Artificial Intelligence in Digital Innovation Hubs
Victor NegrescuVice-Rector of the Romanian National University of Political Studies and Public AdministrationFormer MEP
AI DIH NetworkGiovanna GalassoDirector - PwC EU [email protected]
Objectives of the AI DIH NetworkDevelop a structured cooperation approach to create a European Network of Digital Innovation Hubs
with focus on AI
Launch of the call for EoI
September – December 2018
Final selection of 30 Hubs with focus
on AI
January – February 2019
2-days KO meeting of the programme
March 2019
Implementation of the programme (webinars,
collaborative workshops and mentoring activities)
April – November 2019
Signature of a Framework Cooperation
Agreement between DIHs
November 2019
Development of policy recommendations for
collaboration and networking
March 2020
Where do we stand…
Help the DIHs to unlock their collaboration and networking potential via mentoring, coaching and co-
creating activities, mainly dedicated to collaboration
Signature of a co-drafted multi-lateral framework cooperation agreement between (at least) 10 Digital
Innovation Hubs
Develop, based on evidence resulting from the demonstration activities, a blueprint for cross-border
collaboration as well as supporting measures and policy recommendations for enhancing
collaboration and networking potential
Overview of the Programme
Programme introduction/ Kick-off workshop
TP2
TP3
TP4
TP5
TP6
TP7
TP8
AS IS analysis –Mapping DIH business models and services
Cooperation strategies for the provision of AI services
Costs and benefits of cooperation scenarios
Funding and financing of collaboration schemes
Legal aspects of collaboration
AI services and ecosystem – AI Digital Assessment
Towards future cooperation among DIHs
March 2019
April 2019
May 2019
June 2019
October 2019
October 2019
Jun - Nov 2019
November 2019
2participatory workshops
2participatory workshops
3 peer learning webinars
30 on-site visits
Collaborative platform
TP1
Webinar
Follow-up webinar
Follow-up webinar
Individual online mentoring sessions
Webinar
Selected DIHs - Geographical coverage
30 DIHs from 20 different
countries selected out of
150 applications
SmartIC
Latvian IT Cluster DIH
LTroboticsDIH
• FCAI
• Super IoT
SINTEF
nZEB Smart Home
• HPC4Poland
• PIAP HUB
Czech Institute of Informatics, Robotics
and Cybernetics
CeADAR
DTI
Smart Connected
Supplier Network
IMEC• DIGIHALL
• WEST
• Teralab
• AIR4S
• ITI Data Cycle Hub
• esHPC
CROBOHUB
4P DIH
PRODUTECH
• RIF BioRobotics Institute
• IP4VG
• DIH Lombardia
Know-Center GmbH
• DFKI
• VDTC (Fraunhofer IFF)
• Munich Innovation Hub for
Applied AI
Global AI TrendsMassimo PellegrinoNew Ventures Leader and Global Ethical AI Leader - PwC [email protected]
AI definition
“Artificial intelligence (AI) systems are software (and possibly alsohardware) systems designed by humans that, given a complexgoal, act in the physical or digital dimension by perceiving theirenvironment through data acquisition, interpreting the collectedstructured or unstructured data, reasoning on the knowledge, orprocessing the information, derived from this data and decidingthe best action(s) to take to achieve the given goal. AI systems caneither use symbolic rules or learn a number.”
Source: A definition of Artificial Intelligence: main capabilities and disciplines, AI HLEG - European Commission
Impact of AI on global GDP
Source: PwC - What’s the real value of AI for your business and how can you capitalize?
Impact of AI on GDP per regionSome economies have the potential to gain more than others in both absolute and relative terms. Though all economies should benefit, North America and China are expected to witness the greatest GDP gains from AI increasing productivity.
Source: PwC - What’s the real value of AI for your business and how can you capitalize?
Impact of AI on GDP per sector
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ve
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anci
al
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s
Tran
spo
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an
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ics
Source: PwC’s AI Impact Index
Impact of AI on GDP per sectorTe
chn
olo
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com
mu
nic
atio
n a
nd
e
nte
rtai
nm
ent
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tail
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ufa
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rin
gSource: PwC’s AI Impact Index
AI patent trends
Three main categories of patents can be identified, which are: • AI techniques• Functional applications• Application fieldsOver 68% of AI patents fall into more than one category.
