His primary areas of study are Lipid bilayer, Lipid bilayer phase behavior, Crystallography, Membrane and Chemical physics. His studies in Lipid bilayer integrate themes in fields like Liposome and Static electricity. His Lipid bilayer phase behavior study introduces a deeper knowledge of Bilayer.
His biological study spans a wide range of topics, including Saturation, Membrane fluidity, Molecule and Biological membrane. The concepts of his Membrane study are interwoven with issues in Phase and Analytical chemistry. The Chemical physics study combines topics in areas such as Charge density and Lipid bilayer mechanics.
Sylvio May mainly investigates Chemical physics, Membrane, Lipid bilayer, Ion and Lipid bilayer phase behavior. He interconnects Charge density, Poisson–Boltzmann equation, Counterion, Electrostatics and Computational chemistry in the investigation of issues within Chemical physics. His Membrane research incorporates themes from Phase, Adsorption and Analytical chemistry.
His study in the field of Elasticity of cell membranes is also linked to topics like Curvature. He has researched Ion in several fields, including Electrolyte, Molecular physics, Yukawa potential and Differential capacitance. The subject of his Lipid bilayer phase behavior research is within the realm of Bilayer.
The scientist’s investigation covers issues in Chemical physics, Electrode, Electrolyte, Differential capacitance and Electrostatics. His multidisciplinary approach integrates Chemical physics and Curvature in his work. His work carried out in the field of Electrolyte brings together such families of science as Ion, Molecular physics, Charge density and Differential equation.
His work deals with themes such as Dipole, Membrane, Lipid bilayer, Debye–Hückel equation and Dielectric, which intersect with Electrostatics. Membrane is closely attributed to Peptide in his research. His Lipid bilayer study combines topics in areas such as Molecular model, Surface tension and Phase.
Sylvio May mostly deals with Differential capacitance, Electrolyte, Electrode, Ion and Charge density. His Electrode research includes elements of Optoelectronics and Mean field theory. His Ion research is multidisciplinary, relying on both Chemical physics, Ideal gas, Excluded volume and Yukawa potential.
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Fraction of Condensed Counterions around a Charged Rod: Comparison of Poisson−Boltzmann Theory and Computer Simulations
Markus Deserno;Christian Holm;Sylvio May.
Macromolecules (2000)
The fraction of condensed counterions around a charged rod: Comparison of Poisson-Boltzmann theory and computer simulations
Markus Deserno;Christian Holm;Sylvio May.
arXiv: Soft Condensed Matter (1999)
Structure, Stability, and Thermodynamics of Lamellar DNA-Lipid Complexes
Daniel Harries;Sylvio May;William M. Gelbart;Avinoam Ben-Shaul.
Biophysical Journal (1998)
Determination of surface potential and electrical double-layer structure at the aqueous electrolyte-nanoparticle interface
Matthew A. Brown;Zareen Abbas;Armin Kleibert;Richard G. Green.
Physical Review X (2016)
Transfer of lipophilic drugs between liposomal membranes and biological interfaces: consequences for drug delivery.
Alfred Fahr;Peter van Hoogevest;Sylvio May;Nill Bergstrand.
European Journal of Pharmaceutical Sciences (2005)
Direct Evidence for Counterion Release upon Cationic Lipid−DNA Condensation
K. Wagner;D. Harries;S. May;V. Kahl.
Langmuir (2000)
Lipid demixing and protein-protein interactions in the adsorption of charged proteins on mixed membranes.
Sylvio May;Daniel Harries;Avinoam Ben-Shaul.
Biophysical Journal (2000)
Molecular Theory of Lipid-Protein Interaction and the Lα-HII Transition
Sylvio May;Avinoam Ben-Shaul.
Biophysical Journal (1999)
The phase behavior of cationic lipid-DNA complexes
Sylvio May;Daniel Harries;Avinoam Ben-Shaul.
Biophysical Journal (2000)
Molecular Theory of the Sphere-to-Rod Transition and the Second CMC in Aqueous Micellar Solutions
Sylvio May;Avinoam Ben-Shaul.
Journal of Physical Chemistry B (2001)
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