Nawar S Taher; Suhad H Mohammed
Volume 1, Issue 3 , September 2023, Pages 1-10
Abstract
Bacterial translocation (BT) has not completely defined in patients with Hepatitis B, C viruses, and Liver cirrho-sis. This study aims to study the differences in the LPS level as a marker for BT among patients with HBV, HCV, and liver cirrhosis and their effect on disease severity. Across-sectional ...
Read More
Bacterial translocation (BT) has not completely defined in patients with Hepatitis B, C viruses, and Liver cirrho-sis. This study aims to study the differences in the LPS level as a marker for BT among patients with HBV, HCV, and liver cirrhosis and their effect on disease severity. Across-sectional study was conducted. Out of 89 blood samples was collected from patients with HBV, HCV, liver cirrhosis. Serum samples was used to measure the lev-el of LPS automatically by ELISA Techniques. SPSS, version 22 software, was used to analyze data. Out of 50.56% of patients were infected with HBV, 23.59% were infected with HCV and 25.84% with liver cirrhosis. There were significant lower mean of LPS in patients with HBV in comparison to HCV and liver cirrhotic pa-tients. Significant positive correlation of LPS with ALP was found. The highest mean in LPS level that found in liver cirrhotic patients may reflect the impact of LPS in pathogenesis. Significant positive correlation of LPS with ALP may support the role of these parameter in disease pathogenesis.
asmaa abdelaziz Abdelaziz Mohamed; Noor Z Kbah
Volume 1, Issue 3 , September 2023, Pages 11-28
Abstract
In accordance with the Biopharmaceutical Classification System (BCS), drugs that fall into Class II are distinguished by having a lower solubility and a higher permeability. Therefore, co-crystallization has been developed for the purpose of dissolving medications that are notoriously difficult to dissolve. ...
Read More
In accordance with the Biopharmaceutical Classification System (BCS), drugs that fall into Class II are distinguished by having a lower solubility and a higher permeability. Therefore, co-crystallization has been developed for the purpose of dissolving medications that are notoriously difficult to dissolve. Active pharmaceutical ingredients (API) and coformers, are the components that go into the production of co-crystals. Pharmaceutical Co-crystals are a type of nonionic complex that can be utilized to solve a range of physicochemical issues, such as solubility, stability, and bioavailability. An item is said to be a co-crystal if it is comprised of two or more different molecular units and is kept together by weak intermolecular interactions such as hydrogen bonding. super-porous systems, biodegradable hydrogel systems. Co-crystallization is frequently considered the most efficient method for improving the quality of medications since it can change the molecular interactions and chemical make-up of medicinal substances. Co-crystals provide an alternative approach for API, regardless of whether the API comprises acidic, basic, or ionizable groups. The reintroduction of compounds that have restricted pharmacological properties due to the fact that their functional groups are not ionizable acts as a complementary approach to approaches that have already been established. Inclusion, preparation, characterization of the co-crystals, as well as several applied research studies, are all topics that are covered in this review, along with their significance in the recent trend toward improving various physicochemical features of BCS class II medications, such as solubilization, stability, and bioequivalence.
