Abstract
Hi, I’m Christian Zielinski, living in Düsseldorf, Germany. I work in technical architecture and technology leadership, with a focus on how large-scale IT systems can be designed, governed, and evolved in a sustainable way. My role involves leading architecture teams, shaping technology standards and reference architectures, and supporting organizations through modernization and change.
Much of my work sits between strategy and delivery. I’m interested in making architectural decisions explicit, understandable, and useful for the teams that have to live with them. This often means balancing long-term structure with short-term constraints, and favoring clarity and pragmatism over theoretical elegance.
I come from a computational physics background and still enjoy thinking about complex systems, abstractions, and trade-offs. Beyond enterprise and solution architecture, I maintain an interest in advanced and emerging technologies, including quantum computing.
For a more formal overview of my professional background, LinkedIn has the details.
Publications in Computational Physics
Note that in the field of lattice field theory authors are traditionally listed in alphabetical order. Click on a thumbnail to view the corresponding paper. For more information please refer to my arXiv profile.
[11]
Locality of staggered overlap operators
[10]
Theoretical and Computational Aspects of New Lattice Fermion Formulations (PhD Thesis)
[09]
Theoretical and Computational Aspects of New Lattice Fermion Formulations (PhD Defense)
[08]
Staggered domain wall fermions
[07]
Spectral properties and chiral symmetry violations of (staggered) domain wall fermions in the Schwinger model
[06]
Simple QED- and QCD-like Models at Finite Density
[05]
Continuum limit of the axial anomaly and index for the staggered overlap Dirac operator: An overview
[04]
Computational efficiency of staggered Wilson fermions: A first look
[03]
Thirring model at finite density in $2+1$ dimensions with stochastic quantization
[02]
Thirring model at finite density in $0+1$ dimensions with stochastic quantization: Crosscheck with an exact solution
[01]
Entanglement Efficiencies in $\mathcal{PT}$-Symmetric Quantum Mechanics
Talks in Computer Science
Click on a thumbnail to view the corresponding presentation.
[02]
Secure Multi-Party Computations: An Introduction
[01]
Concurrent Computations on Multicore Processors: Threads & Subprocesses (PyCon SG 2015)
