From Chooz to the Ling'ao NPP:The Technology Transfer of Pressurized Water Reactor Technology from France to China

The transfer of pressurized water reactor(PWR)technology from France to China is an important event in the history of Sino-French scientific and technological relations.China has gradually achieved self-reliance in the field of PWR technology through the introduction and subsequent absorption of France's 900 MW reactors.Compared with the process of introducing and absorbing similar technology from the United States by France,China's experience has been more complicated.This circumstance reflects the differences in the nuclear power technology systems between the two countries.France's industrial strength and early acquisition of nuclear power technology laid a solid foundation for mastering PWR technology.On the other hand,although China established a weak foundation through the implementation of the"728 Project,"and tried hard to negotiate with France,the substantive content of the technology transfer was very limited.By way of the policy transition from"unhooking of technology and trade"to"integration of technology and trade,"China ultimately accomplished the absorption and innovation of PWR technology through the Ling'ao NPP.

Transforming Molecules into Medicines: Role of CDMOS in Phase-Appropriate Technology Transfers in Advancing Pharmaceutical Innovation

CDMOs are emerging as critical drivers of innovation within the pharmaceutical and biotech industries. As the pharmaceutical industry continues to evolve, we can expect to see CDMOs play an increasingly important role in drug development and manufacturing. Many companies within these sectors are now leveraging the expertise of CDMOs through technology transfers to foster innovation and enhance the development of new drug products. In the extensive field of drug development, technology transfer plays a crucial role at multiple stages, ranging from preclinical phases to commercialization. By working closely with drug developers, CDMOs can ensure that technologies are transferred seamlessly between phases of drug development, allowing for a more efficient and cost-effective development process. CDMOs also bring a wealth of experience in various areas of drug development, including process development, analytical testing, quality control, and manufacturing. This expertise, combined with a focus on innovation, can help drug developers to overcome technical challenges and optimize their drug development programs. CDMOs can provide drug developers with various manufacturing capabilities, from small-scale clinical trials to large-scale commercial production. This flexibility allows drug developers to focus on their core competencies while relying on CDMOs to provide the necessary infrastructure and support for drug manufacturing. The critical role of CDMOs in advancing pharmaceutical innovation in phase-appropriate technology transfer where there will be a lot of effort and patience with strong technical expertise is required. This article explores the various types of Technology transfer from preclinical to commercial stages and successful strategies to foster innovation.

Technology Transfer as the Process of Pharmaceutical Quality System： Modelling Technology Transfer as a Process Strategy

The recent GMP （good medical practice） rules actualisation and its requirements introduction widened the GMP guidelines for every life cycle of medicinal products, including the stage of processes scaling and technology transfer. This requires the technology transfer process to be regulated as the part of pharmaceutical quality system and the following development of corresponding written procedures. The following publication is dedicated to the development of TTP （technology transfer process） and its accessible graphic formalisation alongside the definition of main stages and possible procedures limited by the offered model. According to the actualized GMP rules, the technology transfer is an essential part of pharmaceutical quality system at a modem pharmaceutical company.

The Route of V-2 Technology Transfer from Germany to the USSR,and on to China

V-2 technology was transferred from Germany to the Union of Soviet Socialist Republics(USSR)and then on to China.The USSR imitated the captured German V-2 rocket,and independently developed the R-2.Later,China imitated the R-2 rocket provided by the USSR,and independently developed the Dong Feng-2(DF-2).The imitation or localization of foreign products is a key stage prior to independent development.Independent development of new models,in turn,is not only indicative of an upgrading of the transferred technology and the mastering of foreign technology,but also an illustration of innovation.Talent is the crucial resource on which technology transfer relies.The administrative system and domestic collaboration network required to coordinate the necessary tasks,including research,experimentation,design,and manufacture were established both in the USSR and in China.

