ETSI and EU Funded Research Programmes

Bringing the results of European Research Projects into ETSI

Research projects funded by such programmes as Horizon Europe, Digital Europe, Creative Europe and H2020 are not legal entities and the ‘projects’ themselves may not become a member of ETSI, nor can they provide contributions in the name of the ‘project’ to ETSI committees. 

However, the ideal path is for ETSI members that are present in those research projects to contribute elements of the research results directly in to ETSI technical groups, as contributions in the member's own name. They may indicate the origin of their contributions by acknowledging in their contribution documents that the work comes from a specific research project.

If there is no ‘existing home for the research results in ETSI it is always possible to create a new group to welcome the research topics and community. This is typically done using such groups as ISGs (Industry Specification Groups).

With many H2020 projects now concluding and others just beginning, there are multiple opportunities for interaction between research and standards:

  • With H2020 research projects that are already finalized, in particular for exploitation of the project results via standards
  • With H2020 research projects that are currently ongoing and may address topics of relevance and interests to ETSI
  • With future Horizon Europe and Digital Europe research projects that may address topics of relevance and interests to ETSI

Should you have any questions or require further guidance on how to bring research results into ETSI, please contact [email protected]

ETSI’s direct participation in European Research Projects

ETSI officials and secretariat staff may be requested to participate on research project steering boards or advisory committees. This offers an opportunity to have a regular contact with such projects and a formal interface with it, without the need to commit resources to the project (typically 1-2 meeting days per year are all that is required). The ETSI CTO considers each request on a case-by-case basis.

ETSI may be requested to participate in Horizon Europe and H2020 projects as a contractual partner. This is quite unusual, but may be worthwhile if e.g. we are strongly encouraged to do so by the European Commission, and/or should a unique opportunity be presented to capture standardization work in ETSI for an emerging field of technology.

ETSI representatives may also participate to research conferences, project coordination and cluster meetings. This provides an opportunity to meet and network with project leaders and Commission staff as well as providing feedback on the opportunities for standardization activities of innovative research topics.

Should you have any questions on ETSI’s participation in research projects or related events, please contact [email protected].

Horizon Europe (2021-2027)

Following on from Horizon 2020 (FP8), the Commission has published its proposal for Horizon Europe (FP9), an ambitious €100 billion research and innovation programme, to run from 2021-2027.

Structure Horizon Europe

© European Union, 2019 - European Commission – Preliminary Structure of Horizon Europe, the EU Research and Innovation Programme (2021-27)

Digital Europe (2021-2027)

The programme will boost investments in supercomputingartificial intelligencecybersecurity, advanced digital skills, and ensuring a wide use of digital technologies across the economy and society, including through Digital Innovation Hubs.

With a planned overall budget of €8.2 billion, it will shape and support the digital transformation of Europe’s society and economy.

Digital Europe will complement other EU programmes, such as the proposed Horizon Europe programme for research and innovation, as well as the Connecting Europe Facility for digital infrastructure.

Horizon 2020 (2017-2020)

Horizon 2020 was the EU Research and Innovation programme running from 2014 to 2020. It was the eighth such Framework Programme (FP8). For more information see https://ec.europa.eu/programmes/horizon2020/what-horizon-2020.

H2020 Work Programme and Calls

The H2020 domain which is of most relevant to ETSI is Information and Communication Technologies (ICT). 

The final H2020 ICT work programme is available and includes six main activity lines:

  • A new generation of components and systems
  • Advanced Computing
  • Future Internet
  • Content technologies and information management
  • Robotics
  • Micro- and nano-electronic technologies, Photonics

List of H2020 Projects

Information on EU research projects under Horizon 2020 (2014-2020) is available at https://data.europa.eu/euodp/en/data/dataset/cordisH2020projects.

Networld 2020

Networld2020 is the European Technology Platform (ETP) for communications networks and services that gathers all players of the communications networks sector: industry leaders, innovative SMEs, and leading academic institutions.

Networld2020 drives the community discussion on the future research technologies for ICT, in order to provide guidance for the development of the future European Union R&D program. You can pdfdownload the current version of the SRIA document.

ETSI works in close cooperation with Networld 2020 and together we have built a mapping between the research topics described in the Networld SRIA (Strategic Research and Innovation agenda) and the current ETSI work programme.

The mapping below shows the Networld2020 SRIA Technical domains mapped to the most appropriate ETSI or 3GPP standards activities. By clicking on the appropriate research topic it is possible to access the more detailed sub-topics and the mapping to the public information of the corresponding standards activities.

