The FeLow-D project is closely linked to the strategic goal of “Deepening the ERA.” It aims to elevate the existing group of ferroelectric research (FER) at the Institute of Solid State Physics, University of Latvia (ISSP UL) into a leading research center, promoting open knowledge sharing within an efficient R&I system. Through establishing a new research laboratory and making structural adjustments at ISSP UL, it aims to attract and retain top-notch talents under the guidance of an exceptional ERA Chair holder Dr.Andrei Kholkin (h-index = 66).

The transformation also involves strengthening collaborations with industry, ensuring sustainable growth in research activities, and supporting the transition from laboratory innovations to market opportunities. Emphasizing talent exchange and fostering diverse participation, this project significantly contributes to achieving the objectives of the European Research Area.

The project excels in research by focusing on advancing the field of low-dimensional ferroelectrics (FE), having novel functionalities and improved performance at the nanoscale. These materials are long known for their strong electric polarization, high piezoelectricity, and magnetoelectricity, elevated other cross-coupling effects—making them highly promising for cutting-edge modern applications. The project is at the forefront of exploring zero-, one-, and two-dimensional ferroelectric materials essential for miniaturizing future electronics (e.g. for realizing non-Neumann computing) and creating ground-breaking functionalities in areas such as flexible/wearable sensors, localized energy harvesting sources, piezocatalytic elements, active implants, and various bioelectronic devices.

By enhancing the FER at ISSP UL, the FeLow-D project aims to attain global leadership in these emerging fields. The project uniquely integrates advanced modeling using equilibrium and non-equilibrium thermodynamics and finite element analysis, materials science of ferroelectrics, and nanoscale device engineering to create novel ferroelectric structures with previously unattained performance. This multidisciplinary approach, involving experts from theoretical physics, materials science, chemistry, and instrumentation is set to provide significant advancements in ferroelectric devices and establish new industry standards.