Is China’s Foreign Investment Policy to Blame for US-China “Forced Technology Transfer” and Trade Conf lict?——Comment on Trump Administration’s Section 301 Investigation of China

The paper presents a new analytical framework to discuss the effect of Chinese foreign investment policy on the international technology transfer absorbed by enterprises of different ownership.The US Trade Representative claims that the Chinese government’s requirements regarding joint ventures pressure US companies to transfer intellectual property to Chinese companies.However,we argue that:(1)Based on analysis of the technical fees of technology import contracts and the number of US patents transferred to enterprises registered in the Chinese mainland,China’s foreign investment policy does not pressure US companies to transfer unremunerated technology to Chinese companies.(2)The invention and utility model patents filed by Chinese joint-venture enterprises or Chinese partner companies do not show an abnormally rapid growth,which means China’s FDI policy does not force US companies to transfer intellectual property in exchange for China’s market.(3)After 2012,the US-China technology transfer absorbed by enterprises of different ownership showed a significantly positive effect in reducing China-US trade surplus.

Intellectual Property Management in Technology Transfer among Companies

Intellectual property management plays a very important role in the process of technology transformation among different companies. This article discusses the main methods and mode which companies usually used to manage their IPM in market. Some suggestions are also provided for the company managers.

Transfer of European Clock-Making Technology into China during the Seventeenth and Eighteenth Centuries

From the 1580s onwards,Catholic missionaries introduced European mechanical clocks into China as gifts for officials or emperors,with the aim of establishing a good relationship with the Chinese leadership in order to do missionary work.After the seventeenth century,European clock-makers in the imperial palace made complicated clocks according to the emperors’desires.There were a number of workshops for producing European-style clocks in Guangzhou,Suzhou,Nanjing,and other cities during the eighteenth and nineteenth centuries.It was,however,difficult for the experienced craftsmen to innovate new clockwork.The main reasons for the development of European clock technology in China were its technical superiority,the missionaries’introduction,and the Chinese interest in clocks.

Technology-Transfer Through International Network Formation： Revisiting the Role of Cultural Variation

This paper studies the factors affecting the technology-transfer within international research and development （R＆D） networks. Specifically, this study examines the characteristics of ties, actors, and international network configuration to assess finn＇s accessibility to unique technologies. This study was conducted by research analysis in the aerospace industry. The total sample size used in this study is 125 cases of international R＆D consortiums from January 1980 to December 2000. The result of this study supports the effects of ＂strength of tie＂ and ＂characteristic of actors＂ on the technology transfer explained by network theory. It also demonstrates that the international network structure that would facilitate the technology transfer is shaped by dual type of tie; the apparent type of tie is general, usual, and functional tie, and the hidden one is the national culture.

Research on Chinese agricultural technology transfer to Vietnam under of the Belt and Road Initiative

Since the Belt and Road Initiative was put forward,the agricultural technology exchanges between China and Vietnam have become more and more frequent.With its unique geographical advantages,economic differences and technological complementarities,China is steadily advancing its agricultural technology transfer to Vietnam.This paper analyzes that the main driving force of Chinese agricultural technology transfer to Vietnam is the existence of technological potential difference.This paper puts forward corresponding countermeasures and suggestions from three aspects of government,agricultural enterprises and scientific research institutions.

NEW POLICIES PROMOTE TECHNOLOGY TRANSFER

The Chinese government issued a regulation on promoting the transformation of R&D results recently. The new policies, which were jointly formulated by seven governmental departments, are aimed at further encouraging China’s scientists to commercialize their R&D results, set up new hi-tech business and speed up the process of China’s hi-tech industrialization.

A Historical Approach on the Opportunity to Acquire Technology Development Capability in Turkish Automobile Industry

Turkey has given importance to the development of the automobile industry since the Ottoman period.While the Ottomans,who were aware of the development process of the automobile industry in the world,provided transportation by horse-drawn carriage,they thought of importing automobiles for the Sultan and high-level bureaucrats in an effort to switch to automobile transportation.However,after the proclamation of the Republic,automobile production started,just like airplanes.While a factory was established for the production of a domestic aircraft,the first automobile production facility was established in Istanbul in 1929 by the American Ford company.This factory was closed after a short time due to the world economic crisis.After the activities of the Kayseri Aircraft Factory,which lasted until 1948,came to an end,this time,Revolution car prototypes could be manufactured completely domestically in 1961.After the project,which did not go into mass production,the KoçGroup started to produce the domestically-made Anadol car with technology transfer from multiple sources in 1967,but the production of Anadol continued until 1984.In 1971,Renault cars started to be produced under the French Renault license,and TOFAŞcars under the Italian FIAT license.Towards the end of the 1970s,creative imitation applications were made in TOFAŞcars with the bird series.In the 1990s,the production of Japanese Honda and Toyota and South Korean Hyundai cars started.In 2011,the idea of producing a domestic automobile emerged,the Devrim automobile was taken as an example in this project,the first Togg prototype was manufactured with technology transfer from multiple sources in December 2018,and it was announced that mass production would begin in March 2023.The 12-year period from 2011 to 2023 is too long for the creation of a domestic automobile.It has been understood that this long process has been passed in order to regain the pre-1980 level of technological ability.However,the most important thing is the transition from the creative imitation stage to the innovation stage.Our wish is that this process can be shortened with phase skipping approaches.

