Epidemiologic data show a high incidence of central nervous system (CNS) disease, which therefore is a prominent healthcare issue. Adults and the elderly are most commonly affected, with heavy repercussions on society and caregivers. The outcome of CNS disease, whether the etiology is vascular, degenerative or traumatic, is often significant disability or death. Motor, language and cognitive deficits are most prevalent, but vision is also frequently affected, in the form of visual field defects or oculomotor and binocular disorders. In the present paper, we discuss peripheral and central visual field defects.

Many drugs are effective systemically, but slow onset of non-intravenous routes of administration may limit their clinical utility. While anesthesiologists usually have intravenous (IV) access for drug delivery, other healthcare professionals in less controlled situations such as acute crises in the emergency room, critical care settings, or urgent needs in the community, may need non-invasive drug delivery [1].

Liver masses account for 5 to 6% of pediatric cancer, which includes hepatoblastoma (HBL) along with rare cases of hepatocellular carcinoma (HCC). The most dangerous form of pediatric liver cancer is aggressive HBL, which can be characterized by chemo-resistance and multiple nodules or metastases at diagnosis, all correlating with worse clinical prognosis. Despite intensive studies and a significant improvement in overall outcomes, very little is known about the key molecular pathways which determine the aggressiveness of pediatric liver cancer.

DNA repair eukaryotic cells have additional protective mechanisms that avoid uncontrolled interaction of different parts of the chromatin and damaged regions. Key factors here are the regulation of chromatin density and mobility. The 4D (temporal and spatial) organization of chromatin is controlling this security barrier by regulating the accessibility of genes, flexibility of DNA, and its ability to move inside the nucleus. How this regulation mechanisms are involved in DNA repair upon radiation damage is until now rarely known but an important part to understand the enhanced effectiveness of high linear energy transfer (LET) particles. The damage recognition via PARP1 and the subsequent chromatin decondensation via PARylation is a crucial step in the DNA damage response (DDR). Upon We used the SNAKE microbeam with a beam spot size of <1 µm to induce highly localized DNA damage in living cells using 55 MeV Carbon ions to investigate the chromatin rearrangements in the early stage of DDR.

The effects of COVID-19 have been of increasing interest in all fields of medicine after the pandemic, especially considering the important impact and incidence of patients infected with coronavirus. Numerous studies have reported the vast clinical implications related to permanent organ and tissue damage after infection and long COVID.