Abstract: A method and apparatus for communications in internet-of-things devices are provided. An exemplary apparatus includes an IoT server device. The IoT server device includes a communications device and a resource name map including a full identifier string and a short identifier string. A discovery responder provides the full identifier string and a short identifier string to a client device through the communications device.

Abstract: This disclosure describes systems, methods, and devices related to sensor data pipelining. A device may identify a first request of one or more requests received from a wireless universal serial bus (USB) host, wherein the first request is to collect data from a USB sensor. The device cause to send the first request to the USB sensor. The device identify a first response from the USB sensor, wherein the first response comprises data collected by the USB sensor based on the first request. The device determine that no additional requests are received from the wireless USB host. The device cause to send a second autonomous request to the USB sensor to collect data. The device identify a second response received from the USB sensor, wherein the second response is associated with the autonomous second request. The device cause to buffer or send the second response to the wireless USB host based on a second request being received from the wireless USB host.

Abstract: An apparatus includes a data interface to obtain first sensor data from a first sensor and second sensor data from a second sensor of a monitored system; a data analyzer to extract a feature based on analyzing the first and second sensor data using a model, the model trained based on historical sensor data, the model to determine the feature as a deviation between the first and second sensor data to predict a future malfunction of the monitored system; an anomaly detector to detect an anomaly in at least one of the first sensor data or the second sensor data based on the feature, the anomaly corresponding to the future malfunction of the monitored system; and a system applicator to modify operation of the monitored system based on the anomaly.

Abstract: A system and method are provided to facilitate signaling between base stations controlled by alternate spectrum holders (ASH's) and individual multi-mode devices (MMD's) operating in communication with those base stations to indicate an ability to a global spectrum marketplace of an ability of the base stations and/or the individual MMD's to support communication in both International Mobile Telecommunication (IMT) and non-IMT bands is support of a dynamic spectrum allocation scheme. The disclosed systems and methods may be based on a modification of the 3rd Generation Partnership Protocol (3GPP®) Long Term Evolution (LTE®) standard so that non-IMT licensed spectrum can be included in LTE® or LTE-Advanced® multi-band carrier aggregation.

Abstract: Aspects for interference mitigation in ultra-dense networks are described.

Abstract: A device is disclosed that may identify a frame received from an access point. The device may cause to buffer the payload field. The device may determine that a first payload, in a first payload field, corresponds to a multiband link aggregation (MBLA) Ethertype based at least in part on a logical link layer controller (LLC) field and a subnetwork access protocol (SNAP) Ethertype MBLA field in the first payload, wherein the first payload is within the payload field. The device may cause to remove a LLC MBLA header field from the first payload field. The device may cause to buffer a packet in a reordering queue, wherein the packet is in a second payload field that is in the first payload field. The device may order the packet among a plurality of packets in the reordering queue.

Abstract: This disclosure describes systems, methods, and devices related to link aggregation between devices. A device may determine a first frequency band and a second frequency band for sending data to a second device in a multiband link aggregation session. The device may cause to send, in an initial state, a setup request frame to the second device for establishing the multiband link aggregation session. The device may receive, in a setup completion state, a setup response frame from the second device to establish the multiband link aggregation session. The device may cause to send, in an operating mode established state, the data to the second device over the first frequency band and/or the second frequency band in the multiband link aggregation session.

Abstract: For example, an MA USB host of an MA USB PAL may be configured to process a request message from a USBDI of a USB host for a real time data transfer to be delivered between the USB host and a USB device EP; based on the request message, transmit at least one real time transfer request to an MA USB device of the MA USB PAL, a header of the real time transfer request including a request ID field to identify the real time data transfer, and a delivery time field to indicate a delivery time to complete delivery of the real time data transfer; and, based on a determination that the real time data transfer is not to be completed by the delivery time, send a response to the USBDI, the response including an error indication to indicate failure of the real time data transfer.

Abstract: Some demonstrative embodiments include apparatuses, systems and/or methods of controlling data flow over a communication network. For example, an apparatus may include a communication unit to communicate between first and second devices a transfer response, the transfer response in response to a transfer request, the transfer response including a transfer pending status indicating data is pending to be received at the second device, the communication unit is to communicate the transfer response regardless of whether a retry indicator of the transfer request represents a first request for transfer or a retried request.

Abstract: Techniques for implementing Wireless Gigabit (WiGig) Display Extension (WDE) communications as Wi-Fi Direct Services (WFDS) services are described. According to such techniques, WDE services may make use of primitives and events obtained from a WFDS application service platform (ASP). This application of WFDS to WDE may provide necessary mechanisms for layer 2 operations such as device and service discovery, P2P connection management, and session management. Other embodiments are described and claimed.

