Design4Energy project developed an innovative integrated evolutionary design methodology that allows the stakeholders to analyse the energy efficiency of buildings and make better informed decision in optimising the energy performance at building life cycle level.
Based on the methodology, a series of guidelines, 3D online gaming for training, technology database, interoperability suite, eeBIM connected with EnergyPlus, lighting simulation & gbXML viewer and decision support tool were developed and integrated to the Design4Energy Platform, the Collaborative Virtual Workspace.
The Collaborative Virtual Workspace, as an integrated platform, is a complex, multi-functional, collaborative platform that could support integration of both advanced web-based and non-web based tools, workflow services, and coordination among design activities to ensure seamless flow of knowledge sharing during the whole project life cycle is developed. It is an interactive workspace that allow various actors to collectively simulate and assess the impact of various energy solutions within a visual space, with a view of achieving optimum energy efficiency at building level and/or neighbourhood level. This virtual workspace offers a ‘Simulated Reality’ of the energy performance of buildings as close as possible to the physical reality. Development of the Collaborative Virtual Workspace was achieved through integrating a new methodology to improve current practice utilising performance-based process with a set of Key Performance Indicators (KPIs) from early design stage. The new methodology was supported with integration of a database library of components and energy systems, energy simulation tools as well as maintenance and operational data.
Design and implementation of Design4Energy methodology, platform and tools was structured around the three scenarios developed in the project, focusing on neighbourhood, new build and retrofit. The first scenario considers neighbourhood energy matching in building design. The second scenario focuses on holistic energy design optimisation during early design phase while the third one focuses on the use of operational and maintenance data in retrofit.
The research outcomes were evaluated through the use of the tools on the three building design projects: a single family detached house in Spain for retrofitting, a new residential building in German for new design and an office building in Poland for new design. The evaluation was done through a comparative assessment and qualitative analysis, by comparing the design process and building performance of the designs done with traditional design methodology and Design4Energy methodology. The evaluation shows the great potential of Design4Energy methodology and tools in improving building performance, impacts on the architectural sector and influence on the way of communication between architects and their clients. In the evaluation, with the limited options generated for the retrofitting building case study, 18.70 % of consumption reduction can be easily achieved compared to the actual building consumptions. 21.15 % of consumption reduction is simulated for the office building designed with Design4Energy platform in comparison with traditional process. The benefits by using Design4Energy platform are far beyond the energy performance improvement and the corresponding CO2 reduction, with the methodology and tools, the end user can integrate building performance optimization in early design phase, reduce investment and time in green building design, facilitate the conversation with the clients in energy efficiency issue and provide them more information for decision making.
Design4Energy solution empowers the end user in energy efficient building design and enhancement of competitive advantage.
All management and coordination practices are summarized in the present document, which serve as Project Handbook and all its contents are mandatory, after the previous acceptance of the consortium.
The governance structure set out in the present document define roles, responsibilities and activities of the different committees, organizations and bodies belonging to the project as well as decision rules.
The complements to this document are: the Annex I and the Consortium Agreement. The Consortium Agreement is the prevailing document where general rules and responsibilities of the Beneficiaries and Consortium bodies are listed.
As a plan for use and dissemination of foreground, this report focus on the description of the dissemination measures, including scientific publications relating to foreground, activities carried out for dissemination, the exploitable foreground and the exploitation plans.
At the beginning of the document, a summary will be given to reveal the analysed target stakeholders for dissemination, then dissemination channels will be described.
This report focuses on the description of the measures in increasing public awareness towards energy efficient building design and the latest technologies from the innovation project Design4Energy, as well as the social implication.
Task T2.1 is planned to provide the necessary background knowledge on the current policies and guidelines on building energy efficiency in the countries of Design4Energy (D4E) project partners together with the State-of-the-Art research and development in the domain of design for energy efficient buildings. Energy efficiency and the context of neighbourhood are given a special attention in order to identify how design relevant aspects can best be improved within the other tasks of D4E by further developing the existing practices of the building design stage.
Finally, the outcome of the study included two main research aspects:
• Guidelines and policies:
Current design guidelines and standards to support the D4E were identified. Energy design guidelines and current practices from numerous sources were extracted. One main source, common to all EU-member states, is the building energy performance Directive 2010/31/EU. National regulations implementing this directive are challenging but instrumental to give practical measures to improve energy efficiency of buildings in specific countries.
