Uwe Schröder

ORCID: 0000-0002-8144-0328
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About
Contact & Profiles
Research Areas
  • Microbial Fuel Cells and Bioremediation
  • Electrochemical sensors and biosensors
  • Electrochemical Analysis and Applications
  • Supercapacitor Materials and Fabrication
  • Physics of Superconductivity and Magnetism
  • Electrocatalysts for Energy Conversion
  • Advanced Chemical Physics Studies
  • Advanced battery technologies research
  • Catalysis for Biomass Conversion
  • Analytical Chemistry and Sensors
  • Nuclear physics research studies
  • Ecology, Conservation, and Geographical Studies
  • Advanced Battery Technologies Research
  • Nuclear Physics and Applications
  • Advanced Condensed Matter Physics
  • Semiconductor Quantum Structures and Devices
  • Advancements in Battery Materials
  • High-pressure geophysics and materials
  • Fuel Cells and Related Materials
  • Metal complexes synthesis and properties
  • Inorganic Fluorides and Related Compounds
  • Ionic liquids properties and applications
  • Diverse academic and cultural studies
  • Surface and Thin Film Phenomena
  • Catalysis and Hydrodesulfurization Studies

Universität Greifswald
2006-2025

Technische Universität Braunschweig
2014-2023

Cardiovascular Center Frankfurt
2023

Federal Institute of Hydrology
2015-2022

RWTH Aachen University
2013-2022

SmartFactory (Germany)
2017-2019

Intelligent Transport Systems Niedersachsen
2019

Institute of Environmental Biology and Biotechnology
2014-2018

Universidade do Porto
2010

Commissariat à l'Énergie Atomique et aux Énergies Alternatives
2010

The electrochemical properties of the room temperature ionic liquids 1-butyl-3-methylimidazolium tetrafluoroborate (BMIM+BF4−), hexafluorophosphate (BMIM+PF6−) and 1-methyl-3-[2,6-(S)-dimethylocten-2-yl]imidazolium (MDIM+BF4−) as solvents have been studied using micro-samples, with a volume 10 μL, under vacuum conditions controlled gas moisture supplies. impact water—absorbed into liquid in manner from phase—on voltammetry dissolved redox systems on accessible potential window was...

10.1039/b007172m article EN New Journal of Chemistry 2000-01-01

In this communication we discuss, by means of the metal reducing bacterium Geobacter sulfurreducens, a strategy to use cyclic voltammetry for study anodic bioelectrocatalytic electron transfer in microbial fuel cells.

10.1039/b802363h article EN Energy & Environmental Science 2008-01-01

The performance of oxygen reduction catalysts (platinum, pyrolyzed iron(II) phthalocyanine (pyr-FePc) and cobalt tetramethoxyphenylporphyrin (pyr-CoTMPP)) is discussed in light their application microbial fuel cells. It demonstrated that the physical chemical environment cells severely affects thermodynamics kinetics electrocatalytic reduction. neutral pH combination with low buffer capacities ionic concentrations strongly affect cathode limit cell power output. Thus, limiting current...

10.1021/es060332p article EN Environmental Science & Technology 2006-05-25

This paper provides a scaffold for the development of clear and consistent terminology classification microbial electrochemistry electrochemical technologies.

10.1039/c4ee03359k article EN Energy & Environmental Science 2014-12-19

Ever-ready microbes: A microbial fuel cell (depicted) that continuously generates a current output more than one order of magnitude greater known cells (up to 1.5 mA cm−2) is reported. The novel concept uses polymer-modified catalytically active anodes shuttle electrons from the bacterial suspension anode.

10.1002/anie.200350918 article EN Angewandte Chemie International Edition 2003-06-24

Here we propose copper as a high performance and economically viable anode material for microbial bioelectrochemical systems.

10.1039/c5ee00866b article EN cc-by Energy & Environmental Science 2015-01-01

Three-dimensional carbon fiber electrodes prepared by electrospinning and solution blowing are shown to be excellent electrode materials for bioelectrochemical systems such as microbial fuel cells or electrolysis cells. The bioelectrocatalytic anode current density is reach values of up 30 A m−2, which represents the highest reported electroactive biofilms.

10.1039/c0ee00446d article EN Energy & Environmental Science 2011-01-01

10.1016/0038-1098(66)90185-2 article EN Solid State Communications 1966-07-01

The electrochemical conversion of furfural to 2-methylfuran (MF) and 5-hydroxymethylfurfural (5-HMF) 2,5-dimethylfuran (DMF) by means a room-temperature electrocatalytic hydrogenation is presented. This the first time that 5-HMF demonstrated, it methylfuran achieved at high selectivity. may provide path for storage electric energy into liquid organic fuels.

10.1039/c3ee41857j article EN Energy & Environmental Science 2013-01-01

We have determined the components of Raman tensor signal-crystal superconducting ${\mathrm{YBa}}_{2}$${\mathrm{Cu}}_{3}$${\mathrm{O}}_{7\mathrm{\ensuremath{-}}\mathrm{\ensuremath{\delta}}}$ for phonons at \ensuremath{\sim}500, 440, 330, and 150 ${\mathrm{cm}}^{\mathrm{\ensuremath{-}}1}$. They all correspond to totally symmetric modes both in tetragonal (${A}_{1g}$) orthorhombic (${A}_{g}$) structures except 330-${\mathrm{cm}}^{\mathrm{\ensuremath{-}}1}$ mode which is ${B}_{1g}$ tetragonal....

10.1103/physrevb.37.7971 article EN Physical review. B, Condensed matter 1988-05-01

The future success of microbial bioelectrochemical systems like fuel cells inevitably depends on the increase their performance at decreasing material costs. One key elements and a research priority is biofuel cell anode. Here we propose layered corrugated carbon (LCC) as an inexpensive but high electrode produced from carbonization one most abundant packing materials our society: cardboard. In base configuration layer projected current density LCC already reaches 70 A m−2. Increasing number...

10.1039/c2ee23344d article EN Energy & Environmental Science 2012-01-01

Abstract The model for the lattice dynamics of alkali halides as given in a previous paper is generalized to include case which both ions are polarizable. Dispersion curves and density states calculated LiF NaCl at 0 °K. Debye characteristic temperatures Θ D ( T ) °K 300 computed these crystals, good agreement with experimental values obtained.

10.1002/pssb.19670210131 article EN physica status solidi (b) 1967-01-01
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