Discrete Layer-by-Layer Magnetic Switching inFe/MgO(001)Superlattices

Layer 3 Switching Alternatives

Cut-Through switching techniques, and Application Spec@ic Integrated Circuit (ASIC)-based wire-speed routing both attempt to improve network pe~ormance whenever possible. While switching advocates prefer the, “Route once, switch thereafter” approach, ASIC-based routing vendors believe the “Route wherever you wish” approach is the prevailing long-term solution. Both attempt to eliminate the cost...

Fast Switching in Magnetic Tunnel Junctions with Double Barrier Layer

Protein and Lactose Separation by Modified Ultrafiltration Membrane using Layer by Layer Technique

Layer-by-Layer (LbL) is a method which can be used for nanoscale coating and surface functionalization of a material. LbL technique mainly uses the electrostatic attracting between charged materials (polyelectrolytes, nanoparticles, etc.) and an oppositely charged surface. In this study, protein separation (BSA) from lactose solution was carried out using the LbL self-assembly method, which was...

In situ switching layer-by-layer assembly: one-pot rapid layer assembly via alternation of reductive and oxidative electropolymerization.

In situ one-pot rapid layer-by-layer assembly of polymeric films as an active layer of a photoactive device via alternation of reductive and oxidative electropolymerization has been demonstrated. This novel fabrication without moving or changing experimental gears would be a powerful strategy to develop automated layer-by-layer machines.

Cover and uncover: chiral switching exploiting templating and layer-by-layer grafting.

Consecutive grafting of crosslinked L-phenylalanine anilide, D-phenylalanine anilide and non-imprinted polymer layers on the surface of wide pore silica resulted in porous composite beads displaying enantiomeric discrimination reflecting the last grafted layer. This no longer holds for beads freed from silica, which instead display enantioselectivity reflecting the first grafted layer.