Abstract: A semiconductor device includes a latch circuit and a code comparison circuit. The latch circuit latches an output code generated based on an active command. The latch circuit outputs the latched output code as a latch code in response to a write command. The code comparison circuit compares the latch code with a write code to generate a detection signal.

Abstract: There is provided an information processing system to increase a speed of returning identification information in response to a received command in the case where an identification information requesting command is received, the information processing system including: a plurality of processing devices each of which includes a storage unit configured to store an identification information piece; a management device configured to acquire the identification information piece from each of the plurality of the processing devices; and a communication device configured to communicate with an external device. The management device writes the identification information piece acquired from each of the plurality of the processing devices into the communication device.

Abstract: Systems and methods are provided for obtaining information from at least one computing system, the information including a set of records that respectively identify at least a network-based address of a computing device that accessed the computing system and an account hosted by the computing system that was accessed using the computing device; determining at least a first account and a second account were accessed from one or more computing devices that share a given network-based address based at least in part on the obtained information; and associating the first account and the second account with the network-based address.

Abstract: Techniques are provided for authorizations in a virtual computing infrastructure using a federation token service. The techniques may include receiving a request for a launch plan from a user for launching instances in a plurality of sites, determining object permissions required for actions to be performed to launch one or more of the instances at each site of the plurality of sites, contacting an authorization caching service to obtain authorization tokens for each of the determined object permissions required for the actions, receiving the authorization tokens for each of the determined object permissions required for the actions, and forwarding the request to each site of the plurality of sites with an authentication token and the authorization tokens for each of the determined object permissions required for the actions to be performed to launch the one or more of the instances at each site of the plurality of sites.

Abstract: Aspects of the present disclosure relate to transmitting prioritized path data to a device based on a set of topology rules and metrics associated with a storage target. A storage target path discovery request is received from the device. In response to the storage target path discovery request, metrics associated with the storage target are collected. Based on the collected metrics, available paths to the storage target are identified. A set of topology rules are then determined. Based on the topology rules and the collected metrics, a subset of available paths are selected. The subset of available paths are then prioritized into prioritized path data. The prioritized path data is then stored and transmitted to the device.

Abstract: Systems and methods include, in a node having a plurality of Media Access Control (MAC) addresses with a source MAC address for an application and with the node connected to Network Termination Equipment (NTE) having flooding disabled, configuring the node to periodically send a packet to the NTE with the source MAC address for the application to pre-populate a forwarding database in the NTE; and transmitting the packet to the NTE periodically such that the NTE receives the packet and installs the source MAC address in its forwarding database for reachability thereto despite the disabled flooding. The plurality of Media Access Control (MAC) addresses can include a chassis MAC address and the source MAC address for the application. The packet can be a no-operation packet which requires no processing by the NTE except installation of the source MAC address for the application.

Abstract: A system and method are provided for performing transmission control protocol segmentation on a server on a chip using coprocessors on the server chip. A system processor manages the TCP/IP stack and prepares a large (64 KB) single chunk of data to be sent out via a network interface on the server on a chip. The system software processes this and calls the interface device driver to send the packet out. The device driver, instead of sending the packet out directly on the interface, calls a coprocessor interface and delivers some metadata about the chunk of data to the interface. The coprocessor segments the chunk of data into a maximum transmission unit size associated with the network interface and increments a sequential number field in the header information of each packet before sending the segments to the network interface.

Abstract: Embodiments disclosed herein provide a domain aware data migration scheme between processing elements, memory, and various caches in a CC-NUMA system. The scheme creates domain awareness in data migration operations, such as Direct Cache Transfer (DCT) operation, stashing operation, and in the allocation of policies of snoop filters and private, shared, or inline caches. The scheme defines a hardware-software interface to communicate locality information (also referred herein as affinity information or proximity information) and subsequent hardware behavior for optimal data migration, thus overcoming traditional CC-NUMA limitations.

Abstract: The exemplary embodiments of the invention provide at least a method and an apparatus to determine a beacon signal for a network node, where the network node is configured to connect with a cluster of access points in a wireless communication network, and where the beacon signal identifies the cluster; and send the beacon signal towards the wireless communication network. Further, the exemplary embodiments of the invention provide at least a method and an apparatus to determine a dominant access point of a cluster of access points based on signaling from at least one access point associated with the cluster of access points; and in response to the determining, direct communications towards the dominant access point of the cluster of access points.

