

Partners
UNIVERSIDAD DE CANTABRIA, ISTR
Group, IPs: J. Javier Gutiérrez and Marta E.
Zorrilla (Coordinators)
UNIVERSITAT POLITÈCNICA DE VALÈNCIA,
GII Group,
IPs: Patricia Balbastre and José Simó
UNIVERSIDAD POLITECNICA DE MADRID, STRAST Group,
IPs: José M. del Álamo and Félix Cuadrado
IKERLAN S.COOP.,
Distributed and Connected Intelligence Department, IP:
Unai Díaz de Cerio
Summary
The so-called Industry 4.0 has initiated a
transformation in all social and economic spheres with
the introduction of the concepts of the Industrial
Internet of Things (IIoT), that is, the digital
interconnection of cyber-physical systems that include
monitoring and control systems for tools and machines,
with systems connected to control centers. A major key
to this is the improvement of predictability and
reliability at all levels in the digital transition of
highlyconnected industry. These systems are supported by
the use of digital enabling technologies and the
increasing application of artificial intelligence
techniques that allow enhancing the automation value
chain. Some of the technologies and techniques mentioned
above are not exclusive to industrial systems and are
shared by other new domains with similar needs, e.g. the
smart mobility. Recently, the European Cloud, Edge and
IoT Continuum initiative opens a new perspective on how
to deal with the development of new technologies looking
at reducing the communications load by processing data
closer to where it is produced, which is enabled by the
availability of more powerful computing platforms in the
edge. This initiative identifies applications from
different sectors (including manufacturing and mobility
among others) where reliability aspects are present.
The proposed project is based on previous experience in
developing basic technologies for Industry 4.0, which
can be naturally adapted to this new paradigm, and which
are intended to be further explored. The present project
aims to address the integration and extension of
enabling technologies in highly connected industrial
applications while achieving coherence across the
computing continuum. Key contributions include updated
operating systems, middleware integration, system
modeling tools, response time analysis, data management
frameworks, and application to industrial use cases.
The project is structured by following the computing
continuum view in which data and the place where they
are processed play a fundamental role. Thus, the control
and management of IoT devices by designing minimal
operating systems, creating efficient communication
interfaces, and exploring the application of AI at the
IoT level will be explored. Challenges at the edge level
include: data distribution across the continuum,
advanced scheduling and optimization on heterogeneous
platforms, and the implementation of AI-powered
analytics and autonomous decision-making capabilities.
Development of smart industrial applications, focusing
on enabling data sharing and interoperability across the
computing continuum will be addressed at the cloud
level. Two industrial case studies are proposed in order
to test and validate the applicability of the methods
and techniques to be developed. Artificial intelligence,
interoperability and governance are cross-cutting
pillars that enable predictive analytics and real-time
optimization, ensuring integration, reliable
decision-making and sustainable management across all
layers of the computing continuum. Within this vision,
the techniques, methodologies and tools to be developed
should be compatible at all levels of the computing
continuum.
Objectives
The objective of the project is to contribute to
industrial digitalisation by facilitating the development
of reliable industrial computing systems through the
development and/or integration of specific models,
applications, middleware and platforms, while considering
relevant aspects of future systems such as AI,
interoperability and governance. This objective is
materialised in the following general objectives of the
overall project:
1. Establish mechanisms to enhance reliability (predictability, execution isolation of components with different levels of criticality, security...) in cyber-physical applications running on heterogeneous hardware.
2. Research and development on orchestration middleware for applications across the continuum.
3. Specify and model reliable applications targeted for industrial data-driven systems to enable execution control and resource optimisation.
4. Integrate AI techniques on reliable applications addressing energy efficiency and sustainability at different levels of the continuum.
5. Apply project methods and techniques to various case studies and development of demonstrators.
6. Development of guidelines and recommendations for use in industry.