AI Networking Cookbook: Practical recipes for AI-assisted network automation and development
The formation of pores in bilayer lipid membranes is a key process in many biomedical and biotechnological applications. Pores are usually formed as a result of external influences, such as an electric field, lateral tension, or amphipathic peptides. The average characteristics of the pore formation process are deter...
A continuous pore formation model adapted for the 8-pulse ESOPE protocol is proposed that provides a quantitative framework for optimising electrochemotherapy parameters in small-cell systems by accounting for cumulative transport and cellular scale variability.
In the clinical application of irreversible electroporation for tumor therapy, individual differences in cellular electrical responses often lead to the reliance on empirically selected treatment parameters, which easily cause over/under-treatment in patients and hinder the development of precision tumor therapy. To cl...
It is generally regarded that cell membrane permeabilization increases monotonically with the repetition rate of nanosecond pulsed electric field (nsPEF). However, our experiments showed that this was not always the case. In the high-conductivity culture medium (1 S/m), cell permeabilization showed increase (1–100 Hz),...
A three-dimensional, nonisothermal electrochemical model, incorporating reconstructed pore structures, was developed to quantify how porous transport layer (PTL) microstructures regulate heat and mass transport in proton exchange membrane water electrolyzers (PEMWEs). Parametric simulations were conducted to evalua...
Microfluidic devices containing artificial cellular membranes have been developed for biology, biosensors, and bioengineering. Although forming a lipid bilayer between two microchannels has advantages for integrating cellular membrane functions into continuous chemical processing and evaluating cellular membrane respon...
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