Scientific Background:
Over the last decades, following Moore's law, the continuous downscaling of the Si based, planar integrated circuit technology has been the main driving force to increase switching speed and reduce power consumption as well as cost of ultra-scaled integrated circuits. However, challenges arising from implications of short-channel effects forced a shift of research efforts towards the integration of new materials, processes and device architectures. In this context, emerging distributed computing paradigms such as the Internet of Things (IoT) are placing extraordinarily stringent constraints on computing hardware performance that require both a beyond CMOS and "More than Moore" approach enabling efficient and low-power technologies for data-intensive tasks such as Artificial Intelligence (AI) algorithms. Consequently, there is a significantly growing need for functional diversification as well as alternative computing and memory devices.
Mission Statement:
In the quest to push the contemporary scientific boundaries in nanoelectronics, the Weber group is focusing on a "More than Moore" approach extending device performances beyond the limits imposed by transistor miniaturization, enabling next generation energy efficient reconfigurable integrated circuits, targeting low supply voltages and a reduction of transistor count. Moreover, novel devices that fuse computing with non-volatile memory functionality are being conceived and advanced towards circuit enablement.
Group Members:
News:
Research Achievements:
Bottom-Up Nanowire Technologies for Printed Electronics and Biosensing
Ultrathin Body and Multigate Transistors for More Moore Electronics
Materials Screening and Charge Transport in High-k Dielectrics
Press releases:
May 2022:
Top-down fabricated Ge based reconfigurable transistor
December 2021:
"Revolutionäre" Transistoren der TU Wien sollen Prozessoren leistungsfähiger machen
Intelligent transistor developed at TU Wien
October 2021:
Neue Nanostrukturen für die Quantenelektronik
New nanostructure could be the key to quantum electronics
Researchgate:
Link to the Emerging Nanoelectronic Devices Group Researchgate page
Group Publications:
Link to TU Wien publication database
Open Positions:
We are always looking for highly motivated bachelor, master and PhD students. The cross-disciplinary nature of the projects invites students with background in microelectronics, physics and material science. If you are interested in emerging nanoelectronic devices and their application on the nanoscale, please have a look at our bachelor and master classes and open positions in our group:
Link to bachelor and master classes
Links to open positions:
MSc. position: Electrical Transport in Steep-Slope Schottky Ge-FinFETs
MSc. position: Electrical and Optical Characterization of Ultra-Thin Ge Nanomembranes
MSc. position: Investigation of Amorphous Ge Nanosheets for Bolometric Applications
MSc. position: Device Integration and Electrical Characterization of Hyperdoped Ge-based Nanowires
MSc. position: Investigation of the Transport Properties of Ultra-Thin Monocrystalline Al Nanosheets
MSc. position: Passivation of Ge Surfaces for Next-Generation Nanodevices
To apply for a PhD or Postdoc position, please email a CV, a publication list and contact information of referees, as well as a short motivation letter to Prof. Walter M. Weber.