Visualisation of impact of time on the internal lighting of a building

Khosrowshahi, Farzad; Rad, H.N.

doi:10.1016/j.autcon.2010.09.012

Cited by 11 publications

(3 citation statements)

References 8 publications

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“…It improves by visualizing the management and the communication of complex information. This approach allows error reduction/elimination and to reduce reworks [32,39,40,36] Current and future constructions built with BIM will one day need to be renovated [9] Reduction of costs, completion time and overruns due to BIM [41,40,37] Potential benefits on retrofit planning [32,40,33] Facilitates the Integrated Project Delivery (IPD) approach and quality control [32,40,33,39,42] Monitoring / management / maintenance of equipment and facilities thanks to integrated sensor technology [33,43] Emergence of generic BIM objects and components may be used early on in the design and for simulations or test performance [36] BIM allows benefits on design/engineering/scope clarification and to reduce litigation [32,40,41] Facilitates decision-making for an affordable refurbishment solution at the early design stage [30,44] Valuable help for energy renovation [44,45,4] Quick visualization and revision of problems [32] BIM improves effective coordination among consultants [39,40] It can improve construction and facilitates Lean Design [32] BIM helps reduce waste and accomplish waste management during building and demolition [46,32,39] Material flow optimization [47] Optimization of employee safety during work [48] Weaknesses of companies Cultural resistance to change -comfortable with traditional process ...…”

Section: Bim Opportunitiesmentioning

confidence: 99%

Building Information Maturity Model specific to the renovation sector

Joblot

Paviot

Deneux

et al. 2019

Automation in Construction

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Section: Bim Opportunitiesmentioning

confidence: 99%

Building Information Maturity Model specific to the renovation sector

Joblot

Paviot

Deneux

et al. 2019

Automation in Construction

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“…Goals are well served by advanced analyses using either rule-based systems or simulations of behaviour and performance – a promising area of BIM research and development. 52,56–62 A complementary option has already been mentioned: goals may be expressed as constraints or requirements on spaces or building elements. Consequently, goals relate to the whole building or its major parts (e.g.…”

Section: Briefing Information In Bimmentioning

confidence: 99%

Briefing and Building Information Modelling: Potential for integration

Koutamanis

2017

International Journal of Architectural Computing

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The article brings together the subjects of briefing and Building Information Modelling. It considers the brief as information source for Building Information Modelling and Building Information Modelling as an environment for automating briefrelated analysis and guidance. The approach is characterized by feedforward and feedback, incorporation of constraints from the brief in Building Information Modelling, connection of briefing goals to performance analysis and correlation of requirements in the brief to Building Information Modelling object properties and relations. To test the approach, 10 briefs are parsed into goals, constraints and requirements, which are then considered for integration in Building Information Modelling. As the majority of these items can become part of a model and subject to automated analyses, integration of briefing in Building Information Modelling is proposed as a viable option that can improve design and briefing performance but also signals significant changes to briefing. KeywordsBriefing, Building Information Modelling, integration, continuity, feedforward, feedback, analysis Design and informationBuilding Information Modelling (BIM) promises integration of information and information processing for the whole of Architecture, Engineering, Construction and Operation (AECO) by combining geometric and non-geometric information in coherent and comprehensive models that accommodate all aspects and actors. By doing so, it unites all AECO processes on the basis of their interaction with the model. This ambition is combined with a willingness to cover all stages in the lifecycle of a building and support transitions between stages. However, in most publications and real-life projects, BIM appears to commence in the design stage (often in late design) and proceed to construction. These two stages are critical but hardly cover all activities and interests of AECO. The use stage, where the bulk of these occurs, has only recently emerged as an application area for BIM. [1][2][3][4] This restriction in the lifecycle is not due to inherent limitations of BIM but arguably follows an established bias: that design information is primarily produced by design actions, in particular those pertaining to the form of a building (including structure). In BIM, this suggests that a geometric model

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“…Development of computer technology, which has taken place in the last two decades, has significantly changed designing and evaluating of lighting [1][2][3][4]. Currently, it is difficult to imagine performing these tasks without using IT processes [5][6][7][8][9][10]. We can even risk the statement that practically, every design and analysis of lighting use computer simulations.…”

Section: Introductionmentioning

confidence: 99%

Virtual Reality System and Scientific Visualisation for Smart Designing and Evaluating of Lighting

Krupiński

2020

Energies

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The current lighting solutions, both in terms of design process and later implementation, are becoming more and more intelligent. It mainly arises from higher opportunities to use information technology (IT) processes for these purposes. Designs cover many aspects, from physiological to including technical. The paper describes the problems faced by any designers while creating, evaluating them, and presenting the final results of their work in a visualisation form. Development of virtual reality (VR) technology and augmented reality, which is now taking place before our eyes, makes us inclined to think how to use this reality in lighting technology. The article presents some examples of applying VR technology in various types of smart lighting designs, for interiors and outdoor objects. The performed computer simulations are compared to reality. Some surveys, in terms of visualization rendering, were carried out. In the article, the current capabilities and main limitations of virtual reality of lighting are discussed, as well as what can be expected in the future. The luminance analysis of the virtual reality display is carried out, which shows that this equipment can be used in lighting technology after the appropriate calibration. Moreover, an innovative lighting design system based on virtual reality is presented.

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Visualisation of impact of time on the internal lighting of a building

Cited by 11 publications

References 8 publications

Building Information Maturity Model specific to the renovation sector

Building Information Maturity Model specific to the renovation sector

Briefing and Building Information Modelling: Potential for integration

Virtual Reality System and Scientific Visualisation for Smart Designing and Evaluating of Lighting

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