PhD student
| Phone: | +49 351 46339404 |
| Room: | MBZ 413 , MBZ 414 , MBZ 415 |
| Group: | nanoelectronics for sensor technologies |
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Download contact:
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Alexandra Parichenko studied Nanobiophysics at Technical University of Dresden (TUD) and received her Master’s degree in 2021. Her Master’s thesis was mainly conducted at Fraunhofer IKTS under supervision of Dr. Natalia Beshchasna and Dr. Jörg Opitz. In the frame of the thesis she investigated diamond nanoparticles and high density lipoprotein nanoparticles as potential anti-atherogenic agents, which can be integrated into the biodegradable coating of vascular stents. In 2020 she joined Prof. Gianaurelio Cuniberti’s chair and now is focusing on investigation of different hydrogels for hosting bio-receptors on the surfaces of biosensors, such as nanowire field effect transistors (FETs) and carbon nanotubes FETs.
Hydrogel-Gated Silicon Nanotransistors for SARS-CoV-2 Antigen Detection in Physiological Ionic Strength
Recent advances in technologies toward the development of 2D materials-based electronic noses
PhD student
| Phone: | +49 351 46339404 |
| Room: | MBZ 413 , MBZ 414 , MBZ 415 |
| Group: | nanoelectronics for sensor technologies |
|
Download contact:
|
Alexandra Parichenko studied Nanobiophysics at Technical University of Dresden (TUD) and received her Master’s degree in 2021. Her Master’s thesis was mainly conducted at Fraunhofer IKTS under supervision of Dr. Natalia Beshchasna and Dr. Jörg Opitz. In the frame of the thesis she investigated diamond nanoparticles and high density lipoprotein nanoparticles as potential anti-atherogenic agents, which can be integrated into the biodegradable coating of vascular stents. In 2020 she joined Prof. Gianaurelio Cuniberti’s chair and now is focusing on investigation of different hydrogels for hosting bio-receptors on the surfaces of biosensors, such as nanowire field effect transistors (FETs) and carbon nanotubes FETs.
Hydrogel-Gated Silicon Nanotransistors for SARS-CoV-2 Antigen Detection in Physiological Ionic Strength
Recent advances in technologies toward the development of 2D materials-based electronic noses