• Research and developments activities:
Necessary learning was gathered from relevant past and current EU projects and initiatives related to applications of ICT technologies to neighbourhoods and extended urban areas. Existing tools with potential for design and planning of neighbourhood and building from the viewpoints of energy were explored
This document reports on the indicators and success factors for holistic energy design of buildings and neighbourhoods to support the development of the D4E design methodology. Energy demand of a neighbourhood includes the energy demand of buildings but also other urban infrastructures, such as waste and water management, parks, open spaces and public lighting, as well as the energy demand from transport.
The most relevant KPIs for consideration in the D4E project are listed, including identification of measurements and/or calculations necessary to be carried out in the demonstration sites.
This report suggests the principle rules for the indicators of holistic design of buildings and neighbourhoods. The indicators show to what extent holistic targets have been adopted and been met by design solutions. The frameworks give a holistic approach to defining requirements and aspects that have to be considered in an energy efficient design on neighbourhood level.
This report describes the developed guidelines for holistic design of optimal EE buildings matching with neighbourhood energy systems. This means that the energy demand and on-site energy production of the building are integrated to the local energy systems in an optimal way. In general, the processes are established for designing of buildings or design of the neighbourhood/district (as part of city planning). During the design integration and solution iteration, it is important to have the neighbourhood aspect clearly in mind.
D4E Facilitator Guide 1 Feasibility study:
This guidelines suggest, how to improve the current design process in order to integrate buildings with the neighbourhood energy system, while considering both foreseeable and unknown future changes.
Current guideline focuses on the BIM models and model uses in Needs Identification and Requirements & Feasibility study.
D4E Facilitator Guide 2 Concept, Detailed Final design:
This is the Guide for BIM models and model uses in Concept design Detailed design and Final design including integrated design review
D4E Facilitator Guide 3 Guide for BIM models and model uses in Retrofit:
This is the Guide for BIM models and model uses in Retrofit
With the objective to develop a suitable database for the Design4Energy (D4E) workspace, the requirement identification of the component and energy system database started from the analysis of the existing database solutions. The classification, evaluation and analysis of the state of the art of the BIM and energy efficiency oriented database have inspired the requirement identification and also the approach, concept and functionalities design in T3.2.
The key information presented within this deliverable can be summarised as follows:
• Objectives and vision of the component and energy system database.
• Analysis of existing database solutions. By classifying the current practices into three categories: construction material database, component database and others such as building type database, different technologies and platforms are analysed.
• Identification and analysis of the major stakeholders related to the D4E scope.
• Questionnaire design and the collected results
• Database requirement in system architecture, interoperability, data structure, user interface and user management.
• Database requirement description of the simulation outputs, specifying the interesting data which could help the end users to understand their on-going building design.
• Database requirement description of the operation and maintenance related issues.
• Database requirement description of building components, including envelope (wall, covers/roof, floor), window and door. The recommended parameters are given in table format.
• Database requirement description of energy systems, focusing on the subcategories like lighting system, renewable energy, heat pump, boiler, energy storage and distribution, in each subcategory, requirements for specific technologies are described. Introduction of the strengths and weaknesses of the latest and popular technologies is also included in appendices.
This report aims at creating a database system architecture for the novel design process in the building and district energy domain developed in the Design4Energy project..
The key information presented within this deliverable can be summarised as follows:
• Possible software platforms are analysed and evaluated for the usage in the database system.
• Analysis of use cases of the database system.
• Detailed data structures are displayed.
• The ways of informational exchange are stated
• A first version of the prototype for testing was created.
The purpose of this deliverable is to report on the third phase of the development of the building component and energy system database. It contains a description of integrating the information base into the Design4Energy database system to prove the value of the novel design process. Therefor the deliverable is divided into four basic areas of collecting information: building components, energy systems, benchmark content and additional data required. Integration of information is done by collecting, classifying and evaluating data and information in selected areas of the selected building types. Next to the data integration the deliverable also contains important considerations of data representation, practical issues in connecting simulation applications and file formats.
This report is intended to test the developed concepts and solutions of the technology database (TechDB). It integrates on the one hand users with practical, industrial application and on the other hand project partners that have been involved in the research for it. With the objective to develop a suitable database for the Design4Energy (D4E) workspace, the requirement identification of the component and energy system database started from the analysis of the existing database solutions. The results of this report help the development partners to improve the concept and the technical implementation of the TechDB in the manner that a higher industrial and scientific exploitability can be achieved.
