Abstract: This disclosure describes techniques for employing an adaptive mechanism in communications among network devices. Adaptive mechanism techniques may include adapting network operations relative to characteristics of devices and/or network access technologies or mechanisms used in the network. Adaptation may help to accommodate a wider variety of types of devices. For instance, adaptive mechanism techniques may include determining, based on characteristics of a device in the network, a forwarding mechanism to be used at an access device to forward data traffic from the device to another device via the network. As such, adaptive mechanism techniques may provide more efficient integration of devices within a complex network, thereby improving network operations.

Abstract: Techniques are described herein for service chaining in fabric networks such that hardware resources can be preserved without service nodes needing additional capabilities. The techniques may include storing a first configuration associated with a first VRF instance of a service forwarding node that is connected to a first service of a service chain sequence. The first configuration may indicate an identifier and a type associated with a second service of the service chain sequence where traffic is to be sent after the first service. Additionally, the techniques may also include storing a second configuration associated with a second VRF instance of the service forwarding node that is connected to the second service. The second configuration may indicate that the second service is a last service of the service chain sequence. When traffic is received at the service forwarding node, the service forwarding node can determine whether the traffic is pre-service traffic or post-service traffic.

Abstract: Techniques and architecture are described that utilize switchport protected flags to provide switchport protected functionality across network devices, e.g., switches, routers, etc., in fabric networks. For example, a first port of a first network device of a fabric network receives a packet from a first host destined for a second host. The second host is onboarded to the fabric network via a second port of a second network device. It is determined (i) if a first protected flag associated with the first port of the first network device is set as true and (ii) if a second protected flag associated with the second host is set as true. Based at least in part on (i) the first protected flag associated with the first port being set as true and (ii) the second protected flag being set as true, the first network device drops the packet.

Abstract: Techniques for a Software-Defined Networking (SDN) controller associated with a multisite network to implement jurisdictional data sovereignty polices in a multisite network, route network traffic flows between user sites and destination services over one or more provider sites, and/or perform a routing operation on the network traffic flow(s) based on the jurisdictional data sovereignty policies. The jurisdictional data sovereignty polices may be implemented using destination group tags (DGTs) and/or source group tags (SGTs). A secure access service edge (SASE) associated with the network controller may generate, store, and distribute the DGTs to provider sites and/or the SGTs to user sites. Based on the SGT and/or DGT associated with a network traffic flow, one or more services may be applied to the network traffic flow, and the network traffic flow may be routed through a particular region of a software-defined access (SDA) transit.

Abstract: Various systems and methods are provided for using various in-core and on-disk data structures to improve the file creation process through the use of previously-occupied inodes. For example, one method involves updating an in-core data structure in response to receiving a command to delete a first file, such that a first node is assigned to the first file, the in-core data structure is stored in a non-persistent computer-readable storage medium, the in-core data structure comprises a plurality of entries, each of the entries comprises information identifying a respective inode of a plurality of inodes as being available, and the updating the in-core data structure comprises storing information regarding the first inode in a first entry of the plurality of entries; and creating a second file, where the creating comprises assigning the first inode to the second file using the information regarding the first inode stored in the first entry.

Abstract: Various systems and methods are provided for using various in-core and on-disk data structures to improve the file creation process through the use of previously-occupied inodes. For example, one method involves updating an in-core data structure in response to receiving a command to delete a first file, such that a first node is assigned to the first file, the in-core data structure is stored in a non-persistent computer-readable storage medium, the in-core data structure comprises a plurality of entries, each of the entries comprises information identifying a respective inode of a plurality of inodes as being available, and the updating the in-core data structure comprises storing information regarding the first inode in a first entry of the plurality of entries; and creating a second file, where the creating comprises assigning the first inode to the second file using the information regarding the first inode stored in the first entry.

Abstract: A system and method for migrating file systems is provided. A file system migration operation copies a plurality of files from a first file system to a second file system. A request to access one of the files being migrated during the file system migration operation results in the creation of a pseudo vnode for the file being requested in the second file system. The pseudo vnode is created prior to creating a vnode for the file in the second file system. In addition, the pseudo vnode is associated with a vnode of the file at the first file system. Information identifying the pseudo vnode is then returned to the application.

Abstract: Systems and methods of scalable language infrastructure for electronic system level tools. In accordance with embodiments of the present invention, knowledge about types, functions and the like is encapsulated in a plurality of intelligent components called active component extension modules that are external to the infrastructure. The infrastructure implements a communication mechanism between the clients and these intelligent components, and acts as a common backbone. The infrastructure itself does not maintain any knowledge about any client, types, functions, etc. In accordance with a method embodiment of the present invention, a request is received from a client of a language infrastructure. The request is forwarded from the language infrastructure to an active component extension module. The active component extension module performs a service responsive to the request.

Abstract: Techniques for optimizing data migration are disclosed. In one particular embodiment, the techniques may be realized as a method for optimizing data migration may comprise receiving a request for initiating a data migration application and migrating, via at least one computer processor, at least one data file from a migration list during the data migration application. The method for optimizing data migration may also comprise monitoring the migration of the at least one data file and determining whether the at least one data file is active during the migration of the at least one data file. The method for optimizing data migration may further comprise deferring the migration of the at least one data file based at least in part on a determination that the at least one data file is active and recording information associated with the at least one data file if the at least one data file is active.

Abstract: Systems and methods of scalable language infrastructure for electronic system level tools. In accordance with embodiments of the present invention, knowledge about types, functions and the like is encapsulated in a plurality of intelligent components called active component extension modules that are external to the infrastructure. The infrastructure implements a communication mechanism between the clients and these intelligent components, and acts as a common backbone. The infrastructure itself does not maintain any knowledge about any client, types, functions, etc. In accordance with a method embodiment of the present invention, a request is received from a client of a language infrastructure. The request is forwarded from the language infrastructure to an active component extension module. The active component extension module performs a service responsive to the request.

Abstract: Systems and methods of scalable language infrastructure for electronic system level tools. In accordance with embodiments of the present invention, knowledge about types, functions and the like is encapsulated in a plurality of intelligent components called active component extension modules that are external to the infrastructure. The infrastructure implements a communication mechanism between the clients and these intelligent components, and acts as a common backbone. The infrastructure itself does not maintain any knowledge about any client, types, functions, etc. In accordance with a method embodiment of the present invention, a request is received from a client of a language infrastructure. The request is forwarded from the language infrastructure to an active component extension module. The active component extension module performs a service responsive to the request.

Abstract: Systems and methods of scalable language infrastructure for electronic system level tools. In accordance with embodiments of the present invention, knowledge about types, functions and the like is encapsulated in a plurality of intelligent components called active component extension modules that are external to the infrastructure. The infrastructure implements a communication mechanism between the clients and these intelligent components, and acts as a common backbone. The infrastructure itself does not maintain any knowledge about any client, types, functions, etc. In accordance with a method embodiment of the present invention, a request is received from a client of a language infrastructure. The request is forwarded from the language infrastructure to an active component extension module. The active component extension module performs a service responsive to the request.

Abstract: The invention relates to a novel complex for oral delivery of drugs, therapeutic protein/peptides and vaccines which are loaded in a Vitamin B2 (VB12) coupled particulate carrier system with spacers in between, the carrier system with spacers having a formula VB12-R′/R″-N wherein, R′ or R″ is spacer and/or agents for derivatization of VB12 to provide either NH2 or COOH or SH groups, and N is the micro or nano particle carriers for the delivery of injectable drugs, therapeutic protein/peptides and vaccines.