Martin Müller

Dr. Martin Müller

orcid

Research Focus & Metrics

Academic Career Length

29Years (1998-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2004
Verified
Book Chapter
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ATAndreas F. Thünemann
Andreas F. Thünemann
MMMartin Müller
Martin Müller
HDHerbert Dautzenberg
Herbert Dautzenberg
JJJean-François Joanny
Jean-François Joanny
HLHartmut Löwen
Hartmut Löwen

1 February 2021 in International Journal of Biological Macromolecules
Verified
Journal Article
Closed access
JWJanek Weißpflog
Janek Weißpflog
DVDavid Vehlow
David Vehlow
MMMartin Müller
Martin Müller
BKBenjamin D Kohn
Benjamin D Kohn
USUlrich Scheler
Ulrich Scheler
SSSimona Schwarz
Simona Schwarz

1 March 2001 in Macromolecular Rapid Communications
Verified
Journal Article
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MMMartin Müller
Martin Müller
TRTheresia Rieser
Theresia Rieser
PDPaul L. Dubin
Paul L. Dubin
KLKlaus Lunkwitz
Klaus Lunkwitz

19 September 2011 in Langmuir
Verified
Journal Article
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MMMartin Müller
Martin Müller
BKBernd Keßler
Bernd Keßler

12 April 2011 in Polymers
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Journal Article
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MMMartin Müller
Martin Müller
BKBernd Keßler
Bernd Keßler
JFJohanna Fröhlich
Johanna Fröhlich
SPSebastian Poeschla
Sebastian Poeschla
BTBernhard Torger
Bernhard Torger
In this contribution we outline polyelectrolyte (PEL) complex (PEC) nanoparticles, prepared by mixing solutions of the low cost PEL components poly(ethyleneimine) (PEI) and poly(acrylic acid) (PAC). It was found, that the size and internal structure of PEI/PAC particles can be regulated by process, media and structural parameters. Especially, mixing order, mixing ratio, PEL concentration, pH and molecular weight, were found to be sensible parameters to regulate the size (diameter) of spherical PEI/PAC nanoparticles, in the range between 80–1,000 nm, in a defined way. Finally, applications of dispersed PEI/PAC particles as additives for the paper making process, as well as for drug delivery, are outlined. PEI/PAC nanoparticles mixed directly on model cellulose film showed a higher adsorption level applying the mixing order 1. PAC 2. PEI compared to 1. PEI 2. PAC. Surface bound PEI/PAC nanoparticles were found to release a model drug compound and to stay immobilized due to the contact with the aqueous release medium.

27 May 2020 in Molecules
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Journal Article
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JWJanek Weißpflog
Janek Weißpflog
AGAlexander Gündel
Alexander Gündel
DVDavid Vehlow
David Vehlow
CSChristine Steinbach
Christine Steinbach
MMMartin Müller
Martin Müller
DSDana Schwarz
Dana Schwarz
The biopolymer chitosan is a very efficient adsorber material for the removal of heavy metal ions from aqueous solutions. Due to the solubility properties of chitosan it can be used as both a liquid adsorber and a solid flocculant for water treatment reaching outstanding adsorption capacities for a number of heavy metal ions. However, the type of anion corresponding to the investigated heavy metal ions has a strong influence on the adsorption capacity and sorption mechanism on chitosan. In this work, the adsorption capacity of the heavy metal ions manganese, iron, cobalt, nickel, copper, and zinc were investigated in dependence on their corresponding anions sulfate, chloride, and nitrate by batch experiments. The selectivity of the different heavy metal ions was analyzed by column experiments.