The feedback shows important challenges in the implementation of technology databases. It also shows the major merit of it. New versions based on the findings, feedback and improvements of this report and, furthermore, mature concepts will lead to highly valuable and applicable technology databases that improve the design process of buildings many times over. The results of the database evaluation based on the test cases and interviews have shown significant value for the architectural, structural and methodological design of the companies’ technological knowledge and therefore the design process. The valid design requirements according to the concrete use cases enable companies to build a robust information management with data consistency.
The Design4Energy platform represents an open platform that will allow different stakeholders to integrate their energy related service modules to further enhance energy efficiency of future buildings. In that context, the main the objective of WP4 is to define and implement the Dynamic Energy Efficient oriented Building Information Platform (DEEBIP) and its connection/integration with energy simulation tools as well as other Design4Energy applications and models.
The key information presented within this report can be summarised as follows:
• This report presents the domain models and meta model specification which build the underlying framework for DEEBIP.
• The report points out which domain models has to be integrated, which information they contain and how can be achieved the joining of these information.
• A consistent modelling across all aspects of the building simulation process is designed.
• An energy enhanced BIM specification is created by the application of a link model of confederated data schemas with the IFC data schema as the main underlying schema.
The Dynamic Energy Efficient oriented Building Information Platform (DEEBIP) developed in the Design4Energy project represents an open platform that will allow different stakeholders to integrate their energy related service modules to further enhance energy efficiency of future buildings.
This report describes the combination of multiple related models from different domains which are in this context referred to as elementary models. The underlying idea is to combine those different models in a single information resource to achieve a closely linked cooperation between the different domains of the construction industry. The elementary models are interconnected via a link model using unique identifiers. The result is a consistent Multi-Model that represents a certain status of a project. The description of this approach includes the categorisation and the classification of the models to be included as well as a brief recapitulation of the Multi-Model approach for their exchange.
This report describes the technical aspects and the implementation of the Multi-Model framework which is specified in the preceding tasks of WP4. The developed framework supports dynamic automated generation of engineering system model views using the overall expressive capabilities of BIM and generic model transformation and manipulation functions in combination with a declarative domain model view specification. The framework bases on the investigated interoperability specification in WP6 regarding the build and analysis of usage-scenarios considering new energy information related services and new technological developments influencing the interaction within the energy trade chain. The IFC-based building component catalogues of the Design4Energy component database are linked with the energy enhanced BIM system (eeBIM) which contains the enhanced BIM model for energy simulation presented in this report.
The report explains the possibilities to generate design variants for the subsequent simulation with EnergyPlus. The variants are generated either by means of changing the included building elements in the model or by using the jEPlus java library which enables the user to create complex parametric analysis on multiple parameters. Both possibilities are supported by appropriate GUI elements.
This report proposes a suitable communication architecture that can be used to collect operation and maintenance data at buildings’ and neighbourhood levels to support retrofit programmes. Since there have been many research and commercial efforts in developing such communication architectures, the purpose of this design effort is to use it as the basis for identifying a suitable communication architecture for the Design4Energy project rather than implementing yet another communication architecture.
Furthermore, this report illustrates the interface between the proposed communication architecture and the overall Design4Energy platform which will allow design teams to access sensor data, collected by the communication architecture.
The key information presented within this report can be summarised as follows:
• The key characteristics of a Decision Support System that deploys the sensor data and other maintenance data to support retrofit projects. This discussion illustrates the role and the functional requirements of a communication architecture.
• A survey of various sensors that can be used to capture both energy performance data and user behaviour data.
• A survey and comparison of the current communication architectures developed by the research community and commercial vendors.
• The design characteristics of a suitable communication architecture for the Design4Energy project and an evaluation of the current communication architectures that fulfil the proposed design characteristics.
• A discussion on how the communication architecture can be integrated with the overall Design4Energy platform.
Design4Energy project focuses both on the design and the operation phases of the building within its neighbourhood. In line with this scope the work described in this document revealed three main aspects for consideration during building operation
• A sufficient knowledge of the energy system is given to make optimum decisions for retrofit and maintenance.
• Relevant concepts and methods for analysing energy system performance at building and neighbourhood scale are provided.
• A summary of guidelines from standards and benchmarks about energy performances of buildings is given.