Historical analysis of the trends in AI patent applications and in scientific publications shows that between 2012 and 2017:• AI patent families grew on average by 28%
annually• Scientific publications grew on average by
5.6% annually
Source: WIPO Technology Trends 2019
Source: WIPO Technology Trends 2019
AI patent trends
Machine learning represents 89% of patent families related to
an AI technique
Overall, the share of scientific publications is higher
than patent families for AI techniques
Source: WIPO Technology Trends 2019
AI patent trends
Patent families and scientific publications related to machine
learning sub-categories as a share of the total for AI
Source: WIPO Technology Trends 2019
AI patent trends
Source: WIPO Technology Trends 2019
In terms of functional applications, computer vision represents 49% of all AI patentfamilies, while speech processing and natural language processing account for 14% and13%, respectively.
Main players in AI
Source: WIPO Technology Trends 2019
Among the top 30 AI applicantsworldwide, there are:• 26 are companies,
of which 12 located in Japan and 6 in United States
• 4 are universities or research institutions, located in China and in the Republic of Korea
U.S.
U.S.
Japan
Republic of Korea
Japan
Japan
Japan
Japan
Japan
U.S.
Europe
Japan
Japan
Japan
China
Japan
China
Japan
Republic of Korea
Republic of Korea
Europe
Japan
U.S.
Europe
Europe
China
U.S.
U.S.
China
China
Main players in AI
In terms of patents applications, CAS (China) and ETRI (Republic of Korea) rank 1st and 2nd respectively. In Europe, top applicants are Fraunhofer (Germany) and CEA (France).
Source: WIPO Technology Trends 2019
Ethics guidelines for trustworthy AI
1
2
3
4
Human agency and oversightIncluding fundamental rights, human agency and human oversight
Technical robustness and safetyIncluding resilience to attack and security, fall back plan and general safety, accuracy, reliability and reproducibility
Privacy and data governanceIncluding respect for privacy, quality and integrity of data, and access to data
TransparencyIncluding traceability, explainability and communication
5
6
7
Diversity, non-discrimination and fairnessIncluding the avoidance of unfair bias, accessibility and universal design, and stakeholder participation
Societal and environmental wellbeingIncluding sustainability and environmental friendliness, social impact, society and democracy
AccountabilityIncluding auditability, minimization and reporting of negative impact, trade-offs and redress
7 Requirements for trustworthy AI
Source: AI HLEG – European Commission
Innovation Services in Robotics and AI to SMEs Using the RIFs (Robotics Innovation Facilities) Concept
Paolo Dario - DIH RIF BioRobotics InstituteAI DIH Network
1998
2013
2018
2019
The DIH RIF BioRobotics Institute participates in the AI DIH Network Project, and creates a strong connection with the Industry 4.0 Competence Center ARTES 4.0, that signs the Framework Cooperation Agreement
Towards the creation of an AI DIH in Tuscany
2017
LINK Project (MIUR – Italian Ministry of University and Research) Funding: 26 M€Projects evaluated: 320Projects granted: 50
ECHORD++ Project 2013-2019
Funding: 20M€ Establishment of RIF (Robotics
Innovation Facility) Peccioli Pisa: an innovation driver to link discovery and
delivery, and to bridge the Valley of Death between innovation and market.
ARTES 4.0 Competence Center funded by the Italian Ministry of Economic Development (MiSE)Funding: 10.66M€ + 18M€Network of 127 partners (Universities, research centers, industries, foundations, etc..) in the areas of: Advanced Robotics and Enabling Digital Technologies (including AI)
TERRINet Project 2017-2021Funding: 5M€ Establishing a European Robotics Research Infrastructures Network
2012-2017
The lesson learned regarding the distances that SMEs are prepared to travel appears somewhat ‘Gaussian’ - most interactions are local within 50km with SME interaction rapidly dropping off with increasing distance. Prof. Chris Melhuish, Bristol RIF Coordinator, Echord++ Project
In 2015 TURF was invited to the launch of the RIF Peccioli Pisa under the ECHORD++ Project
Subsequently, it seemed natural to contact the RIF Peccioli Pisa when TURF conceived the idea of a portable, automatic and battery-driven weather station
In 2016, through the interaction with RIF Peccioli Pisa, TURF came into contact with researchers at Scuola Superiore Sant’Anna who provided TURF with: technical solutions development, specifically the development of software and electronics; with proof of
concept services tailored at assessing the technical feasibility; and with support to streamline the selection of AI components suppliers
The first sales of their product were in 2017 and TURF now works with customers as football clubs (Premiere Leagues) in several countries, including Spain, Italy and England
TURF Europe and the collaboration with the RIF Peccioli Pisa, today the DIH RIF BioRobotics Institute, under the ECHORD++ Project
TURF Europe is a spin-off from Pisa University, qualifying as a small consultancy and R&D firm specializing in building and maintaining turfed areas of all types. TURF focuses on precision farming, which is a business growth area in Europe and which is of particular
value for farming communities in Tuscany.
