Hydrophobic solid lipid-based microparticles for the protection of gastric-sensitive hydrophilic active biomolecules for oral administration in the treatment of EPI.

Exocrine Pancreatic Insufficiency (EPI), induced by conditions such as cystic fibrosis, chronic pancreatitis, and Crohn's disease, is a frequently overlooked and underdiagnosed gastrointestinal disorder. It leads to inadequate intestinal digestion due to insufficient secretion of pancreatic juice, resulting in discomfort, pain, and ultimately severe malnutrition. Despite numerous treatments proving ineffective over the past three decades, a strictly hydrophobic solid lipid formulation, administered orally, is proposed in this study to restore digestive function.

Surface Conditioning Effects on Submerged Optical Sensors: A Comparative Study of Fused Silica, Titanium Dioxide, Aluminum Oxide, and Parylene C.

Optical sensors excel in performance but face efficacy challenges when submerged due to potential surface colonization, leading to signal deviation. This necessitates robust solutions for sustained accuracy. Protein and microorganism adsorption on solid surfaces is crucial in antibiofilm studies, contributing to conditioning film and biofilm formation.

Pili and other surface proteins influence the structure and the nanomechanical properties of Lactococcus lactis biofilms.

Lactic acid bacteria, in particular Lactococcus lactis, are widely used in the food industry, for the control and/or the protection of the manufacturing processes of fermented food. While L. lactis has been reported to form compact and uniform biofilms it was recently shown that certain strains able to display pili at their surface form more complex biofilms exhibiting heterogeneous and aerial structures.

Development of Polythiourethane/ZnO-Based Anti-Fouling Materials and Evaluation of the Adhesion of and Using Single-Cell Force Spectroscopy.

The attachment of bacteria and other microbes to natural and artificial surfaces leads to the development of biofilms, which can further cause nosocomial infections. Thus, an important field of research is the development of new materials capable of preventing the initial adhesion of pathogenic microorganisms. In this work, novel polymer/particle composite materials, based on a polythiourethane (PTU) matrix and either spherical (s-ZnO) or tetrapodal (t-ZnO) shaped ZnO fillers, were developed and characterized with respect to their mechanical, chemical and surface properties.