve the problem of pest attacks on organic rice plants were carried out in Bumiagung Village, Tegineneng, Pesawaran which were carried out in June - October 2022 to the Progressive Organic Farmers Community. The stages of the activity are carried out in stages through conducting surveys, providing material, pre-testing, training and mentoring, post-testing, monitoring, and evaluation at the end of the activity. Before the activity begins, a survey is carried out to analyze conditions and problems and analyze the solutions needed for these problems. Farmers need to gain more knowledge and skills in managing pests that attack their land. The controls that are often used are vegetable pesticides and refugia. From the final evaluation results, the analysis shows that farmers realize that control with biological agents is effortless, inexpensive, and synergistic in supporting organic farming.

Ethics in Science, Technology and Innovation: Proposed regulation

Within the scope of the responsibility of promoting policies and legislation in the field of Science, Technology and Innovation (CTI) and the materialization of its Action Plan of the Ministry of Higher Education, Science, Technology and Innovation (MESCTI), a proposal for a General Code is presented of Ethics in Science, Technology and Innovation (CGECTI). This proposal arises from the need to fill gaps in the legislation on ethics in science and technology and was created with a view to presenting the general principles of ethics in carrying out Scientific Research and Experimental Development, Technology Transfer and Innovation activities; to promote the monitoring of the application of ethical principles internationally established and applicable to the exercise of scientific research, in accordance with the Constitution of the Republic, International Conventions, National Policy on Science, Technology and Innovation, the Statute of the Career of Scientific Investigators in force and other applicable legislation; and contribute to the scientific affirmation of Angola in the context of nations. Likewise, the aforementioned code proposal should consider principles and elements such as transversality, compatibility, definitions, supervision, honesty, integrity, training and skills and security. The preparation of this code proposal was based on some bibliographic sources produced by UNESCO, OECD, the Republic of Mozambique and Higher Education Institutions. The proposal comprises seven chapters divided by object, scope and purpose; ethical principles; national ethics commission; scientific area ethical council; duties and rights; sanctions; and final provisions. The proposal highlights the creation of a plural national commission, involving sectors of the state, the private sector, academic and scientific institutions, professional associations and civil society, as well as the formation of ethics committees by scientific area. This proposal should be submitted to the actors of the National System of Science, Technology and Innovation for contributions.

Nghiên cứu khoa học và chuyển giao công nghệ tại trường Đại học Kỹ thuật - Công nghệ Cần Thơ

The objective of this study is to an assessment of the current situation of scientific research and technology transfer of scientific products at Can Tho University of Technology. The analysis results show that, in the period of 2019 - 2021, scientific research and technology transfer activities of the university’s lecturers take place regularly, with a variety of products such as articles published in domestic journals, International journals, scientific research topics at grassroots, district and city levels. Besides, technology transfer of scientific products in the university has also changed in three years and there have been positive changes. Thereby, a number of solutions are proposed to help improve scientific research activities and better transfer technology to scientific products.

Outsourcing university research commercialization to a sophisticated technology transfer office: Evidence from Australian universities

A better understanding of how university technology transfer can be effectively achieved is critical for increasing the impact of academic research and driving innovation and economic growth. Considering this and the rapidly growing public policy attention on university-generated technology transfer, we provide evidence on the effect of outsourcing commercialization tasks on technology transfer performance. Using both qualitative and data-driven methods, we find that universities which outsourced to an established tech-transfer office of another university saw a greater opportunity for academics to engage with research commercialization and experienced a short-term increase in the capture of new discoveries and provisional patent filings. However, with respect to the more popular indicators of successful commercialization, patent applications, granted patents, license deals, and start-ups created, we find no evidence of an increase. Post-outsourcing we see evidence of a sustained advantage in some technology transfer activities, indicating a learning effect from engaging with a more experienced tech-transfer office.

