Present review outlined the onset of heart diseases caused by the gut microflora in a simple way which would be important in public health regard.Intestinal and hepatic lipid metabolism plays an essential role in regulating plasma lipid levels. These lipids are mobilized on apolipoprotein B (apoB)-containing lipoproteins and their plasma homeostasis is maintained by balancing production and catabolism. Microsomal triglyceride transfer protein (MTP) which is expressed mainly in the intestine and liver plays an essential role in regulating the assembly and secretion of apoB-lipoproteins. Any imbalance in the production or clearance of lipoproteins leads to hyperlipidemia which is a major risk factor for atherosclerosis, obesity, diabetes, and metabolic syndrome. Here, we identify a new role of inositol-requiring transmembrane kinase/endoribonuclease 1α (IRE1α) in the regulation of plasma lipids. We generated intestine specific IRE1α knockout mice to study whether intestinal IRE1α regulates plasma lipids by modulating intestinal lipid absorption. Intestine specific deletion of Ire1a gene in mice fed chow diet, significantly reduced plasma cholesterol and triglycerides by 29% and 43% in Ire1a-⁣/- mice (P less then 0.01 & P less then 0.001, respectively). These changes were not associated with any alteration of MTP activity nor its mRNA expression. On the other hand, Western diet increased plasma triglyceride by 37% (P less then 0.01) without affecting total plasma cholesterol in Ire1a-⁣/- mice. Interestingly, this effect was associated with a significant increase in the intestinal MTP activity and its mRNA expression (25%, P less then 0.01 and 70%, P less then 0.05, respectively). Collectively, our findings reveal key role of intestinal IRE1α in the regulation of plasma lipids that may provide a therapeutic target for disorders of lipid metabolism.Tetrahydropalmatine (dl-THP) demonstrates an analgesic effect in animal models of neuropathic and inflammatory pain, however, the underlying mechanisms of its pharmacological action within the spinal cord remains unclear. Both P2X3 receptor and TRPV1 are associated with the development and progression of such neuropathic and inflammatory pain. Here, we found that both pre-treatment and post-treatment with dl-THP could attenuate Bee Venom (BV)-induced persistent spontaneous pain-related behaviors in rats. Further, the dl-THP also exerted both preventive and therapeutic analgesic effects in BV-induced primary thermal and mechanical pain hypersensitivity as well as in mirror-image thermal pain hypersensitivity. The Rota-Rod treadmill test revealed that the dl-THP administration did not alter the rats' motor coordinating performance. The TRPV1 and P2X3 receptor proteins increased markedly in the spinal cord of the rats following s.c. BV injection, which was significantly suppressed by dl-THP. These results suggest that dl-THP exerts a robust antihyperalgesia effect through down-regulation of P2X3 receptors and TRPV1 in inflammatory pain, providing a scientific basis for the translation of dl-THP treatment in clinics.Central nervous system infections caused by free-living amoeba are very rare, but often fatal. The typical image findings of amebic meningoencephalitis are non-specific, showing ring-like enhancement. We report the first case of fulminant disseminating fatal granulomatous amebic encephalitis caused by Balamuthia mandrillaris in an immunocompetent patient in South Korea. Our case exhibited two interesting features one was the unusual clinical course and the other was additional image findings. Magnetic resonance imaging revealed a rim-enhancing lesion with intralesional blooming dark signal intensity on susceptibility weighted imaging and low signal intensity on diffusion weighted images and on apparent diffusion coefficient maps. Differential diagnosis was started from a tumor or non-tumorous lesion, and diagnosis was difficult due to the rarity of the disease. Following the clinical and diagnostic courses of our case, we recommend inspecting image findings of granulomatous amebic encephalitis for early diagnosis. This study aimed to investigate the effect of ursodeoxycholic acid (UDCA) on the biodistribution and excretion of technetium-99m (Tc-99m)-labeled radiopharmaceuticals. Tc-99m hydroxy-methylene-diphosphonate (HDP), Tc-99m pertechnetate, and Tc-99m dimercaptosuccinic acid (DMSA) were injected via the tail vein of rats. After 30 min, the control group was administered saline, and the UDCA group was given UDCA orally. Scintigraphy images were acquired after 30 min and 1, 2, 3, and 4 h. NVP-LAQ824 Radioactivity and rate of change were compared. Tc-99m mercaptoacetyltriglycine (MAG₃) imaging was also performed. In image analysis of Tc-99m HDP, radioactivity of the buttock was lower in the UDCA group at 4 h. Rates of change in the buttock were significantly different at 3 h-30 min and 4 h-30 min, and buttock radioactivity in the UDCA group had decreased more. In analysis of Tc-99m pertechnetate, radioactivity of the buttock was higher in the control group. Rates of change in the thyroid gland and buttock were different at 1 h-30 min, 3 h-30 min, and 4 h-30 min, with radioactivity in the UDCA group decreasing more. In the analysis of Tc-99m DMSA, while the radioactivity of the kidneys in the control group showed little decrease at 1 h-30 min, that in the UDCA group increased. In the analysis of Tc-99m MAG₃ images, radioactivity and radioactivity/total body radioactivity (TBA) values for the kidneys were higher in the UDCA group at 2 min. At 5 and 10 min, radioactivity/TBA values for soft tissue in the UDCA group were lower than those in the control group. This study demonstrated that administration of UDCA increases renal excretion and soft tissue clearance of radiopharmaceuticals. This investigation could contribute to the broadening of applications of UDCA.This study demonstrated that administration of UDCA increases renal excretion and soft tissue clearance of radiopharmaceuticals. This investigation could contribute to the broadening of applications of UDCA.