Thermal Envelope

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Frédéric Wurtz - One of the best experts on this subject based on the ideXlab platform.

  • Toward building energy management: Electric analog modeling for Thermal behavior simulation
    2016
    Co-Authors: Hoang Anh Dang, Benoit Delinchant, Frédéric Wurtz
    Abstract:

    The most energy in buildings is used for space cooling and heating. Thus, the Thermal analysis is necessary to reach Thermal comfort and energy efficiency in buildings. In this paper, we present a Thermal Envelope modeling based on Thermal-electrical analogy for Thermal behavior simulation. The research object is a real platform inside our laboratory building in France. To illustrate this study, two Thermal zone model represent two room of this platform, and they are surrounded by another Thermal zones of laboratory building. Their parameters have been identified from Envelope properties. Then, these models are implemented in a simple equivalent electric circuit, simulated and validated with measurement data.

  • OPTIMAL SIZING OF A COMPLEX ENERGY SYSTEM INTEGRATING MANAGEMENT STRATEGIES FOR A GRID-CONNECTED BUILDING
    2015
    Co-Authors: Van Binh Dinh, Benoit Delinchant, Frédéric Wurtz
    Abstract:

    This paper presents the simultaneous design and energy management of a complex energy system (heating, air conditioning, PV using battery bank) for a grid-connected building. The Thermal comfort, determined by a low order dynamic Thermal Envelope model, and the life cycle cost (LCC) will be taken into account as optimization criterions meanwhile the load demand covering requirements will be considered as a constraint. This results in the formulation of a complex optimization problem with a lot of parameters and constraints, but we will show that it can be quickly computed using a gradient based optimization approach. A study case is a building that is being constructed in South-East of France.

  • A new co-simulation architecture for mixing dynamic building simulation and agent oriented approach for users behaviour modelling
    2013
    Co-Authors: Sana Gaaloul, Benoit Delinchant, Hoang Anh Dang, Ayesha Kashif, Frédéric Wurtz
    Abstract:

    This paper deals with an interoperability solution based on co-simulation that ensures tools collaborative working for building's global simulation. The proposed solution couples two specialized tools from different domains and characterized by different modelling approaches in order to simulate a low energy building. A dynamic Thermal Envelope model in SIMULINK is coupled to a multi-agent based occupants' behaviour model realized in BRAHMS. The co-simulation of these two tools has been established to take advantages of their specific capabilities for a detailed simulation using physical and inhabitants' behaviour (cognitive abilities) models. This work is realized to simulate an efficient building control, taking into account the system's complexity. A co-simulation architecture based on software component standard is also proposed. The use of this technique helps to unify programming interfaces of several BPS1 tools in order to facilitate and generalize co-simulation use cases.

  • BUILDING SIMULATION OF ENERGY CONSUMPTION AND AMBIENT TEMPERATURE : APPLICATION TO THE PREDIS PLATFORM
    2013
    Co-Authors: Hoang Anh Dang, Sana Gaaloul, Benoit Delinchant, Frédéric Wurtz
    Abstract:

    This paper presents the first step modelling process of a smart building in order to ensure better energy management and human comfort in buildings. It consists on combining physical models and experimental measurements in order to have more adapted models for virtual simulation and optimal control. Advantages and difficulties related to this process will be detailed through a defined use case of a smart building: PREDIS. The paper starts, by introducing the studied building and its different components: HVAC system and Thermal Envelope. Each one is modelled and validated with measurement data.

  • IECON - Software component architecture for co-simulation applied to the coupling between a building's Thermal Envelope and its inhabitant behaviour
    IECON 2012 - 38th Annual Conference on IEEE Industrial Electronics Society, 2012
    Co-Authors: Sana Gaaloul, Benoit Delinchant, Frédéric Wurtz, Stéphane Ploix
    Abstract:

    This paper proposes a co-simulation architecture based on software component standard. It proposes a pattern to unify the co-simulation interfaces of several building energy simulation tools. It will thus facilitate and generalize the establishment of a co-simulation. Advantages of this strategy are highlighted through the coupling between the software COMFIE for Thermal Envelope simulation and the tool BRAHMS for occupant behaviour simulator, in the Matlab/Simulink environment. Linking these two tools is essential to take profit from their specific skills in each area and ensure a detailed simulation of both precise physical models and computational models of human cognitive abilities. This is needed to ensure an efficient building control taking into account the complexity of this system

Benoit Delinchant - One of the best experts on this subject based on the ideXlab platform.

