Abstract: Exemplary systems and methods are directed to endpoint detection and response (EDR) in which a receiver receives streaming data from plural EDR platforms with vendor-specific data formats for the streaming data. An application programming interface converts the streaming data received from each EDR platform to a common data format. A detection engine analyzes the converted streaming data for attributes of malicious activity and generates an alert when malicious activity is detected. A graphical user interface filters and sorts the generated alerts based on at least one of a priority of addressing the malicious activity and a severity of harm caused by the malicious activity. The graphical user interface further generates an interactive display of the filtered and sorted alerts, where each alert includes an active or activatable link which when selected provides additional information obtained from one of the plural EDR platforms associated with the alert.

Abstract: A sliding element, such as a bearing, and a method of manufacturing the sliding element, is provided. The sliding element is formed of an aluminum alloy material which includes zinc in an amount of 5 wt. % to 83 wt. %. The sliding element may also include silicon and/or magnesium. The sliding element is typically formed by casting, heat treating at a temperature of 400° C. to 577° C., and cooling at a rate of less than 50° C. per hour to a temperature ranging from 400° C. to 200° C. The aluminum alloy material is then heat treated at a temperature of 100° to 275° C. for at least 5 hours to form a soft phase consisting essentially of the zinc. The second heat treatment, or possibly both heat treatments, may not be required when the aluminum alloy material includes the magnesium.

Abstract: A continuous hot bonding method for producing a bi-material strip with a strong bond therebetween is provided. The method comprises sanding a first strip formed of steel; and applying a layer of first particles, typically formed of copper, to the sanded first strip. The method next includes heating the first strip and the layer of the first particles, followed by pressing a second strip formed of an aluminum alloy onto the heated layer of the first particles. The aluminum alloy of the second strip includes tin particles, and the heat causes the second particles to liquefy and dissolve into the melted first particles. The first particles and the second particles bond together to form bond enhancing metal particles, which typically comprise bronze.

Abstract: A continuous hot bonding method for producing a bi-material strip with a strong bond therebetween is provided. The method comprises sanding a first strip formed of steel; and applying a layer of first particles, typically formed of copper, to the sanded first strip. The method next includes heating the first strip and the layer of the first particles, followed by pressing a second strip formed of an aluminum alloy onto the heated layer of the first particles. The aluminum alloy of the second strip includes tin particles, and the heat causes the second particles to liquefy and dissolve into the melted first particles. The first particles and the second particles bond together to form bond enhancing metal particles, which typically comprise bronze.

Abstract: A continuous hot bonding method for producing a bi-material strip with a strong bond therebetween is provided. The method comprises sanding a first strip formed of steel; and applying a layer of first particles, typically formed of copper, to the sanded first strip. The method next includes heating the first strip and the layer of the first particles, followed by pressing a second strip formed of an aluminum alloy onto the heated layer of the first particles. The aluminum alloy of the second strip includes tin particles, and the heat causes the second particles to liquefy and dissolve into the melted first particles. The first particles and the second particles bond together to form bond enhancing metal particles, which typically comprise bronze.

Abstract: A continuous hot bonding method for producing a bi-material strip with a strong bond therebetween is provided. The method comprises sanding a first strip formed of steel; and applying a layer of first particles, typically formed of copper, to the sanded first strip. The method next includes heating the first strip and the layer of the first particles, followed by pressing a second strip formed of an aluminum alloy onto the heated layer of the first particles. The aluminum alloy of the second strip includes tin particles, and the heat causes the second particles to liquefy and dissolve into the melted first particles. The first particles and the second particles bond together to form bond enhancing metal particles, which typically comprise bronze.

Abstract: A method and chemical composition for modifying and dissolving atherosclerotic plaques formed in a patient's blood vessels is provided. A chemical composition comprising one or more of an organic substance, an inorganic substance, and a bioactive substance is administered at sites of the plaques. The chemical composition comprises one or more of d-limonene, propylene glycol, octanoic acid, 2-octane, glycerine, acetylsalicylic acid, acetic acid, omega-3 fatty acids, ethanol, methanol, ezetimibe, rosuvastatin, resveratrol, lactic acid, gluconic acid, chloroform, carbon disulfide, dichloromethane, toluene, lauryldimethyl hydroxysultaine, and any combination thereof. The chemical composition enables modification of plaques by altering their composition. The modification comprises partial dissolution, complete dissolution, or elimination of the plaques, and makes the plaques amenable to different forms of plaque treatment. The modified plaques are eliminated from the patient's body.

Abstract: A data processing system for distributing a package of data from a source to a plurality of data processing machines arranged in a plurality of sites. The data is transmitted from the source to the plurality of data processing machines by means of a multicast. At each site, a local data processing machine is designated as a site master; the other local data processing machines report missing data portions to the site master; and the site master consolidates reports of missing data portions, and requests missing data portions from the source. The source then transmits the missing data portions to the plurality of data processing machines by means of a further multicast. If the site master receives a report of missing data that the site master has stored locally, the site master provides that missing data to the local machines by means of a site multicast.