Abstract: Technologies for fine-grained completion tracking of memory buffer accesses include a compute device. The compute device is to establish multiple counter pairs for a memory buffer. Each counter pair includes a locally managed offset and a completion counter. The compute device is also to receive a request from a remote compute device to access the memory buffer, assign one of the counter pairs to the request, advance the locally managed offset of the assigned counter pair by the amount of data to be read or written, and advance the completion counter of the assigned counter pair as the data is read from or written to the memory buffer. Other embodiments are also described and claimed.

Abstract: Systems and methods are provided for configuring a Network Element (NE) to transport data within a network. A system configured accordingly may include a Transport Automation Tool (TAT) which can initiate, at a server on a network, a communication channel with a NE on the network. The TAT can determine or receive a network plan providing information about a circuit to be initiated or decommissioned on the network. The network plan may include a first port on the NE which is to be connected via a cross-connect (or disconnected) to a second port on the NE. The TAT can then establish or remove, using the communication channel, the cross-connect on the NE such that the NE is added to or removed from a circuit design utilizing the NE as a transport NE within the circuit.

Abstract: Techniques for connecting networks to facilitate distribution of data are described. For example, to distribute multicast data to members of a multicast group that span multiple networks, the techniques may identify a path between networks that each have a member of the multicast group, such as a shortest path between networks. The techniques may inform the networks on the path to establish a connection with an adjacent network. This may allow multicast data for a multicast group to be distributed to members of the multicast group that are located in separate networks.

Abstract: A network environment includes a message-processing resource that receives a communication originated by a communication device and transmitted from the communication device over a wireless communication link. By way of non-limiting example, the communication can be a request for retrieval of content from server resource disposed in the network environment. The message-processing resource processes the communication transmitted over the wireless communication link to identify a network address assigned to the communication device. The message-processing resource maps the network address to corresponding status information associated with the communication device.

Abstract: Methods, systems, and computer readable media for multi-protocol stateful routing are provided. One method of routing is performed at a multi-protocol stateful router and includes receiving a first message of a client session that is communicated using a first protocol. The method includes obtaining, from the first message, one or more client identifiers, determining a policy server that is assigned to the client session, and storing the one or more client identifiers and a policy server identifier that is associated with the policy server assigned to the client session as a multi-protocol binding record. The method also includes receiving a second message that is communicated using a second protocol that is different from the first protocol, using the multi-protocol binding record to determine that the second message is in the client session, and route the second message to the policy server that is assigned to the client session.

Abstract: A disclosed example of autonomously configuring a virtual network and a physical network in a physical rack includes generating network topologies of hosts based on physical network connection information indicative of physical network connections between the hosts and a top-of-rack switch in the physical rack; determining whether implementing the network topologies of the hosts concurrently in the physical rack is valid based on evaluating the network topologies relative to a network topology validation rule; when implementing the network topologies of the hosts concurrently in the physical rack is valid: configuring a virtual distributed switch in a first one of the hosts based on one of the network topologies; and configuring the top-of-rack switch in communication with the first host based on the one of the network topologies.

Abstract: An integrated communications network may be integrated with existing payment systems to provide for more efficient and secure payment related communications. The integrated communications network may use mobile network protocol encapsulation to provide more efficient, faster, and more robust payment related communications to a payment processor across a mobile network. The integrated communications network may implement a location-aware network communications system that may allow a payment processor to obtain additional information about a consumer using a location-aware header of a network communication.

Abstract: A method and apparatus for performing a wireless local area network (WLAN) termination (WT) addition/modification procedure in a wireless communication system is provided. For the WT addition procedure, an eNodeB (eNB) transmits a WT Addition Request message to a WT via a Xw interface, and receives a WT Addition Request Acknowledge message from the WT via the Xw interface. For eNB initiated WT modification procedure, the eNB transmits a WT Modification Request message to a WT via a Xw interface, and receives a WT Modification Request Acknowledge message from the WT via the Xw interface. For the WT initiated WT modification procedure, the eNB receives a WT Modification Required message from a WT via a Xw interface, and transmits a WT Modification Confirm message to the WT via the Xw interface. The WT is a logical node that terminates the Xw interface.

