Abstract: Methods and systems for providing a scalable framework for a digital mesh are provided. The methods and systems perform operations comprising: receiving patient information associated with a patient; receiving, via a graphical user interface, a request for health services for the patient; in response to receiving the request for health services, applying a model to the patient information to select a first type of service of care from a plurality of types of service of care; accessing a mesh application service architecture (MASA) to route traffic comprising a portion of the patient information to a server associated with the first type of service of care; and generating, for display within the graphical user interface, health service information received from the server associated with the first type of service of care.

Abstract: A novel top-down procedure for synthesis of stable passivated nanoparticles uses a one-step mechanochemical process to form and passivate the nanoparticles. High-energy ball milling (HEBM) can advantageously be used to mechanically reduce the size of material to nanoparticles. When the reduction of size occurs in a reactive medium, the passivation of the nanoparticles occurs as the nanoparticles are formed. This results in stable passivated silicon nanoparticles. This procedure can be used, for example in the synthesis of stable alkyl- or alkenyl-passivated silicon and germanium nanoparticles. The covalent bonds between the silicon or germanium and the carbon in the reactive medium create very stable nanoparticles.

Abstract: A novel top-down procedure for synthesis of stable passivated nanoparticles uses a one-step mechanochemical process to form and passivate the nanoparticles. High-energy ball milling (HEBM) can advantageously be used to mechanically reduce the size of material to nanoparticles. When the reduction of size occurs in a reactive medium, the passivation of the nanoparticles occurs as the nanoparticles are formed. This results in stable passivated silicon nanoparticles. This procedure can be used, for example in the synthesis of stable alkyl- or alkenyl-passivated silicon and germanium nanoparticles. The covalent bonds between the silicon or germanium and the carbon in the reactive medium create very stable nanoparticles.

Abstract: A method of producing mullite fibers by inviscid melt spinning includes providing mullite and excess silicate, melting the mullite at a temperature of 1800-2500° C., and extruding the mullite through an orifice. Apparatus for carrying out the method preferably includes a boron nitride (BN) crucible and an argon atmosphere, with a melt temperature of around 2000° C., and a spinning pressure of around 276 kPa (40 psi).