Mapping table between research topics in NW2020 and in current ETSI work programme

2.1 Virtualised Network Control for Increased Flexibility - 3GPP CT

2.2 Integrated Fixed-Mobile Architecture - 3GPP CT

2.3 Slicing and Orchestrators - 3GPP CT1

2.5 Media Access Control - 3GPP CT3

2.6 Network-Based Localisation - 3GPP GERAN & 3GPP RAN

3.1 Spectrum Re-farming and Reutilisation - 3GPP RAN and 3GPP RAN5

3.2 Millimetre Waves - 3GPP SA1

3.3 Optical Wireless Communication - 3GPP SA1

3.4 Terahertz Communications - 3GPP SA1

3.5 Ultra-Massive MIMO - 3GPP SA1

3.6 Non-orthogonal Carriers - 3GPP SA2

3.7 Enhanced Modulation and Coding - 3GPP SA2

3.8 Improved Positioning and Communication - 3GPP SA2

3.9 Random-Access for Massive Connections - 3GPP SA2

3.10 Wireless Edge Caching for Further Increased Throughput - 3GPP SA1

4.1 Flexible Capacity Scaling - 3GPP SA2

4.2 New Switching Paradigms - 3GPP SA3

4.3 Deterministic Networking - 3GPP SA3

4.4 Optical Wireless Integration - 3GPP SA3

4.5 Optical Network Automation - 3GPP SA3

4.6 Security for Mission Critical Services - 3GPP SA3

4.7 Ultra-high Energy Efficiency - 3GPP SA3

4.8 Optical Integration 2.0 - 3GPP SA3

5.1 Beyond Mobile Edge Computing - 3GPP SA3

5.2 Future Directions for Fog Computing

5.2.1 Cloud Computing: Friend or Foe? - 3GPP SA3 and 3GPP SA4
5.2.2 Fog Computing - 3GPP SA5
5.2.3 Fog Computing Research Directions - 3GPP SA5

5.3 Massive IoT Services

5.3.1 Critical IoT services - 3GPP SA5
5.3.2 Scalable management of massive deployments - 3GPP SA6
5.3.3 Distributed/autonomous and cooperative computing - 3GPP SA6, ISG CIM, ISG ENI

5.4 Data Analytics and Data Monetisation

5.4.1 Big Data - ISG MEC
5.4.2 Distributed Ledgers - ISG MEC
5.4.3 Artificial Intelligence/Machine Learning (AI/ML) - ISG MEC, ISG mWT, ISG NFV
5.4.4 Lack of awareness and knowledge in personal data monetisation - ISG NFV
5.4.5 Fraud mitigation in data monetisation - ISG NFV




6.1 Security Transformation - ISG QKD

6.2 Network-wide Security - ISG QKD and ISG ZSM

6.3 Slice-Specific and Convergence on Common Software Defined Patterns - ISG ZSM

6.4 Distributed Trust Systems - ISG ZSM

6.5 Artificial Intelligence and Machine Learning Application - ISG ZSM

7.1 Overall Vision - oneM2M

7.2.1 Multimedia Delivery - oneM2M
7.2.2 Broadband Access - oneM2M
7.2.3 Mobile Broadband to Users and Vehicles - OSG OSM
7.2.4 Machine Type Communication (M2M and IoT) - OSG OSM
7.2.5 Reliable and Critical Communication - OSG OSM, TC BRAN, TC CYBER
7.2.6 Other Applications - TC CYBER

7.3 Ground Segment

7.3.1 Physical layer 63 - TC DECT
7.3.2 Network Operations - TC DECT, TC EMTEL, TC ERM
7.3.3 Content Delivery Optimisation - TC HF, TC INT, TC INT (AFI WG)

7.4 Space Segment

7.4.1 HTS Broadband GEO - TC INT (AFI WG)
7.4.4 Highly Flexible Payloads - TC INT (AFI WG)
7.4.5 Nano-Systems - TC INT (AFI WG)

7.5 Communication Architectures

7.5.1 Virtualisation and Network Cloudification - TC INT (AFI WG)
7.5.2 Enabling Networking for NGSO (Non-Geostationary Satellite Orbit) Systems - TC INT (AFI WG)
7.5.3 Optimised Content Delivery - TC INT (AFI WG)

7.6 Convergence with Heterogeneous Networks

7.6.1 Joint Radio Resource Management (RRM) - TC LI
7.6.2 End-to-End Content Delivery - TC MSG
7.6.3 Security - TC MSG, TC MSG TFES
7.6.4 Integrated Network Managment - TC MSG TFES, TC RRS

8.1 Digital Service Transformation - TC SES

8.2 From Software-Centric to Human-Centric Services - TC SES

8.3 Services Everywhere, Infrastructure No Limits - TC SES

8.4 Network-Unaware Vertical Services - TC SES

8.5 Extreme Automation and Real-Time Zero-Touch Service Orchestration - TC SES

8.6 Service Injection Loop - TC SES

9.1 The Physical Stratum: Communication and Computing Resources

9.1.1 Nano-Things Networking - TC SmartM2M
9.1.2 Bio-Nano-Things Networking - TC SmartM2M
9.1.3 Quantum Networking - TC SmartM2M

9.2 Algorithms and Data

9.2.1 Impact of AI/ML on the Network
9.2.2 Impact of IoT on the Network
9.2.3 Impact of Blockchain Technologies on the Network
9.2.4 Evolution of Protocols

9.3 Applications

9.3.1 Application Level Networking
9.3.2 Applications (Components) in the Network
9.3.3 Applications Making Specific Demands to the Network