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Peter Schurtenberger

Researcher at Lund University

Publications -  278
Citations -  14493

Peter Schurtenberger is an academic researcher from Lund University. The author has contributed to research in topics: Light scattering & Scattering. The author has an hindex of 65, co-authored 271 publications receiving 13402 citations. Previous affiliations of Peter Schurtenberger include Portland State University & Humboldt University of Berlin.

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Modeling Microgels with a Controlled Structure across the Volume Phase Transition.

TL;DR: A coarse-grained model of microgels whose structural properties are in quantitative agreement with results obtained with small-angle X-ray scattering experiments across a wide range of temperatures, encompassing the volume phase transition is put forward.
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Coexistence of simple and mixed bile salt-lecithin micelles: an NMR self-diffusion study.

TL;DR: The results strongly support the coexistence of simple bile salt micelles and mixed bile Salt-lecithin micells under physiologic conditions.
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Multiple Path-Dependent Routes for Phase-Transition Kinetics in Thermoresponsive and Field-Responsive Ultrasoft Colloids

TL;DR: In this article, a micron-scale ionic microgel colloid model was established to study the single-particle kinetics in real space and real-time and tune the phase transition in a multiple-parameter space.
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Preparation and characterization of ellipsoidal-shaped thermosensitive microgel colloids with tailored aspect ratios

TL;DR: In this article, the authors describe the synthesis and characterization of functional anisotropic core-shell particles consisting of a polystyrene (PS) core onto which a crosslinked thermoresponsive microgel shell of poly(N-isopropylmethacrylamide) (PNIPMAm) was grafted.
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Magnetic properties of silica coated spindle-type hematite particles

TL;DR: The magnetic characterization of anisotropic spindle-type hematite particles is reported on and it is shown that silica coating reduces the mean blocking temperature to nearly room temperature and the mechanical stress induced by thesilica coating appears to reduce the magnetic coupling between the sub-units.