Abstract: A branch prediction system is configured to perform a method that includes identifying processor branch instructions and building branch target buffer (BTB) branch prediction entries corresponding to the branch instructions. The BTB branch prediction entries are stored in a hierarchy of BTBs. Target branch instruction are identified that have a target BTB entry following execution of a first branch instruction having a first BTB branch prediction entry. A target BTB entry reference is added to the first BTB branch prediction entry.

Abstract: Branch target buffer structures are provided. A device can include a hierarchy of branch target buffers storing entries corresponding to branch instructions, the hierarchy of branch target buffers including respective branch target buffers that have progressively slower access times. The device can include a first program counter configured to generate a first program counter value associated with a next instruction of an executing application. The device can include a second program counter configured to predict a second program counter value that is associated with a subsequent instruction of the executing application that is after the next instruction. The device can include first branch prediction circuitry configured to populate a branch target buffer of the branch target buffers based on the second program counter value.

Abstract: Improved branch target buffer (BTB) structures are provided. A device can include branch target buffers storing entries corresponding to branch instructions and corresponding targets of the branch instructions. The device can include a victim cache storing a branch target buffer entry that has been evicted from a branch target buffer of the branch target buffers. The device can include branch prediction circuitry configured to access the victim cache responsive to receiving respective miss indications from each branch target buffer of the branch target buffers.

Abstract: Modular autonomous mobile fence, delimiter of grazing areas. It consists of two structures (10, 20) arranged opposite and distant from each other. Each structure (10, 20) is composed of at least two movable towers, arranged at the ends of the very same row and structurally linked to each other to form a movable row. An electric wire conductor (14, 15) is arranged between these two rows (10, 20) and forms a closed quadrilateral that delimits a closed grazing area (16). Said rows with towers and the area delimited by the electric fence can be selectively moved from one lot to the next, together with the animals kept therein. Said electric fence must have means of separation (31, 32) of the electric conductor from the ground (14, 15) and at least one of the mentioned towers must have means of tensioning (34) the electric conductor.

Abstract: Modular autonomous mobile fence, delimiter of grazing areas. It consists of two structures (10, 20) arranged opposite and distant from each other. Each structure (10, 20) is composed of at least two movable towers, arranged at the ends of the very same row and structurally linked to each other to form a movable row. An electric wire conductor (14, 15) is arranged between these two rows (10, 20) and forms a closed quadrilateral that delimits a closed grazing area (16). Said rows with towers and the area delimited by the electric fence can be selectively moved from one lot to the next, together with the animals kept therein. Said electric fence must have means of separation (31, 32) of the electric conductor from the ground (14, 15) and at least one of the mentioned towers must have means of tensioning (34) the electric conductor.

Abstract: Adapters for a connector assembly for percutaneous tubing are provided. A male adapter (FIG. 22a, 1000) includes a connector fitting (1002) proximate a first end, the connector fitting configured to join to a connector for a tubing system or device, and a male connector (656) proximate a second end. The male connector includes a plug end with a fluid lumen defined therethrough, the plug end having a circumferential groove defined therein to receive a locking extension of a female connector sized to be received within the circumferential groove of the plug end to allow the female connector to rotate relative to and maintain axial engagement with the male connector when the locking extension is received within the groove. An adapter having a female connector (FIG. 24, 1300) is also provided.

Abstract: Connector assembly (FIG. 4a) includes a shell (210), a connector body (230), and a plug (250). The shell (210) has a sidewall (212) defining an interior, a first shell end having a first opening (214) defined therein, and a second shell end having a second opening (216) defined therein, each of the first (214) and second openings (216) in communication with the interior to receive percutaneous tubing therethrough, the shell (210) further having an engagement portion. The connector body (230) has a first body end (234) and a second body end (236) with a tube lumen defined therethrough, the first body end (234) having a connector tip (237), the connector body (230) having an engaging portion to engage the engagement portion of the shell (210). The plug (250) has a first plug end and a second plug end with a fluid lumen defined therethrough, the first plug end having a plug tip (257) extending therefrom.

Abstract: A processor includes a cache-side address monitor unit corresponding to a first cache portion of a distributed cache that has a total number of cache-side address monitor storage locations less than a total number of logical processors of the processor. Each cache-side address monitor storage location is to store an address to be monitored. A core-side address monitor unit corresponds to a first core and has a same number of core-side address monitor storage locations as a number of logical processors of the first core. Each core-side address monitor storage location is to store an address, and a monitor state for a different corresponding logical processor of the first core. A cache-side address monitor storage overflow unit corresponds to the first cache portion, and is to enforce an address monitor storage overflow policy when no unused cache-side address monitor storage location is available to store an address to be monitored.

