The natural compounds of boron have many applications, primarily as a dietary supplement. The research is based on the discovery that the diester chlorogenoborate complex can be detected and quantified from green coffee beans. The study reports that such a diester molecule can also be synthesized in a stable form via the direct reaction of boric acid and chlorogenic acid in a mixture of acetonitrile–water (1:1, v/v) and left to evaporate over a period of 48 h at room temperature, resulting in a spirocyclic form (diester complex). The diester complex, with its molecular structure and digestibility attributes, has potential application as a prebiotic in gut health and oral health, and as a micronutrient essential for microbiota in humans and animals.

Infrared spectroscopy is a widely used method of analysis to monitor various characteristics in the honey products analysis, to highlight these changes and to detect fraudulent modifications. In this way honey products could not be avoided. This article reviews some of the most important applications of these spectroscopic procedures in order to discriminate different types of honey and other products published between 2015–2022.

The paper presents experimental data obtained in the study of liquid–liquid partition equilibriums in biphasic system in order to optimize the process of transport through bulk liquid membranes (triphasic partition systems). The partition equilibriums of some nitrophenols using chloroform as extraction solvent and membranary solvent, respectively, were studied. The influence of the pH on the partition equilibriums was investigated. The repartition constants and the pKa values of the studied nitrophenols were calculated. Nitrophenols were transferred in triphasic system from a feed phase with pH 2, through a chloroform liquid membrane, into a receiving phase with pH 12, with efficiencies over 90%

Breath analysis is a relatively new topic of study that has a lot of potential for both therapeutic and scientific applications. The volatile organic compounds (VOCs) found in breath are created internally by the body due to environmental interactions, gut and air passage bacteria, and metabolites of ingested precursors. Breath analysis may help diagnose disorders linked to changes in breath composition, according to several recent research. An analytical technique that shows promise for the metabolic examination of breath is infrared spectroscopy. Chemical substances found in exhaled human breath can be used to diagnose illnesses, determine physiological states, or evaluate environmental exposure. Exhaled breath (EB) is the perfect biological fluid because it is nearly limitless and causes little to no discomfort for the patient, which promotes collaboration. Furthermore, EB can be sampled without requiring medical professionals or privacy, and it usually doesn’t produce infectious waste (despite airborne infections), which makes breath analysis a desirable method for a variety of applications. Breath analysis is a non-invasive method that solely uses the volatile composition of the EB to characterize the bloodstream and airways’ volatile content, which indicates the state and condition of the entire body’s metabolism. The absorption strength of the metabolites is still very modest, though, because EB contains minimal amounts of them. Several of the most recent uses of infrared spectroscopy for breath analysis, published between 2020 and 2024, are presented in this study.