Morphological and genetic demonstration of in dromedary camels.

Background: is one of the most important parasites, which infests the upper respiratory tract of camels leading to deteriorating health effects, substantial economic losses, and even death.

Aim: This study aimed to detect the prevalence rate of in slaughtered camels, determining its morphology using the electron microscope, and confirming its species by molecular phylogeny.

Methods: A total of 200 slaughtered camels at different areas in Al Muthanna province (Iraq) were inspected visually to collect the parasite samples that were identified initially based on their morphological characteristics.

Monitoring the Overall Quality of Groundwater Using a Geographic Information System in the Angads Plain (Oujda, Morocco).

The future of groundwater is one of the key challenges for sustainable water management, hence the need to monitor its overall quality. The objective of this work is to assess the overall quality and determine the spatiotemporal evolution of the Angads aquifer in northeastern Morocco in 2014 and 2020, based on the parameters NH , NO , EC, Cl, and FC, as well as the Geographic Information System (GIS). The results of the comparison of these five parameters between 2014 and 2020 show a general increase in NH and a decrease in NO and FC at most sampling points.

Algae-Derived Nacre-like Dielectric Bionanocomposite with High Loading Hexagonal Boron Nitride for Green Electronics.

The surging demand for electronics is causing detrimental environmental consequences through massive electronic waste production. Urgently shifting toward renewable and eco-friendly materials is crucial for fostering a green circular economy. Herein, we develop a multifunctional bionanocomposite using an algae-derived carbohydrate biopolymer (alginate) and boron nitride nanosheet (BNNS) that can be readily employed as a multifunctional dielectric material.

Defining the ideal trajectory into the inner ear in image-guided cochlear implant surgery.

The aim of robot-assisted cochlear implant surgery (RACIS) is to access the inner ear with minimal trauma. High-resolution imaging, empowered with a highly accurate navigation system can enable the planning of a direct keyhole drilling trajectory toward the inner ear. The time has come to (re)define the ideal trajectory into the inner ear with robot-assisted tools that can drill with the highest accuracy.