Green-GO systemBringing precision farming to urban green areasFilippo Lulli, Alessio Forconi - TURF Europe
“Green-GO”: bringing precision farming to urban green areas
“GREEN GO”: bringing PA to urban green areas – DEI Madrid (ES) – 14th November 2019
The starting point
• A niche of agronomy: sports turf (stadia, golfs, etc.)• Difficult and varying microclimates• Very exacting customers• Clients scattered across Europe• Difficult to monitor microclimate• “Precision farming” is the future…
IDEA: DEVELOP OUR OWN PORTABLE WEATHER STATION
WHERE TO START ? ?WE ARE AGRONOMISTS…
Outcome 2018
WHAT INFO DOES IT GIVE YOU ?
ParametersSoil MEASURED: Temperature, volumetric water content, EC
CALCULATED: available water content
Air Temperature, humidity, pressure, vapour pressure
Wind Speed, direction.
Light MEASURED: photosynthetically active radiation (μmol/m2/s)CALCULATED: Daily Light Integral (mol/m2/d)
Canopy Evapotranspiration (mm/d)
“GREEN GO”: bringing PA to urban green areas – DEI Madrid (ES) – 14th November 2019
Outcome
What’s the situation on my pitch ?
“GREEN GO”: bringing PA to urban green areas – DEI Madrid (ES) – 14th November 2019
Outcome
What’s my historical data ?
“GREEN GO”: bringing PA to urban green areas – DEI Madrid (ES) – 14th November 2019
2019-2020: keep pushing forward
GREEN-i
“GREEN GO”: bringing PA to urban green areas – DEI Madrid (ES) – 14th November 2019
1. RGB HD + multispectral + Thermal IR2. Neural networks (pest diagnosis)3. Georeferenced grid (bot guidance)
2019-2020: keep pushing forward
GREEN-i
“GREEN GO”: bringing PA to urban green areas – DEI Madrid (ES) – 14th November 2019
Ultralocalized automated low-dose treatments. Increase sustainability
AI Applied in Quality ControlDIGIHALL, Paris Region DIH, FranceValentina Ivanova, PhD
Service: test before you buy
• A customer is looking to explore the added value of the artificial intelligence to perform quality control in production line
• Customer Requirements:• Low cost < 10k€
• Flexibility
• Reliability
• Performance
• Testbed used: FFLOR (Future Factory @ LORraine)
Project principles• Objective: to realise an automated quality control demonstrator for
similar product type on our FFLOR test bed
• Proposed solution: Deep Learning technique• Approach – using open source Deep Learning Platforms (TensorFlow + Keras)
permitting to be used from non-specialists • Using neural network for image analysis, advantages:
• Flexibility
• Robustness
• Excellent performance
• Installation of an Embedded camera in the collaborative robot hand
• Collecting pictures from the inspected part from all angles
• Image analysis (classification)
From concept to demonstrator
How small companies use AI to maintain and improve their expertise:
A real example from the wooden furniture manufacturing sector, Florian Mohr
Our AI DIH
Berlin / Brandenburg
Rhineland-PalatinateKaiserslautern
North Rhine-Westphalia Dortmund
Lower SaxonyHannover
BavariaAugsburgBaden-Württemberg
Stuttgart
ThuringiaIlmenau
SaxonyChemnitz
Hamburg
Rhineland-PalatinateCoblenz
Saxony-AnhaltMagdeburg
HesseDarmstadt
SaarlandSaarbruck
The company and its use case
Carpentry Kasper
• staircases, tables and individual furniture made of solid wood
• 30 years of expertise in wood selection and handling
• two old carpenters masters combine most of the knowledge of the company
The pain of the small company
How to transfer experiential knowledge and skills of a handcraft process?
