scholarly journals INFORMATION ON RESOURCES AVAILABLE ON THE LAND LOT FOR INTEGRATED BUILDING DESIGN / SKLYPO ENERGINIŲ IŠTEKLIŲ INFORMACIJA INTEGRUOTAI PROJEKTUOJANT PASTATĄ

2013 ◽  
Vol 5 (3) ◽  
pp. 189-194 ◽  
Author(s):  
Vytautas Martinaitis ◽  
Vygantas Žėkas

The most progress in the area of the sustainable building policy and its implementation has been achieved in certain regions by the Building Certification System regulations such as Passivhaus (Germany) and LEED (U.S). These solutions are similar to the more widely discussed and already applied concepts: the Integrated Whole Building Design (IWBD) and Building Information Modeling (BIM). Although it may sound trivial, it is vital to acknowledge and understand that a building is an integral component of the land lot. In the stage of development of a building concept, it usually lacks a versatile and professional assessment of available resources, especially those of renewable energy. It is suggested at the beginning of the IWBD concept to conduct such assessment on the resources available and more specifically focusing on renewable energy. The assessment should also meet the expectations of the building’s owner to use effectively the potential of all possible solutions. Thus a certificate is drawn up, defining all the resources available for the particular lot. The structure of the certificate data is orientated towards the possibility of designing modern renewable energy technologies, according to their performance under changing weather conditions during the year. Such assessment certificates contribute to shaping the concept of the building and allow achieving the highest level of its sustainability. Article in Lithuanian. Santrauka Didžiausios pažangos įgyvendinant tvarių pastatų politiką pasiekusios šalys, regionai jau parengę ir praktiškai taiko tam skirtus reglamentus, pastatų sertifikavimo sistemas (Pasive Haus – Vokietija, LEED – JAV ir kt.). Juos atitinka vis plačiau diskutuojamos ir jau taikomos viso pastato integruoto projektavimo (VPIP/IWBD, Integrated Whole Building Design – angl.) ir pastato informacinio modeliavimo (PIM/BIM, Building Information Modeling – angl.) koncepcijos. Nors tai skamba trivialiai, bet pastatas yra neatsiejamas nuo sklypo: t. y. stokoja savalaikio, įvairiapusiško ir profesionalaus sklype disponuojamų išteklių, ypač atsinaujinančios energijos, įvertinimo. Pirmame VPIP etape, kuris baigiasi projekto koncepcijos sukūrimu, siūloma atlikti sklypo disponuojamų išteklių, visų pirma atsinaujinančios energijos, pastato savininko lūkesčius atitinkančių jų naudojimo galimybių įvertinimą. Tam parengiamas sklypo disponuojamų išteklių sertifikatas. Jo duomenų struktūra orientuota į galimybę projektuoti šiuolaikines atsinaujinančios energijos technologijas, atsižvelgiant į jų veikimą per metus besikeičiant klimato sąlygoms. Tokie vertinimai padėtų kuriant pastato koncepciją ir leistų pasiekti aukštesnio lygio darnos. Po kelių metų su taip projektuojamais pastatais galima prieiti prie kitokio pastato koncepcijos, sprendinių, išvaizdos ir vertės supratimo.

2020 ◽  
Vol 2020 ◽  
pp. 1-11
Author(s):  
Zhen Liu ◽  
Yifang Wang ◽  
Mohamed Osmani ◽  
Peter Demian

Although the literature revealed the challenges and drivers to implement Building Information Modeling (BIM) in the building design industry in general, to date, there are few established methods and processes to overcome challenges of BIM adoption in building design, especially in sustainable building design for managing the project. At the present, BIM adoption in building design at micro level, that is, the level of architects, mainly focuses on barriers with little attention to method and the process of implementing BIM. Moreover, there is lack of a robust research method, that is, mixed method, to systematically investigate the process of implementing micro-level BIM in building design, which is related to the factors, such as challenges and drivers to the challenges of BIM adoption. Furthermore, several studies have looked into micro-level BIM adoption in architecture firms, but few of them focused on sustainable design. This emphasizes a need to investigate and explore micro-level BIM implementation challenges alongside its drivers in building design and present methods and processes generated from architects’ perspectives to address the challenges during sustainable design for the project management, which is the aim of this paper. The research investigation was through a questionnaire that is followed by interviews with the leading architectural firms within the UK. The research reported in this paper is to present a clear view of challenges to micro-level BIM adoption and a framework/road-map to address the key challenges in managing sustainable building design projects, which are related to cultural resistance and culture change, top-down management support, current key challenges and drivers, and client and project managers’ interests. The methods and processes that enhanced the framework can be instantly adopted for building design and for architectural companies including small- and medium-sized enterprises (SMEs).


