Max Planck Institute for Dynamics and Self-Organization

Publications

Publications of Luca Cocconi

All genres

Journal Article (6)

1.

Journal Article

Cocconi, L.; Mahault, B.; Piro, L.: Dissipation-accuracy tradeoffs in autonomous control of smart active matter. New Journal of Physics 27 (1), 013002 (2025)

MPG.PuRe

publisher-version

2.

Journal Article

Cocconi, L.; Alston, H.; Romano, J.; Bertrand, T.: The OU² process: characterising dissipative confinement in noisy traps. New Journal of Physics 26, 103016 (2024)

MPG.PuRe

publisher-version

3.

Journal Article

Alston, H.; Cocconi, L.; Bertrand, T.: Irreversibility across a Nonreciprocal PT-Symmetry-Breaking Phase Transition. Physical Review Letters 131 (25), 258301 (2023)

MPG.PuRe

4.

Journal Article

Cocconi, L.; Alston, H.; Bertrand, T.: Active bound states arising from transiently nonreciprocal pair interactions. Physical Review Research 5 (4), 043032 (2023)

MPG.PuRe

publisher-version

5.

Journal Article

Alston, H.; Cocconi, L.; Bertrand, T.: Irreversibility across a Nonreciprocal P T -Symmetry-Breaking Phase Transition. Physical Review Letters 131 (25), 258301 (2023)

MPG.PuRe

publisher-version

6.

Journal Article

Cocconi, L.; Knight, J.; Roberts, C.: Optimal Power Extraction from Active Particles with Hidden States. Physical Review Letters 131 (18), 188301 (2023)

MPG.PuRe

publisher-version

Current Preprints

M.K. Johnsrud & R. Golestanian

Phase Diagram of the Non-Reciprocal Cahn-Hilliard Model and the Effects of Symmetry

arXiv:2503.07579

S. Chen et al.

Nanomotors: 20 years anniversary and future roadmap

ChemRxiv, 2025

G. Tucci et al.

Hydrodynamic stresses in a multi-species suspension of active Janus colloids

arXiv:2502.07744

M.K. Johnsrud & R. Golestanian

Fluctuation Dissipation Relations for the Non-Reciprocal Cahn-Hilliard Model

arXiv:2502.02524

A. Jurado et al.

3D dynamic multiscale force and shape analysis of in-vivo elastic stress sensors

bioRxiv, 2025.01

G. Pisegna et al.

Non-reciprocal mixtures in suspension: the role of hydrodynamic interactions

arXiv:2501.01330

M. Dindo et al.

Enzymes can activate and mobilize the cytoplasmic environment across scales

bioRxiv, 2025.01

G. Pisegna et al.

Can hydrodynamic interactions destroy travelling waves formed by non-reciprocity?

arXiv:2501.01330

M.K. Johnsrud & R. Golestanian

Generalized fluctuation dissipation relations for active field theories

arXiv:2409.14977

S. R. Lish et al.

Isovolumetric dividing active matter

arXiv:2409.20481

L. Hupe et al.

A minimal model of smoothly dividing disk-shaped cells

arXiv:2409.01959

M. Chatzittofi et al.

Universal mechanistic rules for de novo design of enzymes

arXiv:2408.16639

L. Parkavousi et al.

Enhanced stability and chaotic condensates in multi-species non-reciprocal mixtures

arXiv:2408.06242

R. Golestanian

Hydrodynamically consistent many-body Harada-Sasa relation

arXiv:2406.16761

Y. Hosaka et al.

Chirotactic response of microswimmers in fluids with odd viscosity

arXiv:2405.01506

M. Chatzittofi et al.

Topological phase locking in dissipatively-coupled noise-activated processes

arXiv:2310.11788

S. Saha and R. Golestanian

Effervescent waves in a binary mixture with non-reciprocal couplings

arXiv.2208.14985

J. Steinkühler et al.

Enzymatically-active bacterial microcompartments follow substrate gradients and are protected from aggregation in a cell-free system

bioRxiv: 10.1101/2022.05.16.492142