What role do emission trading schemes,energy innovation,and technology transfer play in sustainable recovery?A perspective from BRICS economies

To ensure long-run sustainability,it is imperative to achieve the goal of zero-carbon emissions without compromising economic growth.Identifying whether BRICS economies,which are an attractive set of countries due to their rapid economic growth and high emissions,can shift towards sustainability with the support of policy measures,is a question which needs to be addressed.This article investigates the impact of emission trading schemes,energy innovation,technology transfer,population growth,and inflation on the economic performance of BRICS economies(2001-2020).The outcomes of the CS-ARDL and PMG estimators reveal that carbon taxes,carbon finance,energy innovation,technology transfer,population growth,and inflation have positive effects on economic performance.In light of the evidence,policy insights are recommended to achieve a win-win situation for economic and environmental performance.

Transfer of Australian environmental research on the insecticide endosulfan to Anhui Province, China

This paper reports on a case study that involved the transfer of (1) methods for the analysis and (2) information on the fate and proper use of the agricultural chemicals, endosulphan, from Australia to Anhui Province, China. A key outcome from the case study was that there was relatively little awareness of the potential environmental impacts from the use of endosulphan. Cross\|cultural constraints in the interaction were identified and areas which will require further effort in technology transfer were discussed.

Predictive Mathematical and Statistical Modeling of the Dynamic Poverty Problem in Burundi: Case of an Innovative Economic Optimization System

The mathematical and statistical modeling of the problem of poverty is a major challenge given Burundi’s economic development. Innovative economic optimization systems are widely needed to face the problem of the dynamic of the poverty in Burundi. The Burundian economy shows an inflation rate of -1.5% in 2018 for the Gross Domestic Product growth real rate of 2.8% in 2016. In this research, the aim is to find a model that contributes to solving the problem of poverty in Burundi. The results of this research fill the knowledge gap in the modeling and optimization of the Burundian economic system. The aim of this model is to solve an optimization problem combining the variables of production, consumption, budget, human resources and available raw materials. Scientific modeling and optimal solving of the poverty problem show the tools for measuring poverty rate and determining various countries’ poverty levels when considering advanced knowledge. In addition, investigating the aspects of poverty will properly orient development aid to developing countries and thus, achieve their objectives of growth and the fight against poverty. This paper provides a new and innovative framework for global scientific research regarding the multiple facets of this problem. An estimate of the poverty rate allows good progress with the theory and optimization methods in measuring the poverty rate and achieving sustainable development goals. By comparing the annual food production and the required annual consumption, there is an imbalance between different types of food. Proteins, minerals and vitamins produced in Burundi are sufficient when considering their consumption as required by the entire Burundian population. This positive contribution for the latter comes from the fact that some cows, goats, fishes, ···, slaughtered in Burundi come from neighboring countries. Real production remains in deficit. The lipids, acids, calcium, fibers and carbohydrates produced in Burundi are insufficient for consumption. This negative contribution proves a Burundian food deficit. It is a decision-making indicator for the design and updating of agricultural policy and implementation programs as well as projects. Investment and economic growth are only possible when food security is mastered. The capital allocated to food investment must be revised upwards. Demographic control is also a relevant indicator to push forward Burundi among the emerging countries in 2040. Meanwhile, better understanding of the determinants of poverty by taking cultural and organizational aspects into account guides managers for poverty reduction projects and programs.