MEASURES TO IMPROVE THE QUALITY OF SCIENTIFIC RESEARCH AND TECHNOLOGY TRANSFER ACTIVITIES AT UNIVERSITY OF EDUCATION, THAI NGUYEN UNIVERSITY, VIETNAM

In response to the requirements of general education reform, University of Education, Thai Nguyen University must simultaneously perform two tasks of improving the quality of training and developing scientific research activities and technology transfer. Therefore, many tasks for the teaching staff are studying and fostering to improve their professional qualifications, informatics, foreign languages, investing in research, compiling programs, textbooks, and learning materials. In the renewal of training objectives from providing knowledge as the main thing to promoting the capacity and qualities of students, scientific and technological activities play an important role. Students experience through scientific research activities to practice their thinking methods and practical problem-solving skills. At the same time, scientific products will enhance the reputation of the university. In fact, the university's scientific research and technology transfer activities have prospered, but have not been really synchronous and effective.

Realignment and change: CSIRO and industry 2000–10

In the first decade of the twenty-first century, CSIRO’s role broadened toward national mission-oriented research, less directly focused on supporting Australian industry. In terms of its legislated mandate, it deliberately placed increased emphasis on ‘contributing to the achievement of national objectives’ and less emphasis on ‘assisting Australian industry’. This change was accompanied by an organisational restructuring with the introduction of a national flagships' research program and a matrix management structure. We analyse this process of change and the reasons behind it and we investigate the effects of the new approach on CSIRO’s relationship with industry, and its technology transfer activities. While there was continuity in its commercial performance, the pattern of CSIRO’s client-directed research changed substantially, with a reduction in manufacturing-related research, and a notable growth in health- and environment-related research, in the main part for government agencies and departments. By the end of the decade the organisation had established a clear role for itself in the national innovation system, in which its relationship with Australian industry was no longer the dominant feature. It was a disruptive decade for CSIRO, but one in which the organisation demonstrated its capacity to adapt to a changing external environment.

ОРГАНІЗАЦІЙНО-ЕКОНОМІЧНІ І ІНСТИТУЦІЙНІ МОДЕЛІ ЕВОЛЮЦІЇ МІЖНАРОДНОГО ТРАНСФЕРУ ТЕХНОЛОГІЙ

It is well known that an extremely important role in ensuring long-term economic growth is played by the educational component of the technological evolution of world society. The circle of factors for the activation of technology transfer activities in the conditions of technoglobalism is quite wide, which is due to the awareness of the complexity of both the nature of socio-economic development and its driving forces. Summarizing the main provisions of scientific works on the development of Industry 4.0 makes it possible to single out a number of key factors of international scientific and technological exchange in the conditions of technoglobalism. It is well known that in the era of the dynamic deployment of Industry 4.0 and the widespread introduction of its technologies into the processes of global social reproduction, such processes as the digitization of all links of supply chains, conscientious and responsible performance of mutual obligations by business partners, permanent procurement and tracking of deliveries in real time mode. We can also identify the following stages of evolutionary development of models of international technology transfer, namely: the period of absence of a clearly defined model; the period of dominance of linear models of technology sharing; the period of formation of his interactive models; the period of dissemination of models of knowledge ecosystems. Now, as we can observe, the formation and dynamic introduction of Industry 4.0 technologies into global social production prove the objectivity, regularity and irreversible nature of the process of further deepening of the international division of labor according to all its key structural components – specialization and production cooperation. We can state that on the scale of the global economy, activities in the field of cross-border technology transfer are considered as a set of national policies in the field of higher education, science, innovation, migration, as well as business and antimonopoly policy. In addition, the practical development of the concept of open innovation and open science causes a significant expansion of international and global networks, specialized knowledge clusters and joint ventures, entrepreneurship research centers and science parks.

The Political Economy of Technology Transfer Rules of the US-China Phase One Trade Agreement: Competition of Global Technology Leadership

Over the past four decades, Intellectual Property (IP) has been one of the main controversies of US-China trade relations. But the current US-China trade war contains a new focus – technology transfer. This article adopts a socio-legal and economic approach to examine the current technology and trade tensions between these two countries and why China became an Information Technology (IT) powerhouse. It first provides an overview of IP and technology transfer rules under the Phase One US-China Economic and Trade Agreement (POA). It then explores different forms of forced technology transfer activities and the in-depth reasons for the US to shift its main IP concerns from IP enforcement to technology transfer. It explains why the US and China trade war is inevitable, why the current US-China IP-trade war is significantly different from previous ones, and the economic and political reasons behind the global technology leadership competition by the two countries. Finally, the author concludes that the POA and its technology transfer rules are not the ends of the game but just the start of the global technology leadership competition between the US and China.