  • Toward building energy management: Electric analog modeling for Thermal behavior simulation
    2016
    Co-Authors: Hoang Anh Dang, Benoit Delinchant, Frédéric Wurtz
    Abstract:

    The most energy in buildings is used for space cooling and heating. Thus, the Thermal analysis is necessary to reach Thermal comfort and energy efficiency in buildings. In this paper, we present a Thermal Envelope modeling based on Thermal-electrical analogy for Thermal behavior simulation. The research object is a real platform inside our laboratory building in France. To illustrate this study, two Thermal zone model represent two room of this platform, and they are surrounded by another Thermal zones of laboratory building. Their parameters have been identified from Envelope properties. Then, these models are implemented in a simple equivalent electric circuit, simulated and validated with measurement data.

  • OPTIMAL SIZING OF A COMPLEX ENERGY SYSTEM INTEGRATING MANAGEMENT STRATEGIES FOR A GRID-CONNECTED BUILDING
    2015
    Co-Authors: Van Binh Dinh, Benoit Delinchant, Frédéric Wurtz
    Abstract:

    This paper presents the simultaneous design and energy management of a complex energy system (heating, air conditioning, PV using battery bank) for a grid-connected building. The Thermal comfort, determined by a low order dynamic Thermal Envelope model, and the life cycle cost (LCC) will be taken into account as optimization criterions meanwhile the load demand covering requirements will be considered as a constraint. This results in the formulation of a complex optimization problem with a lot of parameters and constraints, but we will show that it can be quickly computed using a gradient based optimization approach. A study case is a building that is being constructed in South-East of France.

  • A new co-simulation architecture for mixing dynamic building simulation and agent oriented approach for users behaviour modelling
    2013
    Co-Authors: Sana Gaaloul, Benoit Delinchant, Hoang Anh Dang, Ayesha Kashif, Frédéric Wurtz
    Abstract:

    This paper deals with an interoperability solution based on co-simulation that ensures tools collaborative working for building's global simulation. The proposed solution couples two specialized tools from different domains and characterized by different modelling approaches in order to simulate a low energy building. A dynamic Thermal Envelope model in SIMULINK is coupled to a multi-agent based occupants' behaviour model realized in BRAHMS. The co-simulation of these two tools has been established to take advantages of their specific capabilities for a detailed simulation using physical and inhabitants' behaviour (cognitive abilities) models. This work is realized to simulate an efficient building control, taking into account the system's complexity. A co-simulation architecture based on software component standard is also proposed. The use of this technique helps to unify programming interfaces of several BPS1 tools in order to facilitate and generalize co-simulation use cases.

  • BUILDING SIMULATION OF ENERGY CONSUMPTION AND AMBIENT TEMPERATURE : APPLICATION TO THE PREDIS PLATFORM
    2013
    Co-Authors: Hoang Anh Dang, Sana Gaaloul, Benoit Delinchant, Frédéric Wurtz
    Abstract:

    This paper presents the first step modelling process of a smart building in order to ensure better energy management and human comfort in buildings. It consists on combining physical models and experimental measurements in order to have more adapted models for virtual simulation and optimal control. Advantages and difficulties related to this process will be detailed through a defined use case of a smart building: PREDIS. The paper starts, by introducing the studied building and its different components: HVAC system and Thermal Envelope. Each one is modelled and validated with measurement data.

  • IECON - Software component architecture for co-simulation applied to the coupling between a building's Thermal Envelope and its inhabitant behaviour
    IECON 2012 - 38th Annual Conference on IEEE Industrial Electronics Society, 2012
    Co-Authors: Sana Gaaloul, Benoit Delinchant, Frédéric Wurtz, Stéphane Ploix
    Abstract:

    This paper proposes a co-simulation architecture based on software component standard. It proposes a pattern to unify the co-simulation interfaces of several building energy simulation tools. It will thus facilitate and generalize the establishment of a co-simulation. Advantages of this strategy are highlighted through the coupling between the software COMFIE for Thermal Envelope simulation and the tool BRAHMS for occupant behaviour simulator, in the Matlab/Simulink environment. Linking these two tools is essential to take profit from their specific skills in each area and ensure a detailed simulation of both precise physical models and computational models of human cognitive abilities. This is needed to ensure an efficient building control taking into account the complexity of this system

Sana Gaaloul - One of the best experts on this subject based on the ideXlab platform.

