Abstract: In one embodiment, a device obtains transaction data regarding a transaction attempted within a software development environment, wherein the transaction data is captured by instrumentation code inserted into the software development environment at runtime. The device identifies, based on the transaction data, an access policy for the transaction. The device makes, based on the access policy, a determination that the transaction is not authorized. The device causes, via the instrumentation code, the transaction to be blocked from completing within the software development environment.

Abstract: Methods that can facilitate more optimized relocation of data associated with a memory are presented. In addition to a memory controller component, a memory manager component can be employed to increase available processing resources to facilitate more optimal execution of higher level functions. Higher level functions can be delegated to the memory manager component to allow execution of these higher level operations with reduced or no load on the memory controller component resources. A uni-bus or multi-bus architecture can be employed to further optimize data relocation operations. A first bus can be utilized for data access operations including read, write, erase, refresh, or combinations thereof, among others, while a second bus can be designated for higher level operations including data compaction, error code correction, wear leveling, or combinations thereof, among others.

Abstract: Methods that can facilitate more optimized relocation of data associated with a memory are presented. In addition to a memory controller component, a memory manager component can be employed to increase available processing resources to facilitate more optimal execution of higher level functions. Higher level functions can be delegated to the memory manager component to allow execution of these higher level operations with reduced or no load on the memory controller component resources. A uni-bus or multi-bus architecture can be employed to further optimize data relocation operations. A first bus can be utilized for data access operations including read, write, erase, refresh, or combinations thereof, among others, while a second bus can be designated for higher level operations including data compaction, error code correction, wear leveling, or combinations thereof, among others.

Abstract: A novel system for installing, wiring and controlling electrical outlets is disclosed. The system includes a mounting bracket, a self-contained receptacle, and an option control module. The mounting bracket has preconfigured embedded conductors to facilitate the mounting of electrical outlets thereto. The self-contained receptacle includes a self-contained electrical outlet having face-mounted counter bored connecting screws for electrically connecting the self-contained receptacle to the embedded conductors of the mounting bracket. The optional control module may wirelessly receive instructions for controlling an electrical output of the self-contained receptacle.

Abstract: A system for managing process automation with a macro bot is provided. By allowing for modifications to RPA bot behavior without changing the code of the RPA bots and providing for an efficient querying and reporting function, the system addresses a number of computer technology-centric challenges. The system allows the entity to push updates to bot behavior through a rules database without individually reconfiguring each bot. This ensures that the functionality of the bots may be updated for future entity needs and objectives while minimizing bot downtime. Furthermore, providing updates without changing the code of the bots allows the system to increase computing efficiency by reducing the demands on computer resources associated with applying a system-wide update, such as processing power, memory space, storage space, cache space, electric power, and networking bandwidth.

Abstract: Methods that can facilitate more optimized relocation of data associated with a memory are presented. In addition to a memory controller component, a memory manager component can be employed to increase available processing resources to facilitate more optimal execution of higher level functions. Higher level functions can be delegated to the memory manager component to allow execution of these higher level operations with reduced or no load on the memory controller component resources. A uni-bus or multi-bus architecture can be employed to further optimize data relocation operations. A first bus can be utilized for data access operations including read, write, erase, refresh, or combinations thereof, among others, while a second bus can be designated for higher level operations including data compaction, error code correction, wear leveling, or combinations thereof, among others.

Abstract: Methods that can facilitate more optimized relocation of data associated with a memory are presented. In addition to a memory controller component, a memory manager component can be employed to increase available processing resources to facilitate more optimal execution of higher level functions. Higher level functions can be delegated to the memory manager component to allow execution of these higher level operations with reduced or no load on the memory controller component resources. A uni-bus or multi-bus architecture can be employed to further optimize data relocation operations. A first bus can be utilized for data access operations including read, write, erase, refresh, or combinations thereof, among others, while a second bus can be designated for higher level operations including data compaction, error code correction, wear leveling, or combinations thereof, among others.

