Methods and apparatus for multi-destination wireless transmissions are disclosed. An example method includes detecting, by executing an instruction via a processor, an offload indicator in a web request received from a computing device, the web request triggered by processing of a webpage at the computing device, determining, by executing an instruction via the processor, a function identified in the web request, the function included in the webpage, retrieving, by executing an instruction via the processor, the function from the webpage; and transmitting a result of execution of the function to the computing device in response to the web request.

In one embodiment, a peripheral management device may have a controller configured to communicate with a gaming machine and a portable electronic device. The controller may be configured to: (i) receive a peripheral data packet from a gaming machine processor, the peripheral data packet including at least one command; (ii) determine whether to process the peripheral data packet on at least one peripheral device of the gaming machine or at least one virtual peripheral device of the portable electronic device; (iii) generate an instructional data packet for the at least one virtual peripheral device if the peripheral data packet is determined to be processed on the at least one virtual peripheral device; and (iv) transmit the instructional data packet to the portable electronic device.

In one aspect, an apparatus includes at least one processor and storage accessible to the at least one processor. The storage may include instructions executable by the at least one processor to predict that a device will not have a network connection during a period of time. Based on the prediction, the instructions may also be executable to recommend content to cache at the device in advance of the period of time and/or to automatically cache the content.

A user terminal emulation server is provided that provides operational functionality of a user terminal using a networked set of I/O user devices that are determined to be proximately located to a user and to have user interface capabilities that are combinable to provide the user with the ability to receive or initiate a communication service with another user terminal through a network entity. The operations for emulating a user terminal may alternatively be performed by an I/O user device that provides communication services using other I/O user devices.

Systems, methods and instrumentalities are disclosed for offloading computation for an application on a local device in a wireless network, comprising determining service-level requirements for the application, wherein the service-level requirements comprise one or more of latency, reliability, and power consumption for processing; determining wireless network conditions; determining local device conditions; partitioning the application into one or more tasks; comparing a processing time of a task at the local device to a latency requirement of the task, and: if the processing time of the local device would exceed the latency requirement of the task, determining to offload the task; and if the processing time of the local de vice would not exceed the latency requirement of the task, comparing a power consumed at the local device to offload the task to a power consumed at the local device to execute the task, wherein if the power consumed at the local device to offload the task is less than the power consumed (e.g., while satisfying the latency and reliability requirements of the task) at the local device to execute the task, determining to offload the task.

A method for providing information exchange between a primary communication device and a secondary communication device, where the method, when executed in the primary communication device, comprises: determining that functionality of the primary communication device is malfunctioning; recognizing at least one indication, each being received from a secondary communication device, indicating that the respective secondary communication device is capable of providing substitute functionality for the malfunctioning functionality; setting up a connection between the primary and the secondary communication device, and executing a command, received from the substitute functionality of the secondary communication device.

A terrestrial terminal enables communications, over a network connection, between a local host of one or more connected local hosts and a remote host. The terrestrial terminal is configured to perform operations comprising: receiving, from the remote host, a network packet for the local host; obtaining, from the network packet, an included TCP segment; determining, from the TCP segment, a receive window size advertised by the remote host; computing, using one or more characteristics of the network connection, a target receive window size; comparing the target receive window size with the advertised receive window size; and in response to determining that the target receive window size is different from the advertised receive window size: modifying the TCP segment by replacing the advertised receive window size with the target receive window size, and forwarding the network packet with the modified TCP segment to the local host.

A method performed by a server for protecting a network infrastructure can include: receiving, from an inline hardware appliance associated with an asset, traffic associated with the asset; analyzing the traffic based on a behavioral fingerprint associated with the asset to determine if the traffic is normal or abnormal, wherein the behavioral fingerprint can be stored on the server; and in response to determining that the traffic is normal, forwarding the traffic to the asset.

Approaches, techniques, and mechanisms are disclosed for accessing AI services from one region to another region. An artificial intelligence (AI) service director is configured with mappings from domain names of AI cloud engines to IP addresses of edge nodes of an AI delivery edge network. The AI cloud engines are located in an AI source region. The AI delivery edge network is deployed in a non-AI-source region. An AI application, which accesses AI services using a domain name of an AI cloud engine in the AI cloud engines located in the AI source region, is redirected to an edge node in the edge nodes of the AI delivery edge network located in the non-AI-source region. The AI application is hosted in the non-AI-source region. The AI services is then provided, by way of the edge node located in the non-AI-source region, to the AI application.

Approaches, techniques, and mechanisms are disclosed for accessing AI services from one region to another region. An artificial intelligence (AI) service director is configured with mappings from domain names of AI cloud engines to IP addresses of edge nodes of an AI delivery edge network. The AI cloud engines are located in an AI source region. The AI delivery edge network is deployed in a non-AI-source region. An AI application, which accesses AI services using a domain name of an AI cloud engine in the AI cloud engines located in the AI source region, is redirected to an edge node in the edge nodes of the AI delivery edge network located in the non-AI-source region. The AI application is hosted in the non-AI-source region. The AI services is then provided, by way of the edge node located in the non-AI-source region, to the AI application.