One of the focuses of the Design4Energy project is on the retrofitting scenario and the operation and maintenance stage of the building. In line with this scope the work described in this report presents a workflow and the necessary transfer data analytics to extend the use of Building Information Modelling (BIM) to encompass energy performance analysis in retrofitting of existing buildings.
This document provides guidance on the main information required to be captured when conducting building survey of an existing building. Appropriate methods for translating the building user behaviour during the collection of building information and feedback on the methodology are identified. The necessary steps to capture appropriate information for the building representation are established. The information collected can then be used to inform the energy modelling representation of the building through the use of appropriate modelling schedules and settings
Multiple limitations exist when using BIM to perform Building Energy Modelling (BEM) due to lack of transparency of data transfer. To create a common data model, specific methods and guidance are provided on the good practice when designing in BIM to achieve more accurate representation of the building and the built environment in general. As part of this report guidelines on good practice when designing in BIM (and in particular in REVIT) are provided to assist the architect in exporting good quality data for an adequate building representation.
Facilitating tools are developed to enable transparent exchange of data at different stages of the BIM to BEM process. A series of tools developed bridges the data transfer gap between BIM and BEM: the ‘Enhancer tool’; the ‘Conversion tool’; the ‘EnergyPlus runner’; and the ‘EplusKPI tool’. The ‘Enhancer tool’ offers editing capabilities to incorporate into the gbXML building representation descriptors of the building user behaviour. For the development of the ‘Conversion tool’ a novel method for converting gbXML files to idf files is proposed. Identification of key information on assumptions is enabled through transparent exchange of key information using the ‘idfXML_Template’ method. A tool to automate the process of performing analysis using EnergyPlus, the ‘EnergyPlus runner’, is developed. To predict the future behaviour of the building and energy savings due to maintenance and retrofitting the Key Performance indicators most relevant to the retrofit scenario are identified and their values calculated. Visualisation of the calculated KPIs enables analytical study of the energy analysis results. The KPIs relate to primary energy, energy demand and supply, a thirty year life cycle assessment and indoor environment quality assessment. The possibility to expand to the neighbourhood level to account for the interaction of the building with the surrounding environment and take into consideration the availability of energy sources at the district level is investigated.
Finally, the state of the art in protocols enabling the incorporation of monitoring and basic control in the BIM to BEM workflow is identified. Comparison of the predicted energy performance using the proposed workflow with the measured energy performance is necessary to establish the validity of the assumptions made and of the data transfer process.
Report 5.4 is structured into an analysis of the current state and background information especially in the area of decision support tools for energy efficient maintenance and retrofitting of districts and buildings and the detailed description of the components of the decision support tool developed in the D4E project. This includes the retrofit and maintenance alternatives generator, the target setting for key performance indicators, the decision support tool for ranking design alternatives and the graphical user interface. Finally, the decision support tool is implemented in a real-world case-study.
In this report, an interoperability specification design is developed for the integrated building lifecycle process encapsulating these three scenarios. This early release of the interoperability specification design defines the interoperation between the various systems (IFC-based BIM components library from WP2, Energy Efficient BIM system in WP4, the Decision Support tool for retrofit and maintenance from WP5, the interoperability execution engine WP6 and the collaborative Design Virtual Workspace in WP7) in the Design4Energy collaborative workspace across the Cross Organizational Business Process Model.
It describes how user requirements and needs, tasks and activities in the scenario can be coherently dealt with by various stakeholders using different BIM tools and technologies for energy efficient, sustainable building design and retrofit.
This report addresses task 6.3, specifically addresses a detailed description regarding the creation of an Interoperability Suite, which integrates the Execution Engine (D6.5) and that provides the mechanism to register Interoperability Specifications. Herein, an insight view regarding the data exchange solution that includes both data translation and simulation services is provided.
This report mainly focuses the following achievements.
- Interoperability Suite dully optimized, tested and validated.
- Tools to aid KPI optimization related to VTT KPI Energy analysis workflow.
- Such tools working and online.
The main purpose of WP7 is to develop an interactive virtual workspace that can allow various actors to collectively simulate and assess the impact of various energy solutions within a visual space, with the view to achieving the optimum energy efficiency at building level and/or neighbourhood level. This virtual workspace will offer “Simulated Reality” of energy performance of buildings as close as possible to the physical reality. This will be achieved through integrating the new methodology developed in WP2 to improve current practice, the database library of components and energy systems (developed in WP3), integration of energy simulation tools (WP4) and maintenance and operational data (developed in WP5). The virtual workspace will allow actors to manipulate different building components, energy solutions, current usage parameters of the tenants, energy related parameters (weather, external light, temperature, airflow, etc.) and explore “what-if” scenarios to understand the impact of their decisions within a broader design context. These interactive exploratory features will offer an interactive design space for actors to make validated and qualified choices as early as possible, offering considerations to regulations, user comfort, constraints, and future evolution of the building over time.
