RW
Raphael Wittkowski
cond-mat.softcond-mat.stat-mechcond-mat.mes-hallphysics.comp-phphysics.flu-dyncond-mat.mtrl-sciphysics.bio-phphysics.chem-phquant-phbioengineering
On Valency
published · living versionsW_djpgbwff·v1 · currentpublished
Dependence of the acoustic propulsion of nano- and microcones on their orientation and aspect ratio
with Johannes Voß
1 version
Preprints & journals
88 papers in the corpus · 2010–2026Compartmentalized Microgels with Programmed Acoustic Anisotropy for Orthogonal Ultrasound-Triggered Motion and Cargo Release10.26434/chemrxiv.15010573/v1 · Maria I. Pieper, Fabian Wiertz, Adrian Paskert et al.2026 · 0 citationsChemRxiv
Quantum-enabled active matter at the atomic scale2606.24615v1 · Sabrina Burgardt, Julian Feß, Alexander Guthmann et al.2026 · 0 citationsarXiv
Bioinspired ultrasound-driven ultrafast soft microgripper.42118841 · Zhong, Chengxi, Winderoll, Vincent, Kshetri, Khemraj Gautam et al.2026 · 2 citationsProceedings of the National Academy of Sciences of the United States of America. 2026;123(20):e2537655123
Light-propelled microparticles based on symmetry-broken refractive index profiles2604.14917v1 · Julian Jeggle, Matthias Ruschenbaum, Adrian Paskert et al.2026 · 0 citationsarXiv
Extended dynamical density functional theory for nonisothermal binary systems including momentum density2603.04973v1 · Michael te Vrugt, Hartmut Lowen, Helmut R. Brand et al.2026 · 0 citationsarXiv
Intelligent matter consisting of active particles2512.13912v1 · Julian Jeggle, Raphael Wittkowski2025 · 1 citationArtificial Intelligence and Intelligent Matter, Michael te Vrugt (ed.), Springer (Cham, Switzerland), p. 273-288 (2026)
Acoustic neural networks: Identifying design principles and exploring physical feasibility2511.21313v1 · Ivan Kalthoff, Marcel Rey, Raphael Wittkowski2025 · 0 citationsarXiv
Anomalous grain dynamics and grain locomotion of odd crystals.41105709 · Huang, Zhi-Feng, Vrugt, Michael Te, Wittkowski, Raphael et al.2026 · 7 citationsProceedings of the National Academy of Sciences of the United States of America. 2025;122(42):e2511350122
Ultrasound-driven programmable artificial muscles.41162719 · Shi, Zhan, Zhang, Zhiyuan, Schnermann, Justus et al.2025 · 30 citationsNature. 2025;646(8087):1096-1104
Bioinspired Geometry-Encoded Rheotactic Navigation of Sound-Driven Microrobots10.1101/2025.08.31.673395v1 · Sun, C., Paskert, A., Deng, Y. et al.2025 · 0 citationsbioRxiv
Bio-Inspired Ultrasound-Driven Ultrafast Soft Microgripper10.1101/2025.07.30.667446v1 · Zhong, C., Winderol, V., Kshetri, K. G. et al.2025 · 0 citationsbioRxiv
3D multiscale shape analysis of nuclei and in vivo elastic stress sensors allows force inference.40702729 · Jurado, Alejandro, Isensee, Jonas, Hofemeier, Arne et al.2025 · 6 citationsBiophysical journal. 2025;124(17):2784-2796
Technology Roadmap of Micro/Nanorobots.40577644 · Ju, Xiaohui, Chen, Chuanrui, Oral, Cagatay M et al.2025 · 134 citationsACS nano. 2025;19(27):24174-24334
Metareview: a survey of active matter reviews.40035927 · Te Vrugt, Michael, Wittkowski, Raphael2026 · 62 citationsThe European physical journal. E, Soft matter. 2025;48(3):12
3D dynamic multiscale force and shape analysis of in-vivo elastic stress sensors10.1101/2025.01.22.633835v3 · Jurado Jimenez, A., Isensee, J., Hofemeier, A. et al.2025 · 1 citationbioRxiv
Microscopic derivation of the thin film equation using the Mori-Zwanzig formalism.39225531 · Te Vrugt, Michael, Topp, Leon, Wittkowski, Raphael et al.2024 · 3 citationsThe Journal of chemical physics. 2024;161(9)
