1.Overview SPARC(Stratosphere-Troposphere Processes and their Role in Climate)is one of the core projects of the World Climate Research Program(WCRP),coordinating international efforts to address relevant issues i...1.Overview SPARC(Stratosphere-Troposphere Processes and their Role in Climate)is one of the core projects of the World Climate Research Program(WCRP),coordinating international efforts to address relevant issues in climate and climate prediction via better understanding of the stratosphere-troposphere system.展开更多
Throughout the world, infrastructure to support cities is critical to support sustainable and responsible economic development. This can include new infrastructure projects in the case of growing areas. It can also in...Throughout the world, infrastructure to support cities is critical to support sustainable and responsible economic development. This can include new infrastructure projects in the case of growing areas. It can also include the renewal and upgrading of existing infrastructure in areas that have been inhabited and already developed. Infrastructure includes roads, bridges and transportation systems; power grids and energy service;internet and telecommunications; and water and sewer services. This development can be part of a system of systems, in which government, industries, and universities can contribute knowledge, skills, and abilities. This paper will investigate the strategic project management taken by one university to provide an academic experience that will prepare engineering students to address several of the Grand Engineering Challenges of the 21 st Century, as identified by the US National Academy of Engineering.The challenges relating to energy, water, information, and urban infrastructure can be approached using the functions of teaching, research, and service. By approaching the challenges strategically, resources of faculty time, student effort and laboratory facilities can be leveraged to achieve greater results. This case study will describe the efforts and results to date and identify opportunities for future growth.展开更多
What is open innovation? There are different definitions of open innovation, depending, at least, on three parameters: source, ownership, or users of the knowledge linked to innovation. The aim of the paper is to ma...What is open innovation? There are different definitions of open innovation, depending, at least, on three parameters: source, ownership, or users of the knowledge linked to innovation. The aim of the paper is to make a systematic literature review, to map open innovation studies, and to re-conceptualize the openness according to two dimensions: degree of technology convergence and ontology of openness. In particular, we propose a classification of open innovation, based on the distinction between the originator/developer of the knowledge and the user. Users are a ubiquitous category, because they can be originators, as well as customers of the innovation itself. Therefore, we point out that there are three types of open innovation, whose degree of openness is defined according to an ontological dimension: at users’ level, at an industry level, and among different fields or industries. Firm’s structure affects the propensity to open innovation adoption; and the type of innovation itself. Finally, we identify another literature gap: the relationship between the open innovation model and grand challenge. Even if open innovation seems to be ideally connected to grand challenges and many industries actually adopt this model, there seems to emerge a gap in literature. Therefore, we propose a conceptual model for future researches.展开更多
Big open data comprising comprehensive,long-term atmospheric and ecosystem in-situ observations will give us tools to meet global grand challenges and to contribute towards sustainable develop-ment.United Nations’Sus...Big open data comprising comprehensive,long-term atmospheric and ecosystem in-situ observations will give us tools to meet global grand challenges and to contribute towards sustainable develop-ment.United Nations’Sustainable Development Goals(UN SDGs)provide framework for the process.We present synthesis on how Station for Measuring Earth Surface-Atmosphere Relations(SMEAR)observation network can contribute to UN SDGs.We describe SMEAR II flagship station in Hyytiälä,Finland.With more than 1200 variables measured in an integrated manner,we can under-stand interactions and feedbacks between biosphere and atmo-sphere.This contributes towards understanding impacts of climate change to natural ecosystems and feedbacks from ecosys-tems to climate.The benefits of SMEAR concept are highlighted through outreach project in Eastern Lapland utilizing SMEAR I observations from Värriöresearch station.In contrast to boreal environment,SMEAR concept was also deployed in Beijing.We underline the benefits of comprehensive observations to gain novel insights into complex interactions between densely popu-lated urban environment and atmosphere.Such observations enable work towards solving air quality problems and improve the quality of life inside megacities.The network of comprehensive stations with various measurements will enable science-based deci-sion making and support sustainable development by providing long-term view on spatio-temporal trends on atmospheric compo-sition and ecosystem parameters.展开更多
基金sponsored by WCRP,SPARC,KOPRI(Korean Polar Research Institute)NIMS(National Institute of Meteorological Sciences)+1 种基金KMS(Korean Meteorological Society)supported by the National Research Foundation of Korea(Grant Nos.NRF-2016R1C1B2006310 and NRF-2017R1C1B1009965)
文摘1.Overview SPARC(Stratosphere-Troposphere Processes and their Role in Climate)is one of the core projects of the World Climate Research Program(WCRP),coordinating international efforts to address relevant issues in climate and climate prediction via better understanding of the stratosphere-troposphere system.