Abstract: The disclosure relates generally to methods, systems, and apparatuses for managing network connections. A system for managing network connections includes a storage component, a decoding component, a rule manager component, and a notification component. The storage component is configured to store a list of expected connections for a plurality of networked machines, wherein each connection in the list of expected connections defines a start point and an end point for the connection. The decoding component is configured to decode messages from the plurality of networked machines indicating one or more connections for a corresponding machine. The rule manager component is configured to identify an unexpected presence or absence of a connection on at least one of the plurality of network machines based on the list of expected connections. The notification component is configured to provide a notification or indication of the unexpected presence or absence.

Abstract: A method for using metadata in an Internet Protocol (IP) packet is provided. A first processor at a first node sets a dedicated field of the IP packet to a predetermined value to indicate that metadata is present in the IP packet, and adds metadata to the IP packet by inserting the metadata between an original transport header of the IP packet and an original packet payload of the IP packet. A second processor at a second node receives the IP packet from the first node, reads the dedicated field to identify the predetermined value indicating that metadata is present in the IP packet, and identifies the metadata in the IP packet based on the predetermined value.

Abstract: A self-updating system for defending against a cyberattack requests connected devices to solve a problem that is created in a random manner. The problems are created in a manner such that the system can determine whether the client device is being used as part of a cyberattack based on how the client device responds to the problems.

Abstract: Presented herein are embodiments for collecting and sharing telemetry data. A plurality of requests are received, from one or more applications, for telemetry data that is stored in a hierarchical tree representation comprising a plurality of nodes, wherein the telemetry data indicates an operational status and performance of a device, and wherein each request includes a cadence indicating a timespan at which the request repeats, and a path in the hierarchical tree where a requested portion of the telemetry data is stored. Processing the requests produces an optimized set of requests by merging any two or more requests whose paths indicate portions of data that share a common parent node in the hierarchical tree, wherein a merged request is assigned a cadence corresponding to a shortest cadence among the two or more requests. The hierarchical tree is polled using the optimized set of requests to satisfy the received requests.

Abstract: An example method includes receiving, at a computing system, a first user input from a user interface during operation of a vehicle and responsive to receiving the first user input, determining a time of reception for the first user input. The method further includes receiving a first set of parameters from the vehicle that correspond to a first parameter identifier (PID). The method also includes determining a time of reception for each parameter, and based on the time of reception for the first user input and the time of reception for each parameter of the first set of parameters, determining a first temporal position for an indicator configured to represent the first user input on a graph of the parameters corresponding to the first PID. The method further includes displaying, on a display interface, the graph of the parameters corresponding to the first PID with the indicator in the first temporal position.

Abstract: A method for discovering a network among a plurality of mobile nodes, which includes: a first mobile node periodically transmitting a first signal including an invitation token including data relating to an identity of the node which transmits the token; a second mobile node detecting the first signal; transmitting a second signal including at least one acknowledgement of the invitation token; creating a radio bubble, the communications between the nodes of the radio bubble being coordinated by transmitting a speech token between the nodes; and creating an IP sub-network between the nodes of the radio bubble, each node including an IP address.

Abstract: Various embodiments relate to a method for increasing the reliability of a packet delivery by using dynamic packet cloning on a source node and an intermediate node, the method comprising the steps of calculating an achieved reliability, calculating a calculated reliability using the achieved reliability, determining which of a plurality of first routes that have a reliability greater than the calculated reliability, selecting a first route from the determined first routes wherein the selected first route has the lowest reliability of the determined first routes, when there is at least one determined first routes, selecting a first route from the plurality of first routes wherein the selected first route has highest reliability of the plurality of first routes, when there are no determined first routes, updating a required reliability in the packet header to the reliability of the selected first route and sending the packet on the selected first route.

Abstract: A power distribution discovery system includes a power distribution unit (power distribution unit) that provides electrical power to a plurality of equipment modules configured in a computing rack. The power distribution unit includes a first communication circuit coupled to a computing system. The first communication circuit communicates with a second communication circuit configured in each of the subset of equipment modules to receive identifying information associated with each of the subset of equipment modules. The computing system communicates with the first communication circuit to receive the identifying information, and outputs a report indicating the subset of equipment modules that receive electrical power from the power distribution unit. The received identifying information indicates those equipment modules that receive electrical power from the power distribution unit.

