Abstract: Systems, devices, and methods for treating a nerve injury in a patient are provided. The system includes an extracellular matrix, a neutralizing element, and a reconstituting element. The extracellular matrix is configured to promote and/or sustain the growth of tissue and/or associated tissue properties proximate the nerve injury.

Abstract: Systems, devices, and methods for treating a nerve injury in a patient are provided herein. The system includes an extracellular matrix, a neutralizing element, and a reconstituting element. The extracellular matrix is configured to promote and/or sustain the growth of tissue and/or associated tissue properties proximate the nerve injury.

Abstract: Techniques disclosed herein describe a variable latency pipe for interleaving instruction tags in a processor. According to one embodiment presented herein, an instruction tag is associated with an instruction upon issue of the instruction from the issue queue. One of a plurality of positions in the latency pipe is determined. The pipe stores one or more instruction tags, each associated with a respective instruction. The pipe also stores the instruction tags in a respective position based on the latency of each respective instruction. The instruction tag is stored at the determined position in the pipe.

Abstract: Techniques disclosed herein describe a variable latency pipe for interleaving instruction tags in a processor. According to one embodiment presented herein, an instruction tag is associated with an instruction upon issue of the instruction from the issue queue. One of a plurality of positions in the latency pipe is determined. The pipe stores one or more instruction tags, each associated with a respective instruction. The pipe also stores the instruction tags in a respective position based on the latency of each respective instruction. The instruction tag is stored at the determined position in the pipe.

Abstract: A system for an Error Correction Code (“ECC”) decoder includes a first decoder and a second decoder. The first decoder is configured to determine a first estimated number of errors in encoded data received at the first decoder and to compare the first estimated number of errors to a first threshold and a second threshold. The second decoder is configured to receive the encoded data when the first estimated number of errors is below the first threshold and is above a second threshold. When the first estimated number of errors is above the first threshold, the first decoder passes the encoded data out of the ECC. The first decoder has a lower power consumption than the second decoder.

Abstract: A system for an Error Correction Code (“ECC”) decoder includes a first decoder and a second decoder. The first decoder is configured to determine a first estimated number of errors in encoded data received at the first decoder and to compare the first estimated number of errors to a first threshold and a second threshold. The second decoder is configured to receive the encoded data when the first estimated number of errors is below the first threshold and is above a second threshold. When the first estimated number of errors is above the first threshold, the first decoder passes the encoded data out of the ECC. The first decoder has a lower power consumption than the second decoder.

Abstract: A solid state storage device, comprising a non-volatile memory configured to store data encoded into a plurality of encoded data groups, each encoded data group of the plurality being encoded using a BCH or Hamming parity scheme, the plurality of encoded data groups being collectively further encoded by a parity scheme using a Low Density Parity Check (LDPC) code, a non-volatile memory controller communicatively coupled to the non-volatile memory and configured to access the plurality of encoded data groups, a first decoder configured to first decode the plurality of encoded data groups by hard-decision decoding the parity in each encoded data group, and a second decoder commutatively coupled to the first decoder and configured to determine the data groups decoded by the first decoder that contain errors, and to decode the parity of the data groups that contain errors using likelihood-of-errors information that is input to the second decoder.

Abstract: Radial poles are placed around a radial actuator target mounted on a body. The poles are separated from a cylindrical surface of the target by radial gaps and adapted to communicate a magnetic flux with it. The radial poles are equipped with electrical control windings and magnetically coupled to form magnetic control circuits. A flux return pole is adjacent to the body, separated from it by an air gap and adapted to communicate a magnetic flux with the radial actuator target. A permanent magnet generates a magnetic bias flux in the magnetic bias circuit formed by the radial actuator target, the radial poles and the magnetic flux return pole. A radial force is exerted on the actuator when the control windings are energized with a current. A Hall effect sensor measures bias magnetic field in the air gap between the magnetic flux return pole and the body.

Abstract: Techniques disclosed herein describe a variable latency pipe for interleaving instruction tags in a processor. According to one embodiment presented herein, an instruction tag is associated with an instruction upon issue of the instruction from the issue queue. One of a plurality of positions in the latency pipe is determined. The pipe stores one or more instruction tags, each associated with a respective instruction. The pipe also stores the instruction tags in a respective position based on the latency of each respective instruction. The instruction tag is stored at the determined position in the pipe.

Abstract: Techniques disclosed herein describe a variable latency pipe for interleaving instruction tags in a processor. According to one embodiment presented herein, an instruction tag is associated with an instruction upon issue of the instruction from the issue queue. One of a plurality of positions in the latency pipe is determined. The pipe stores one or more instruction tags, each associated with a respective instruction. The pipe also stores the instruction tags in a respective position based on the latency of each respective instruction. The instruction tag is stored at the determined position in the pipe.

Abstract: A modular herb grinder. The grinder may include cooperating grinding modules that define a chamber for grinding herbs or the like. The grinder may also include one or more integrated tools related to smoking and/or preparing an apparatus for smoking.

Abstract: Radial poles are placed around a radial actuator target mounted on a body. The poles are separated from a cylindrical surface of the target by radial gaps and adapted to communicate a magnetic flux with it. The radial poles are equipped with electrical control windings and magnetically coupled to form magnetic control circuits. A flux return pole is adjacent to the body, separated from it by an air gap and adapted to communicate a magnetic flux with the radial actuator target. A permanent magnet generates a magnetic bias flux in the magnetic bias circuit formed by the radial actuator target, the radial poles and the magnetic flux return pole. A radial force is exerted on the actuator when the control windings are energized with a current. A Hall effect sensor measures bias magnetic field in the air gap between the magnetic flux return pole and the body.