Open innovation benefits from access to cutting-edge discoveries to increase their transformation into tangible applications for the benefit of society.Improving research quality has been proposed as a primary objecti...Open innovation benefits from access to cutting-edge discoveries to increase their transformation into tangible applications for the benefit of society.Improving research quality has been proposed as a primary objective of open science by the United Nations,to increase science reproducibility,impact,and trust,leading to robust decision-making and policies.However,opening access to data and processes is insufficient for researchers to achieve open innovation in the context of globalization,for example,by gathering insights from external and internal sources.Developing the appropriate mindset to manage complexity and generate synergy among researchers in academia,industry,and the government is essential to catalyze knowledge and transform it into relevant innovations for society.To gain insights into the roles and challenges of researchers aiming to bridge the gap between open science and open innovation,a decade-plus Mapping Literature Review was conducted based on the complex thinking paradigm.Complex thinking allows for novel connections of the information collected through open science and open innovation,considering different forms of engaging with alternative means of knowledge creation that may promote innovative and critical thinking.The findings revealed:a)broad positioning of the terms in the European Union;b)open access and open data as current driving themes;c)a constant trade-off between the terms“open data”and“information protection”;d)lack of studies on researchers’complex thinking to help them manage openness;e)absence of the environmental helix in the initiatives;and(f)challenges in innovative communication and collaborative practices among public and private entities.Overall,we identified an opportunity to develop researchers’complex thinking such that the openness of information becomes a shared responsibility among partners across multiple helices.This shared responsibility can have methodological implications that permeate how open science and open innovation are theorized and,in practice,facilitate the development of fundamental collaborative research procedures.展开更多
Mega-projects are characterized by their large-scale investments, long life-cycle, and extraordinary levels of organizational, technological, and environmental complexity (Flyvbjerg, 2017). They are naturally regard...Mega-projects are characterized by their large-scale investments, long life-cycle, and extraordinary levels of organizational, technological, and environmental complexity (Flyvbjerg, 2017). They are naturally regarded as large, coupled human, and physical systems consisting of coupled sub-systems linked through flows of human, information, and matter; these systems evolve through time (Bakhshi et al., 2016; Kiridena and Sense, 2016). Not about let systems be, engineering refers to "making things happen" with convergence, optimum design, and operation consistency (Mihm et al., 2003; Ottino, 2004). Specially, mega-projects, which are regarded as typically artificial complex systems, are composed of elements with different properties; connections among those elements change invariably. Mega-project management is proposed to analyze and deal with complexity (Sheng, 2018).展开更多
基金the financial support of Tecnologico de Monterrey through the“Challenge-Based Research Funding Program 2022”.Project ID#I001-IFE001-C1-T1-E.
文摘Open innovation benefits from access to cutting-edge discoveries to increase their transformation into tangible applications for the benefit of society.Improving research quality has been proposed as a primary objective of open science by the United Nations,to increase science reproducibility,impact,and trust,leading to robust decision-making and policies.However,opening access to data and processes is insufficient for researchers to achieve open innovation in the context of globalization,for example,by gathering insights from external and internal sources.Developing the appropriate mindset to manage complexity and generate synergy among researchers in academia,industry,and the government is essential to catalyze knowledge and transform it into relevant innovations for society.To gain insights into the roles and challenges of researchers aiming to bridge the gap between open science and open innovation,a decade-plus Mapping Literature Review was conducted based on the complex thinking paradigm.Complex thinking allows for novel connections of the information collected through open science and open innovation,considering different forms of engaging with alternative means of knowledge creation that may promote innovative and critical thinking.The findings revealed:a)broad positioning of the terms in the European Union;b)open access and open data as current driving themes;c)a constant trade-off between the terms“open data”and“information protection”;d)lack of studies on researchers’complex thinking to help them manage openness;e)absence of the environmental helix in the initiatives;and(f)challenges in innovative communication and collaborative practices among public and private entities.Overall,we identified an opportunity to develop researchers’complex thinking such that the openness of information becomes a shared responsibility among partners across multiple helices.This shared responsibility can have methodological implications that permeate how open science and open innovation are theorized and,in practice,facilitate the development of fundamental collaborative research procedures.
基金funded by the National Natural Science Foundation of China(Grant Nos.71390521 and 71771125)
文摘Mega-projects are characterized by their large-scale investments, long life-cycle, and extraordinary levels of organizational, technological, and environmental complexity (Flyvbjerg, 2017). They are naturally regarded as large, coupled human, and physical systems consisting of coupled sub-systems linked through flows of human, information, and matter; these systems evolve through time (Bakhshi et al., 2016; Kiridena and Sense, 2016). Not about let systems be, engineering refers to "making things happen" with convergence, optimum design, and operation consistency (Mihm et al., 2003; Ottino, 2004). Specially, mega-projects, which are regarded as typically artificial complex systems, are composed of elements with different properties; connections among those elements change invariably. Mega-project management is proposed to analyze and deal with complexity (Sheng, 2018).