Environmental Regulation and Green Technology Diffusion: A Case Study of Yangtze River Delta, China

As an important driver of green technology innovation, the impact of environmental regulation on the diffusion of green technology remains controversial. Taking China’s Yangtze River Delta (YRD) urban agglomeration, as an example, and using green patents transfer to measure green technology diffusion, this paper analyzes the effect of environmental regulation on green technology diffusion by revealing the temporal and spatial characteristics of green technology diffusion in the YRD. The results show that: (1) Green technology transfer activities in the YRD mainly take place in Shanghai, Hangzhou, Nanjing, Suzhou, and other cities. (2) Green building technology is the most demanded technology in the green technology transfer market in the YRD. (3) The direction of green technology diffusion in the YRD has changed significantly over time. In the early stage, green technologies mainly flowed to developed cities such as Shanghai, Suzhou, and Nanjing. However, in the later stage, green technologies mainly flowed from developed cities such as Shanghai, Suzhou, and Nanjing to cities with lower economic development levels (mostly located in Anhui Province). (4) The consistency of environmental regulation among cities plays an important role in promoting green technology transfer within the YRD, which is precisely what the YRD ecological green integrated development strategy emphasizes, breaking the administrative barriers between cities in the YRD and accelerating the flow of green technology between cities.

Autologous versus allogeneic: the future of manufacturing and standardization in cell therapies

Rupa Pike, PhD is the Senior Director of Technical Affairs for Advanced Therapies, Pharma Services Group at Thermo Fisher Scientific. The Office of Technical Affairs comprises scientific experts that serve as a strategic, innovational and educational leaders in the area of cell-based therapies, plasmids and mRNA therapeutics. In her prior role as the Director of Enterprise Science and Innovation Partnerships, she developed and managed strategic partnerships with global BioPharma, Biotech and Healthcare customers in the area of Cell and Gene Therapy. Prior to this, she was the Head of Technical Operations (Patheon/Thermo Fisher Scientific) where she worked closely with customers to conduct technology transfer and process optimization activities related to GMP manufacturing of cell-based therapies. She has over 15 years of expertise in GMP manufacturing and has successfully led GMP operations, Process Development and MSAT activities, infrastructure buildout, customer relations and business development.Delara Motlagh, PhD the General Manager of Cell Therapy Technologies at Terumo Blood and Cell Technologies, headquartered in Lakewood, Colorado. She is passionate about the cell & gene therapy market and the potential these innovative therapies hold to improve the lives of patients.She brings more than 18 years of experience in biotechnology and healthcare in various therapeutic areas including oncology, cardiology, orthopedics, hematology, and nephrology. Prior to joining Terumo Blood and Cell Therapies in 2017, Delara served in diverse leadership roles at Baxter Healthcare in marketing, research & development, and operations. Her cross-functional background provides a unique perspective and deep understanding of development, cell manufacturing, and commercialization elements in the industry. Delara received a PhD in Physiology and Biophysics from the University of Illinois, fellowship in Vascular Tissue Engineering at Northwestern University, and Executive MBA from Kellogg School of Management.Patrick Hanley, PhD is the Chief and Director of the Cellular Therapy Program and an associate professor of pediatrics at Children’s National Hospital and the George Washington University, respectively. He oversees processing for standard of care stem cell transplantation as well as the development, manufacture, quality, and testing of novel cellular therapies and is responsible for seeking partnerships and commercialization of promising cell and gene therapies. Trained as an Immunologist, Dr Hanley has an extensive background and interest in cellular therapy and is passionate about improving regulations for cellular therapy, training the next generation of cell therapists, and facilitating the translation of new therapeutics. Over the past 15 years he has helped to translate more than 300 products on over 25 cell therapy protocols – ranging from mesenchymal stromal cells to cord blood virus-specific T cells and tumor-associated antigen specific T cells – into the clinic.