  • A new co-simulation architecture for mixing dynamic building simulation and agent oriented approach for users behaviour modelling
    2013
    Co-Authors: Sana Gaaloul, Benoit Delinchant, Hoang Anh Dang, Ayesha Kashif, Frédéric Wurtz
    Abstract:

    This paper deals with an interoperability solution based on co-simulation that ensures tools collaborative working for building's global simulation. The proposed solution couples two specialized tools from different domains and characterized by different modelling approaches in order to simulate a low energy building. A dynamic Thermal Envelope model in SIMULINK is coupled to a multi-agent based occupants' behaviour model realized in BRAHMS. The co-simulation of these two tools has been established to take advantages of their specific capabilities for a detailed simulation using physical and inhabitants' behaviour (cognitive abilities) models. This work is realized to simulate an efficient building control, taking into account the system's complexity. A co-simulation architecture based on software component standard is also proposed. The use of this technique helps to unify programming interfaces of several BPS1 tools in order to facilitate and generalize co-simulation use cases.

  • BUILDING SIMULATION OF ENERGY CONSUMPTION AND AMBIENT TEMPERATURE : APPLICATION TO THE PREDIS PLATFORM
    2013
    Co-Authors: Hoang Anh Dang, Sana Gaaloul, Benoit Delinchant, Frédéric Wurtz
    Abstract:

    This paper presents the first step modelling process of a smart building in order to ensure better energy management and human comfort in buildings. It consists on combining physical models and experimental measurements in order to have more adapted models for virtual simulation and optimal control. Advantages and difficulties related to this process will be detailed through a defined use case of a smart building: PREDIS. The paper starts, by introducing the studied building and its different components: HVAC system and Thermal Envelope. Each one is modelled and validated with measurement data.

  • IECON - Software component architecture for co-simulation applied to the coupling between a building's Thermal Envelope and its inhabitant behaviour
    IECON 2012 - 38th Annual Conference on IEEE Industrial Electronics Society, 2012
    Co-Authors: Sana Gaaloul, Benoit Delinchant, Frédéric Wurtz, Stéphane Ploix
    Abstract:

    This paper proposes a co-simulation architecture based on software component standard. It proposes a pattern to unify the co-simulation interfaces of several building energy simulation tools. It will thus facilitate and generalize the establishment of a co-simulation. Advantages of this strategy are highlighted through the coupling between the software COMFIE for Thermal Envelope simulation and the tool BRAHMS for occupant behaviour simulator, in the Matlab/Simulink environment. Linking these two tools is essential to take profit from their specific skills in each area and ensure a detailed simulation of both precise physical models and computational models of human cognitive abilities. This is needed to ensure an efficient building control taking into account the complexity of this system

  • SOFTWARE COMPONENTS FOR DYNAMIC BUILDING SIMULATION
    2011
    Co-Authors: Sana Gaaloul, Benoit Delinchant, Frédéric Wurtz, Franck Verdière
    Abstract:

    This paper describes a standard of software components for building energy and control systems modeling. This technology is well positioned to overcome the limits of existing tools and to allow better collaboration between various engineering domains coexisting in building field. A standard named ICAr is proposed in addition to the Modelica approach to ensure models interoperability. So, the strengths and lacks of the "white box" modeling based on Modelica language will be firstly discussed in order to prove the necessity to introduce the "black box" modeling based on software components and to highlight the complementarity of these two approaches via "plug'out" and "plug' in" notions . As the white modeling was standardized by defining universal languages, this work proposes a norm of software component named ICAr. So, this paper defines the specifications of the ICAr standard: inputs, outputs and interfaces for external communication. Moreover, to demonstrate the importance of this approach in building performance simulation, a Thermal Envelope will be coupled to a simple heater model in different simulation environments using a mixed approach.

Maria Byrne - One of the best experts on this subject based on the ideXlab platform.