Abstract: To avoid blocking node AC queues in the degraded MU EDCA mode due to regular OFDMA transmission of data from another AC queue in resource units provided by an AP, the present invention proposes to use a dedicated HEMUEDCATimer for each AC queue, in order for them to be able to exit the degraded MU EDCA mode independently of the other AC queues. In this respect, upon successfully transmitting data stored in two or more traffic queues, in each of one or more accessed resource units provided by the AP within one or more transmission opportunities, the node sets each traffic queue transmitting in the accessed resource unit in the degraded MU EDCA mode for a predetermined degrading duration counted down by a respective timer associated with the transmitting traffic queue. Next, upon expiry of any timer, the node switches back the associated traffic queue to the conventional EDCA mode.

Abstract: This application provides a method for updating a route in a network. The first network device sends a first LSA packet to a third network device, so that the third network device generates a first route whose destination address is a second IP address, where a next-hop IP address of the first route is the IP address of the first network device, and the second IP address belongs to the IP network segment corresponding to the first IP address which is an IP address of the first network device. The first network device sends a second LSA packet to the third network device when determining that switching needs to be performed on a next hop of a route in the third network device, whose destination address belongs to the IP network segment, and whose next-hop IP address is the first IP address.

Abstract: A method for transmitting a packet on a logical port comprising two or more physical ports comprises receiving a packet of a class of service; storing the packet in a memory; maintaining a lookup table relating a plurality of identifiers to at least one physical port; storing a pointer to the stored packet in the memory in a single pointer list for the class of service along with a selected one of the identifiers; and copying the stored packet to one or more physical ports corresponding to the selected identifier for transmission on at least one of the physical ports. In one implementation, a plurality of the physical ports are grouped into a logical port, and the received packet is processed to determine its logical port and its class of service.

Abstract: In some embodiments, a non-transitory processor-readable medium stores code representing instructions configured to cause a processor to receive, from an access switch, a first signal including forwarding state information associated with a first peripheral processing device from a set of peripheral processing devices. The code can further represent instructions configured to cause the processor to receive, from the first peripheral processing device, a second signal including a data packet. The code can further represent instructions configured to cause the processor to send, to a replication engine associated with the set of peripheral processing devices, a third signal such that the replication engine (1) defines a copy of the data packet, which is included within the third signal, and (2) sends, to a second peripheral processing device from the set of peripheral processing devices, a fourth signal including the copy of the data packet.

Abstract: A communication session may be broken up into many smaller packet bundles over many tunnels and over different routes in order to obfuscate the entire data stream. Apparatuses may dynamically build hop-by-hop tunnels in a backbone telecommunications network, segment data into packet bundles at the customer edge, or break up data traffic of a communication session along multiple routing or switching paths in order to obfuscate the data traffic of the communication session.

Abstract: Some embodiments described herein provide a combination of a layer 3 (L3) hop with layer 2 (L2) bypass/fail-to-wire in a network device. Specifically, some embodiments place the network device between two routers, thereby becoming a L3 hop between the two routers. The existing route between the two routers is preserved by using L2 bypass through the network device. If the network device fails, then the physical fail-to-wire will be engaged, removing its L3 hop, but preserving the L2 bypass.

Abstract: A method may include receiving a database command to sort an unsorted dataset; dividing a sort operation, for sorting the unsorted dataset, into a plurality of portions; performing a first portion of the sort operation; persisting intermediate results from the first portion of the sort operation; and persisting a state of the sort operation identifying the portions of the sort operation have been performed.

Abstract: A method for generating forwarding information includes determining, by a controller, a first service forwarding entity (SFE) and a second SFE forwarding a service stream, where the first SFE and the second SFE are on a service function chain corresponding to the service stream, generating, by the controller, first forwarding information for the first SFE and second forwarding information for the second SFE, and sending, by the controller, the first forwarding information to the first SFE and sending the second forwarding information to the second SFE. Hence, the controller generates forwarding information for the SFE such that a service chaining technology can be applied to a service environment in which a large quantity of services and a large quantity of service processing function units exist.

Abstract: A monitoring apparatus according to the present disclosure includes: a notification information reception unit (110) configured to receive notification information from a radio apparatus; a determination unit (120) configured to determine an initial parameter that corresponds to the notification information that has been received; and an initial parameter transmission unit (130) configured to transmit the initial parameter that has been determined to the radio apparatus. It is therefore possible to provide a monitoring apparatus, a radio apparatus, a communication system, methods therein, and a program capable of automating initial parameter configuration in accordance with a purpose of installing the radio apparatus.

