Overview

SUPERNOVA

SUPERNOVA develops advanced digital technologies to improve the planning, operation, resilience, monitoring, and data management of photovoltaic systems, enabling more efficient and reliable solar energy deployment.

Sustainable Polymer Technologies for Circularity

SUPERNOVA develops advanced digital technologies to improve the planning, operation, resilience, monitoring, and data management of photovoltaic systems, enabling more efficient and reliable solar energy deployment.

Chiara Barretta
Project Leader
Dr.
Chiara Barretta
Researcher and Project Manager in the Division “Sustainable Polymer Solutions”
Project Data
Project Start: 01.04.2024
Project End: 30.09.2027
Project Duration: 42 months

Project partners

  • Polymer Competence Center Leoben GmbH (PCCL) (A)
  • Accademia Europea di Bolzano (EURAC) (IT) - Coordinator
  • Commissariat a l’Energie Atomique at aux Energie Alternatives (CEA) (FR)
  • Fundacion Tecnalia Research & Innovation (Tecnalia) (ES)
  • Universidad del Pais Vasco/Euskal Herriko Unibertsitatea (ES)
  • UAB Soli Tek R&D (LT)
  • Societe Industrielle de Construction d’Appareils et de Materiel Electriques (FR)
  • Convert Italia S.p.a. (IT)
  • 3E (BE)
  • PVCASE UAB (LT)
  • SAIDEA S.r.l. (IT)
  • Statkraft AS (NO)
  • Zelestra Corporacion SA (ES)
  • BAYWA R.E. Operation Services S.r.l. (IT)
  • BAYWA R.E. Energy Trading S.r.l. (IT)
  • EPIA SolarPower Europe (BE)
  • CSEM Centre Suisse d’Electronique at de Microtechnique SA Recherche et Development (CH)

Associated partners

  • Case Western Reserve University Corporation (US)
  • Above Surveying Ltd (UK)
  • University of New South Wales (AU)

Motivation und Ziele

SUPERNOVA addresses a key challenge in the rapidly expanding photovoltaic sector: ensuring reliable, efficient, and economically viable operation of large-scale solar power plants throughout their lifetime. As photovoltaic deployment accelerates across Europe and globally, solar installations are becoming increasingly complex infrastructures composed of thousands of interconnected components operating under highly variable environmental conditions. While module efficiencies and installation costs have improved significantly over the past decade, the operational phase of PV systems still presents major challenges related to monitoring, maintenance, data management, and long-term performance optimisation.

At the same time, the digitalisation of the energy sector has led to the generation of vast amounts of operational data from solar plants. Sensors, monitoring systems, meteorological data, and maintenance records continuously produce large datasets that could provide valuable insights into system performance and reliability. However, this information is often fragmented across different platforms and stakeholders, limiting its effective use. Without advanced analytics and interoperable tools, much of this data remains underexploited.

The SUPERNOVA project aims to unlock the value of these data streams by developing innovative digital solutions for the design, monitoring, and operation of solar PV plants. By combining advanced sensing technologies, artificial intelligence, robotics, and data-driven modelling, the project seeks to improve the reliability and efficiency of solar installations while reducing operation and maintenance costs. A key focus is the integration of large and heterogeneous datasets into interoperable digital platforms capable of transforming raw data into actionable insights for plant operators, asset managers, and technology developers.

Through automated inspection systems, advanced analytics, and improved monitoring capabilities, SUPERNOVA enables earlier detection of faults, predictive maintenance strategies, and improved optimisation of plant performance. The project also contributes to the development of smarter design approaches that integrate operational considerations already during the planning phase of solar power plants.

SUPERNOVA brings together 20 partners from 11 countries, combining expertise from research organisations, universities, technology providers, and industry stakeholders across the photovoltaic value chain. The consortium collaborates closely to develop and demonstrate digital solutions that improve the monitoring, operation, and long-term reliability of PV systems.

Within the project, PCCL contributes its expertise in polymer materials and photovoltaic module reliability. The institute focuses on understanding degradation mechanisms of polymeric components and supporting the development of improved non-destructive field-applicable monitoring and diagnostic approaches to assess module health and durability during operation.

Main Goals

  • Improving the design of solar plants with data for increased performance, reliability, security, and flexibility
  • Developing tools and components for different sensor technologies to be adaptable to different environments
  • Using robotic solutions to reduce costs, increase data collection, and automate the process
  • Using data fusion to generate insights and improve reliability via solar PV asset management software
  • Developing methodology to classify solar components based on big data and artificial intelligence
  • Increasing the profitability of solar PV systems via operation & maintenance (O&M), and grid-friendly strategies
  • Creating confidence and business value in sharing solar PV data

Objectives and Approach

SUPERNOVA integrates stakeholders across the entire PV value chain combining climate-specific plant design, digital twins, AI-driven analytics, and advanced O&M strategies, enabling more resilient solar plants, improved decision-making, and lower electricity costs through better project quality and performance over the system lifetime. SUPERNOVA’s methodology combines advanced monitoring, digitalisation, and AI-driven analytics to improve the design, operation, and long-term reliability of photovoltaic plants while enhancing sustainability and economic performance.

  • Advanced sensing and diagnostics: Development of high-throughput, automated, and non-intrusive monitoring solutions capable of quantitatively linking degradation mechanisms with power loss, enabling early fault detection and predictive maintenance.
  • Hybrid monitoring and robotics: Integration of complementary technologies such as drones, in-field robotics, and advanced inspection tools to automate failure detection, improve plant monitoring, and create detailed digital twins of PV installations.
  • AI-driven data fusion and asset management: Use of interoperable digital platforms and language-based AI models to combine heterogeneous datasets, automate reporting and analysis, and support data-driven decision making for PV plant operators.
  • Secure data spaces and sustainability integration: Establishment of FAIR data structures, federated learning frameworks, and privacy-preserving data sharing to enable collaborative model development while supporting circularity, reliability assessment, and long-term sustainability of PV systems. 

„SUPERNOVA develops advanced digital, sensing, and AI-driven solutions to improve the design, monitoring, and operation of photovoltaic power plants, enabling more reliable, efficient, and sustainable solar energy systems, with PCCL contributing expertise in polymer materials and PV module reliability to support non-destructive degradation analysis and long-term performance assessment.“
Dr. Chiara Barretta

Förderegeber

SUPERNOVA wird von der Europäischen Union kofinanziert (Grant Agreement ID 101084251). Die geäußerten Ansichten und Meinungen sind jedoch ausschließlich die der Autoren und spiegeln nicht unbedingt die der Europäischen Union oder der Exekutivagentur für Klima, Infrastruktur und Umwelt (CINEA) wider. Weder die Europäische Union noch die Förderbehörde können dafür haftbar gemacht werden.

Questions? Feel free to contact our experts.
Chiara Barretta
Dr. Chiara Barretta