Abstract: Systems, methods, and apparatus for routing are provided in which a connection track comprising a plurality of network or transport layer packets, received by a router, is identified by examining header fields of one or more packets in the plurality of packets. One or more quality of service (QoS) parameters is associated with the connection track by determining whether the track encodes a data type by (i) an identification of a predetermined application protocol used within the one or more packets and/or (ii) a comparison of a payload of one or more packets in the plurality of packets to known data type formats. A first QoS parameter is set to a first value in a first value range when the connection track contains the first data type. The connection track is routed through the router in accordance with the one or more QoS parameters assigned to the connection track.

Abstract: Systems, methods, and apparatus for routing are provided in which a connection track comprising a plurality of network or transport layer packets, received by a router, is identified by examining header fields of one or more packets in the plurality of packets. One or more quality of service (QoS) parameters is associated with the connection track by determining whether the track encodes a data type by (i) an identification of a predetermined application protocol used within the one or more packets and/or (ii) a comparison of a payload of one or more packets in the plurality of packets to known data type formats. A first QoS parameter is set to a first value in a first value range when the connection track contains the first data type. The connection track is routed through the router in accordance with the one or more QoS parameters assigned to the connection track.

Abstract: A near-optimal scheduling method for a group of elevators uses advance traffic information. More particularly, advance traffic information is used to define a snapshot problem (24) in which the objective is to improve performance for customers. To solve the snapshot problem (24), the objective function is transformed into a form to facilitate the decomposition of the problem into individual car subproblems (26). The subproblems (26) are independently solved using a two-level formulation, with passenger to car assignment (28) at the higher level, and the dispatching of individual cars (30) at the lower level. Near-optimal passenger selection and individual car routing (38) are obtained. The individual cars are then coordinated through an iterative process (40, 42) to arrive at a group control solution that achieves a near-optimal result for passengers.

Abstract: A near-optimal scheduling method for a group of elevators uses advance traffic information. More particularly, advance traffic information is used to define a snapshot problem (24) in which the objective is to improve performance for customers. To solve the snapshot problem (24), the objective function is transformed into a form to facilitate the decomposition of the problem into individual car subproblems (26). The subproblems (26) are independently solved using a two-level formulation, with passenger to car assignment (28) at the higher level, and the dispatching of individual cars (30) at the lower level. Near-optimal passenger selection and individual car routing (38) are obtained. The individual cars are then coordinated through an iterative process (40, 42) to arrive at a group control solution that achieves a near-optimal result for passengers.

Abstract: Systems, methods, and apparatus for routing are provided in which a connection track comprising a plurality of network or transport layer packets, received by a router, is identified by examination of header fields of one or more first packets in the plurality of packets. One or more quality of service (QoS) parameters is associated with the connection track by determining whether the track encodes a data type by (i) an identification of a predetermined application protocol used within the one or more first packets and/or (ii) a comparison of a payload of one or more packets in the plurality of packets to known data type formats. A first QoS parameter is set to a first value in a first value range when the connection track contains the first data type. The connection track is routed through the router in accordance with the one or more QoS parameters assigned to the connection track.

Abstract: Systems, methods, and apparatus for routing are provided in which a connection track comprising a plurality of network or transport layer packets, received by a router, is identified by examination of header fields of one or more first packets in the plurality of packets. One or more quality of service (QoS) parameters is associated with the connection track by determining whether the track encodes a data type by (i) an identification of a predetermined application protocol used within the one or more first packets and/or (ii) a comparison of a payload of one or more packets in the plurality of packets to known data type formats. A first QoS parameter is set to a first value in a first value range when the connection track contains the first data type. The connection track is routed through the router in accordance with the one or more QoS parameters assigned to the connection track.

Abstract: A near-optimal scheduling method for a group of elevators uses advanced traffic information. More particularly, advanced traffic information is used to define a snapshot problem in which the objective is to improve performance for customers. To solve the snapshot problem, the objective function is transformed into a form to facilitate the decomposition of the problem into individual car subproblems. The subproblems are independently solved using a two-level formulation, with passenger to car assignment at the higher level, and the dispatching of individual cars at the lower level. Near-optimal passenger selection and individual car routing are obtained. The individual cars are then coordinated through an iterative process to arrive at a group control solution that achieves a near-optimal result for passengers.

Abstract: Systems, methods, and apparatus for routing are provided in which a connection track comprising a plurality of network or transport layer packets, received by a router, is identified by examination of header fields of one or more first packets in the plurality of packets. One or more quality of service (QoS) parameters is associated with the connection track by determining whether the track encodes a data type by (i) an identification of a predetermined application protocol used within the one or more first packets and/or (ii) a comparison of a payload of one or more packets in the plurality of packets to known data type formats. A first QoS parameter is set to a first value in a first value range when the connection track contains the first data type. The connection track is routed through the router in accordance with the one or more QoS parameters assigned to the connection track.

Abstract: Systems, methods, and apparatus for routing are provided in which a connection track comprising a plurality of network or transport layer packets, received by a router, is identified by examination of header fields of one or more first packets in the plurality of packets. One or more quality of service (QoS) parameters is associated with the connection track by determining whether the track encodes a data type by (i) an identification of a predetermined application protocol used within the one or more first packets and/or (ii) a comparison of a payload of one or more packets in the plurality of packets to known data type formats. A first QoS parameter is set to a first value in a first value range when the connection track contains the first data type. The connection track is routed through the router in accordance with the one or more QoS parameters assigned to the connection track.

