Abstract: Introduced here is an artificial intelligence system designed for machine learning. The system may be based on a neuromorphic computational model that learns spatial patterns in inputs using data structures called Sparse Distributed Representations (SDRs) to represent the inputs. Moreover, the system can generate signatures for these SDRs, and these signatures may be used to create definitions of classes or subclasses for classification purposes.

Abstract: A pressure monitor is provided for reporting pressure exerted by each of a plurality of core muscles of a user, the pressure monitor comprising: an adjustable belt, the adjustable belt including an inner surface and an outer surface; a plurality of pressure sensors movably mounted on the inner surface of the adjustable belt; a microcontroller which is mounted on the belt and is in electronic communication with each of the plurality of pressure sensors; and a user interface, the user interface in communication with the microcontroller.

Abstract: Introduced here are integrated circuits (also referred to as “chips”) that can be implemented in a neural processing unit. At a high level, the goal of these chips is to provide higher performance for machine learning algorithms than conventional processing units would. To accomplish this, the neural processing unit can include multiple computing components, each of which is able to independently determine the overlap between encoded data provided as input and values stored in a memory.

Abstract: A memory channel including an internal clock circuit is disclosed. The clock circuit may synthesize an internal clock signal for use by one or more components of the memory channel. The internal clock signal may have a different frequency than an external clock frequency. The memory channel may include multiple clock circuits that generate multiple internal clock signals. Each portion of the memory channel associated with a different clock circuit may be phase and/or frequency independent of the other portions of the memory channel. The clock circuit may synthesize an internal clock signal based on an external clock signal. The clock circuit may use encoded timing data from an encoded I/O scheme to align the phase of the internal clock signal to a data signal.

Abstract: A memory channel including an internal clock circuit is disclosed. The clock circuit may synthesize an internal clock signal for use by one or more components of the memory channel. The internal clock signal may have a different frequency than an external clock frequency. The memory channel may include multiple clock circuits that generate multiple internal clock signals. Each portion of the memory channel associated with a different clock circuit may be phase and/or frequency independent of the other portions of the memory channel. The clock circuit may synthesize an internal clock signal based on an external clock signal. The clock circuit may use encoded timing data from an encoded I/O scheme to align the phase of the internal clock signal to a data signal.

Abstract: A memory channel including an internal clock circuit is disclosed. The clock circuit may synthesize an internal clock signal for use by one or more components of the memory channel. The internal clock signal may have a different frequency than an external clock frequency. The memory channel may include multiple clock circuits that generate multiple internal clock signals. Each portion of the memory channel associated with a different clock circuit may be phase and/or frequency independent of the other portions of the memory channel. The clock circuit may synthesize an internal clock signal based on an external clock signal. The clock circuit may use encoded timing data from an encoded I/O scheme to align the phase of the internal clock signal to a data signal.

Abstract: A shed forming device for a weaving machine comprising motion systems consisting of hooks that are moveable up and down, transmission elements to transmit the hook motion to a carrier for warp threads, a first force element to exert a downward-directed force on the carrier, and an energy buffer and a second force element to exert a force on an element of the motion system that results in an upward-directed force on the carrier so that the element is so deformed or displaced that the elements of the motion system are kept under tension.

Abstract: A shed forming device for a weaving machine comprising motion systems consisting of hooks that are moveable up and down, transmission elements to transmit the hook motion to a carrier for warp threads, a first force element to exert a downward-directed force on the carrier, and an energy buffer and a second force element to exert a force on an element of the motion system that results in an upward-directed force on the carrier so that the element is so deformed or displaced that the elements of the motion system are kept under tension.

Abstract: A memory channel including an internal clock circuit is disclosed. The clock circuit may synthesize an internal clock signal for use by one or more components of the memory channel. The internal clock signal may have a different frequency than an external clock frequency. The memory channel may include multiple clock circuits that generate multiple internal clock signals. Each portion of the memory channel associated with a different clock circuit may be phase and/or frequency independent of the other portions of the memory channel. The clock circuit may synthesize an internal clock signal based on an external clock signal. The clock circuit may use encoded timing data from an encoded I/O scheme to align the phase of the internal clock signal to a data signal.

Abstract: A memory channel including an internal clock circuit is disclosed. The clock circuit may synthesize an internal clock signal for use by one or more components of the memory channel. The internal clock signal may have a different frequency than an external clock frequency. The memory channel may include multiple clock circuits that generate multiple internal clock signals. Each portion of the memory channel associated with a different clock circuit may be phase and/or frequency independent of the other portions of the memory channel. The clock circuit may synthesize an internal clock signal based on an external clock signal. The clock circuit may use encoded timing data from an encoded I/O scheme to align the phase of the internal clock signal to a data signal.

Abstract: A memory channel including an internal clock circuit is disclosed. The clock circuit may synthesize an internal clock signal for use by one or more components of the memory channel. The internal clock signal may have a different frequency than an external clock frequency. The memory channel may include multiple clock circuits that generate multiple internal clock signals. Each portion of the memory channel associated with a different clock circuit may be phase and/or frequency independent of the other portions of the memory channel. The clock circuit may synthesize an internal clock signal based on an external clock signal. The clock circuit may use encoded timing data from an encoded I/O scheme to align the phase of the internal clock signal to a data signal.