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Wpływ cementu na charakterystykę środowiskową wyrobów budowlanych na przykładzie klejów cementowych - składników złożonych systemów izolacji cieplnej ETICS

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Warianty tytułu
EN
The influence of cement on the environmental performance of construction products on the example of cementitious adhesives - External Thermal Insulation Composite Systems [ETICS] components
Języki publikacji
PL EN
Abstrakty
PL
Sektor budowlany należy do gałęzi gospodarki o istotnym wpływie na środowisko. Wykorzystuje ogromne ilości zróżnicowanych surowców, wytwarza znaczne ilości odpadów i emituje znaczne ilości gazów cieplarnianych do atmosfery. Redukcja zużycia energii i emisyjności budynków, dekarbonizacja istniejących źródeł energii oraz optymalizacja wykorzystania energii odnawialnej, a także zminimalizowanie śladu węglowego materiałów i robót budowlanych to konieczność, aby przeciwdziałać zmianom klimatycznym. To również plan minimum dla zapewnienia zrównoważonego rozwoju społecznego. Dotychczasowa polityka środowiskowa w sektorze budowlanym jest niewystarczająca a wynika to, przede wszystkim, z obecnie obowiązujących regulacji prawnych. Ocena wyrobów budowlanych w zakresie siódmego wymagania podstawowego, dotyczącego zrównoważonego wykorzystania zasobów naturalnych, jest dobrowolna, a co za tym idzie niemal zawsze pomijana. Narzędzia do oceny jakimi są m.in. deklaracje środowiskowe III typu [Type III Environmental Product Declarations - EPDs] wyrobów budowlanych nie są powszechnie stosowane. Co więcej, dokumenty te są słabo rozpoznawalne wśród konsumentów, co świadczy o ciągle niewystarczającej świadomości ekologicznej. Dodatkowo, pojawiające się różnice wartości wskaźników oddziaływania środowiskowego określanych w deklaracjach środowiskowych III typu, wynikające ze zróżnicowanego podejścia w wyznaczaniu granic systemu czy jakości dostępnych danych generycznych, nie sprzyjają prawidłowemu rozwojowi wiedzy o wpływie materiałów budowlanych na środowisko. W niniejszej pracy przeprowadzono analizę oddziaływania środowiskowego cementu będącego składnikiem zapraw klejących, stosowanych w złożonych zestawach izolacji cieplnej ETICS. Badania prowadzono w zakresie czterech wskaźników, tj. globalnego współczynnika ocieplenia [GWP], potencjału zakwaszenie gleby i wody [AP], potencjału eutrofizacji [EP] oraz potencjał tworzenia ozonu troposferycznego [POCP].
EN
The construction sector is one of the branches of the economy with a significant impact on the environment. It uses a vast amount of different raw materials. Also, it produces substantial amounts of waste and emits high amounts of greenhouse gases into the atmosphere. Reducing the energy consumption and emissivity of buildings, decarbonizing existing energy sources, optimizing the use of renewable energy, and minimizing the carbon footprint of materials and construction works are imperative to counteract climate change. It is also a minimum plan for ensuring sustainable social development. The current environmental policy in the construction sector is insufficient and it results from the legal regulations currently in force. Assessment of construction products for the seventh basic requirement, sustainable use of natural resources, is voluntary and almost always neglected. Assessment tools, such as Type III Environmental Product Declarations [EPDs] for construction products, are not widely used. Moreover, these documents are poorly recognizable among consumers, proving that there is still insufficient environmental awareness. In addition, the emerging differences in environmental impact indicators values specified in environmental declarations, resulting from using differentiated approaches in setting system boundaries or the quality of available generic data, do not support the proper development of knowledge about the impact of construction products on the environment. In this work, an analysis of the environmental impact of cement, which is a component of adhesives used in the External Thermal Insulation Composite System [ETICS], was carried out. The study on four indicators, i.e., global warming potential [GWP], soil and water acidification potential [AP], eutrophication potential [EP], and tropospheric ozone formation potential [POCP], was performed.
Czasopismo
Rocznik
Strony
14--31
Opis fizyczny
Bibliogr. 93 poz., il., tab.
Twórcy
  • Research and Development Center, Atlas sp. z o.o., Lodz, Poland
  • Research and Development Center, Atlas sp. z o.o., Lodz, Poland
  • Building Research Institute (ITB), Warsaw, Poland
  • Research and Development Center, Atlas sp. z o.o., Lodz, Poland
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Typ dokumentu
Bibliografia
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bwmeta1.element.baztech-95248390-c0c1-424c-99d9-63e99fcf2072
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