Active pattern formation emergent from single-species nonreciprocity2404.10093v2 · Zhi-Feng Huang, Michael te Vrugt, Jonas Mayer Martins et al.2024 · 3 citationsarXiv
Analytical method for reconstructing the stress on a spherical particle from its surface deformation.38258291 · Krüger, Lea Johanna, Vrugt, Michael Te, Bröker, Stephan et al.2024 · 4 citationsBiophysical journal. 2024;123(5):527-537
Pair-distribution function of active Brownian spheres in three spatial dimensions: simulation results and analytical representation.38078539 · Bröker, Stephan, Te Vrugt, Michael, Jeggle, Julian et al.2023 · 8 citationsSoft matter. 2023;20(1):224-244
Ultrasound-propelled nano- and microspinners2310.17018v1 · Johannes Voß, Raphael Wittkowski2023 · 1 citationarXiv
Active Brownian particles in external force fields: Field-theoretical models, generalized barometric law, and programmable density patterns.37978644 · Bickmann, Jens, Bröker, Stephan, Te Vrugt, Michael et al.2023 · 13 citationsPhysical review. E. 2023;108(4-1):044601
An acoustically controlled helical microrobot.37729400 · Deng, Yong, Paskert, Adrian, Zhang, Zhiyuan et al.2023 · 125 citationsScience advances. 2023;9(38):eadh5260
Inertial self-propelled particles in anisotropic environments2309.04942v1 · Alexander R. Sprenger, Christian Scholz, Anton Ldov et al.2023 · 10 citationsCommunications Physics 6, 301 (2023)
Dependence of the acoustic propulsion of nano- and microcones on their orientation and aspect ratio.37553408 · Voß, Johannes, Wittkowski, Raphael2023 · 3 citationsScientific reports. 2023;13(1):12858
Collective dynamics and pair-distribution function of active Brownian ellipsoids2307.15535v1 · Stephan Broker, Michael te Vrugt, Raphael Wittkowski2023 · 11 citationsCommunications Physics 7, 238 (2024)
Acoustic propulsion of nano- and microcones: dependence on particle size, acoustic energy density, and sound frequency2307.00681v1 · Johannes Voß, Raphael Wittkowski2023 · 3 citationsarXiv
Passive and active field theories for disease spreading2307.00437v1 · Michael te Vrugt, Julian Jeggle, Raphael Wittkowski2023 · 3 citationsJournal of Physics A: Mathematical and Theoretical 57, 315003 (2024)
How to derive a predictive field theory for active Brownian particles: a step-by-step tutorial.36917854 · Vrugt, Michael Te, Bickmann, Jens, Wittkowski, Raphael2023 · 31 citationsJournal of physics. Condensed matter : an Institute of Physics journal. 2023;35(31)
An Acoustically Controlled Microrobot Modelled on Spirochete Bacteria10.1101/2023.03.09.531925v1 · Deng, Y., Paskert, A., Zhang, Z. et al.2023 · 1 citationbioRxiv
From a microscopic inertial active matter model to the Schrödinger equation.36894573 · Te Vrugt, Michael, Frohoff-Hülsmann, Tobias, Heifetz, Eyal et al.2023 · 39 citationsNature communications. 2023;14(1):1302
Generic framework for data-race-free many-particle simulations on shared memory hardware2302.14170v1 · Julian Jeggle, Raphael Wittkowski2023 · 0 citationsarXiv
Thermodynamics of an Empty Box.36832681 · Schmitz, Georg J, Te Vrugt, Michael, Haug-Warberg, Tore et al.2024 · 0 citationsEntropy (Basel, Switzerland). 2023;25(2)
Perspective: New directions in dynamical density functional theory.35917827 · Te Vrugt, Michael, Wittkowski, Raphael2022 · 22 citationsJournal of physics. Condensed matter : an Institute of Physics journal. 2022;35(4)
Orientation-dependent propulsion of active Brownian spheres: from self-advection to programmable cluster shapes2210.13357v1 · Stephan Broker, Jens Bickmann, Michael te Vrugt et al.2022 · 12 citationsPhysical Review Letters 131, 168203 (2023)
