Abstract:
In one embodiment, an apparatus comprises a processor, wherein the processor is configured to: detect deployment context information for an edge gateway, wherein the deployment context information identifies a deployment environment of the edge gateway based on information from one or more sensors; transmit, via a communications network, the deployment context information for the edge gateway to a gateway management node; receive, via the communications network, a gateway configuration for the edge gateway from the gateway management node; and configure the edge gateway based on the gateway configuration.
Abstract:
Ambient service apparatuses and methods associated with providing ambient service in a premise are disclosed herein. In embodiments, an apparatus for providing on premise ambient service may be provided. The apparatus may include a profile engine to interact with a cloud ambient service provider to receive at least one of a profile of a user of a premise or a profile of one or more visitors of the premise, wherein the profiles are associated with the provision of ambient service to a visitor of the premise on behalf of the user. The apparatus may further include a management module coupled to the profile engine to interact with one or more peripherals at the premise to provide ambient service to one or more visitors of the premise, on behalf of the user, based at least in part on the user or visitor profile. Other embodiments may be disclosed or claimed.
Abstract:
Technologies for scheduling time-sensitive cyclical network traffic in real-time include an internet-of-things (IoT) device that includes at least one sensor for collecting sensor data. The IoT device is configured to store the collected sensor data in a data buffer, allocate a packet descriptor for the sensor data, and populate the allocated packet descriptor with a cyclic data port pointer indicative of a location of the data buffer. The IoT device is additionally configured to queue the packet descriptor into a media access control (MAC) unit transmit direct memory access (DMA) of the IoT device, fetch the sensor data, and packetize the fetched data to form a network packet. Further, the IoT device is configured to transmit the network packet to a target computing device based on a launch time, update the launch time, and requeue the packet descriptor into the MAC unit transmit DMA. Other embodiments are described herein.
Abstract:
Technologies for managing low-latency network packet transmissions include an internet-of-things (IoT) device, or other networked device, depending on the embodiment, configured to determine a transmit mode of a network packet to be transmitted from the IoT device, wherein the transmit mode comprises one of a legacy network packet transmission mode or an immediate transmission mode. The IoT device includes a processor configured to write data of the network packet directly to a transmit buffer register of a network interface controller (NIC) of the IoT device subsequent to a determination that the transmit mode corresponds to the immediate transmission mode. Other embodiments are described herein.
Abstract:
An apparatus and system for throttling I/O devices in a computer system is provided. In an example, a method for throttling device power demand during critical power events. The method includes detecting a critical power event and issuing a signal to system devices to defer optional transactions during the critical power event.
Abstract:
In embodiments, apparatuses, methods and storage media are described that are associated with remote control of media devices. A remote control and a content player may be configured to facilitate a secured pairing process. The remote control may be configured to send non-secured signals (such as through an IR transmitter) as well as send and receive secured signals (such as via an RF transceiver). The remote control may non-securely broadcast an uncompressed identifier of itself. Then, in response to being turned on or asked to pair, the remote control may send a pairing request to the player that includes a compressed identifier. The player may then identify the remote control based on the compressed identifier and the previously-broadcast uncompressed identifier and the remote control and player may then perform a pairing process without requiring additional action on the part of a user. Other embodiments may be described and/or claimed.
Abstract:
In embodiments, apparatuses, methods and storage media are described that are associated with remote control of media devices. In embodiments, a remote control and a content player may be configured to facilitate a secured pairing process. The remote control may be configured to send non-secured signals (such as through an IR transmitter) as well as send and receive secured signals (such as via Bluetooth™ using an RF transceiver). The remote control, in response to being turned on or asked to pair, may send a pairing request to the player that includes an identifier for the remote control and which identifies the remote control as an eligible pairing device without requiring separate entry of a security code by a user. The remote control and player may then perform a pairing process without requiring additional action on the part of a user. Other embodiments may be described and/or claimed.
Abstract:
Technologies for scheduling time-sensitive cyclical network traffic in real-time include an internet-of-things (IoT) device that includes at least one sensor for collecting sensor data. The IoT device is configured to store the collected sensor data in a data buffer, allocate a packet descriptor for the sensor data, and populate the allocated packet descriptor with a cyclic data port pointer indicative of a location of the data buffer. The IoT device is additionally configured to queue the packet descriptor into a media access control (MAC) unit transmit direct memory access (DMA) of the IoT device, fetch the sensor data, and packetize the fetched data to form a network packet. Further, the IoT device is configured to transmit the network packet to a target computing device based on a launch time, update the launch time, and requeue the packet descriptor into the MAC unit transmit DMA. Other embodiments are described herein.
Abstract:
System and techniques for enhanced electronic navigation maps for a vehicle are described herein. A descriptor set-up message may be received at a network controller interface (NIC). Here, the descriptor set-up message includes an ethernet frame descriptor. The NIC may then use the ethernet frame descriptor to transmit, across a physical interface of the NIC, multiple ethernet frames, each of which use the same ethernet frame descriptor from the set-up message.
Abstract:
Technologies for managing low-latency network packet transmissions include an internet-of-things (IoT) device, or other networked device, depending on the embodiment, configured to determine a transmit mode of a network packet to be transmitted from the IoT device, wherein the transmit mode comprises one of a legacy network packet transmission mode or an immediate transmission mode. The IoT device includes a processor configured to write data of the network packet directly to a transmit buffer register of a network interface controller (NIC) of the IoT device subsequent to a determination that the transmit mode corresponds to the immediate transmission mode. Other embodiments are described herein.