Abstract: For example, a wireless communication station may be configured to communicate over a wireless channel with a plurality of first wireless communication stations via a plurality of wireless communication links, the plurality of wireless communication links including at least one backhaul link with a relay station of the plurality of first wireless communication stations, the backhaul link to communicate between the wireless communication station and one or more second wireless communication stations via the relay station; to determine, based on a count of the one or more second wireless communication stations, one or more channel access parameters corresponding to at least one wireless communication link of the plurality of wireless communication links; and to communicate over the wireless communication link according to the one or more channel access parameters.

Abstract: In one example, a method for synchronizing connectivity in a wireless communication network includes participating in a communication on a management plane between at least one station and a first access point. The management plane includes a first frequency. A service period element specifies a plurality of terms of one or more service periods during which at least one station connects to a second access point over a data plane. The data plane includes a second radio frequency different from the second radio frequency. The method also includes participating in the one or more service periods on the data plane according to the terms specified by the service period element.

Abstract: Techniques for implementing Wireless Gigabit (WiGig) Display Extension (WDE) communications as Wi-Fi Direct Services (WFDS) services are described. According to such techniques, WDE services may make use of primitives and events obtained from a WFDS application service platform (ASP). This application of WFDS to WDE may provide necessary mechanisms for layer 2 operations such as device and service discovery, P2P connection management, and session management. Other embodiments are described and claimed.

Abstract: This disclosure describes methods, apparatuses, and devices related to optimizing connectivity between devices. A device is disclosed that may determine first information received from a client device, wherein the first information comprises at least one of an authentication request, an association request, or pre-association discovery request, and wherein the first information includes an indication of a first device type. The device may further determine a first virtual access point from a group of virtual access points associated with the wireless device based at least in part on the first device type, wherein the first virtual access point has first wireless resources. The device may further associate the client device with the first virtual access point. The device may further cause to send to the client device data based at least in part on the first wireless resources.

Abstract: Simultaneous dual band operation (2.4 and 5 GHz) is common in APs on the market today, and tri-band devices are expected in the market soon. Link aggregation can also be applicable to multiple air interfaces in the same band (for instance 2 independent IEEE 802.11ac/ax air interfaces at 5 GHz on 2 different 80MHz channels). One exemplary aspect provides technology that enables significantly higher throughput and/or higher reliability for two stations (STAs) or a STA and the access point (AP) when the devices support simultaneous multi-band operation.

Abstract: Techniques to enable Wi-Fi Direct Services (WFDS) application service platform (ASP) capability negotiation are described. In one embodiment, for example, an apparatus may comprise logic, at least a portion of which is in hardware, the logic to send a probe request message for a service seeker and receive a probe response message in response to the probe request message, the probe response message to identify an advertised service and comprise a WFDS ASP capability attribute, the logic to determine whether to use a WFDS ASP connection setup procedure to establish a connection with an advertiser of the advertised service, based on the WFDS ASP capability attribute. Other embodiments are described and claimed.

Abstract: Certain embodiments herein are directed to enabling service interoperability functionality for wireless fidelity (WiFi) Direct devices connected to a network via a wireless access point. A WiFi Direct device may identify various other WiFi Direct devices on a WiFi network for performing a requested service, such as printing content or displaying content to a screen. In so doing, the device may share information associated with an access point to which the device is connected with the other devices, which may also share information associated with an access point to which they are connected. In this way, WiFi Direct devices may discover their connectivity with respect to other devices to utilize a broader array of connection options for implementing a desired service, and hence, may leverage application programming interface (API) modules directed at providing service interoperability functionality between software applications and services requested by the software applications.

Abstract: A device is disclosed that may send at least one beacon to at least one device. The device may identify at least one handshake response received from the at least one device. The device may send a first multiband aggregation request to the at least one device, the multiband aggregation request including a received signal strength indication (RSSI) threshold. The device may identify a multiband aggregation response received from the at least one device, the multiband response including at least one RSSI value. The device may send association and security information associated with at least one second device to at least one third device. The device may send a second multiband aggregation request to the at least one third device. The device may send a data plane transition message to the at least one third device, the data plane transition message including a data plane transition trigger.

Abstract: A WiFi serial bus (WSB) attribute for use in Wi-Fi Alliance defined point-to-point (P2P) discovery mechanism includes a plurality of fields disposed in the frame. The WiFi serial bus attribute is arranged to provide information in the plurality of fields to support connectivity decisions for a USB device in a point-to-point network using a WSB protocol. The WSB attribute includes WSB architectural element information and information associated with a USB device behind a USB protocol adaptation layer (PAL).

Abstract: A device is disclosed that may identify a frame received from an access point. The device may cause to buffer the payload field. The device may determine that a first payload, in a first payload field, corresponds to a multiband link aggregation (MBLA) Ethertype based at least in part on a logical link layer controller (LLC) field and a subnetwork access protocol (SNAP) Ethertype MBLA field in the first payload, wherein the first payload is within the payload field. The device may cause to remove a LLC MBLA header field from the first payload field. The device may cause to buffer a packet in a reordering queue, wherein the packet is in a second payload field that is in the first payload field. The device may order the packet among a plurality of packets in the reordering queue.