Conference Agenda

This study presents a novel approach using bipolar electrospray for synthesizing TiO₂/Ag heteroaggregates, ensuring stable and efficient nanostructure formation. The method leverages electrohydrodynamic atomization to generate charged droplets, allowing precise control over particle formation. A detailed investigation into process stability includes current-voltage (I/V) analyses, optimizing parameters such as voltage, flow rate, and solution properties. Additionally, an advanced microscopy system is introduced to capture high-resolution images of droplet interactions, providing insights into coagulation mechanisms. This research highlights the potential of bipolar electrospray and advanced imaging for optimizing nanomaterial synthesis, particularly for photocatalytic applications.

The fragmentation of liquid jets by a gas stream plays a critical role in advanced materials production due to its high efficiency. Pneumatic techniques, such as Flow Blurring (FB), promote droplet formation by inducing microscale mixing. This approach has been successfully adapted for viscous liquids, enabling the generation of droplets, micro- and nanoparticles, and fibrous materials. Recent advancements combine FB atomization with electric charging, facilitating the synthesis of polymer fibers embedded with nanomaterials like carbon nanotubes and graphene oxide. Current research efforts focus on developing an FB device with integrated high-voltage electrodes to enhance atomization efficiency and optimize material collection.

We introduce a model of the field emission of small ions from a cloud of evaporating electrospray nanodroplets of a salty solution.

Effective inhalation therapy requires precise aerosol size and distribution for targeted lung delivery. Electrospray (EHDA) generates uniform micro- and nanodroplets, improving drug delivery. Gilbert b.v. is developing an EHDA-based inhaler for complex lung conditions. This study investigates droplet neutralization and electrospray control in a soft mist inhaler using a multi-nozzle system and corona discharge. A stable cone-jet region was mapped, and optimal neutralization voltage was identified for ethanol-based solutions. Future research will focus on spray stability with reduced ethanol content and its impact on droplet size and drug delivery efficiency.