A computer-implemented method includes associating callback code with an instance of a container class. The callback code includes a callback operation to be performed automatically responsive to a container action. Initiation of the container action in the instance of the container class is detected. The callback code is automatically executed, by a computer processor, responsive to the initiation of the container action.

This application discloses a data interaction method, for implementing data interaction between a web page module and a functional module of an application. The web page module includes at least one interaction API. The method includes: receiving an interaction request from a target interaction API in the web page module, where the interaction request includes an identifier of a target functional module with which the web page module requests to interact; determining, according to a preset corresponding relationship between interaction APIs and parsing modules, a target parsing module corresponding to the target interaction API; and sending the identifier of the target functional module to the target parsing module, for the target parsing module to call the target functional module to implement a corresponding function.

Embodiments are provided for formal objects and executors. In one embodiment, a formal object serialization allows retrieving the object value using a Get method, writing the object value using a Write method, and reading the object value using a Read method. In one embodiment, a formal object validation uses a validator to validate assignments to the object value. Formal validation and serialization may be combined. In one embodiment, a formal executor is guaranteed to be closed regardless of whether an error has occurred or not.

The present disclosure relates to a processor that includes one or more processing elements associated with one or more instruction set architectures. The processor is configured to receive a request from an application executed by a first processing element of the one or more processing elements to enable a feature associated with an instruction set architecture. Additionally, the processor is configured to enable the application to utilize the feature without a system call occurring when the feature is associated with an instruction set architecture associated with the first processing element.

An augmenting system for augmenting a program's original class with an augmenting class is provided. In some embodiments, the augmenting system receives a definition of an augmenting class that includes a data member. The augmenting system generates resolution code for the computer program. The resolution code is for accessing a reference to an original instance of the original class and providing a reference to a corresponding augmenting instance of the augmenting class. When processing a statement of the computer program that accesses the data member using the reference to the original instance, the augmenting system generates access code for the computer program. The access code uses the resolution code to retrieve the reference to the augmenting instance for the original instance and accesses the data member based on the retrieved reference to the augmenting instance.

A system for an agnostic runtime architecture. The system includes a close to bare metal JIT conversion layer, a runtime native instruction assembly component included within the conversion layer for receiving instructions from a guest virtual machine, and a runtime native instruction sequence formation component included within the conversion layer for receiving instructions from native code. The system further includes a dynamic sequence block-based instruction mapping component included within the conversion layer for code cache allocation and metadata creation, and is coupled to receive inputs from the runtime native instruction assembly component and the runtime native instruction sequence formation component, and wherein the dynamic sequence block-based instruction mapping component receives resulting processed instructions from the runtime native instruction assembly component and the runtime native instruction sequence formation component and allocates the resulting processed instructions to a processor for execution.

A computing device that is configured for remotely invoking dynamic classes is described. The computing device includes a processor, memory in electronic communication with the processor and instructions stored in the memory. The computing device deploys one or more assemblies, which are used by an unreferenced derived class. A byte array that includes the unreferenced derived class is received from a remote node. The unreferenced derived class includes an implementation of a common base class. The computing device further receives a class name and one or more assembly names from the remote node. The computing device decodes the byte array to reconstitute the unreferenced derived class and calls the implementation of the common base class. One or more operations may be performed with the unreferenced derived class.

Communications using the common object request broker architecture (CORBA) is disclosed. The communications are between a first computing device and a second computing device separated by a NAT device. The first computing device issues a request conforming to the CORBA protocol to obtain an IOR for an object from the second computing device. A first request interceptor on the first device adds a public IP address of the second computing device as user-defined data in the request. A second request interceptor on the second computing device extracts the IP address from the request and stores it. The second computing device builds the IOR for the object including embedding the public IP address of the second computing device in the IOR. The second computing device sends the IOR to the first computing device. The first computing device then establishes a successful connection to the public IP address received in the IOR.

Systems, methods, and apparatuses relating to circuitry to implement individually revocable capabilities for enforcing temporal memory safety are described. In one embodiment, a hardware processor comprises an execution unit to execute an instruction to request access to a block of memory through a pointer to the block of memory, and a memory controller circuit to allow access to the block of memory when an allocated object tag in the pointer is validated with an allocated object tag in an entry of a capability table in memory that is indexed by an index value in the pointer, wherein the memory controller circuit is to clear the allocated object tag in the capability table when a corresponding object is deallocated.

The described technology is directed towards a factory identification system, in which a factory object is provided with a factory identifier (ID) that specifies information regarding a desired object that is more specific than specifying an interface. Additional construction parameters such as an object ID may be provided to further describe the desired object. Also described are object caching and reuse, and tagging the object with information that may be preserved and later used to recreate an object.