Abstract: System and method for providing an InfiniBand network device having a vendor-specific attribute that contains a signature of the vendor. An exemplary embodiment can provide an InfiniBand compatible network device from a vendor. The vendor can further define a subnet management attribute, where the subnet management attribute has an attribute identifier in the range of attribute identifiers reserved in the InfiniBand specification. The vendor can define a signature bit string that is a fixed number of bits in length and a number of offset bits, where the number of offset bits indicates the start of the signature bit string within the attribute. The subnet management attribute can be configured with the signature bit string starting where the offset bits indicate, and the subnet management attribute can be included as an attribute of the InfiniBand compatible network device.

Abstract: Methods, systems, computer-readable media, and apparatuses are disclosed for providing a user seamless access to cloud services made available by multiple different cloud providers. In some embodiments, a computing device may receive a request from a user to access a variety of cloud services. The computing device may retrieve cloud services from each of the cloud providers and cause display of a user interface that includes each of the cloud services from the different cloud providers so that the user interface is a uniform point of contact with the cloud providers. Further, in some embodiments, various interfaces, cloud service connections, and cloud service connection termination points may be defined.

Abstract: A method includes: executing an application prepared by an application programming interface (API) of a platform; and providing a network setting information to be used in the executed application to a display. A network connection is performed by the platform based on the network setting information.

Abstract: Systems and methods are provided for managing software scripts. One system comprises one or more meters, each configured to measure parameters of a commodity. The system also comprises a server and a plurality of client devices. The server is in communication with the one or more meters by way of a communication network and is configured to receive and store the measured parameters from the one or more meters. The client devices communicate with the server via the communication network. Also, the system includes a base device in communication with the client devices. The base device is configured to store one or more functional chains, each of the one or more functional chains comprising software code defining a plurality of functional actions to be performed in a specific sequence. The base device comprises an interface that allows the plurality of client devices to reference the functional chain.

Abstract: A printer has first and second interfaces for connecting to first and second networks having first and second data host configuration protocol servers. The first and second interfaces have differing media access control (MAC) addresses. The printer uses a recovery sequence to enable recovery for a host computer running an application when switching from the first printer interface to the second printer interface.

Abstract: Embodiments of the invention may relate to a method for routing protocol area abstraction. The method may include electing an area leader from among network devices; generating, by the area leader, an area representation node identifier associated with the first area; distributing, by the area leader, the area representation node identifier to area edge devices; receiving, from the area edge devices, second area link state packets (LSPs); generating, by the area leader and using the second area LSPs, an area representation node LSP that includes the area representation node identifier and area neighbor adjacencies; and distributing, by the area leader, the area representation node LSP to a plurality of network devices in a second area of the network. In response to receiving a copy of the area representation node LSP, each of the network devices in the second area may advertise an adjacency to an area representation node.

Abstract: A device includes a memory, a transceiver, and a processor. The processor receives a request (including a first identifier assigned to a first mobile device) from the first mobile device. In response, the processor determines that a server connection is unavailable, adds a second identifier to the request, and broadcasts the request. The processor then receives a first path (including the first and second identifiers along with a third identifier assigned to a second mobile device) from the second mobile device and sends it to the first mobile device. The processor then receives a first piece of data and a second path (including the first and second identifiers along with a fourth identifier assigned to a third mobile device) from the first mobile device. In response, the processor identifies the third mobile device and sends the first piece of data and the second path to the third mobile device.

Abstract: Providing reconfigurable fusion of processing elements (PEs) in vector-processor-based devices is disclosed. In this regard, a vector-processor-based device provides a vector processor including a plurality of PEs and a decode/control circuit. The decode/control circuit receives an instruction block containing a vectorizable loop comprising a loop body. The decode/control circuit determines how many PEs of the plurality of PEs are required to execute the loop body, and reconfigures the plurality of PEs into one or more fused PEs, each including the determined number of PEs required to execute the loop body. The plurality of PEs, reconfigured into one or more fused PEs, then executes one or more loop iterations of the loop body. Some aspects further include a PE communications link interconnecting the plurality of PEs, to enable communications between PEs of a fused PE and communications of inter-iteration data dependencies between PEs without requiring vector register file access operations.

