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http://fiatech.org/images/stories/events/techconference/2010/presentations/academic_research_advancements/strategic-research-roadmap.pdfTRANSCRIPT
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• Built artefacts: building, district, city, infrastructure.
• Systems: airconditioning, communication, electricity, security, spaces, structures, ventilation, …
• Life cycle stages, stake-holders, contract models, ...
• Regional context, regulations, standards.
• Design: CAD, analysis, simulation, visualisation, … • Automation, monitoring, control, … • Hardware: processors, sensors, actuators, … • Infrastructure: architectures, interfaces, networks, models, platforms, protocols, standards, …
• ICT enabled business models for EEB. • Integrated design for whole life cycle EE. • Smart buildings. • Building & district level energy management.
• Smart metering. • Grid management.
• Building information specifications & standards.
• Application tools for: decisions support, design, planning, monitoring & control, asset management.
• ICT infrastructures: knowledge sharing, collaboration, communication, coordination.
• Generation, storage, distribution.
• Renewable energy sources (RES).
• Systems: space heating, hot water, insulation, lighting, heat exchange, local storage.
• Passive energy buildings. • Building energy performance.
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• Approx. 80% of energy use within buildings is during their operation
• Design decisions influence about 80% of the energy consumption of buildings throughout their lifecycle
• User behaviour and real time control of buildings influence energy consumption by about 20%
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Bozdaĝ, Ö & Seçer, M. Energy consumption of RC buildings during their life cycle. In: Sustainable construction, materials and practices (SB07). ISBN 978-1-58603-785-7. Pp. 480-487. 2007.
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• Currently energy performance is regulated by loose regulations
• Market is driven by lowest initial costs
• Climate change is driving more robust and stricter regulations
• Awareness of energy efficiency & operational costs is raising business incentives towards sustainable solutions
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• Inadequate ICT-based informed decision-making • Lack of (common) agreement on holistic systems-
based view of buildings, and of industry agreement on measurement and control
• Lack of interoperability between standards • Lack of post-occupancy feedback to user to
enable behaviour modification towards sustainability and energy efficiency
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• ICT methods and tools supporting optimal design of products and services with respect to energy consumption and the related environmental impact
• Integrated ICT-based systems enabling an eco-efficient production, conservation and distribution of energy
• New ICT-based control and monitoring systems for all types and ages of buildings
• Design, simulation, evaluation and strategy adaptation of energy use profiles
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• ICT will contribute to the energy efficiency of buildings mainly via design tools, automation & control systems and decision support for various stakeholders: – Short term: ICT will be used to ensure
that existing and new buildings meet the current and emerging requirements for energy efficiency.
– Medium term: ICT tools will enable life cycle optimised design and energy management during operation.
– Long term: ICT will enable and support new business models and processes driven by energy efficiency. Buildings have evolved from energy consumers to “prosumers” (producer + consumer).
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• Short Term – Assuring compliance to regulated minimum energy
performance levels in design and renovation stages. • Medium Term
– Decision support for life cycle cost/performance optimisation. Real time operation, control and user empowerment.
• Long Term – Holistic optimisation of built environments considering:
energy generation and usage of individual buildings, energy balancing between buildings within a district/neighbourhood and feeding excess energy into the grid. New business models driven by whole life time performance.
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• Full exploitation of the opportunities offered by ICT for energy efficiency requires adjustments of the processes and contractual practices of the construction sector
• A transformation of focus from the initial construction cost to whole life performance
Performance driven business
models
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Modelling
Performance estimation
Production mgnt
Design Wireless sensor
networks
Monitoring Quality of service
Automation & control
Building mgnt
Grid mgnt
District mgnt
Visualisation of energy use
Performance mgnt
Behavioural change
Interoperability & standards
Process integration
Knowledge sharing
System integration
Virtualisation Integration technologies
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Pro
gram
min
g &
des
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Man
ufac
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cons
truct
ion,
re
nova
tion,
de
mol
ition
Ope
ratio
n &
m
aint
enan
ce
Integrated design & production management
Intelligent and integrated control
User awareness &decision support
Energy management & trading
Integration technologies & platforms G
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I c
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&
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S e c t o r a l a p p l i c a t i o n s
K e
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L i f e c y c l e s t a g e s
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Key Topics
• Design – CAD; Various other analysis and design applications; Configuration management; Visualisation of design solutions.
• Production management – Contract and supply network management; Procurement; Logistics; On-site and off-site production management
• Modelling – Building and district energy models; Ontologies; Semantic mapping.
• Performance estimation – Simulation; Whole-life costing; Life cycle assessment.
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Key Topics
• Automation & control – System concepts; Intelligent HVAC; Smart lighting; ICT support for micro-generation and storage systems; Predictive control.
• Monitoring – Instrumentation; Smart metering.
• • Quality of service – Improved diagnostics; Secure communications.
• • Wireless sensor networks – Hardware; Operating systems; Network design.
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Key Topics
• Performance management – Understanding ICT impacts; Performance specification; Performance metrics; Performance analysis and evaluation; Conformance validation; Commissioning; Audits; labelling.
• Visualisation of energy use – User dashboards for energy visualisation and control
• Behavioural change – Real-time pricing
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Key Topics • Real-time response and predictive management
– Embedded sensing, automation and control; Real-Time Self Assessment; Network planning; Condition and Performance-based maintenance
• Enhanced design and integration – Network planning; Plug and play scalable integration of micro-generation and storage
• Distributed generation and demand response – Demand response capabilities; Load balancing techniques;
• Common topics – Performance analysis and evaluation; Secure, ubiquitous communication; Decision support algorithms
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Key Topics • Process integration
– Collaboration support; Groupware tools; Electronic conferencing; Distributed systems; Business work flows.
• System integration – Plug & play; Connections, Service oriented architectures; Integration and service platforms; Cabling; Gateways; Middleware; Development methods and tools.
• Interoperability and standards – BIM standardisation; Simulation and interoperability; Protocols for real time operation; Energy trading protocols.
• Knowledge sharing – Access to knowledge; Knowledge management; Knowledge repositories; Knowledge mining and semantic search; Long-term data archival and recovery.
• Virtualisation of built environment – Office optimisation; Virtualisation; Electronic conferencing; Virtual workplaces; Dematerialisation of physical processes.
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• Life cycle approach: – Integrated design teams, using interoperable model-based tools and
communication/ collaboration platforms optimise the whole life performance of buildings
• Smart buildings: – Most buildings will be "smart" & control themselves maintaining the
required & optimal performance and responding proactively to external conditions
• Construction as a knowledge-based industry: – Industrialised solutions are available for configuring flexible new buildings
as well as retrofitting existing buildings • Business models:
– New business models and regulations are driven by user perceived value. Financing models provide incentives to stakeholder towards whole life performance of buildings. ICT tools support performance measurement, validation and holistic decision making.
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• Finalisation and validation of roadmap based on peer review
• Identification of R&D action recommendations for roadmap implementation
• Development of course modules on ICT for energy efficiency in buildings
• Final project results presented in the form of a book for wider dissemination and awareness
• Potential new project(s) to monitor implementation of roadmap suggestion
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