Abstract: A one piece elegant vest design with side closures for pets has a white breast band simulating a shirt, a bow tie and a double sided hook and loop fastening system for closing the vest about a pet. The fastening system includes large hook and loop fastening system strips on a lower portion of the vest that match with a series of short hook and loop fastening system strips on an upper portion of the vest facilitate putting the vest on and off of a pet very rapidly and securely.

Abstract: In an embodiment, an apparatus comprises: a first component to perform coherent operations; and a coherent fabric logic coupled to the first component via a first component interface. The coherent fabric logic may be configured to perform full coherent fabric functionality for coherent communications between the first component and a second component coupled to the coherent fabric logic. The first component may include a packetization logic to communicate packets with the coherent fabric logic, but not include coherent interconnect interface logic to perform coherent fabric functionality. Other embodiments are described and claimed.

Abstract: Adapters for a connector assembly for percutaneous tubing are provided. A male adapter (FIG. 22a, 1000) includes a connector fitting (1002) proximate a first end, the connector fitting configured to join to a connector for a tubing system or device, and a male connector (656) proximate a second end. The male connector includes a plug end with a fluid lumen defined therethrough, the plug end having a circumferential groove defined therein to receive a locking extension of a female connector sized to be received within the circumferential groove of the plug end to allow the female connector to rotate relative to and maintain axial engagement with the male connector when the locking extension is received within the groove. An adapter having a female connector (FIG. 24, 1300) is also provided.

Abstract: Connector assembly (FIG. 4a) includes a shell (210), a connector body (230), and a plug (250). The shell (210) has a sidewall (212) defining an interior, a first shell end having a first opening (214) defined therein, and a second shell end having a second opening (216) defined therein, each of the first (214) and second openings (216) in communication with the interior to receive percutaneous tubing therethrough, the shell (210) further having an engagement portion. The connector body (230) has a first body end (234) and a second body end (236) with a tube lumen defined therethrough, the first body end (234) having a connector tip (237), the connector body (230) having an engaging portion to engage the engagement portion of the shell (210). The plug (250) has a first plug end and a second plug end with a fluid lumen defined therethrough, the first plug end having a plug tip (257) extending therefrom.

Abstract: One piece elegant vest design with side closures for pets (animals) with a white shirt, bow-ties and a double sided closure and fastening Velcro system, one of the most advanced and efficient solutions for pet's clothing design that consists of using a series or Velcro straps placed in the way I propose, facilitate to put the vest on and off very rapidly and securely allowing the pet to feel comfortable with security that the vest that we put on the pet is not going to get loose. Unlike regular clothing fastened with Velcro with the problem of loose fitting, there is the need to make regular and frequent adjustments to the clothing otherwise it could get loose or too tight on the pet. The closure and fastening system that this invention proposes has been designed to solve the problem of the putting of the vest to achieve full satisfaction, for which focuses on its characteristics in the fact of a combination of a quick double side fastening system male and female for rapid and secure subjection.

Abstract: In an embodiment, an apparatus comprises: a first component to perform coherent operations; and a coherent fabric logic coupled to the first component via a first component interface. The coherent fabric logic may be configured to perform full coherent fabric functionality for coherent communications between the first component and a second component coupled to the coherent fabric logic. The first component may include a packetization logic to communicate packets with the coherent fabric logic, but not include coherent interconnect interface logic to perform coherent fabric functionality. Other embodiments are described and claimed.

Abstract: A processor includes a cache-side address monitor unit corresponding to a first cache portion of a distributed cache that has a total number of cache-side address monitor storage locations less than a total number of logical processors of the processor. Each cache-side address monitor storage location is to store an address to be monitored. A core-side address monitor unit corresponds to a first core and has a same number of core-side address monitor storage locations as a number of logical processors of the first core. Each core-side address monitor storage location is to store an address, and a monitor state for a different corresponding logical processor of the first core. A cache-side address monitor storage overflow unit corresponds to the first cache portion, and is to enforce an address monitor storage overflow policy when no unused cache-side address monitor storage location is available to store an address to be monitored.

Abstract: A cache-coherent device may include multiple caches and a cache coherency engine, which monitors whether there are more than one versions of a cache line stored in the caches and whether the version of the cache line in the caches is consistent with the version of the cache line stored in the memory.

Abstract: Method and apparatus to efficiently detect/correct memory errors. A command and an address associated with a data transaction may be received. Parity information associated with the command/address may be received. In response to detecting a parity error, a data array of a memory device may be locked. An indicator indicating the parity error may be sent. A first portion of a memory page to store data may be reserved. A second portion of the memory page to store error correction codes associated with the data may be reserved. The second portion's size may equal or exceed the error correction code capacity needed for the maximum possible data stored in the first portion. A cache line of data may be stored in the first portion. An error correction code associated with the cache line of data may be stored in the second portion.