Abstract: The present invention facilitates communications between a first network and a second network using an information routing device having an auto-configuration feature. The auto-configuration feature negotiates what authentication protocol will be used when the networks transfer information. Once the authentication protocol is negotiated by the device, the device intercepts and stores information transferred between networks. In this manner, the device can emulate a first network when coupled to a second network by providing the necessary stored information directly to the second network, and vice versa.

Abstract: A router is provided that automatically configures itself to support Dynamic Host Configuration Protocol (DHCP) or Point-to-Point Protocol over Ethernet (PPPoE) communication protocols or other suitable communication protocols such as static IP, as required by an internet service provider. A user at a personal computer that is connected to the router via a local area network need not manually supply configuration information to the router for this purpose. The router may detect which communication protocol is to be used by monitoring which client set-up processes are initiated by the personal computer and by attempting to use those processes to communicate with the internet service provider. Successful responses from the internet service provider are used to confirm which protocol the router is to use for supporting subsequent communications between the personal computer and the internet service provider.

Abstract: Apparatus and methods for monitoring and controlling network activity of a network appliances in real-time are provided, in which the network activity is transmitted to at least one controlling network appliance. Internet access filtering technology and instant message technology are combined so that Internet access of a monitoring network appliance may be selectively blocked based upon predefined rules, and Internet access activities, whether blocked or not, may be redirected to multiple controlling network appliances for review based on other predefined rules, wherein the monitoring network appliance and the controlling network appliance may be buddies in an instant message network. The predefined rules may be modified dynamically by sending a command from the controlling network appliance to monitoring network appliance.

Abstract: A method for monitoring and controlling network activity of one or more network appliances in real-time is provided. The network activity of a network appliance may be monitored by the network appliance itself or, if the network appliance is in a LAN, by a network gateway in the LAN. The network activity is transmitted to one or more controlling network appliances based on which type of IP address is assigned to the monitoring network appliances and the controlling network appliances. The controlling network appliances control the network activity of the monitored network appliances by sending a command to the monitored network appliances with or without user intervention. The monitored network appliances execute the command to control their network activity in real-time.

Abstract: An apparatus and method for real-time monitoring and controlling of network or network appliance activity through use of instant messaging software on a smart network appliance are provided. Network and network appliance activity are monitored by a smart network appliance and communicated to a user, server, or other network appliance via instant messaging. The smart network appliance acts as an instant messaging client, with its own screen name and buddy list. A command set is provided in the smart network appliance to enable the buddies in the buddy list to order the smart network appliance to perform an action by sending an instant message to the smart network appliance, the instant message including a command from the command set.

Abstract: A router is provided that automatically configures itself to support Dynamic Host Configuration Protocol (DHCP) or Point-to-Point Protocol over Ethernet (PPPoE) communication protocols or other suitable communication protocols such as static IP, as required by an internet service provider. A user at a personal computer that is connected to the router via a local area network need not manually supply configuration information to the router for this purpose. The router may detect which communication protocol is to be used by monitoring which client set-up processes are initiated by the personal computer and by attempting to use those processes to communicate with the internet service provider. Successful responses from the internet service provider are used to confirm which protocol the router is to use for supporting subsequent communications between the personal computer and the internet service provider.

Abstract: The present invention facilitates communications between a first network and a second network using an information routing device having an auto-configuration feature. The auto-configuration feature negotiates what authentication protocol will be used when the networks transfer information. Once the authentication protocol is negotiated by the device, the device intercepts and stores information transferred between networks. In this manner, the device can emulate a first network when coupled to a second network by providing the necessary stored information directly to the second network, and vice versa.

Abstract: The present invention provides a method and system for providing access to a remote network. In a preferred embodiment, a system and method in accordance with the present invention allows a local host on the private network to transparently access the remote network and permit multiple users in the local network to simultaneously access the remote network. This access is based upon the requirements of an application utilizing a mass storage device within the private network. This system allows for user security on the private network.In one aspect, the method and system allow a private network to access a remote network. The private network has a plurality of components. At least one the plurality of components has a mass storage device. In this aspect, the method and system comprise providing an internet appliance and providing a portion of the mass storage device of the at least one of the plurality of components. The portion of the mass storage device is shareable with and mapped to the internet appliance.

Abstract: A method and apparatus for low NO.sub.x combustion in natural draft combustion chambers comprising staged-air combustion apparatus and process in which a fuel-rich, fuel/air mixture is introduced through a burner into a combustion chamber, forming a fuel-rich primary combustion zone flame. The fuel-rich primary combustion zone flame is attached to a flame guide disposed substantially parallel to the longitudinal axis of the primary combustion zone flame and extending from behind the burner. The flame guide also provides for removal of heat from the primary combustion zone flame. Secondary combustion air is introduced into the combustion chamber downstream of the burner to complete combustion of the fuel-rich primary combustion zone flame products. Internal recirculation of combustion gases within the combustion chamber into the fuel-rich primary combustion zone flame stabilize the fuel-rich primary combustion zone flame and contribute to emissions reduction.