Publikationen in Zusammenarbeit mit Forschern von University of Cambridge (35)

2023

  1. A Deep Potential model for liquid-vapor equilibrium and cavitation rates of water

    Journal of Chemical Physics, Vol. 158, Núm. 18

  2. Direct Calculation of the Interfacial Free Energy between NaCl Crystal and Its Aqueous Solution at the Solubility Limit

    Physical Review Letters, Vol. 130, Núm. 11

  3. Location and Concentration of Aromatic-Rich Segments Dictates the Percolating Inter-Molecular Network and Viscoelastic Properties of Ageing Condensates

    Advanced Science, Vol. 10, Núm. 25

  4. On the possible locus of the liquid-liquid critical point in real water from studies of supercooled water using the TIP4P/Ice model

    Journal of Chemical Physics, Vol. 158, Núm. 20

  5. Principles of assembly and regulation of condensates of Polycomb repressive complex 1 through phase separation

    Cell Reports, Vol. 42, Núm. 10

  6. Surfactants or scaffolds? RNAs of varying lengths control the thermodynamic stability of condensates differently

    Biophysical Journal, Vol. 122, Núm. 14, pp. 2973-2987

  7. The Chromatin Regulator HMGA1a Undergoes Phase Separation in the Nucleus**

    ChemBioChem, Vol. 24, Núm. 1

  8. The liquid-to-solid transition of FUS is promoted by the condensate surface

    Proceedings of the National Academy of Sciences of the United States of America, Vol. 120, Núm. 33

  9. Time-Dependent Material Properties of Aging Biomolecular Condensates from Different Viscoelasticity Measurements in Molecular Dynamics Simulations

    Journal of Physical Chemistry B, Vol. 127, Núm. 20, pp. 4441-4459

2022

  1. Aging can transform single-component protein condensates into multiphase architectures

    Proceedings of the National Academy of Sciences of the United States of America, Vol. 119, Núm. 26

  2. Alternating one-phase and two-phase crystallization mechanisms in octahedral patchy colloids

    The Journal of chemical physics, Vol. 157, Núm. 13, pp. 134501

  3. Homogeneous ice nucleation rates for mW and TIP4P/ICE models through Lattice Mold calculations

    Journal of Chemical Physics, Vol. 157, Núm. 9

  4. Kinetic interplay between droplet maturation and coalescence modulates shape of aged protein condensates

    Scientific Reports, Vol. 12, Núm. 1

  5. Protein structural transitions critically transform the network connectivity and viscoelasticity of RNA-binding protein condensates but RNA can prevent it

    Nature Communications, Vol. 13, Núm. 1

  6. RNA length has a non-trivial effect in the stability of biomolecular condensates formed by RNA-binding proteins

    PLoS Computational Biology, Vol. 18, Núm. 2

  7. Surface Electrostatics Govern the Emulsion Stability of Biomolecular Condensates

    Nano Letters, Vol. 22, Núm. 2, pp. 612-621

2021

  1. Fccvs.hcp competition in colloidal hard-sphere nucleation: On their relative stability, interfacial free energy and nucleation rate

    Physical Chemistry Chemical Physics, Vol. 23, Núm. 35, pp. 19611-19626

  2. Parasitic crystallization of colloidal electrolytes: growing a metastable crystal from the nucleus of a stable phase

    Soft Matter, Vol. 17, Núm. 3, pp. 489-505

  3. Physics-driven coarse-grained model for biomolecular phase separation with near-quantitative accuracy

    Nature Computational Science, Vol. 1, Núm. 11, pp. 732-743

  4. Reentrant liquid condensate phase of proteins is stabilized by hydrophobic and non-ionic interactions

    Nature Communications, Vol. 12, Núm. 1