?
DFKI & MKZ
AI
no AI
Scope of an AI project
Capturing the manufacturing Process
• creation of a process map• creation of different process diagram
AI =
Artificial Intelligence
Advanced Informaticsor
Using AI for knowledge transfer
• recording of videos of the different manufacturing steps
• transcription of the (speech-to-text)
• translation into optional languages
• tagging of keywords
• creation of a database of keywords
→ quick and easy to find contents
In-Line Diabetic Retinopathy Detection
Munich Innovation Hub for Applied AIHolger Pfeifer (fortiss) – Fintan Buckley (Ubotica)
Munich DIH for Applied AI
–hosted at fortiss
Centre for AI
Munich Innovation Hub for Applied AI
AI-related services for SMEs Jointly operated by:
In-Line DR Detection
• Diabetic Retinopathy (DR) is the leading cause of vision loss in adults
• Cost of DR in UK in 2010/2011 was estimated at £57,741,842
• National screening programs in place in Ireland and other geographies
In-Line DR Detection
• Pilot Program – PC used to host AI based analysis
Intel Movidius VPUbased breadboard(H2020 Eyes Of Things)
WiFi
In-Line DR Detection
• Pilot Program – PC used for AI based analysis
In-Line DR Detection
• Production Level – integrate into the camera
• Glaucoma• Hypertension• Alzheimer’s• …..
Intel Movidius VPU
In-Line DR Detection
• Verifiable AI is critical for AI adoption in biomedical applications• “why did the system classify a retina as DR/non-DR”
• Neural Network Dependability Kit (NNDK) from fortiss• Uses formal methods to validate AI decisions
In-Line DR Detection
• Partnership with fortiss through the Munich Digital Innovation Hub• Introduced the Neural Network Dependability Kit (NNDK)
• Provided on-site training with the NNDK
• Supported integration of the NNDK into the solution• Bug fixes
• Feature enhancements
• Interpretation of results
In-Line DR Detection
• Global fundus camera market estimated to be 80,000 per annum by 2024
• Ubotica achieving a 30% market share by 2024• is expected to yield €10M/annum in revenue
• will create 10 to 12 full time positions to service the market
• Positive impact in other market segments
• Enabling early detection of DR will have a positive impact for European citizens and a corresponding reduction in Health Care costs
AI-driven media monitoring Expanding senses
Adam Olszewski Poznan Supercomputing and Networking CenterHPC4Poland DIH
• Predictive maintenance
• Deep neural networks
• Sentiment analysis
• Image recognition & digital immersion
• Real-time big data analysis
• Process mining and machine learning for
sequence optimization in production lines
Fully
Operational
DIH
DIH name
• Problem consulting
• Testing methodology
• Methodology road
mapping
• Analytical modelling
• Data selection and
acquisition
• Automation of maps
creation
• Algorithm
optimization
• Technology selection
• Experimenting
• Proof of Concept
V I S I O N A N D M I S S I O N
W e i n n o v a t e t h e P o l i s h m a n u f a c t u r i n g i n d u s t r y b y
r a i s i n g t h e a v a i l a b i l i t y o f a d v a n c e d I T s e r v i c e s ! ! !
D I H C O U N T R Y
K E Y A I E X P E R T I S E K E Y A I S E R V I C E S
Poznan
Poland
C O N TA C T D E TA I L S
Adam Olszewski
DIH official website
AI service on the market – PSMM use case:
brand monitoringadvanced impact analysissponsorship efficiencysentiment analysiscompetitor watchingcustomer satisfaction…
Our AI customer website – psmm.pl
AI Service: automated media stream analysis…turning traditional media analysis into one man’s job!
Problems addressed:Low speed, narrow scope, low quality of analysesSignificant workforce needed for each analysisBiased results depending on analysts’ beliefs
AI Service: automated media stream analysis
Searching for predefined words, expressions, imagesSimultaneous analysis of numerous TV and radio channels (live and historical)Social media analysisMarket specific media analysisAudio into text transcriptionContextual sentiment analysisSpeaker’s emotions analysis
AI in action – psmm use case:A. Image recognitionB. Text acquisitionC. Speech recognition
A.B.
C.
