44results about How to "Intelligent decision" patented technology

A system that facilitates and implements energy savings decisions by a home owner. The system will provide a mechanism to reduce the peak level of energy demand. A controller in logical communication with energy consuming appliances responds to request for energy from energy consuming appliances and devices by permitting or curtailing energy supply to the appliances or devices based on evaluation of a plurality of logical considerations. The controller may be operated to provide energy to fewer than all of the energy requesting appliances to reduce the energy demand on an energy supply source, including the instantaneous peak demand.

A system, wireless device (306) and method determine that a wireless device (306) is detecting a triggering event. The triggering event includes detecting a WLAN border cell (210), detecting a first signal from an egress portal (302), or detecting a degradation in signal quality. The wireless device (306) then detects at least one signal from an egress portal (302), determines that the wireless device (306) is moving from the coverage area of a first communications system to the coverage area of a second communications system according to the order of signals received from the egress portal (302), initiates a registration sequence with the second wireless communication system in response to determining that the wireless device (306) is moving from the coverage area of the first communications system to the coverage area of the second communications system, and conducts present and subsequent calls via the second wireless communication system.

A wireless communication network makes intelligent accept/reject decisions responsive to sector selection requests by mobile stations based on sharing per-sector loading information and per-sector mobile station received signal quality information. For example, the signal quality and sector loading information for each sector in a given mobile station's active set of sectors can be evaluated to determine whether the sector targeted by the mobile station for selection as its new serving sector for high-speed packet data service is the “best” sector for serving the mobile station. The network can identify the “best” serving sector based on one or more metrics. If the targeted sector is not the best one for serving the mobile station, the network sends a reject message, or it may send a redirect message pointing the mobile station to the best serving sector. The disclosed accept/reject processing advantageously applies to cdma2000 and W-CDMA networks, for example.

A system and method for interactively utilizing a user interface to manage device resources comprises at least one resource characterization that includes resource requirements for executing a requested process. An allocation manager may then compare the resource requirements for the requested process to the currently-available device resources. The allocation manager may then authorize or deny the requested process depending upon whether the currently-available resources are sufficient to adequately service the resource requirements of the requested process. An interface manager may provide relevant information from sources such as the resource characterization and the allocation manager to a user interface to thereby allow a system user to interactively manage device resources.

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.

A traffic control sensor system which provides outputted signals to a receiving traffic control system to assist the traffic control system in making real-time informed green light decisions. Such signals received by the traffic control system include calls for a green light for monitored traffic lanes approaching an intersection. The traffic control sensor system employs various techniques to reduce the number of vehicles that are dropped or occluded. A vehicle is considered to be dropped or occluded whenever the traffic control sensor system first detects the vehicle entering a user defined zone within the approaching lanes to the intersection, and then fails to detect or monitor such vehicle exiting the user defined zones. Occlusion or dropping may occur whenever a sensor is malfunctioning, certain environmental conditions are present, or during any time the sensor's detection signal is interrupted such as from cross traffic entering the monitored intersection.

Dynamically upsizing and/or downsizing a network farm in response to network demand. An application message router routes messages to the network farm. When the network farm approaches or is anticipated to be approaching capacity, a group of one or more servers may be added to the network farm. When the added server(s) are capable of participating in the network farm, the application message router is triggered to route also to the added servers. When the network farm has excess capacity, a group of one or more servers may be dropped from the network farm. This may be accomplished by triggering the application message router to no longer route messages to the removed servers. The removed servers may be either immediately or gracefully removed from service.

In one embodiment, an apparatus is presented that receives a driving style of a driver, senses a parameter or parameters of a driver and/or at least one passenger within a vehicle, correlates the parameter(s) to the driving style, and triggers feedback to the driver of the correlated parameter(s) of the at least one passenger or to the passenger of the correlated parameters parameter(s) of the driver. The invention provides, among other features, a mechanism to increase positive interactions between the driver and the passenger(s) and to decrease or avoid negative interactions, which leads to a safer use of the vehicle based on the correlations between measured health/well-being data and driving style or behavior.

An Internet based method for assisting in the rapid delivery of medical information direct to the site at which emergency assistance is being performed uses a global database for warehousing patient history information, which is fetched over the Internet on demand. In one embodiment, medical providers use an access code carried by the injured party and without which access is denied. The access code may be carried as a barcode and as an imprinted number on a bracelet or on a card carried by the individual. Patient information is transmitted over a network, either wireline or wireless, the Internet or wide area network, to a computer or personal digital assistant available to emergency personnel. In one embodiment, patient history information access is determined through the use of an access code reader, by entering the patient access code manually or by entering the patient's name as a last resort. Additionally insurance information can be made available to shorten emergency room admission procedures. Lastly, the patient's card or bracelet can allow for patient history to be downloaded and saved. Thus in emergency situations, the information can be uploaded from the card or bracelet to the healthcare providers' viewing screens.

One embodiment of the present invention sets forth a method for failing back network connections to a network interface card (NIC) within a computing device. The method includes the steps of monitoring a failed or unreliable NIC within the computing device, determining that the failed or unreliable NIC has recovered, determining that a functional NIC within the computing device is overloaded, selecting a first connection set communicating through the overloaded NIC, and transferring the first connection set to the recovered NIC. With this approach, intelligent decisions can be advantageously made regarding whether to fail back a network connection set to a recovered NIC based on the traffic loads on the overloaded NIC and the recovered NIC. Such an approach to balancing network traffic across the functional NICs within a computing device may substantially improve overall performance relative to prior art techniques.

