Automated processes, computing systems, computing devices and other aspects of a data processing system provide improved reliability in delivering digital media content over the Internet or a similar wide area network without sacrificing data security. Content is initially placed into a secure format (e.g., secure hypertext transport protocol (HTTPS) via transport control protocol (TCP) or the like). Prior to transmission on the network, the secure data packets are encapsulated within connectionless frames, such as user datagram protocol (UDP) frames. The client device that receives the encapsulated packets extracts the underlying secure content from the connectionless frames for further processing. The encapsulation into connectionless data frames permits client and server devices to establish effective streaming sessions while preserving the security of the underlying data.

A host processing device (“host”) instructs a plurality of data processing (DP) accelerators to configure themselves for secure communications. The host generates an adjacency table of each of the plurality of DP accelerators (“DPAs”). The host is communicatively coupled to the plurality of DPAs via a switch. The host transmits, to the switch, a list of the DPAs and instructs the switch to generate an adjacency table of the DPAs that includes a unique identifier of each DPAs and a communication port of the switch associated with the DPA. The host establishes a session key communication with each DPA and sends the DPA a list of other DPAs that the DPA is to establish a session key with, for secure communications between the DPAs. The DPA establishes a different session key for each pair of the plurality of DPAs. When all DPAs have established a session key for communication with other DPAs, the host can assign work tasks for performance by a plurality of DPAs, each communicating over a separately secured communication channel.

Various examples are provided related to software and hardware architectures that enable a lightweight incremental encryption scheme that is implemented on a System-on-chip (SoC) resource such as a network interface. In one example, among others, a method for incremental encryption includes obtaining, by a network interface (NI) of a sender intellectual property (IP) core in a network-on-chip (NoC) based system-on-chip (SoC) architecture, a payload for communication to a receiver intellectual property (IP) core; identifying, by the NI, one or more different blocks between the payload and a payload of a previous packet communicated between the sender IP core and the receiver IP core; and encrypting, by the NI, the one or more different blocks to create encrypted blocks of an encrypted payload.

Systems and methods for determining network topology by implementing the security parameter index (“SPI”) to map network nodes that are behind a network address translation (“NAT”) address are disclosed.

Techniques discussed herein relate to providing composable edge devices. In some embodiments, a user request specifying a set of services to be executed at a cloud-computing edge device may be received by a computing device operated by a cloud computing provider. A manifest may be generated in accordance with the user request. The manifest may specify a configuration for the cloud-computing edge device. Another request can be received specifying the same or a different set of services to be executed at another edge device. Another manifest which specifies the configuration for that edge device may be generated and subsequently used to provision the request set of services on that device. In this manner, manifests can be used to compose the platform to be utilized at any given edge device.

There is disclosed in one example a gateway apparatus, including: a hardware platform including a processor and a memory; and instructions stored within the memory to instruct the processor to: provide a domain name system (DNS) server, the DNS server to provide an encrypted DNS service, and to cache resolved domain names; receive an outgoing network packet; determine a destination address of the outgoing network packet; and upon determining that the destination address was not cached, apply a security policy.

Methods and apparatuses for security communication. A method performed by a first communication device includes determining whether a length of an Internet protocol, IP, datagram is larger than a threshold. The method further includes, when the length of the IP datagram is larger than the threshold, fragmenting the IP datagram into two or more IP packets. The length of each of two or more IP packets is not larger than the threshold and each of the two or more IP packets is filled with fragmentation information. The method further includes processing the two or more IP packets to generate two or more corresponding IP security, IPsec, packets. The method further includes sending the two or more corresponding IPsec packets to a second communication device.

Embodiments of this application provide a digital rights management DRM method, apparatus, and system, to implement a DRM interworking operation between DRM servers and clients of different vendors. The method includes: A DRM server encrypts a first media file by using a first encryption method to obtain a first encrypted media file; the DRM server generates content protection description information of the first encrypted media file, where the content protection description information includes a content identifier and encryption method information, the content identifier identifies the first encrypted media file, and the encryption method information identifies the first encryption method; the DRM server performs first formatting on the content protection description information to generate formatted content protection data; the DRM server encapsulates the formatted content protection data to generate a content protection data packet.

Described herein are systems, methods, and software to manage secure tunnel communications in multi-edge gateway computing environments. In one implementation, a control system identifies an edge gateway from a plurality of edge gateways to support a private network tunnel. The control system further identifies addressing attributes associated with communications directed over the private network tunnel and configures the plurality of edge gateways to forward packets associated with the addressing attributes to the identified edge gateway, wherein the edge gateway can process and forward the packets over the private network tunnel.

Methods, systems and computer readable media are disclosed for providing scalable and secured connectivity per Internet Protocol Security (IPSEC) tunnel. In one embodiment a method includes spreading Encapsulating Security Payload (ESP) encryption for a same IPSEC tunnel across multiple backend application servers; and processing application flows using decrypted packets by embedding the Application Server instance-id in ESP and application packets for correlation with application packet flows.