Design and implementation of the virtual workspace was driven by scenarios for which three scenarios were identified to highlight design activities: the first scenario considers neighbourhood energy trading context in building design. The second scenario focuses on holistic energy design optimisation during early design phase while the third one is focused on the use of operational and maintenance data in retrofit.
Following the executive summary in section 1, the report starts with an introduction (section 2) outlining purpose, partners’ contributions with a reference to other EU projects and other activities within the D4E project. Section 3 explains the overall approach while section 4 provides a detailed discussion of the holistic design scenario highlighting main activities and requirements. The overall system concept and architecture is discussed in detail in section 5 covering the main components of the platform. Section 6 provides a detailed design of the holistic design scenario with a subset of three mini scenarios. Section 7 presents the implementation plan of the virtual workspace followed by conclusions in section 8. A list of used acronyms and terms are listed in section 9 while section 10 contains a full list of the references used throughout the document.
This document (D7.2 1st Phase) presents the 3D on-line gaming environment for learning ‘how to design Green Buildings’ developed as part of the D4E project. The idea of the training environment is to enable users to learn individually or collectively through a ‘team space’ to design energy efficient buildings.
An overview of various learning models and theories was provided to understand how people learn. Among these, Constructivism and Humanism theories were selected as the most appropriate theories for this particular task and were used to define a number of learning elements required to foster a learning attitude. This work led to the creation of the D4E learning framework which identified, in addition to the learning elements, a number of skills that learners acquire from using such a training environment as they socially interact with one another through the game. Moreover, and in order to promote such learning elements, the concept flow was used to provide an interactive experience for the players to evoke positive experience.
The first phase of this work focused on the design and implementation of a new build (reported in D7.1 1st Phase submitted in M12). The work reported in this report builds on the achievements of phase 1 and extends it to cover the design of all three scenarios using a number of use cases and partial implementation of these use cases.
Following the executive summary in section 1, the report starts with an introduction (section 2) outlining the purpose, partners’ contributions with a reference to other EU projects and other activities within the D4E project. Section 3 explains the overall approach while section 4 describes the high level of designing the D4E virtual workspace. The overall system design is discussed in detail in section 5 covering the three-layered system architecture. Section 6 provides a detailed design of the D4E virtual workspace. Section 7 presents the implementation of the virtual workspace followed by conclusions in section 8. A list of used acronyms and terms are provided in section 9 while section 10 contains a full list of the references used throughout the document.
Design and implementation of the virtual workspace has been managed within three phases. The first phase of this work focused on the design and implementation of a new build (reported in D7.1 1st Phase, submitted in M12). The second phase completed the design of all three scenarios using a number of use cases and partial implementation of these use cases (reported in D7.3 2nd Phase, submitted in M24). The third phase which is reported in this document extends previous work to explain the final design and implementation of the virtual workspace to explore various design options.
Following the executive summary in section 1, the report starts with an introduction (section 2) outlining the purpose, partners’ contributions with a reference to other EU projects and other activities within the D4E project. Section 3 explains the overall approach while section 4 describes the high level of designing the D4E virtual workspace. The overall system design is discussed in detail in section 5 covering the three-layered system architecture. Section 6 provides a detailed design of the D4E virtual workspace. Section 7 presents the implementation of the virtual workspace followed by detailed implementation process for new build/retrofit and the neighbourhood scenarios in sections 8 and 9 respectively. Additional work invested to explore the use of immersive technology to design energy efficient buildings and neighbourhoods is discussed in section 10. Section 11 presents the mobile workspace for retrofit/maintenance. A summary of achievements with relations to on-going development is provided in section 12. A list of used acronyms and terms is available in section 13 while section 14 contains a full list of the references used throughout the document. Detailed information and a user manual with instructions for the D4E system simulation process are provided in the appendices.
This report (D7.5) presents the final design and implementation of the 3D on-line gaming environment for learning ‘how to design Green Buildings’ developed as part of the D4E project. The idea of the training environment is to enable users to learn individually or collectively through a ‘team space’ to design energy efficient buildings.