Abstract: A system for managing process automation with a macro bot is provided. By allowing for modifications to RPA bot behavior without changing the code of the RPA bots and providing for an efficient querying and reporting function, the system addresses a number of computer technology-centric challenges. The system allows the entity to push updates to bot behavior through a rules database without individually reconfiguring each bot. This ensures that the functionality of the bots may be updated for future entity needs and objectives while minimizing bot downtime. Furthermore, providing updates without changing the code of the bots allows the system to increase computing efficiency by reducing the demands on computer resources associated with applying a system-wide update, such as processing power, memory space, storage space, cache space, electric power, and networking bandwidth.

Abstract: A system for managing process automation with a macro bot is provided. By allowing for modifications to RPA bot behavior without changing the code of the RPA bots and providing for an efficient querying and reporting function, the system addresses a number of computer technology-centric challenges. The system allows the entity to push updates to bot behavior through a rules database without individually reconfiguring each bot. This ensures that the functionality of the bots may be updated for future entity needs and objectives while minimizing bot downtime. Furthermore, providing updates without changing the code of the bots allows the system to increase computing efficiency by reducing the demands on computer resources associated with applying a system-wide update, such as processing power, memory space, storage space, cache space, electric power, and networking bandwidth.

Abstract: Systems, computer program products, and methods are described herein for implementing a robotic process automation using controller execution model. The present invention is configured to receive electronically, from a user computing device, a request to establish a communication link with a hosted virtual desktop (HVD) bot; determine a controller hosted virtual desktop (CHVD) hub associated with the HVD bot, wherein the CHVD hub comprises one or more HVD bots connected to the CHVD hub in a hub-and-spoke configuration, wherein the HVD bot is accessible only via the CHVD hub; receive one or more authentication credentials associated with the CHVD from an encrypted credential repository; validate the one or more authentication credentials associated with the CHVD, wherein validating further comprises authorizing the user computing device to access to the CHVD hub; and establish a communication link between the user computing device and the HVD bot, via the CHVD.

Abstract: Systems, computer program products, and methods are described herein for implementing a robotic process automation using controller execution model. The present invention is configured to receive electronically, from a user computing device, a request to establish a communication link with a hosted virtual desktop (HVD) bot; determine a controller hosted virtual desktop (CHVD) hub associated with the HVD bot, wherein the CHVD hub comprises one or more HVD bots connected to the CHVD hub in a hub-and-spoke configuration, wherein the HVD bot is accessible only via the CHVD hub; receive one or more authentication credentials associated with the CHVD from an encrypted credential repository; validate the one or more authentication credentials associated with the CHVD, wherein validating further comprises authorizing the user computing device to access to the CHVD hub; and establish a communication link between the user computing device and the HVD bot, via the CHVD.

Abstract: Systems, computer program products, and methods are described herein for implementing a robotic process automation using controller execution model. The present invention is configured to receive electronically, from a user computing device, a request to establish a communication link with a hosted virtual desktop (HVD) bot; determine a controller hosted virtual desktop (CHVD) hub associated with the HVD bot, wherein the CHVD hub comprises one or more HVD bots connected to the CHVD hub in a hub-and-spoke configuration, wherein the HVD bot is accessible only via the CHVD hub; receive one or more authentication credentials associated with the CHVD from an encrypted credential repository; validate the one or more authentication credentials associated with the CHVD, wherein validating further comprises authorizing the user computing device to access to the CHVD hub; and establish a communication link between the user computing device and the HVD bot, via the CHVD.

Abstract: Methods that can facilitate more optimized relocation of data associated with a memory are presented. In addition to a memory controller component, a memory manager component can be employed to increase available processing resources to facilitate more optimal execution of higher level functions. Higher level functions can be delegated to the memory manager component to allow execution of these higher level operations with reduced or no load on the memory controller component resources. A uni-bus or multi-bus architecture can be employed to further optimize data relocation operations. A first bus can be utilized for data access operations including read, write, erase, refresh, or combinations thereof, among others, while a second bus can be designated for higher level operations including data compaction, error code correction, wear leveling, or combinations thereof, among others.