Development and Commercialization of New Autonomous Low Power Systems for Energy Harvesting

This paper evaluates new technologies for energy harvesting from the environment. We assess the reliability, accuracy, and autonomy of low power electronic devices, their market opportunities, and their ability to enhance sustainable development. For small, portable applications that need long lifetime energy supply systems, size, width, finite energy lifetime, and the need for replacement are important drawbacks. New supply alternatives should be explored that are able to make recharging easier or to remove battery dependence altogether. A new trend in the energy sources for low power applications has emerged in recent years, involving the harvesting of the energy available in the environment to supply power for electronic applications instead of using battery technologies that provide only short, finite amounts of energy. In this paper, we describe an all-purpose module of energy harvesting from mechanical, thermal, solar and RF energy sources developed at the University of Barcelona. We provide proof of concept in order to incorporate this novel energy technology in a wide range of applications and environments.

Influence of technology transfer from universities on manufacturing firms'innovative performance

Technology transfer(TT)from universities to manufacturing firms is important for enhancing innovation performance(IP)and ultimately improving competitiveness.However,TT is hampered by bureaucracy,inertia,inefficiency,cognitive dissonance,and low research and development activity.The purpose of this study is to examine the relationship between TT from universities to manufacturing firms and their IP.This study was conducted based on Megnigbeto's(2018)triple helix game theory.A mixed-method approach was used.The independent variable was TT,measured in terms of technology spillover,networking,and the presence of accelerators and incubators within a firm's locality.The dependent variable was IP,measured through innovation output and innovation efficiency.This study used an explanatory sequential research design.The target population was manufacturing firms in Kenya,identified using a multi-stage sampling strategy.Primary data were collected using semi-structured questionnaires,interview schedules,and checklists.Linear regressions,hierarchical multiple moderated regressions,structural equation modeling,and partial least squares were used to test the hypotheses.The results indicate that TT from universities significantly influences IP in manufacturing firms.Universities are important intermediaries of TT in manufacturing firms in Kenya because of their improved IP and competitiveness.Universities should create dynamic linkages with industries and adopt an engaged learning approach in their programs to create greater and more unique values for enhanced competitiveness and sustainable development.

Antibody-Drug Conjugates (ADCs): Navigating Four Pillars of Safety, Development, Supply Chain and Manufacturing Excellence

Antibody-drug conjugates (ADCs) are pioneering biologics that merge antibodies’ specificity with small molecules’ potency. With a handful of FDA-approved ADCs in the market and many under development, ADCs are poised to revolutionize therapeutics. This paper examines the complexities of ADC production, emphasizing the importance of process characterization and the pivotal role of supply chain characteristics, safety requirements, and Contract Manufacturing Organizations (CMOs) with proficiency. The swift transition of antibody-drug conjugate (ADC) programs from early to advanced clinical stages underscores the urgency for quick and efficient commercial launch preparation. This article delves into strategies to hasten commercial readiness, supply chain strategy, the significance of partnering with adept contract development and manufacturing organizations (CDMOs), and the challenges of ADC production.

Climate technology transfer in BRI era:needs,priorities,and barriers from receivers’perspective

Technology is an instrument to build BRI relationships,mitigate the environmental and climate impacts of BRI projects,as well as to enhance environmental sustainability in the regions.This study aims to reposition China in global climate technology transfer in BRI era and to obtain initial knowledge on needs,priorities,and barriers from the receivers’perspective.Focus group method with aid of questionnaire survey and follow-up face-to-face interviews was adopted to capture the major issues directly expressed by receivers from these countries.A total of 63 valid questionnaires were collected,and 13 respondents were face-to-face interviewed.The results confirmed that energy and agriculture were the most prioritized sectors for mitigation and adaptation in the developing countries alongside OBOR.The prioritized technologies for mitigation included cogeneration,solar photovoltaic,and biomass/biogas electricity.Irrigation,conservation agriculture,and soil management were prioritized for adaptation in agricultural sector,and water recycling and reuse,source water protection,and urban drainage management in water resource sector.Technology cost during installation and operation was stressed as the most important factor constraining the application and diffusion of climate technologies.But communication including language,information,and ways of communication,was also identified as an important factor.This implied that the conventional climate technology transfer need adapt to changing contexts of BRI and be complemented with innovative approaches involving multi-actors in different phases of climate technology development.Due to the limited representativeness of the sample,the results can hardly be generalized to all the countries,but raised interesting topics for future researches.