The Heck coupling of iodobenzene with ethyl acrylate or styrene was used to assess the catalytic properties of biogenic nanoparticles of palladium supported upon the surface of bacterial biomass (bioPd), this approach combining advantages of both homogeneous and heterogeneous catalysts. The biomaterial was comparably active or superior to colloidal Pd in the Heck reaction, giving a final conversion of 85% halide and initial rate of 0.17 mmol/min for the coupling of styrene and iodobenzene compared to a final conversion of 70% and initial rate of 0.15 mmol/min for a colloidal Pd catalyst under the same reaction conditions at 0.5 mol.% catalyst loading. It was easily separated from the products under gravity or by filtration for reuse with lo...
Precious metals supported on ferrimagnetic particles form a diverse range of catalysts. Here we show...
Bio-manufacturing of nano-scale palladium was achieved via enzymatically-mediated deposition of Pd f...
Aerobically grown E. coli cells reduced Pd(II) via a novel mechanism using formate as the electron d...
The Heck coupling of iodobenzene with ethyl acrylate or styrene was used to assess the catalytic pro...
AbstractThe Heck coupling of iodobenzene with ethyl acrylate or styrene was used to assess the catal...
Five gram negative and two gram positive bacterial strains known for their heavy metal tolerance or ...
AbstractFive gram negative and two gram positive bacterial strains known for their heavy metal toler...
While precious metals are available to a very limited extent, there is an increasing demand to use t...
A heterogeneous Pd catalyst, biologically-mineralized palladium nanoparticles (bio-Pd), was synthesi...
New biological inspired methods were recently developed to recover precious metals from waste stream...
Palladium (Pd) nanoparticles are more and more applied as catalyst for a wide variety of chemical re...
The palladium (Pd)-catalysed reaction has attracted much attention, making Pd the most valuable of t...
Precious metals supported on ferrimagnetic particles have a diverse range of uses in catalysis. Howe...
A novel heterogeneous enzyme-palladium (Pd) (0) nanoparticles (PdNPs) bionanohybrid has been synthes...
Biologically produced monometallic palladium nanoparticles (bio-Pd) have been shown to catalyze the ...
Precious metals supported on ferrimagnetic particles form a diverse range of catalysts. Here we show...
Bio-manufacturing of nano-scale palladium was achieved via enzymatically-mediated deposition of Pd f...
Aerobically grown E. coli cells reduced Pd(II) via a novel mechanism using formate as the electron d...
The Heck coupling of iodobenzene with ethyl acrylate or styrene was used to assess the catalytic pro...
AbstractThe Heck coupling of iodobenzene with ethyl acrylate or styrene was used to assess the catal...
Five gram negative and two gram positive bacterial strains known for their heavy metal tolerance or ...
AbstractFive gram negative and two gram positive bacterial strains known for their heavy metal toler...
While precious metals are available to a very limited extent, there is an increasing demand to use t...
A heterogeneous Pd catalyst, biologically-mineralized palladium nanoparticles (bio-Pd), was synthesi...
New biological inspired methods were recently developed to recover precious metals from waste stream...
Palladium (Pd) nanoparticles are more and more applied as catalyst for a wide variety of chemical re...
The palladium (Pd)-catalysed reaction has attracted much attention, making Pd the most valuable of t...
Precious metals supported on ferrimagnetic particles have a diverse range of uses in catalysis. Howe...
A novel heterogeneous enzyme-palladium (Pd) (0) nanoparticles (PdNPs) bionanohybrid has been synthes...
Biologically produced monometallic palladium nanoparticles (bio-Pd) have been shown to catalyze the ...
Precious metals supported on ferrimagnetic particles form a diverse range of catalysts. Here we show...
Bio-manufacturing of nano-scale palladium was achieved via enzymatically-mediated deposition of Pd f...
Aerobically grown E. coli cells reduced Pd(II) via a novel mechanism using formate as the electron d...