Abstract: A wastewater processing method includes introducing wastewater into an upper region of a chamber. The chamber remains at substantially atmospheric pressure. A portion of the wastewater in the chamber is vaporized. Flame is introduced into the chamber and provides for the ignition of a volatile organic compound. The vaporized portion of the wastewater is vented to the atmosphere.

Abstract: A wastewater collection tank feeds a vaporizing unit through an inlet near the unit's top. A burner produces hot air, which a blower blows through a blower tube that passes through the upper portion of the unit to the bottom portion of the unit. A substrate through which air can pass extends across the unit between the bottom of the blower tube and the wastewater inlet. The hot air moving upward through the unit heats the falling wastewater, a substantial portion of which is vaporized therefrom. The vapor is vented from the top of the unit. Un-vaporized wastewater collects at the bottom of the unit and is recycled through the system with raw wastewater in the collection tank.

Abstract: A wastewater collection tank feeds a vaporizing unit through an inlet near the unit's top. A burner produces heat, which a blower blows through a blower tube that passes through the upper portion of the unit to the bottom portion of the unit. A substrate through which heated air can pass extends across the unit between the bottom of the blower tube and the wastewater inlet, and pall rings rest on the substrate. The heated air moving upward through the unit heats the pall rings and the falling wastewater, a substantial portion of which is vaporized at approximately atmospheric pressure. The vapor is vented from the top of the unit. Un-vaporized wastewater collects at the bottom of the unit and is recycled through the system with raw wastewater in the collection tank.

Abstract: A wastewater collection tank feeds a vaporizing unit through an inlet near the unit's top. A burner produces heat, which a blower blows through a blower tube that passes through the upper portion of the unit to the bottom portion of the unit. A substrate through which heated air can pass extends across the unit between the bottom of the blower tube and the wastewater inlet, and pall rings rest on the substrate. The heated air moving upward through the unit heats the pall rings and the falling wastewater, a substantial portion of which is vaporized at approximately atmospheric pressure. The vapor is vented from the top of the unit. Un-vaporized wastewater collects at the bottom of the unit and is recycled through the system with raw wastewater in the collection tank.

Abstract: A wastewater collection tank feeds a vaporizing unit through an inlet near the unit's top. A burner produces hot air, which a blower blows through a blower tube that passes through the upper portion of the unit to the bottom portion of the unit. A substrate through which air can pass extends across the unit between the bottom of the blower tube and the wastewater inlet. The hot air moving upward through the unit heats the falling wastewater, a substantial portion of which is vaporized therefrom. The vapor is vented from the top of the unit. Un-vaporized wastewater collects at the bottom of the unit and is recycled through the system with raw wastewater in the collection tank.

Abstract: A wastewater collection tank feeds an vaporizing unit through an inlet near the unit's top. A burner produces hot air, which a blower blows through a blower tube that passes through the upper portion of the unit to the bottom portion of the unit. A substrate through which air can pass extends across the unit between the bottom of the blower tube and the wastewater inlet, and pall rings rest on the substrate. The hot air moving upward through the unit heats the pall rings and the falling wastewater, a substantial portion of which is vaporized at approximately atmospheric pressure. The vapor is vented from the top of the unit. Un-vaporized wastewater collects at the bottom of the unit and is recycled through the system with raw wastewater in the collection tank.

Abstract: A wastewater collection tank feeds an vaporizing unit through an inlet near the unit's top. A burner produces hot air, which a blower blows through a blower tube that passes through the upper portion of the unit to the bottom portion of the unit. A substrate through which air can pass extends across the unit between the bottom of the blower tube and the wastewater inlet, and pall rings rest on the substrate. The hot air moving upward through the unit heats the pall rings and the falling wastewater, a substantial portion of which is vaporized at approximately atmospheric pressure. The vapor is vented from the top of the unit. Un-vaporized wastewater collects at the bottom of the unit and is recycled through the system with raw wastewater in the collection tank.

Abstract: A system for device-aware content delivery includes a distributor and a database. The distributor includes modules for determining the type of portable computing device and delivering content that is operable on the specific type of portable computing device and uses the unique capabilities of the identified portable computing device. The database includes different profiles for different portable computing devices and gives information that allows those portable computing devices to be identified by type and distinguished from each other portable computing devices during a discovery or interrogation phase. The database also stores different versions of content adapted for operation on specific device types, such that once the device type has been identified, the matching content can be sent to the portable computing device, installed and executed. The matching content is programmatic action specific to the portable computing device.

Abstract: A system for device-aware content delivery includes a distributor and a database. The distributor includes modules for determining the type of portable computing device and delivering content that is operable on the specific type of portable computing device and uses the unique capabilities of the identified portable computing device. The database includes different profiles for different portable computing devices and gives information that allows those portable computing devices to be identified by type and distinguished from each other portable computing devices during a discovery or interrogation phase. The database also stores different versions of content adapted for operation on specific device types, such that once the device type has been identified, the matching content can be sent to the portable computing device, installed and executed. The matching content is programmatic action specific to the portable computing device.

Abstract: Efficient network management techniques for use in wireless environments are disclosed. In one embodiment of the present invention, a network system includes a server-client architecture, where a number of mobile clients (e.g., cell phones, PDAs, smart phones) wirelessly access and interact with the system via jack service points. The server uses an SNMP proxy. The server periodically collects data from the jack service points (or other network device), converts it into SNMP-compliant MIB representations, and caches the most recently collected data on the SNMP proxy. A network monitoring station (NMS) communicates with the SNMP proxy rather than directly with jack service points in the field. As such, no SNMP agent is necessary on the individual jack service points (or other network device).

Abstract: The present invention is an adhesive composition including a biopolymer and methods of making and using the composition. The biopolymer in the composition can, in some instances, be a polysaccharide. The composition can also include a surfactant. In some embodiments, the polysaccharide is treated to reduce its hydrophilicity to improve moisture resistance of the adhesive bond.