Abstract: Embodiments include multi-processor systems, including multi-core processor systems, as well as methods for operating the same, in which at least one processor or processor core is configured to receive an instruction directing the at least one processor core to read a value associated with a memory address. In response to receiving the instruction and before execution of the instruction, the at least one processor or processor core causes ones of the plurality of mutually communicatively inter-coupled processor cores to provide a plurality of locally stored values that are stored individually in the respective processor cores and that are associated with the memory address.

Abstract: In various embodiments, the present disclosure provides a system comprising a first plurality of processing cores, ones of the first plurality of processing cores coupled to a respective core interface module among a first plurality of core interface modules, the first plurality of core interface modules configured to be coupled to form in a first ring network of processing cores; a second plurality of processing cores, ones of the second plurality of processing cores coupled to a respective core interface module among a second plurality of core interface modules, the second plurality of core interface modules configured to be coupled to form a second ring network of processing cores; a first global interface module to form an interface between the first ring network and a third ring network; and a second global interface module to form an interface between the second ring network and the third ring network.

Abstract: Embodiments include multi-processor systems, including multi-core processor systems, as well as methods for operating the same, in which at least one processor or processor core is configured to receive an instruction directing the at least one processor core to read a value associated with a memory address. In response to receiving the instruction and before execution of the instruction, the at least one processor or processor core causes ones of the plurality of mutually communicatively inter-coupled processor cores to provide a plurality of locally stored values that are stored individually in the respective processor cores and that are associated with the memory address.

Abstract: An advanced split ODU architecture is provided. The advanced architecture includes an indoor communication unit including a digital modem assembly configured to modulate and demodulate digital data, and also includes a digital interface module configured to transmit and/or receive the digital data, over a digital communication pathway, between the indoor communication unit and an external outdoor communication unit. The advanced architecture further includes an outdoor communication unit having a digital interface module configured to transmit and/or receive the digital data, over the digital communication pathway, between the outdoor communication unit and an external indoor communication unit, and also includes a digital to analog converter configured to convert the digital data to analog data and an analog to digital converter configured to convert the analog data to the digital data, and further includes an RF module configured to convert the analog data between a baseband and a radio frequency.

Abstract: An apparatus for treating varicose veins includes a catheter (20) where the distal end is placed within a varicose vein and the proximal portion remains outside the body of the subject. A heating element (22) heats the vein. A cooling element (62) can be applied to an external surface of the skin above the vicinity of the heating element. A control unit (26) can drive the heating element to apply heat to the vein simultaneously. Alternatively, the control unit can apply a current to the heating element to resistively heat a resistive element. A method for treating a varicose vein includes inserting the elongated heating element into the vein, and driving the heating element to apply heat to the segment of vein simultaneously from the entire active heating portion.

Abstract: Systems, apparatuses and methods are provided for use in closing punctures in vessel walls. An apparatus may have various combinations of an anchoring device, a positioning device and a heating element for closing a puncture within a vessel wall. An anchoring device may be a balloon, an expansible cage, a wire operated T-anchor, and/or a floating anchor. A positioning device may be a balloon, a sponge, and/or an expansible cage. A heating element may be flexible or rigid and preferably provides heat to target tissue through conduction and convection. A heating element may be flat-ended or dome-shaped. The heating element and anchoring device may be positioned a fixed distance apart to sandwich tissue between the heating element and the anchoring device. The heating element may operate in multiple stages. An initial stage may non-permanently adhere the heating element to the tissue and the subsequent stage may close the puncture.

Abstract: Some of the embodiments of the present disclosure provide a method comprising receiving a data packet that is transmitted over a network; generating classification information for the data packet; and selecting a memory storage mode for the data packet based on the classification information. Other embodiments are also described and claimed.

Abstract: Systems and techniques relating to managing a queue memory include, in some implementations, a method comprising: retrieving stored data from an oldest read entry in a FIFO queue memory having entries formed in hardware upon a first read operation; retrieving stored data from a selected entry in the FIFO queue memory upon a second read operation; and shifting data stored in entries of the FIFO queue memory with respect to the oldest read entry upon the first read operation and with respect to the specified entry upon the second read operation. In addition, some implementations include a queue memory comprising a hardware device having memory entries to receive and store data from a communications interface, wherein the queue memory supports first-in-first-out read operations and out-of-order read operations with data shifting among the entries of the memory relative to a read operation.

Abstract: A hemostasis device including a shaft having a forward end, at least one anchor balloon mounted on the shaft at the forward end and at least one electrical resistance heating element, mounted on the main shaft forward of the at least one anchor element and being operable to enhance hemostasis.

Abstract: Systems, apparatus and methods are provided for closing a puncture in a vessel wall may have various combinations of an anchoring device, a gripping device and a heating element for sealing a puncture within a vessel wall. An anchoring device may be a balloon, floating anchor, an expansible cage and/or a wire operated T-anchor. A gripping device may hold and/or twist the vessel wall to secure the vessel wall in place during heating. A heating element may provide heat to target tissue held by the gripping device.

Abstract: Systems, apparatuses and methods are provided for use in closing punctures in vessel walls. An apparatus may have various combinations of an anchoring device, a positioning device and a heating element for closing a puncture within a vessel wall. An anchoring device may be a balloon, an expansible cage, a wire operated T-anchor, and/or a floating anchor. A positioning device may be a balloon, a sponge, and/or an expansible cage. A heating element may be flexible or rigid and preferably provides heat to target tissue through conduction and convection. A heating element may be flat-ended or dome-shaped. The heating element and anchoring device may be positioned a fixed distance apart to sandwich tissue between the heating element and the anchoring device. The heating element may operate in multiple stages. An initial stage may non-permanently adhere the heating element to the tissue and the subsequent stage may close the puncture.

Abstract: An apparatus for treating varicose veins includes a catheter (20) where the distal end is placed within a varicose vein and the proximal portion remains outside the body of the subject. A heating element (22) heats the vein. A cooling element (62) can be applied to an external surface of the skin above the vicinity of the heating element. A control unit (26) can drive the heating element to apply heat to the vein simultaneously. Alternatively, the control unit can apply a current to the heating element to resistively heat a resistive element. A method for treating a varicose vein includes inserting the elongated heating element into the vein, and driving the heating element to apply heat to the segment of vein simultaneously from the entire active heating portion.

Abstract: The present disclosure includes systems and techniques relating to FIFO queue memory. In general, in one implementation, a queue memory receives and stores information and supports first-in-first-out read and out-of-order read operations with information shifting within the memory relative to a read operation. The queue memory can include a write pointer that increments upon a write operation and decrements upon the read operation, a read pointer that identifies an oldest read entry of the queue memory when the read operation is a first-in-first-out read and that identifies a selected entry of the queue memory when the read operation is an out-of-order read, and a multiplexer operative to select entries of the queue memory responsive to the read pointer.

Abstract: A hemostasis device including a resistance heating element for accelerating hemostasis, a blood resistance sensor and a blood resistance indicator, operative to provide an indication of the resistance at the resistance sensor of blood undergoing hemostasis.

Abstract: Decoding an encoded block of data is accomplished by partitioning the block into a first and a second sub-block and performing forward and backward iterative calculations on the sub-blocks in separate processes. Based on results of the iterative calculations an output matrix may be calculated for each sub-block. The outputs may be combined.

Abstract: Decoding an encoded block of data may be accomplished by partitioning the block into a first and a second sub-block and performing forward and backward iterative calculations on the sub-blocks in separate processes. Based on results of the iterative calculations an output matrix may be calculated for each sub-block. The outputs may be combined.