Logo recognition
Text recognition
Speech into text - live
AI service – how we do it• Speech recognition and analysis (own engine):
Semantic analysis of spoken content
Determining the emotional state of speaker based on acoustic markers
Classification of speakers (gender, age, other)
• Image recognition (neural network):
Identification of logotype appearance (number, size, time)
Contextual assessment of impact
• Text recognition and analysis (own analytical models, OS OCRs):
Identification of text
Text recognition
Semantic analysis of text
• Sentiment analysis embracing all above, e.g. to assess the efficiency of sponsorship campaigns.
AI Service application areas - examples
• Manufacturing firms – to verify the impact of promo campaigns, to assess customer satisfaction, to monitor strategic moves and brand
• Marketing agencies, e.g. Press Service Media Monitoring
• Consulting firms – strategy building, market impact assessment
• Radio, television, e.g. TVP (the Polish national TV channels) –migrating from manual to automatic analyses, subtitling, etc.
From idea to featureGeneration of a data-driven AI use case for the SW industry
Dr. Robert Ginthör, Know-Center, Austria
* COMET is an Austrian funding program that supports a sustainable knowledge transfer from science to industry.
Know-Center GmbH
• Austria's leading research center for Data-driven Business and Big Data Analytics
• Established in 2001• Located at Technical University Graz• > 110 Staff• > 600 COMET* & industrial & international
EU projects
Reval
• SW solutions for treasury and risk management
• 130 staff (Reval Austria)• Member of ION group (6500 employees)
AI Challenge
Reval wanted to enhance its SW product with AI-based functionalities, but initially lacked concrete and well-founded ideas
• Problem!• Start!
• Skills?• Organization?• Tools, technology?
• Skills?• Organization?• Tools, technology?
AI Service – Data Value Check
SUPERMARKET CHECKOUT OPTIMIZATION
DESCRIPTION: In order to improve customer experience in supermarkets, the checkout process needs to be optimized. Since self-
checkout is not accepted by all customer segments, the classic payment process should be improved. To that end, the aim is to shorten
overall queueing times during checkout by predicting when additional cash registers should be opened to efficiently handle the workload.
DATA INVENTORY
VALUE: Increase customer experience by shortening wait times in queues. Improve employee satisfaction by identifying potential
bottlenecks in advance and act accordingly. Develop a database of data tracked via shopping carts and baskets as a basis for future use
cases.
INPUT: Checkout location, current locations of shopping carts and baskets, number of open checkouts, maximum checkout capacity.
FUNCTIONAL APPROACH: 1.) Check current queue lengths at checkouts. 2.) Locate approaching shopping carts and baskets
3.) Predict ETA at checkouts by comparing current locations with previously recorded paths and arrival times at checkouts. 4.) Inform shop
employees about the upcoming checkout workload, potential bottlenecks and best course of action.
OUTPUT: Estimated upcoming checkout workload, bottleneck indicator, recommended action.
VALUE SCORES EFFORT SCORES
VALUE IMPACT AREAS VALUE IMPACT SCORE(0-100: low impact – high impact)
DATA SUITABILITY SCORE(0-100: low suitability – high suitability)
PROTOTYPING EFFORT SCORE(0-100: high effort to low effort)
SCORING SUMMARY RECOMMENDATIONS
IMPACT-EFFORT MATRIX STATUS PROGRESS FLOW Although this procedure is primarily designed to increase the efficiency of checkout
processes in supermarkets, further improvements could be achieved based on the
implementation of the described use case, such as:
- optimization of the number of available cash registers (i.e., there may be too many)
- optimization of shelf arrangement (i.e., smart shelf arrangement may encourage
customers to purchase more items)
- workload estimate based on prior days (i.e., the existing workforce can be used more
efficiently)
- benchmarking supermarket performance
© Know-Center GmbH, www.know-center.at
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70 30
RANK 2 RANK 1 RANK 51
6
6
7
9
22
24
35
Improve cooperation& partnerships
Strengthen brandreputation
Increase providedinformation quality
Improve performance& competitiveness
High Innovation level
Increase employeesatisfaction
Broaden & strengthencustomer base
Improve customersatisfaction
Evaluate Impact
Evaluate implementation effort
Evaluate data suitability
Top 5
X
X
X
0
50
100
0 50 100
EFFORT SCORE
IMP
AC
T S
CO
RE
Results
• 3 use cases finally selected for development
• 1 use case already implemented as new feature for Reval‘s SW solution
• First time use of Deep Learning at Reval
3 – 8 weeks