Abstract: A liposomal composition comprising a sterol-modified lipid and a purified mycobacterial lipid cell wall component or analog or derivative thereof is described. The composition is useful as a lipid antigen-presenting vehicle for the detection of lipid antigen specific biomarker antibodies in antibody containing biological samples in the diagnosis of active tuberculosis. The purified lipid cell wall component is typically a purified mycolic acid or a mixture of mycolic acids from a mycobacterium that produces mycolic acids. The sterol-modified lipid is typically a phospholipid.

Abstract: Systems, computer program products, and methods are described herein for implementing a robotic process automation using controller execution model. The present invention is configured to receive electronically, from a user computing device, a request to establish a communication link with a hosted virtual desktop (HVD) bot; determine a controller hosted virtual desktop (CHVD) hub associated with the HVD bot, wherein the CHVD hub comprises one or more HVD bots connected to the CHVD hub in a hub-and-spoke configuration, wherein the HVD bot is accessible only via the CHVD hub; receive one or more authentication credentials associated with the CHVD from an encrypted credential repository; validate the one or more authentication credentials associated with the CHVD, wherein validating further comprises authorizing the user computing device to access to the CHVD hub; and establish a communication link between the user computing device and the HVD bot, via the CHVD.

Abstract: Methods that can facilitate more optimized relocation of data associated with a memory are presented. In addition to a memory controller component, a memory manager component can be employed to increase available processing resources to facilitate more optimal execution of higher level functions. Higher level functions can be delegated to the memory manager component to allow execution of these higher level operations with reduced or no load on the memory controller component resources. A uni-bus or multi-bus architecture can be employed to further optimize data relocation operations. A first bus can be utilized for data access operations including read, write, erase, refresh, or combinations thereof, among others, while a second bus can be designated for higher level operations including data compaction, error code correction, wear leveling, or combinations thereof, among others.

Abstract: A system for managing process automation with a macro bot is provided. By allowing for modifications to RPA bot behavior without changing the code of the RPA bots and providing for an efficient querying and reporting function, the system addresses a number of computer technology-centric challenges. The system allows the entity to push updates to bot behavior through a rules database without individually reconfiguring each bot. This ensures that the functionality of the bots may be updated for future entity needs and objectives while minimizing bot downtime. Furthermore, providing updates without changing the code of the bots allows the system to increase computing efficiency by reducing the demands on computer resources associated with applying a system-wide update, such as processing power, memory space, storage space, cache space, electric power, and networking bandwidth.

Abstract: Methods that can facilitate more optimized relocation of data associated with a memory are presented. In addition to a memory controller component, a memory manager component can be employed to increase available processing resources to facilitate more optimal execution of higher level functions. Higher level functions can be delegated to the memory manager component to allow execution of these higher level operations with reduced or no load on the memory controller component resources. A uni-bus or multi-bus architecture can be employed to further optimize data relocation operations. A first bus can be utilized for data access operations including read, write, erase, refresh, or combinations thereof, among others, while a second bus can be designated for higher level operations including data compaction, error code correction, wear leveling, or combinations thereof, among others.

Abstract: Methods that can facilitate more optimized relocation of data associated with a memory are presented. In addition to a memory controller component, a memory manager component can be employed to increase available processing resources to facilitate more optimal execution of higher level functions. Higher level functions can be delegated to the memory manager component to allow execution of these higher level operations with reduced or no load on the memory controller component resources. A uni-bus or multi-bus architecture can be employed to further optimize data relocation operations. A first bus can be utilized for data access operations including read, write, erase, refresh, or combinations thereof, among others, while a second bus can be designated for higher level operations including data compaction, error code correction, wear leveling, or combinations thereof, among others.

Abstract: A liposomal composition comprising a sterol-modified lipid and a purified mycobacterial lipid cell wall component or analog or derivative thereof is described. The composition is useful as a lipid antigen-presenting vehicle for the detection of lipid antigen specific biomarker antibodies in antibody containing biological samples in the diagnosis of active tuberculosis. The purified lipid cell wall component is typically a purified mycolic acid or a mixture of mycolic acids from a mycobacterium that produces mycolic acids. The sterol-modified lipid is typically a phospholipid.