Abstract: The present invention relates to method of inhibition of cellular endocytosis by treating the cells with compound of formula-1 Diphenylthio urea and Diphenylurea derivatives. Said invention also discloses method of treatment of infectious diseases, neurological disease, cancer, kidney disease in a subject in need thereof by administering therapeutically effective concentration of compounds of Formula-1, Diphenylthio urea and Diphenylurea derivatives which are effective inhibitors of cellular endocytosis. Said invention also discloses compounds of Formula-1, Diphenylthio urea and Diphenylurea derivatives and pharmaceutical composition comprising compounds of Formula-1, Diphenylthio urea and Diphenylurea derivatives along with suitable excipients.

Abstract: Frangible glass articles having a fracture behavior that resists ejection of glass particles upon fracture. In some embodiments, the frangible glass articles can have a first surface region with a first elastic compressive stress energy per unit area of glass (Welcomp1), a second surface region with a second elastic compressive stress energy per unit area of glass (Welcomp2), and a central region with an elastic tensile stress energy per unit area of glass (WT), where (Welcomp1+Welcomp2)?WT?25 J/m2. In some embodiments, the frangible glass articles can have a total load ratio (Wi/GD) less than 6.5 and a total elastic compressive stress energy per unit area of glass (WC) less than 60% of a total load (Wi), where: WC=Welcomp1+Welcomp2, Wi=WC+WT, GD=4G1C, and G 1 ? C = K 1 ? C 2 ? ( 1 - v 2 ) E . In some embodiments, the frangible glass articles can have a differential load ratio (Wd/GIC) less than 7 ? 2 ? e ( - 1 ? 2 ? d ? 1 t ) .

Abstract: Frangible glass articles having a fracture behavior that resists ejection of glass particles upon fracture. In some embodiments, the frangible glass articles can have a first surface region with a first elastic compressive stress energy per unit area of glass (Welcomp1), a second surface region with a second elastic compressive stress energy per unit area of glass (Welcomp2), and a central region with an elastic tensile stress energy per unit area of glass (WT), where (Welcomp1+Welcomp2)?WT?25 J/m2. In some embodiments, the frangible glass articles can have a total load ratio (Wi/GD) less than 6.5 and a total elastic compressive stress energy per unit area of glass (WC) less than 60% of a total load (Wi), where: WC=Welcomp1+Welcomp2, Wi=WC+WT, GD=4G1C, and G 1 ? C = K 1 ? C 2 ? ( 1 - v 2 ) E . In some embodiments, the frangible glass articles can have a differential load ratio (Wd/GIC) less than 7 ? 2 ? e ( - 1 ? 2 ? d ? 1 t ) .

Abstract: A system can comprise one or more processors; and one or more non-transitory computer-readable media storing computing instructions configured to run on the one or more processors and perform: receiving a product listing information from a user via a user interface on a computing device, the product listing information comprising a product identifier and a product image source location uniquely pointing to at least one product image stored remotely; determining a product listing status of the product listing information based on the product identifier; determining a download priority of the at least one product image based on the product listing status and a user priority of the user; conducting a disposition of the product listing information based on the download priority; and providing in real time a disposition notice, based on the disposition of the product listing information, to be rendered on the user interface for the user. Other embodiments are disclosed.

Abstract: A system can comprise one or more processors; and one or more non-transitory computer-readable media storing computing instructions configured to run on the one or more processors and perform: receiving a product listing information from a user via a user interface on a computing device, the product listing information comprising a product identifier and a product image source location uniquely pointing to at least one product image stored remotely; determining a product listing status of the product listing information based on the product identifier; determining a download priority of the at least one product image based on the product listing status and a user priority of the user; conducting a disposition of the product listing information based on the download priority; and providing in real time a disposition notice, based on the disposition of the product listing information, to be rendered on the user interface for the user. Other embodiments are disclosed.

Abstract: The present invention relates to a process for separating short-chain fatty acids and nutrients from liquid organic waste produced after subjecting organic waste to hydrolysis and acidogenesis or to anaerobic digestion, wherein the process comprises: i. a step of adjusting the pH of the liquid organic waste to 1.9 to 2.1 by adding acid; ii. a step of subjecting the pH-adjusted liquid organic waste to vapor compression distillation in a distillation device producing a distillate and a residue while measuring the total dissolved solid, “TDS”, concentration of the distillate and the residue in the distillation device and maintaining a distillate:residue ratio in the range between 85:15 v/v % and 95:5 v/v % by measuring the TDS concentration in the distillation device, until the TDS concentration of the residue in the distillation device reaches a value of 10 times that of the pH-adjusted liquid organic waste.

Abstract: The invention relates to a method and an apparatus for hydrolyzing and acidifying homogenized organic waste fed into a closed and gas tight reactor using enzymatic bacteria under thermophilic conditions where water may be added to said reactor and the content of the reactor can be mixed and subjecting during hydrolysis and acidification an adequate part of a suspension formed in the reactor to—i. a separation step isolating—a permeate comprising an aqueous solution of soluble carbon, volatile fatty acids (VFA) and valuable nutrients, —an organic slurry comprising an aqueous solution of insoluble organic solids rich in enzymatic thermophilic bacteria and non-hydrolyzed organic solids, and the remaining part of soluble carbon, VFA and valuable nutrients, thereafter to—ii. a recirculation step re-feeding said organic slurry into the reactor for further hydrolysis and acidification.

Abstract: The present invention relates to a process for separating liquid organic waste, comprising soluble carbon and mineral compounds including nutrients, gained after subjecting organic waste to hydrolysis and acidogenesis or to anaerobic digestion where said process comprises i. a step of adjusting the pH of the liquid organic waste to 1.8 to 2.5 by adding acid; ii. a step of distilling the pH-adjusted liquid organic waste into a distillate comprising in condensed water at least 85 to 88 w/w % of soluble carbon containing mainly volatile fatty acids, and less than 3 w/w % of nutrients comprising ammonium nitrogen and phosphates, and a residue comprising the nutrients not contained in the distillate while iii. a distillate:residue ratio in the range between 85:15 v/v % and 95:5 v/v % is maintained.

Abstract: The invention relates to a method and an apparatus for hydrolyzing and acidifying homogenized organic waste fed into a closed and gas tight reactor using enzymatic bacteria under thermophilic conditions where water may be added to said reactor and the content of the reactor can be mixed and subjecting during hydrolysis and acidification an adequate part of a suspension formed in the reactor to—i. a separation step isolating—a permeate comprising an aqueous solution of soluble carbon, volatile fatty acids (VFA) and valuable nutrients, —an organic slurry comprising an aqueous solution of insoluble organic solids rich in enzymatic thermophilic bacteria and non-hydrolyzed organic solids, and the remaining part of soluble carbon, VFA and valuable nutrients, thereafter to—ii. a recirculation step re-feeding said organic slurry into the reactor for further hydrolysis and acidification.