Simone Fanelli, Gianluca Lanza and Antonello Zangrandi
The purpose of this paper is to describe the design and construction of a privilege mapping system (clinical and organizational competences) of the medical staff of the Niguarda…
Abstract
Purpose
The purpose of this paper is to describe the design and construction of a privilege mapping system (clinical and organizational competences) of the medical staff of the Niguarda Hospital in Milan, Italy. The second aim is to measure and assess the impact of implementing an evaluation process of clinical competences at the same hospital.
Design/methodology/approach
The paper retraces the development and implementation of the evaluation of the privilege system, highlighting the subjects involved, the phases and outputs. Moreover, a questionnaire was distributed to 50 heads of unit involved in the planning, building and implementation of competences mapping. Five areas were investigated: competences evaluation for professional development; the impact on work organization and professional roles; professional collaboration; its impact according to context (hospital or unit) and time scale (short or long term); and ability to evaluate clinical outcome.
Findings
Results reveal success factors for the development and implementation of a privilege mapping system. Furthermore, the survey revealed that clinical leaders are aware of the importance of competences evaluation. In particular, they consider it as a management tool useful for professional development, for identifying excellence and planning operational activities.
Originality/value
Literature and practical evidence recognize the need to assess the clinical and organizational competences in order to assign tasks and responsibilities. However, there are no studies that describe the construction of systems of evaluation of privileges, as it has never been investigated as professionals perceive these tools.
Details
Keywords
Fiorella Pia Salvatore, Simone Fanelli, Gianluca Lanza and Michele Milone
The study objective was to understand if uniformity of approach exists in evaluation methods of public food tender for schools at national and local level. This purpose was…
Abstract
Purpose
The study objective was to understand if uniformity of approach exists in evaluation methods of public food tender for schools at national and local level. This purpose was divided into three sub-objectives: (1) to extract the main criteria, (2) to document the synthesizing findings process and (3) to prioritize the different decision-making alternatives through pairwise comparisons.
Design/methodology/approach
To achieve the sub-objectives (1) and (2), a content analysis of the Italian food tenders was carried out. Analytic hierarchy process was used to evaluate and compare the importance of various food tender evaluation criteria (3). The inclusion criteria were: cities' selection; metro area population; population density; duration of the contract; years.
Findings
Six public food tenders were analyzed. The first one concerned the National legislation guidelines. The remaining five food tenders were categorized according to the city investigated. Four macro-categories (Food quality; Sustainability; Resources; Ancillary services) were classified. AHP revealed that “Food quality” and “Resources” categories have greater importance in the evaluation phase of almost all cities investigated.
Originality/value
This study in-depth analyzes each criterion used to evaluate public food tenders, providing a new methodological framework for assigning scores to clusters of criteria. Since the literature search did not reveal any previous study on a quantitative evaluation of elements such as short supply chain, organic food and environmental impacts on public food tenders, this research delivers interesting results and fills this knowledge gap.
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Luis Lisandro Lopez Taborda, Heriberto Maury and Jovanny Pacheco
There are many investigations in design methodologies, but there are also divergences and convergences as there are so many points of view. This study aims to evaluate to…
Abstract
Purpose
There are many investigations in design methodologies, but there are also divergences and convergences as there are so many points of view. This study aims to evaluate to corroborate and deepen other researchers’ findings, dissipate divergences and provide directing to future work on the subject from a methodological and convergent perspective.
Design/methodology/approach
This study analyzes the previous reviews (about 15 reviews) and based on the consensus and the classifications provided by these authors, a significant sample of research is analyzed in the design for additive manufacturing (DFAM) theme (approximately 80 articles until June of 2017 and approximately 280–300 articles until February of 2019) through descriptive statistics, to corroborate and deepen the findings of other researchers.
Findings
Throughout this work, this paper found statistics indicating that the main areas studied are: multiple objective optimizations, execution of the design, general DFAM and DFAM for functional performance. Among the main conclusions: there is a lack of innovation in the products developed with the methodologies, there is a lack of exhaustivity in the methodologies, there are few efforts to include environmental aspects in the methodologies, many of the methods include economic and cost evaluation, but are not very explicit and broad (sustainability evaluation), it is necessary to consider a greater variety of functions, among other conclusions
Originality/value
The novelty in this study is the methodology. It is very objective, comprehensive and quantitative. The starting point is not the case studies nor the qualitative criteria, but the figures and quantities of methodologies. The main contribution of this review article is to guide future work on the subject from a methodological and convergent perspective and this article provides a broad database with articles containing information on many issues to make decisions: design methodology; optimization; processes, selection of parts and materials; cost and product management; mechanical, electrical and thermal properties; health and environmental impact, etc.