Advanced Energy Storage
Principal Investigador (PI)
Rubens Maciel Filho – UNICAMP – School of Chemical Engineering – email@example.com
Antonio Riul Junior – UNICAMP – Physics Institute Gleb Wataghin – firstname.lastname@example.org
Gustavo Doubek – UNICAMP – Faculty of Chemical Engineering – email@example.com
Hudson Zanin – UNICAMP – School of Electrical and Computer Engineering – firstname.lastname@example.org
See publications list
By 2050, it is expected that electricity will move from 18% to 50% of the world energy matrix and renewable sources of energy will expand four times from the current installed capacity, but CO2 emissions are expected to be half of today’s value. In this scenario, it is imperative to build novel solutions for energy storage that are still unavailable today and can cope with the predicted demands. Also, the worldwide increase of portable and wearable electronic devices encourages research on low-cost, flexible, light-weight and environmentally friendly energy storage and supply devices.
In order to effectively store and supply energy, advancement of batteries and supercapacitors is vital to make them economically more viable for applications that go from communications to transport. The ability of those devices to effectively and efficiently store and redistribute energy is highly dependent on the engineering of their constructions and the chemistry of the electrode surfaces and electrodes/electrolytes interfaces. High surface area, chemically stable electrodes and electrode/electrolyte interface knowledge are crucial for both batteries and supercapacitors.
In order to have insights into the operation and to develop new and more efficient materials and electrolytes for devices, a comprehensive chemical and structural understanding of the interface phenomena is fundamental. Therefore, CINE’s AES Division studies state-of-the-art batteries and supercapacitors under dynamic conditions by Raman and FTIR spectroscopies and high- intensity synchrotron X-ray. Raman and FTIR are carried out using optical fibers, coupling cell to spectrometers, allowing us to monitor the reactions during charge and discharge of a device. In situ high resolution and time-resolved X-ray diffraction will be performed in the SLAC – Stanford . The in situ techniques will be developed for operando conditions to address fundamental interfacial phenomena that could be linked with multiscale calculations and molecular dynamic simulations. This tailored tool will work in synergy with novel material synthesis based on high surface carbon and fast charge transfer electrodes.