  • Thermal tolerance of early development in tropical and temperate sea urchins: inferences for the tropicalization of eastern Australia
    Marine Biology, 2014
    Co-Authors: Natasha A. Hardy, Miles Lamare, Sven Uthicke, Kennedy Wolfe, Symon Dworjanyn, Maria Byrne
    Abstract:

    The Thermal Envelope of development to the larval stage of two echinoids from eastern Australia was characterized to determine whether they fill their potential latitudinal ranges as indicated by tolerance limits. The tropical sand dollar, Arachnoides placenta , a species that is not known to have shifted its range, was investigated in Townsville, northern Australia (19°20′S, 146°77′E), during its autumn spawning season (May 2012). The subtropical/temperate sea urchin, Centrostephanus rodgersii , a species that has undergone poleward range expansion, was investigated in Sydney, southern Australia (33°58′S, 151°14′E), during its winter spawning season (August 2012). The Thermal tolerance of development was determined in embryos and larvae reared at twelve temperatures. For A. placenta , the ambient water temperature near Townsville and experimental control were 24 °C and treatments ranged from 14 to 37 °C. For C. rodgersii , ambient Sydney water temperature and experimental control were 17 °C, and the treatment range was 9–31 °C. A. placenta had a broader developmental Thermal Envelope (14 °C range 17–31 °C) than C. rodgersii (9 °C range 13–22 °C). Both species developed successfully at temperatures well below ambient, suggesting that cooler water is not a barrier to poleward migration for either species. Both species presently live near the upper Thermal limits for larval development, and future ocean warming could lead to contractions of their northern range limits. This study provides insights into the factors influencing the realized and potential distribution of planktonic life stages and changes to adult distribution in response to global change.

Andra Blumberga - One of the best experts on this subject based on the ideXlab platform.

  • Choosing the best nature’s strategy with the highest thermodynamic potential for application in building Thermal Envelope using MCA analysis
    Energy Procedia, 2018
    Co-Authors: Ruta Vanaga, Andra Blumberga, Julija Gusca, Dagnija Blumberga
    Abstract:

    Abstract There is rapid growth in energy efficiency in the building sector oriented to zero energy or plus energy building concepts. Additionally building designs need to solve a complex task combining energy and environmental requirements, as well as social and economic performance requirements in one architectural object. Therefore when constructing new generation buildings, there is a necessity to seek for new strategies for inspiration. In this respect nature plays a core role for such inspiration. However, the process whereby one can integrate nature-inspired processes in building applications faces problems via the technical evaluation of such strategies. This research proposes a multi-criteria analysis methodology combining Analytical Hierarchy Process (AHP) and Technique for Order of Preference by Similarity to Ideal Solution (TOPSIS) methods in order to select the best nature-inspired strategies for climate adaptive building shells. Based on the methodology, four nature strategies are analysed regarding seven thermodynamic criteria: heat loss in the Thermal Envelope, heat loss in air exchange, Thermal inertia and solar heat gains, energy storage, energy production and changing surface characteristics. The proposed selection methodology allows architects and engineers to screen the most appropriate nature inspired strategy to be applied for energy efficiency in buildings taking into account a set of technical criteria.

  • Heat transfer analysis by use of lense integrated in building wall
    Energy Procedia, 2017
    Co-Authors: Ruta Vanaga, Andra Blumberga, Reinis Purvins, Ivars Veidenbergs, Dagnija Blumberga
    Abstract:

    Abstract To achieve energy efficiency targets set for building sector in EU, innovative Thermal Envelope materials should be implemented. Currently available materials have static thermodynamic properties. In the era of intelligent materials and gadgets responsive flexibilities can be applied to building materials as well. Paper illustrates proposal for climate adaptive building shell element – cell that operates as media in solar energy accumulation and release to internal space.

  • First Steps to Develop Biomimicry Ideas
    Energy Procedia, 2015
    Co-Authors: Ruta Vanaga, Andra Blumberga
    Abstract:

    Abstract There is urgent need for new building insulation materials or building Thermal Envelope concepts while it is often economically not feasible to achieve nearly zero energy level for buildings in northern climate. The purpose of this study is to research and create solution for applicable facade system or wall construction itself that has dynamic optical and dynamic properties that will adapt to external weather conditions and will be able to react to different outdoor and indoor temperature and lighting conditions using biomimetic principles avoiding the necessity for additional energy input. The goal of such solution is to gather the energy of Sun in summer for heating in winter.