Characterization of Modern Materials for Energy Storage. Edition I

This summer school focuses on developing advanced competencies in the characterization of modern materials used in energy storage systems. Participants will explore key analytical methods, including rheology, FTIR and Raman spectroscopy, and electrochemical impedance spectroscopy (EIS), gaining both theoretical foundations and practical laboratory experience. The learning content will be delivered through a combination of lectures, guided tutorials, and hands-on laboratory sessions designed to engage participants actively in data analysis and interpretation. This blended format ensures that participants not only understand the underlying scientific principles but also acquire skills relevant to real-world research and industrial applications. The content is particularly relevant for Master and PhD students interested in modern electrochemical materials, energy technologies, and advanced characterization techniques.

Knowledge Has solid understanding of the fundamental principles behind rheology, FTIR and Raman spectroscopy, as well as electrochemical impedance spectroscopy (EIS), with a particular focus on how these methods are applied to materials for energy generation and storage. Understands of the relationships between structure and properties in modern materials used in energy-storage systems. Can recognize which analytical techniques are best suited for characterizing different classes of materials and their functional behaviour. Understands how measurement protocols are designed and how experimental data are processed, validated and interpreted in the context of complex material characterization.

Skills Is able to carry out rheological, spectroscopic (FTIR/Raman) and EIS measurements in accordance with established laboratory procedures. Interprets experimental data and formulates well-grounded conclusions about material performance and properties. Selects and applies suitable analytical approaches to assess the functionality, durability and stability of materials used for energy storage. Uses scientific software for spectral analysis, impedance modelling and visualization of measurement results.

Responsibility and autonomy Plans and conducts measurement activities independently with respect to safety procedures and quality standards. Works effectively in group-based laboratory settings, contributing to shared data analysis, discussions, presentations of results and preparation of final reports. Demonstrates responsibility in data management, preparation of documentation after experiments and critical evaluation of the accuracy and reliability of performed measurements.

No strict requirements on enrolment are foreseen.

The learning opportunity is designed as a multi-component program that combines an introductory online module with an intensive, hands-on stationary component. The experience begins with a lecture on rheology, delivered online before the in-person sessions. This introductory lecture helps participants build a solid theoretical foundation and ensures that everyone enters the practical part of the course with a shared understanding of the core concepts and terminology. Following the online introduction, the stationary part of the program consists of three interconnected laboratory blocks: 1. Rheology laboratory – focused on measuring and interpreting the flow and deformation behavior of modern materials used in energy-storage systems. 2. FTIR & Raman spectroscopy laboratory – dedicated to structural and chemical characterization of materials through vibrational spectroscopy. 3. Electrochemical impedance spectroscopy (EIS) laboratory – centered on analyzing electrochemical behavior, stability and performance of energy-storage materials. Each laboratory block is supported by tutorials, where participants have the opportunity to discuss experimental strategies, analyze datasets and practice interpretation of real measurement results.

The two-level mutual trust-based quality assurance scheme has been adopted:

• at the university level: Warsaw University of Technology has applied its internal quality assurance procedures and structures to the proposal of Characterization of Modern Materials for Energy Storage it submitted to ENHANCE and to its implementation - the related learning activities,
• at the Alliance level: the body composed of Education Officers has made decisions regarding the inclusion of Characterization of Modern Materials for Energy Storage proposed by Warsaw University of Technology to the Innovative Learning Campus part of the joint ENHANCE educational offer, based on the compliance with the formal requirements and ENHANCE goals.

The Summer School consist of an online phase and a 1-week on-site phase.

The online phase will last from 13.04 until 17.04;

The on-site phase will last from 20.04 until 25.04;

Written reports and presentation of the results.

Admission to this summer school is based on the results of the filled MsForms

The on-site phase of the Summer school will take place in Warsaw.

The online part of the Summer school will be conducted via MsTeams.

This summer school is financed through NAWA Spinaker funds. Each enrolled participant will have accommodation, travel and living costs reimbursed. The subsidy amount depends on the location of the student's home university.

The detailed regulations for the NAWA support may be found here.