The article raised issues related to the design and execution of low-energy objects in Polish conditions. Based on the designed single-family house, adapted to the requirements of the National Fund for Environmental Protection and Water Management ("NF40" standard), the tools to assist investment decisions by investors were shown. An economic analysis and a multi-criteria analysis were performed using AHP method which had provided an answer to the question whether it is worthwhile to bear higher investment costs in order to adjust to the standards of energy-efficient buildings that fulfil a minimal energy consumption's requirements contained in Polish law. In addition, the variant of object that had optimal characteristics due to the different preferences of investors was indicated. This paper includes analysis and observations on the attempts to unify that part of the building sector, which so far is considered to be personalized, and objects in accordance with the corresponding idea are designed as "custom-made".
The difficulty of innovation risk assessment makes it necessary to use a multi-criteria analysis.
Innovative projects are related to unstructured problems and the uncertainty, therefore,
the use of fuzzy logic in the innovation risk assessment is analyzed. This paper proposes
a method of determining the weights of criteria in order to innovation risk assessment. The
weights are determined by 5 general criteria and 14 detailed criteria of innovation risk assessment.
The proposed method is an extension of the fuzzy AHP method. The extension
consists in taking into consideration the group decision-making approach with experts’ psychological
conditions. The groups of experts have been chosen based on an elaborated form.
The form makes it possible to characterize the persons within the scope of different psychological
conditions. The proposed method provides objective and rational decision-making.
The paper presents also a comparison of results with the fuzzy AHP method without the
group decision making. The weights obtained by the proposed method are more diversified
and bring out the most important criteria.
Artykuł przedstawia zastosowanie Metody Hierarchicznej Analizy Problemu AHP (ang. Analytic Hierarchy Process) do oceny i wyboru najlepszego wariantu związanego z możliwością pozyskania węgla kamiennego na cele energetyczne przez potencjalnego Inwestora funkcjonującego w sektorze górniczo-energetycznym. Analizie poddano 6 różnych źródeł pozyskania węgla, z których każde powinno zapewnić bezpieczną i niezależną dostawę surowca do nowo budowanej elektrowni na węgiel kamienny. Przy wyborze najlepszego wariantu decyzyjnego uwzględniono pozytywne oraz negatywne oddziaływania wariantów, poprzez zastosowanie analizy BOCR: analiza korzyści - benefits (B), możliwości - opportunities (O), kosztów - costs (C) oraz ryzyka - risks (R). W tym celu zbudowano cztery niezależne modele hierarchiczne. Poszczególne modele charakteryzują się takimi samymi ocenianymi wariantami decyzyjnymi, natomiast różnią się kryteriami budującymi modele. W każdym z modeli zgodnie z zasadami metody AHP, obliczone zostały końcowe, globalne wagi dla ocenianych wariantów. Wskazanie najlepszego wariantu uzyskano dzięki zastosowaniu multiplikatywnej formuły (B ź O)/(C ź R), której wartość posłużyła do uszeregowania i wyboru najlepszego z ocenianych. Najlepszym wariantem decyzyjnym jest wariant, którego stosunek (BO) do (CR) jest najwyższy.
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