Author(s):  
Vadim V. Krivorotov ◽  
Alexei V. Kalina ◽  
Sergei E. Erypalov ◽  
Maxim V. Aksenov

Improving the competitiveness of Russian industrial enterprises (including the construction industry) is a priority task at the current stage of development of the country’s economy. The purpose of this study is to develop methodological tools that would allow building strategic plans for the development of a construction company using a dynamic method for assessing its competitiveness. The hypothesis is that the target parameters of the development of a construction company, which take into account the influence of competitive factors, inevitably increase its level. This article provides an analytical review of existing methods for assessing the competitiveness of enterprises, identifies their advantages and disadvantages. The authors have chosen the dynamic approach to assessing the competitiveness of an enterprise; they propose certain aspects of its modernization, taking into account the specifics of construction production; the main indicators and algorithms used in this approach are presented. The competitiveness of the PIK group, Russia’s largest construction company, was evaluated in comparison with the Swedish development company Skanska Group, which is successful on the world market. The most problematic performance indicators of the Russian company that have a negative impact on its competitiveness are identified. Modeling of the dependence of the company’s competitiveness level on these indicators is performed. The results show that the key tool for eliminating these shortcomings can be the introduction of integrated information modeling based on big data for the entire development cycle: building information modeling — BIM (Building Information Modeling), augmented and virtual reality (AR/VR) technologies, and customer relationship management systems (CRM), among some others. The authors show how the key performance indicators of the company change after the introduction of integrated information modeling of the entire development cycle and what the forecast level of the company’s competitiveness can be expected at the end of 2020.


2021 ◽  
Vol 2021 ◽  
pp. 1-26
Author(s):  
Ang Yang ◽  
Mingzhe Han ◽  
Qingcheng Zeng ◽  
Yuhui Sun

The construction industry is undergoing a digital revolution due to the emergence of new technologies. A significant trend is that construction projects have been transformed and upgraded to the digital and smart mode in the whole life cycle. As a critical technology for the construction industry’s innovative development, building information modeling (BIM) is widely adopted in building design, construction, and operation. BIM has gained much interest in the research field of smart buildings in recent years. However, the dimensions of BIM and smart building applications have not been explored thoroughly so far. With an in-depth review of related journal articles published from 1996 to July 2020 on the BIM applications for smart buildings, this paper provides a comprehensive understanding and critical thinking about the nexus of BIM and smart buildings. This paper proposes a framework with three dimensions for the nexus of BIM application in smart buildings, including BIM attributes, project phases, and smart attributes. According to the three dimensions, this paper elaborates on (1) the advantages of BIM for achieving various smartness; (2) applications of BIM in multiple phases of smart buildings; and (3) smart building functions that be achieved with BIM. Based on the analysis of the literature in three dimensions, this paper presents the cross-analysis of the nexus of BIM and smart buildings. Lastly, this paper proposes the critical insights and implications about the research gaps and research trends: (1) enhancing the interoperability of BIM software; (2) further exploring the role of BIM in the operation and refurbishment phase of smart buildings; (3) paying attention to BIM technology in the field of transportation infrastructure; (4) clarifying the economic benefits of BIM projects; and (5) integrating BIM and other technologies.


2016 ◽  
Vol 7 (3) ◽  
pp. 114-125 ◽  
Author(s):  
Romas Rasiulis ◽  
Leonas Ustinovichius ◽  
Darius Migilinskas ◽  
Jovita Cepurnaite ◽  
Arvydas Virbickas

Modern constructions, either private houses or public buildings, nowadays must be built meeting all the requirements of the European Union [EU] standards and must be highly energy efficient. Still, there are a lot of old inefficient buildings with high energy costs that require renovation. These buildings can be renovated applying a passive house model that helps to minimize buildings’ heating and cooling energy expenses. Moreover, the decisions made in the stages of early design and preconstruction are essential for the sustainability in a building facility. It is possible to perform various analyses with Building Information Modeling (BIM) in order to have an optimized sustainable building design. BIM system can be used to evaluate and control the costs (e.g. renovation, efficiency) as well as to monitor the conditions during the life-cycle of the building.


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