We provide several courses in the faculties Electrical Engineering, Mathematics and Computer Science (EEMCS), and Science and Technology (TNW). Our group offers:
Open for students from Applied Physics, Nanotechnology, and Electrical Engineering. The course NanoElectronics (Course code 193400141) is strongly recommended. Further below are the course lists for MSc-EE and MSc-APh students. If you are interested a BSc or MSc project in NE, please read these:
What kind of lab work can I do during my BSc or MSc project?
Which topics can I work on?
As a student in NE you are a full group member and you will be involved in specific aspects of the research, such as device fabrication, measurements and analysis. Besides you are also encouraged to participate in the regular social activities.
The projects listed below give a generic impression of ongoing research. The current situation varies over time, depending on the progress. Please use this list for your initial orientation and selection. After an intake with Floris Zwanenburg you can talk to the PhD students or post-docs to hear more about the status of the projects which have your interest.
Research the dependence between energy of exciting light and photo response of 2D Transition Metal Dichalcogenide crystals
AFM topography measurements; Kelvin Probe Force Microscopy measurements to determine the surface potential.
Tao Chen, or Bram van de Ven or Floris Zwanenburg
Realizing hopping conduction at room temperature in silicon or silicon carbide. Repeating established machine learning tasks and exploring more.
Micro/nano-fabrication, electrical characterization.
TBD: Bram v. d. Ven, U. Alegre Ibarra, HC Ruiz Euler
Optimize the entire life cycle of our Boron-doped silicon devices
Optimize the development of our devices at different stages of the device's life cycle, from the fabrication to training via data acquisition, neural network modeling and analysis of the device's physical and computational capabilities. In this project there is a variety of aspects suitable for the student's interest. For instance, you can analyze and optimize training of neural networks, improve the data acquisition by analyzing the devices' response characteristics or study the computational capabilities of our devices to develop procedures that improve the design of the device.
Projects will not be available until September 2020
The subject of Majorana bound state (MBS), is of great interest for topological quantum computing. Our goal is to detect such state in superconductor-semiconductor hybrid nanowire systems, for instance, a Al-Ge/Si core-shell nanowire-Al Josephson junction
- Nanowire deposition with micromanipulator.
- Device fabrication involving a series of advanced techniques (e.g. Electron-beam lithography, Sputtering, Evaporation, etc.)
- Cryogenic transport measurements in dilution refrigerator with a base temperature of 15mK.
- Collaboration with QTM/ICE group.
António J. Sousa de Almeida, Guus Huitenga
Device design and fabrication; electrical characterization and qubit operation at cryogenic temperatures. Time-resolved and microwave measurements for spin read out and manipulation of individual spins bound to a single heavy-atom in silicon via spin resonance experiments.
A single atom is a very fundamental quantum system that provides a very logical candidate for a qubit. In this project we aim at fabricating single heavy-atom transistors in silicon. By using heavy elements in silicon, we aim at single-atom spin qubits with exceptional control of spin states via the spin-orbit interaction, and with exceptionally long coherence times. We aim to identify individual dopant atoms via transport spectroscopy and via charge sensing and ultimately perform readout and coherent control of single spins bound to a heavy atom in silicon via time-resolved and microwave experiments.
The depletion-mode design avoids complex multilayer architectures requiring precision alignment and allows directly adopting best practices already developed for depletion dots in other material systems, such as GaAs/AlGaAs and SiGe. We define Si QDs in an electron or hole gas at the Si/SiO2 interface through electrostatic gating. The nature of the charge gas can be tuned via the gate stack composition and growth conditions. For this project, we have on-going collaborations with the group of Prof. Erwin Kessels at University of Eindhoven, and with the group of Prof. Dominik Zumbühl at University of Basel, Switzerland.
We have developed a ambipolar charge sensing technique by using an electron and a hole quantum dot to sense charge displacement in the other. This electrical transport technique Is highly sensitive and enables us to detect single-electron and single-hole occupation in silicon quantum dots. Thus, we expect ambipolar charge sensing to provide a means to further study ambipolar devices, which have so far been studied in the many-charge regime via direct transport measurements.
The realization of a quantum computer based on spin qubits realized in silicon depends on the capability to fabricate qubits that are robust, reproducible, and scalable. To this end, we perform systematic low-temperature electrical characterization of silicon quantum dot devices. The devices are fabricated at imec in Leuven, Belgium, in a CMOS foundry environment and using 300mm processing technology.
Below the specialization courses:
Compulsory for NE:
193400141 NanoElectronics 5
193510040 Theoretical Solid State Physics 5
-Courses in consultation with chair 10
Recommended elective courses:
201600041 Nano-lab: Fabrication & Characterization 5
200900066 Introduction to the Physics of Correlated Electrons 5
193530000 Introduction to Superconductivity 5
193570050 Advanced Quantum Mechanics 5
193400111 Bionanotechnology 5
201600070 Basic Machine Learning 5
201600071 Advanced Machine Learning 5
201700394 Capita Selecta NE
The Chair NanoElectronics (NE) performs research and provides education in the field of nanoelectronics. Nanoelectronics comprises the study of the electronic and magnetic properties of systems with critical dimensions in the nanoregime, i.e. sub ~100 nm. Hybrid inorganic-organic electronics, spin electronics and quantum electronics form important subfields of nanoelectronics. The research goes above and beyond the boundaries of traditional disciplines, synergetically combining aspects of Electrical Engineering, Physics, Chemistry, Materials Science, and Nanotechnology.
Programme mentor: Prof. dr. ir. F.A. Zwanenburg (Floris)
Study load (EC)
Perspectives on Engineering Design
Philosophy of Engineering: Ethics
Two additional compulsory courses from the following list:
We have many international contacts to whom we can introduce you, a.o. in Japan, Australia, Switzerland and the USA. If you have done your MSc thesis work in our group then we will happily serve as a reference.
Below is an overview of courses with a NE contribution:
201700370 Fields and Waves (BSc EE)
201700143 Fields and Waves (BSc AT)
201900164 Quantum Matter (BSc AT)
193400141 Nano-Electronics (MSc AP, EE, NT)
201400430 Device Physics (BSc EE; lecturer NE Wilfrd van der Wiel)
191210740 Materials Science (MSc EE, guest lecture)
191210730 Technology (MSc EE, NT, guest lecture)
193400131 Nano-Optics (MSc TN, NT, guest lecture)
202001115 Electronics, Sensors and Actuators (BSc EE, project coaching)
191403070 Electriciteit en Magnetisme PM (BSc TN)
202001161 and 202001162Graduation Assignment (BSc EE, module 12)
For more information on these topics please make an appointment with Prof.dr.ir. Floris Zwanenburg via our secretary email@example.com.