The response difference between MIP-CP and NIP-CP electrodes, containing VB–DVB polymelectrodesgher than that for MIP-containing-CP modified with polymer of MAA–EGDMA, indicating the lower nonselectiVB DVBface adsorpolymerroperty of the VB–DVB based MIP.
Based on these properties, various casting techniques other than the standard doctor blade film application used for laboratory work were investigated, including stencil printing on a substrate, stencil printing directly on a gas diffusion electrode, nip roller extrusion, and slot die extrusion.
The charge-transfer kinetic properties of the platinized NiP-plated glass electrode (Pt/NiP electrode) for triiodide reduction were studied by electrochemical impedance spectroscopy.
A comparison between the non-imprinted modified electrode (PPy-NIP) and the molecularly imprinted polymer (PPy-MIP) is reported.
Also, a glassy carbon electrode was modified with NIP-NPs and differential pulse stripping voltammetry was employed as a detection tool after open-circuit sorption of Cd II) ions into the electrode and its reduction to Cd(0).
Cu2+ selective molecular imprinted polymers (MIPs) and non-imprinted polymers (NIPs) were synthesized and then used for carbon paste (CP) electrode preparation.
The MIP CP electrode showed very high recognition ability in comparison to NIP-CPE.
The MIP-CP electrode showed very high recognition ability in comparison with NIP-CPE.
Thes sensor was used successfully for caffeine determination in spiked beverage and tea samples.
Such we obtained one D1R-MIP-QCM electrode, whereas the other electrode carried the non-imprinted control polymer (NIP) that had remained untreated.
