Due to the changing technological possibilities of services, the demands that society places on the level of service provided by the Dutch Central Government (DCG) are changing rapidly. To accommodate this, the Dutch government is improving its processes in such a way that they become more agile and are continuously improved. However, the DCG struggles with the implementation of improvement tools that can support this. The research described in this paper aims to deliver key factors that influence the adoption of tools that improve the agile way of working and continuous improvement at the DCG. Therefore, a literature review has been conducted, from which 24 factors have been derived. Subsequently, 9 semi structured interviews have been conducted to emphasize the perspective of employees at the DCG. In total, 7 key factors have been derived from the interviews. The interviewees consisted of both employees from departments who already worked with tools to improve agile working and continuous improvement as well as employees from departments who haven’t used such tools yet. An important insight based on this research is that the aims, way of working and scope of the improvement tools must be clear for all the involved co-workers
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Amsterdam as a lab. That is what Amsterdam University of Applied Sciences' three fieldlabs and its many partners have in mind. Functional illiteracy, debts, learning deficiencies or problems caused by extreme precipitation: the city contains plenty of tough issues, demanding novel approaches in which co-creation and participation by residents, social organizations and knowledge institutions are basic principles.In the fieldlabs, people try to change current practices by working with, instead of for or on behalf of those whom it concerns. But how to achieve effective learning environments between parties? How to encourage stakeholder participation in complex issues? And how to build new relations and roles?
At present, COVID-19 has caused a possible paradigm shift in education, especially in education delivery for higher educational and learning institutions. To align with the national government and relevant national/international authorities’ policies and to avoid the spread of the virus, educational institutions in many nations have decided to temporarily suspend the traditional classroom-based education and replace it with online-based education. This studyaims at exploring the impact of COVID-19 pandemic and obligatory remote working on work-life balance, mental health and productivity of faculty members working in higher education institutions (HEI). The study is exploratory and uses a qualitative approach using an online survey strategy to include voices of faculty members from different countries. While the results of this study indicate both positive and negative effects of obligatory remote working on faculty members’ work-life balance, well-being and productivity at the same time our findings indicate that university administration must pay heed to address concerns presented in the results.
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The objective of CW4N is to identify opportunities for wood reuse through the use of advanced digital production technologies1, and develop related implementation strategies for public organisations, in particular housing corporations and municipalities. Strategies include concrete proposals on how to: a) collect and process wood waste from residential buildings; b) add value to reclaimed wood by means of digital production; c) increase tenant involvement and acceptance for waste wood collection and circular reuse; d) create impactful applications for a circular economy. The research is carried out in four work packages. The first identifies the nature of residential wood waste (volume, type, application) from past case projects of housing corporations Ymere and Rochdale. Their upcoming renovation plans are evaluated, to identify resources and hotspots for future implementations. The second workpackage explores what applications can be conceived, given the available wood and digital production tools at the AUAS Robot Lab. In the third workpackage case studies are carried out for actual projects of the housing corporations. Physical prototypes are used as conversation pieces to involve tenants and increase their acceptance for circular applications. In the fourth workpackage all findings are combined in a set of implementation strategies. High-quality data-collection is crucial for the project, since it will determine the nature of the materials for designing and manufacturing applications. In this proposal, additional resources are added to the project to take care of data-collection. Due to covid-19, project managers at Ymere and Rochdale must focus on day-to-day work to get ongoing and planned building projects done, reducing their time for data collection from previous projects. In addition, because of teleworking, non-digital data such as drawings and reports are not easily accessible. To enhance data-collection, student-assistants will be added to the project to survey ongoing renovation projects in the field.
The EU Climate and Energy Policy Framework targets a 40% reduction in Greenhouse Gases (GHGs) emission by companies (when compared to 1990’s values) in 2030 [1]. Preparing for that future, many companies are working to reach climate neutrality in 2030. For water and wastewater treatment plants aeration processes could represent up to 70% of the whole energy consumption of the plant. Thus, a process which must be carefully evaluated if climate neutrality is a target. VortOx is an alternative to reduce power consumption in aeration processes. It is structured to test the applicability of geometrically constrained vortices in a hyperbolic funnel (aka “Schauberger”- funnel) as an innovative aeration technique for this industry. Recent investigations have shown that such systems allow an average of 12x more oxygen transfer coefficients (KLa) than that of comparable methods like air jets or impellers [10]. However, the system has a relatively small hydraulic retention time (HRT), which compromises its standard oxygen transfer ratio (SOTR). Additionally, so far, the system has only been tested in pilot (lab) scale. Vortox will tackle both challenges. Firstly, it will test geometry and flow adaptations to increase HRT keeping the same KLa levels. And secondly, all will be done using a real scale hyperbolic funnel and real effluent from Leeuwarden’s wastewater treatment plant demo-site. If proven feasible, Vortox can be a large step towards climate neutral water and wastewater treatment systems.