文摘Throughout the world, infrastructure to support cities is critical to support sustainable and responsible economic development. This can include new infrastructure projects in the case of growing areas. It can also include the renewal and upgrading of existing infrastructure in areas that have been inhabited and already developed. Infrastructure includes roads, bridges and transportation systems; power grids and energy service;internet and telecommunications; and water and sewer services. This development can be part of a system of systems, in which government, industries, and universities can contribute knowledge, skills, and abilities. This paper will investigate the strategic project management taken by one university to provide an academic experience that will prepare engineering students to address several of the Grand Engineering Challenges of the 21 st Century, as identified by the US National Academy of Engineering.The challenges relating to energy, water, information, and urban infrastructure can be approached using the functions of teaching, research, and service. By approaching the challenges strategically, resources of faculty time, student effort and laboratory facilities can be leveraged to achieve greater results. This case study will describe the efforts and results to date and identify opportunities for future growth.
文摘What is open innovation? There are different definitions of open innovation, depending, at least, on three parameters: source, ownership, or users of the knowledge linked to innovation. The aim of the paper is to make a systematic literature review, to map open innovation studies, and to re-conceptualize the openness according to two dimensions: degree of technology convergence and ontology of openness. In particular, we propose a classification of open innovation, based on the distinction between the originator/developer of the knowledge and the user. Users are a ubiquitous category, because they can be originators, as well as customers of the innovation itself. Therefore, we point out that there are three types of open innovation, whose degree of openness is defined according to an ontological dimension: at users’ level, at an industry level, and among different fields or industries. Firm’s structure affects the propensity to open innovation adoption; and the type of innovation itself. Finally, we identify another literature gap: the relationship between the open innovation model and grand challenge. Even if open innovation seems to be ideally connected to grand challenges and many industries actually adopt this model, there seems to emerge a gap in literature. Therefore, we propose a conceptual model for future researches.
基金We acknowledge the following projects:ACCC Flagship funded by the Academy of Finland grant number 337549,Russian Mega Grant project“Megapolis-heat and pollution island:interdisciplinary hydroclimatic,geochemical and ecological analysis”application reference 2020-220-08-5835“Quantifying carbon sink,CarbonSink+and their interaction with air quality”INAR project funded by Jane and Aatos Erkko Foundation,European Research Council(ERC)project ATM-GTP Contract No.742206the Arena for the gap analysis of the existing Arctic Science Co-Operations(AASCO)funded by Prince Albert Foundation Contract No.2859.We thank the technical and scientific staff in Värriöand Hyytiälästations.We also would like to thank Dr.Nuria Altimir,University of Helsinki,for the design of the SMEAR station schematic visuals.
文摘Big open data comprising comprehensive,long-term atmospheric and ecosystem in-situ observations will give us tools to meet global grand challenges and to contribute towards sustainable develop-ment.United Nations’Sustainable Development Goals(UN SDGs)provide framework for the process.We present synthesis on how Station for Measuring Earth Surface-Atmosphere Relations(SMEAR)observation network can contribute to UN SDGs.We describe SMEAR II flagship station in Hyytiälä,Finland.With more than 1200 variables measured in an integrated manner,we can under-stand interactions and feedbacks between biosphere and atmo-sphere.This contributes towards understanding impacts of climate change to natural ecosystems and feedbacks from ecosys-tems to climate.The benefits of SMEAR concept are highlighted through outreach project in Eastern Lapland utilizing SMEAR I observations from Värriöresearch station.In contrast to boreal environment,SMEAR concept was also deployed in Beijing.We underline the benefits of comprehensive observations to gain novel insights into complex interactions between densely popu-lated urban environment and atmosphere.Such observations enable work towards solving air quality problems and improve the quality of life inside megacities.The network of comprehensive stations with various measurements will enable science-based deci-sion making and support sustainable development by providing long-term view on spatio-temporal trends on atmospheric compo-sition and ecosystem parameters.