Propulsion of bullet- and cup-shaped nano- and microparticles by traveling ultrasound waves2209.12582v1 · Johannes Voß, Raphael Wittkowski2022 · 6 citationsPhysics of Fluids 34, 052007 (2022)
Inertial dynamics of an active Brownian particle.36266913 · Mayer Martins, Jonas, Wittkowski, Raphael2022 · 13 citationsPhysical review. E. 2022;106(3-1):034616
Acoustic Propulsion of Nano- and Microcones: Dependence on the Viscosity of the Surrounding Fluid.35998334 · Voß, Johannes, Wittkowski, Raphael2022 · 8 citationsLangmuir : the ACS journal of surfaces and colloids. 2022;38(35):10736-10748
ASEVis: Visual Exploration of Active System Ensembles to Define Characteristic Measures2207.06519v1 · Marina Evers, Raphael Wittkowski, Lars Linsen2022 · 1 citationIEEE Visualization and Visual Analytics, 150-154 (2022)
Topological fine structure of smectic grain boundaries and tetratic disclination lines within three-dimensional smectic liquid crystals.35552573 · Monderkamp, Paul A, Wittmann, René, Te Vrugt, Michael et al.2022 · 17 citationsPhysical chemistry chemical physics : PCCP. 2022;24(26):15691-15704
Roadmap for Optical Tweezers2206.13789v1 · Giovanni Volpe, Onofrio M. Marago, Halina Rubinzstein-Dunlop et al.2022 · 162 citationsJournal of Physics: Photonics 5, 022501 (2023)
Analytical approach to chiral active systems: Suppressed phase separation of interacting Brownian circle swimmers.35597664 · Bickmann, Jens, Bröker, Stephan, Jeggle, Julian et al.2022 · 42 citationsThe Journal of chemical physics. 2022;156(19):194904
Collective guiding of acoustically propelled nano- and microparticles.36132012 · Nitschke, Tobias, Stenhammar, Joakim, Wittkowski, Raphael2024 · 7 citationsNanoscale advances. 2022;4(13):2844-2856
Derivation and analysis of a phase field crystal model for a mixture of active and passive particles2204.14053v1 · Michael te Vrugt, Max Philipp Holl, Aron Koch et al.2022 · 13 citationsModelling and Simulation in Materials Science and Engineering 30, 084001 (2022)
Orientation-Dependent Propulsion of Triangular Nano- and Microparticles by a Traveling Ultrasound Wave.35263102 · Voß, Johannes, Wittkowski, Raphael2022 · 16 citationsACS nano. 2022;16(3):3604-3612
Pressure Drives Rapid Burst-Like Coordinated Cellular Motion from 3D Cancer Aggregates.34994086 · Raghuraman, Swetha, Schubert, Ann-Sophie, Bröker, Stephan et al.2022 · 23 citationsAdvanced science (Weinheim, Baden-Wurttemberg, Germany). 2022;9(6):e2104808
A colloidal time crystal and its tempomechanical properties2112.04498v1 · Marina Evers, Raphael Wittkowski2021 · 5 citationsPhysica Scripta 98, 125240 (2023)
Mori-Zwanzig Formalism for General Relativity: A New Approach to the Averaging Problem.34936793 · Te Vrugt, Michael, Hossenfelder, Sabine, Wittkowski, Raphael2021 · 17 citationsPhysical review letters. 2021;127(23):231101
Acoustically propelled nano- and microcones: fast forward and backward motion.36132955 · Voß, Johannes, Wittkowski, Raphael2024 · 13 citationsNanoscale advances. 2021;4(1):281-293
Master equations for Wigner functions with spontaneous collapse and their relation to thermodynamic irreversibility2106.00137v1 · Michael te Vrugt, Gyula I. T'oth, Raphael Wittkowski2021 · 11 citationsJournal of Computational Electronics 20, 2209-2231 (2021)
Pressure drives rapid burst-like collective migration from 3D cancer aggregates10.1101/2021.04.25.441311v1 · Raghuraman, S., Schubert, A.-S., Bröker, S. et al.2021 · 1 citationbioRxiv
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