Abstract: According to the present disclosure, a wireless communication device wirelessly communicates with mesh portals in conformity with the IEEE 802.11s standard. The wireless communication device includes a MAC address receiving section, a MAC address recording section, an IP address inquiring section, and an IP address recording section. The MAC address receiving section receives the MAC addresses of the mesh portals from the mesh portals. The MAC address recording section records the received MAC addresses in correspondence to metrics between the mesh portals and the wireless communication device. The IP address inquiring section preferentially requests an IP address from one of the mesh portals having a MAC address corresponding to a smaller one of the metrics based on contents recorded by the MAC address recording section. The IP address recording section records the IP address transmitted from the mesh portal as a result of the request.

Abstract: A method including receiving a request for a communication session with a recipient having a recipient identifier; querying a subscription database for subscription information for the recipient; receiving, from the subscription database, the subscription information for the recipient; selecting one of a plurality of service processing elements based on the subscription information for the recipient; and sending the communication session to the one of the service processing elements based on subscription information received from the subscription database.

Abstract: A method may include receiving a first transaction request. The method may further include transmitting a retry response to the transaction request, which includes a first epoch identifier associated with a current epoch. The method may further include receiving a second transaction request, which includes a second epoch identifier associated with a previous epoch. The second transaction request may be fulfilled using a transaction resource reserved for the previous epoch.

Abstract: Devices, methods, and systems with dynamic spectrum sharing. In one embodiment, a wireless communication device includes a software-defined radio, a spectrum sensing sub-system, a memory, and an electronic processor. The software-defined radio is configured to generate an input signal, and wirelessly communicate with one or more radio nodes using a traffic data channel and a broadcast control channel. The spectrum sensing sub-system is configured to sense local spectrum information from the input signal. The electronic processor is communicatively connected to the memory and the spectrum sensing sub-system and is configured to receive the local spectrum information from the spectrum sensing sub-system, receive spectrum information from the one or more radio nodes, and allocate resources for the traffic data channel based on the local spectrum information and the spectrum information that is received from the one or more radio nodes.

Abstract: An internal route usage information from a set of internal route usage information is analyzed to determine an encoding structure used in the internal route usage information and an external route that is referenced in internal route usage information. Using the set of internal route usage information, a subset of external route change information is selected from a set of external route change information, where each changed external route represented in the subset is usable to reach a currently used destination on an external network. A first external route change information from the subset is encoded according to the encoding structure, forming a first encoded route change data. Using the first encoded route change data, an internal router in an internal network is caused to recognize a status change in a first external route.

Abstract: A video-on-demand (VOD) server in an Internet protocol television (IPTV) network with a network of set-top boxes includes IPTV operational data and an analysis module that selects a content item. The VOD server divides the content item into sequential chunks, divides the chunks into stripes, pre-populates set-top boxes in a peering network with at least one stripe from each chunk, receives a request for the content item, and directs each set-top box to sequentially stream its stripes. A method includes selecting a content item based upon IPTV operational data, dividing the content item into sequential chunks, dividing the chunks into stripes, pre-populating set-top boxes in a peering network with at least one stripe from each chunk, receiving a request for the content item, and directing each set-top box to sequentially stream its stripes.

Abstract: A method for optimizing access to files in Universal Integrated Circuit Card (UICC) for use in User Equipment (UE) is provided. The method includes transmitting, by UE, to UICC, SELECT command to select master file (MF); receiving, by UE, from UICC, file control parameter (FCP) values of MF; transmitting, by UE, to UICC, SELECT command to select elementary file directory (EF-DIR) based on FCP values of MF; receiving, by UE, from UICC, FCP values of EF-DIR; determining, by UE, application available in UICC listed in EF-DIR based on FCP values of EF-DIR; transmitting, by UE, to UICC, SELECT command to select application directory file (ADF); receiving, by UE, from UICC, FCP values of ADF; reading, by UE, an elementary file control parameter (EF_FCP) file by using a short file identifier (SFI) value included in the FCP values of the ADF; and obtaining, by the UE, contents of the EF_FCP file.

Abstract: Traffic flows in a wireless network may be optimized based on a current state of the wireless network as well as based on information received from mobile devices attached to the wireless network. In one implementation, a method may include receiving, from mobile devices attached to the wireless network, values for parameters associated with applications that are executed by the mobile devices. The method may further include receiving, from network elements in the wireless network, information relating to a state of the wireless network; and determining based on the values for the parameters associated with the applications and based on the information relating to the state of the wireless network, modifications to an operation of the wireless network to optimize transmission of the traffic flows in the wireless network with respect to the parameters.