Jonas Bylander
Jonas Bylander has been on the faculty at Chalmers since 2013, teaching quantum optics, quantum information, and nanotechnology.
Jonas's current research is focused on building a quantum computer with superconducting circuits.
** We welcome applications from motivated postdocs with expertise in experimental quantum computing or closely related areas; microwave simulation and measurement techniques; optimal control techniques; and nanofabrication of solid-state quantum electronic devices with knowledge of materials and surfaces **
Showing 44 publications
Geometric scaling of two-level-system loss in superconducting resonators
Reproducible Josephson junctions are important for scalable quantum technologies
High Kinetic Inductance Nb N Nanowire Superinductors
Decoherence benchmarking of superconducting qubits
Microwave photon generation in a doubly tunable superconducting resonator
Period multiplication in a parametrically driven superconducting resonator
Noise and loss of superconducting aluminium resonators at single photon energies
Preface to the Proceedings of the LT28
Nondegenerate parametric oscillations in a tunable superconducting resonator
Superconducting Quantum Bits of Information - Coherence and Design Improvements
Writing in the disciplines as writing to learn – student disciplinary discourse to enhance learning
Period-tripling subharmonic oscillations in a driven superconducting resonator
Suppressing relaxation in superconducting qubits by quasiparticle pumping
Experimental Test of the Entanglement of Radiation Generated by the Dynamical Casimir Effect
Single-shot read-out of a superconducting qubit using a Josephson parametric oscillator
Characterization of a multimode coplanar waveguide parametric amplifier
Z-Gate Operation on a Superconducting Flux Qubit via its Readout SQUID
Flux qubit noise spectroscopy using Rabi oscillations under strong driving conditions
Time-reversal symmetry and universal conductance fluctuations in a driven two-level system
Improving quantum gate fidelities by using a qubit to measure microwave pulse distortions
Dynamical decoupling and dephasing in interacting two-level systems
Spectroscopy of low-frequency noise and its temperature dependence in a superconducting qubit
Driven dynamics and rotary echo of a qubit tunably coupled to a harmonic oscillator
Noise correlations in a flux qubit with tunable tunnel coupling
Noise spectroscopy through dynamical decoupling with a superconducting flux qubit
Pulse imaging and nonadiabatic control of solid-state artificial atoms
Time-resolved detection of temporally correlated, single-charge tunnelling
Crossover from time-correlated single-electron tunneling to that of Cooper pairs
Line Widths of Single-Electron Tunneling Oscillations: Experiment and Numerical Simulations
Direct observation of time correlated single-electron tunneling
Current measurement by real-time counting of single electrons
Generation of non-classical light by single quantum dots
Interference and correlation of two independent photons
Single photon emission from individual semiconductor nanostructures
Emission statistics of semiconductor quantum dots
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Showing 10 research projects
An Open Superconducting Quantum Computer (OpenSuperQ)
Parametric amplifiers for superconducting quantum information processing
Super/semiconductor quantum-noise-limited broadband amplifier (SuperSemiQ)
Course development for enhanced learning of quantum engineering
Quantum Sound: Generating and manipulating phonons at the quantum level
Quantum states of photons and relativistic physics on a chip
Steady-state entanglement with superconducting qubits (SUPTANGO)
Superinductors for quantum information science (Super JB)
Superinductance for very long-lived quantum coherence
Non-linear microwave resonators for quantum-mechanical information technology