Potential schemes for cooperation among DIHsGiovanna GalassoDirector - PwC EU [email protected]
Our journey towards cooperationAdopting a customer-
centric mindset
• Identification of
ecosystem needs
• Characterisation of the
personas
• Definition of the
customer journeys Cooperation strategies
• Review of the
customers’ journeys
• Identification of
cooperation
opportunities
• Co-development of
the cooperation
scenarios
Analysis of the co-created
scenarios
• Review of the scenarios and
analysis of the processes
involved
Costs and benefits
of cooperation
• Analysis of costs
benefits and risks
of cooperation
scenarios
• Identification of
solutions to
tackle
collaboration
hurdles
Onsite visits
One-to-one meetings to
assess the feasibility of
the scenarios for each
DIH
Magdeburg & Prague
Valencia
&
Brussels
The final scenarios and horizontal tools
Partnership to provide services jointly
Matchmaking
Development of a new service
To be able to respond to a client’s request leveraging on the
capabilities and infrastructure available in the network
To widen the DIH offer to the ecosystem by cooperating with
other DIHs in Europe facing similar challenges and needs
To provide new opportunities to the ecosystem, creating
connections with players operating in other regions
ObjectiveWillingness to cooperate
Link with the DEP
Exporting / Importing EDIH excellence
Connecting ecosystem
Cooperation scenarios
Horizontal tools To facilitate the process of connecting for DIHs
To ease networking and matchmaking
To enhance knowledge sharing
• Platform to share information on services/ skills/ AI testing facilities
• Regular face to face to face meetings/ working groups/ speed dates among DIHs
• AI-empowered digital platform/ mechanisms to facilitate matchmaking activities
• Platform/Repository to share information on data sources and recommended providers
• Platform/Repository to share use cases, good practices and lessons learnt
Development of a new service (1/2)
This scenario is used in case a DIH decides to enlarge its offerings by developing a new service to respond to theecosystem needs and wishes to leverage skills and capabilities available within the network to design the servicetogether
1 Identification of a partner for the service delivery
2 Assess and discuss the cooperation opportunity
DIH1, intending to include a new
service in its service offerings,
looks for partners with
complementary or similar
competencies willing to take part in
the development of the service
Once interested DIHs respond to
DIH1 invitation, DIHs discuss
together the potential cooperation
opportunity and the features of
the services that should be
developed
The three DIHs co-create and sign a
cooperation agreement, reflecting
the strategy and covering related
legal and financial issues (e.g. IPR
of the service and contents
developed)
The three DIHs implement the
strategy and activities agreed.
Once the new service is developed,
each DIH starts to providing it to
its ecosystem
3 Co-define and sign cooperation agreement
4 Implement the strategy
DIH 1 DIH 1
DIH 2
DIH 3
DIH 1
DIH 2
DIH 3
DIH 1
Ecosyst.
DIH 2
Ecosyst.
DIH 3
Ecosyst.Cooperation opportunity
Strategy & coop. agreementDIH Network
Development of a new service (2/2)
Possible solutions
A deeper knowledge of the EU markets and ecosystems, enabling to identify common needs and challenges more easily
This would tackle the risk to spend resources in co-developing a service that is not in line with ecosystem needs and requests for both DIHs
Possible solutions
The introduction of standard legal templates for governing the development of new services, such as
• an agreement that sets the rules concerning the liabilities of each hub involved
• an agreement regulating IP issues, on the basis of the relationship between the hubs involved
Next steps for the future and..
Facilitate DIHs reciprocal knowledge by mapping their specific technical expertise and competencies and supporting their networking activity
Develop standard legal templates (e.g. Service Level Agreement) reducing bureaucracy and time required for establishing cooperation and mitigating perceived risk of cooperation
Provide funds to cover costs of cross-border cooperation and incentivise it, until it becomes a well-established and regular mechanism
Test the structured approach to cooperation in H2020/ Horizon Europe/ DEP and in other technological fields
…our first concrete step in collaboration
The Framework Cooperation Agreement is designed to foster
collaboration among DIHs.
By endorsing it, the parties commit to cooperate, in the spirit of good
faith, so to:
• foster their cross-border collaboration by implementing co-designed
cooperation schemes,
• while, boosting the development of technological innovation in the
EU.
AI DIH Network