Abstract: Mobile management method, system and client. Method includes receiving a DNS query for a host name from an application on client; retrieving reputation data associated with host name from a local cache on client; and determining a policy based on host name and the reputation data. Based on determined policy for the host name, blocking attempted network flows to a host corresponding to host name to produce blocked attempted network flows. Method also includes sending attempted network flow metadata related to the blocked attempted network flows to a collector on client; transmitting the attempted network flow metadata from the collector to a VPN server pool via a VPN tunnel; and producing an anomaly report from the transmitted attempted network flow metadata. The anomaly report includes at least one of anomalies, cohorts, trends, location boundaries, detected network security issues, detected compromised clients and/or optimized network usage.

Abstract: A stationary wheel cover assembly for a motor vehicle is provided and consists of a mounting flange affixed to the threaded end of a spindle in the motor vehicle. A cover plate having indicia carried on outer surface thereof is secured to the mounting flange so that when a wheel rim with a tire connected to a hub on the spindle rotates the cover plate will be stationary allowing the indicia to be viewed thereon.

Abstract: A process and apparatus for continuously producing a relatively large-area, lightweight array of amorphous semiconductor alloy photovoltaic cells having no substrate includes depositing a semiconductor alloy film, such as amorphous silicon, on a travelling surrogate substrate, applying a support material to the traveling film to give it mechanical strength and separating the film and support material from the traveling surrogate substrate by exposing them to a thermal shock. The surrogate substrate is preferably an endless stainless steel band from which the deposited alloy film is repeatedly stripped and on which deposits are repeatedly made. The apparatus may include a cleaning station for cleaning the surrogate substrate after an alloy film is removed from the substrate and before another alloy film is deposited. The apparatus may provide for the deposition and patterning of a back electrode on the substrate before deposition of the alloy film to form one set of electrical interconnections for the array.

Abstract: A semirigid support member is provided for deploying flexible photovoltaic modules in a manner that imparts a degree of rigidity and permanence to the deployment. The semirigid support members provide lightweight economical means for lending structural support to flexible photovoltaic modules. The support members may be interconnected and additionally connected to a permanent base foundation.

Abstract: A photovoltaic array module incorporating a plurality of photovoltaic cell strips (11). Each cell strip (11) incorporates an electrically conductive substrate layer (22), a semiconductor body (23) deposited on the substrate layer (22), and a transparent electrically conductive layer (24) deposited on the semiconductor body (23). Electrically conductive filaments (20) are alternately connected to contact points (31) on the electrically conductive substrate layer (22) of one cell strip (11) and to contact points (32) on the transparent electrically conductive layer (24) of another cell strip (11). A first busbar (12) and a second busbar (13) are connected to the end cell strips (11) of the array to collect the electrical energy generated thereby.

Abstract: The coextrusion device (20) of the present invention can be used with conventional extruders (24-26) and extrusion dies (90) for forming layered products (91) from at least two materials. It includes a manifold (21) for receiving a plurality of extruded feed materials (A, B, C) and a feedblock (22) receiving the feed materials from the manifold. The feedblock includes first and second faces (43, 52), entrance ports (40, 41, 42) in the first face corresponding to the number of feed materials, channel means (50, 60, 70) passing through the feedblock between the first and second faces directing each feed material into at least one separate profile, and exit ports (51, 61, 71) in the second face corresponding to the number of channel means, defining a first profile for each feed material.

Abstract: The coextrusion device (20) of the present invention can be used with conventional extruders (24-26) and extrusion dies (90) for forming layered products (91) from at least two materials. It includes a manifold (21) for receiving a plurality of extruded feed materials (A, B, C) and a feedblock (22) receiving the feed materials from the manifold. The feedblock includes first and second faces (43, 52), entrance ports (40, 41, 42) in the first face corresponding to the number of feed materials, channel means (50, 60, 70) passing through the feedblock between the first and second faces directing each feed material into at least one separate profile, and exit ports (51, 61, 71) in the second face corresponding to the number of channel means, defining a first profile for each feed material.