Surface functionalization of nano-magnetic nanoparticles is a well-designed way to bridge
the gap between heterogeneous and homogeneous catalysis. The introduction of magnetic …

While magnetic separation techniques have long been in use, intensive research into
superparamagnetic nanomaterials has accelerated the development of magnetically …

Catalysis is becoming a strategic field of science because it represents a new way to meet
the challenges of energy and sustainability. These challenges are becoming the main …

The use of magnetic nanoparticles (MNPs) as a catalyst support in organic synthesis is
summarized. The recovery of expensive catalysts after catalytic reaction and reusing them …

Recovery and reuse of expensive catalysts after catalytic reactions are important factors for
sustainable process management. The aim of this Review is to highlight the progress in the …

Nano-materials are important in many diverse areas, from basic research to various
applications in electronics, biochemical sensors, catalysis and energy. They have emerged …

Magnetic nanoparticles have emerged recently as an alternative for the easy separation of
nanosized catalysts from reaction mixtures by employing an external magnetic field. These …

Metal nanoparticles have attracted much attention over the last decade owing to their unique
properties, different to their bulk counterparts, which pave the way for their application in …

This review draws a rather comprehensive picture of how Suzuki polycondensation was
discovered in 1989 and how it was subsequently developed into the most powerful …

Functionalized magnetic nanoparticles (MNPs) have emerged as viable alternatives to
conventional materials, not just for heterogeneous,[1] but also for homogenous catalysis [2] …