A platform to supply renewable backup power to critical node infrastructure is disclosed. The platform conceals solar photovoltaic modules and storage batteries in plain sight by hiding such components in commonly encountered urban furniture, such as bus shelters. In particular, a bus shelter ad box is used to conceal or cloak certain components of the system.

Database indexes include multiple fields that are used to track how the components of the index are used. An index component monitoring mechanism tracks how the components of the index are used, and updates fields in the index accordingly. Such component-level statistics allow a query optimizer to make more intelligent decisions regarding when to build a new index and when to discard an index, and also provide information regarding which queries are using the index, the maintenance cost of the index, and the selectivity of the index when used to process a query.

In source routed or hop-by-hop routed protocol communication networks, when congestion is detected at a certain network element, a notification message is sent to nodes. The nodes keep track of congestion condition and generally have knowledge of the congestion, thereby allowing them to make more intelligent routing decisions, i.e., rate controlling messages, routing traffic around congestion, regulating admission at the edge of the network. The intelligent routing decision is based on the congestion condition indicated by a restriction level which is periodically and dynamically updated.

The invention discloses a power consumption management method and system based on an MEC edge intelligent gateway, and the method comprises the steps: carrying out the global management of basic configuration information through a cloud center, collecting historical power consumption data in a classified manner through an intelligent instrument, transmitting the historical power consumption data to the MEC edge intelligent gateway through a base station, and preprocessing original data through an end module; analyzing and training user power utilization data according to the AI module to forma user power utilization business demand model, and encrypting and uploading a trained model gradient parameter data surface; analyzing the encryption model gradient of the edge gateway and aggregating and training a plurality of models to form a joint model, and backing up and issuing gateway model gradient parameters; and updating the model parameters and information reserved by other data, andsending back power utilization management decision information to the corresponding user side according to the actual situation. According to the method and system, the computing power of one side ofedge computing is improved, and the requirement of a user for protecting private data of power utilization of the user is met in the contemporary society of mass data interaction.

In an embodiment, a memory controller includes multiple ports. Each port may be dedicated to a different type of traffic. In an embodiment, quality of service (QoS) parameters may be defined for the traffic types, and different traffic types may have different QoS parameter definitions. The memory controller may be configured to scheduled operations received on the different ports based on the QoS parameters. In an embodiment, the memory controller may support upgrade of the QoS parameters when subsequent operations are received that have higher QoS parameters, via sideband request, and/or via aging of operations. In an embodiment, the memory controller is configured to reduce emphasis on QoS parameters and increase emphasis on memory bandwidth optimization as operations flow through the memory controller pipeline.

The invention discloses a multi-functional headset intelligent fire fighting system and a control method thereof. According to the multi-functional headset intelligent fire fighting system, a vibration-resistant platform is adopted to eliminate high-frequency vibration in the movement process of a fireman, an ultrasonic sensor makes up for the deficiencies of an infrared camera on deep information perception, and three-dimensional physical environment and temperature field distribution in a fire scene environment are calculated through a fusion algorithm; meanwhile, a combined sensor of GPS and inertial measurement and a magnetic field sensor are adopted, inertial movement information, magnetic field information and position speed information are fused, and information, such as a position, a speed, a posture and the like, relative to a node can be accurately acquired, so that a position and a direction of the node in a whole fire scene is assisted to be accurately established, and the three-dimensional physical environment and the temperature field distribution in the whole fire scene environment is established accurately by integrating various nodes; and in addition, by combining with historical data, optimal action strategy is obtained. The multi-functional headset intelligent fire fighting system accurately perceives the fire scene environment, rapidly analyzes a form of a fire and can perform intelligent decision, and thus own protection and efficient rescue and fire-fighting of the fireman is realized.

The invention provides an environment monitoring system based on Internet of Things. The system herein includes a cloud service platform, a data transmission system, an acquisition terminal and a Web browser terminal. The acquisition terminal uploads the acquired all kinds of environment data to the data transmission system. The data transmission system is intended for aggregating all kinds of data which is uploaded by the acquisition terminal to monitoring data, and uploading the monitoring data to the cloud service platform through the internet. The cloud service platform is intended for receiving and saving the monitoring data which is uploaded by the data transmission system. The Web browser terminal is intended for accessing the cloud service platform through the internet, and checking the monitoring data which is acquired by the acquisition terminal. According to the invention, the system, by uploading the self working states of the acquisition terminal and the environment monitoring data that are uploaded, enables a user to in timely find the problems of devices, and is conductive to the correctness of determining data and maintenance of the system.

The invention provides an intelligent auxiliary decision-making platform for emergency evacuation of a large passenger ship, and the platform comprises a data attribute collection module, a machine data interaction module, and an emergency plan virtual simulation platform which comprises a virtual mapping module, a fire/smoke dynamic simulation module, a man-machine interaction correction module,and an intelligent decision-making output module. The decision-making method comprises the following steps: realizing acquisition and transmission of attribute data through an Internet of Things technology and/or 5G communication; simulating the dynamic change trend of fire, smoke and toxic gas through CFD simulation software; manually confirming a simulation result through VR simulation; combining a GIS technology and a system engineering theory, and outputting a multi-objective optimized intelligent emergency evacuation scheme; according to the invention, artificial intelligence, virtual simulation, digital twinning, 5G communication and Internet of Things technologies are combined, so that the system has functions of remote identification, intelligent simulation, multiple control and intelligent decision making.