Following the executive summary, the report starts with an introduction (section 2) outlining the purpose, the partners’ contribution (with a reference to other EU projects) and other activities within the D4E project. This is followed by explaining the overall approach for design and implementation in section 3. A number of learning models are then discussed in section 4 together with learning elements and skills defining the D4E learning framework. Design of the 3D on-line gaming environment is presented in section 5 outlining three learning modules and the use of the energy efficient model to structure their content. Section 6 describes the detailed design of the tool identifying specific learning outcomes, activities and tasks. Section 7 presents the implementation of the 3D on-line gaming environment, followed by the conclusions in section 8. A list of the acronyms and terms that are used are listed in section 9 while section 10 contains a full list of the references used throughout the document.
The purpose of this report is to describe the current market and the identified customer segmentations for Design4Energy (D4E) in order to maximize future exploitation opportunities, value proposition and business model design. To design more energy efficient building integrated in their neighbourhood, progress compared to current design tools, design process and management practice is in need, as well as innovation in tools and methodologies to reduce the gap, enhance collaboration and interoperability.
The report begins at describing the methodology adapted in this research, then potential D4E products and services with higher exploitation possibility are identified as a starting line for Market analysis and value identification. In order to capture user’s perception and evaluation toward D4E’s products, a questionnaire was elaborated and distributed in the first exploitation workshop held in Madrid in November 2015, expert opinion and feedback were collected and thus enrich current research and identification of customers. Together with the public BIM market data, a market research is conducted drawing the interesting visions for D4E platform.
The main purpose of this report is to elaborate a business plan of a company that is able to enter into the market and exploit the results of the Design4Energy (D4E) project under market circumstances. This company may be a joint venture established by D4E partnership or any other market actor that gains the rights of exploiting the outcomes of the project.
Each potential “owner” of the D4E products as well as future partner alliances need to be guided on how to enter into the market after the end of the project.
The content included below aims to be something of a “cook book” for all those interested in creating a new business or expanding their current businesses based on the results obtained in our project.
This document describes firstly the structure, functionality and contents of project website, and then a first version of graphic design is shown. Later on, the google analytics result will be presented as an example of the methodology that use in visitor monitoring. Then, a short introduction about the project management system is introduced as a collaborative working space for the project. For internal file sharing, an open source platform is used and implemented in the server facilitating project partners an easy file management method; this document will briefly introduce the functions and advantages of the configured file sharing system in the server. To end this document, further developments will be presented showing the continuous works to be carried out during and after the project.
This document serves as a manual of the project management system Teamworkpm.
The PMS is set up based on the Teamworkpm platform, is an easy-to-use online teamwork & project management software application that helps project partners to work together more productively online. Main characteristics are: allows sharing ideas, information, notes; help the consortium stay focused, plan effectively & meet deadlines; web based so the project partners will be able to login from anywhere; task management and milestone tracking functions will allow partners to check and make sure they are met with deadlines; easy communication within the consortium; easy to reschedule and visualize the project with the Gantt chart tool; more tools like time tracking allows users to register their working time.
This document serves as a manual of the file sharing system used in the project.
A file sharing system with enterprise grade security and control is set up to facilitate an easier internal file management. Different from a traditional website, the system developed based on the Pydio allows a refined control and rich functions with a simple, sleek and beautiful interface. Users can access the docs from anywhere, from any browser of any computer, preview most common formats (audio, video, PDF, Office Documents) and perform a quick search. In the next phase, even assessing the system via mobile applications for iOS and Android will be possible.
This Report lists relevant activities that are essential for and contribute to the dissemination of the project results as well as raise awareness on the topics of the project. The document lists publications (journals) that are targeted for the disseminating and explains briefly their scope. Also conferences, events and relevant fairs are listed. Out of these, events with special interest have been selected and additional information on these events was provided.
Based on the 2nd version of the awareness and dissemination plan issued in Month 30, this report further improves the plan, updates the dissemination measures, materials and evaluates the dissemination activities that have been carried out after month 30.
This report is a product of Task 10.4 “Education and Training”. The main goal is to define a training methodology, strategy, plan and courses, which address the needs of key staff members, researchers, industrial executives (in particular for SMEs) and any potential users of the D4E solutions, in order to provide them with more competencies, new knowledge and life-long learning systems.