Abstract: The present invention relates to the field of machine learning operations. More particularly, it is directed to apparatus, method, and systems for portable machine learning operations adapted to operate on dissimilar computing systems and provide substantially similar results. A method for exact computation of an optimized set of Lookup Table operations within machine learning is provided. The exact outputs can be used to then further create operations that produce exactly correct results based on the implementation.

Abstract: A connection device is provided. The connection device includes a first transmission terminal, a second transmission terminal, a third connection terminal, a fourth connection terminal, and a circuit wiring zone. The third connection terminal is electrically connected to one end of a cable, and the fourth connection terminal is electrically connected to the other end of the cable. The first transmission terminal is electrically connected to the second transmission terminal through the circuit wiring zone, the third connection terminal, and the fourth connection terminal.

Abstract: A processor includes a branch execution unit to detect a dual basic-block loop type where a second basic block jumps to the start address of a first basic block. The dual basic-block loop includes a predicted loop count to write to an entry of a branch target buffer (BTB). Two basic-blocks loop of the loop prediction from BTB forms a loop buffer in an instruction queues of the processor to seamlessly sending loop instructions from plurality of iterations to the next pipeline stage.

Abstract: A CMOS data clearing circuit is provided. The CMOS data clearing circuit is configured to clear CMOS data of a main board of an electronic device. The electronic device includes a control chip and a pin header. The CMOS data clearing circuit includes a controller and a connection port. The controller generates a pulse signal and an operation signal. The connection port has an input pin and an output pin. The output pin is coupled to a first pin of the pin header. The connection port connects the input pin to the output pin in response to the operation signal, so as to transmit the pulse signal to the first pin of the pin header via the output pin. The control chip clears the CMOS data of the main board according to the pulse signal received by the first pin.

Abstract: A method includes receiving, at a storage client, an input/output (I/O) request from a mainframe application, the input/output (I/O) request being pursuant to a first protocol, the first protocol being a proprietary, mainframe protocol. The storage client may include a plurality of drivers, each driver being associated with a respective one of a plurality of data sources. A first one of the plurality of data sources that is suitable for addressing the I/O request is identified, it being configured to communicate using a second protocol, inconsistent with the first. Configuration data associated with the respective driver of the identified data source is accessed and used to convert the I/O request to a corresponding capability of the identified data source. The I/O request is executed on the identified data source, using the corresponding capability pursuant to the second protocol, and data is received from the identified data source, in response to the I/O request.

Abstract: A self-vibrating pH probe comprise a housing containing an electronic assembly to which is coupled a vibration source element so that at least a portion of vibrations caused by the vibration source element propagate to the electronic assembly, the vibration source element being controllable for at least on/off operation. The self-vibrating pH probe further comprising a pH probe member having a probe tip at a first end, the probe member extending from the housing and mechanically and electrically coupled by a second end to the electronic assembly so that at least a portion of vibrations propagating to the electronic assembly further propagate to the probe tip; and further including a processor coupled to the electronic assembly for coordinating operation of the vibration source element and operation of the pH probe member.

Abstract: A method includes monitoring a job being executed at the source mainframe. A job comprises multiple tasks. A method includes monitoring a particular task of the multiple tasks being executed at a source mainframe and determining an application required to execute the particular task. In response to determining that the particular task requires an application to execute, determining a target mainframe where the application is installed. A method further includes validating the environment of the target mainframe to confirm that the particular task can be executed using the target mainframe, and upon validating the target mainframe, redirecting the particular task to the target mainframe for execution. A method also includes monitoring the particular task being executed at the target mainframe and returning the results of the particular task from the target mainframe to the source mainframe.

Abstract: A processor includes a time counter and issuing instruction and executing instruction at a future time which is based on the time counter. The execution times are based on fixed latency times of instructions with exception of the load instruction which is based on the data cache hit latency time. A data cache miss causes the load instruction to fetch data from the level 2 cache wherein a time tracker unit adjusts the level 2 cache latency time based on a counter.

Abstract: A self-vibrating pH probe comprise a housing containing an electronic assembly to which is coupled a vibration source element so that at least a portion of vibrations caused by the vibration source element propagate to the electronic assembly, the vibration source element being controllable for at least on/off operation. The self-vibrating pH probe further comprising a pH probe member having a probe tip at a first end, the probe member extending from the housing and mechanically and electrically coupled by a second end to the electronic assembly so that at least a portion of vibrations propagating to the electronic assembly further propagate to the probe tip; and further including a processor coupled to the electronic assembly for coordinating operation of the vibration source element and operation of the pH probe member.

Abstract: A self-vibrating pH probe comprise a housing containing an electronic assembly to which is coupled a vibration source element so that at least a portion of vibrations caused by the vibration source element propagate to the electronic assembly, the vibration source element being controllable for at least on/off operation. The self-vibrating pH probe further comprising a pH probe member having a probe tip at a first end, the probe member extending from the housing and mechanically and electrically coupled by a second end to the electronic assembly so that at least a portion of vibrations propagating to the electronic assembly further propagate to the probe tip; and further including a processor coupled to the electronic assembly for coordinating operation of the vibration source element and operation of the pH probe member.

Abstract: A self-vibrating pH probe comprise a housing containing an electronic assembly to which is coupled a vibration source element so that at least a portion of vibrations caused by the vibration source element propagate to the electronic assembly, the vibration source element being controllable for at least on/off operation. The self-vibrating pH probe further comprising a pH probe member having a probe tip at a first end, the probe member extending from the housing and mechanically and electrically coupled by a second end to the electronic assembly so that at least a portion of vibrations propagating to the electronic assembly further propagate to the probe tip; and further including a processor coupled to the electronic assembly for coordinating operation of the vibration source element and operation of the pH probe member.

Abstract: A self-vibrating pH probe comprise a housing containing an electronic assembly to which is coupled a vibration source element so that at least a portion of vibrations caused by the vibration source element propagate to the electronic assembly, the vibration source element being controllable for at least on/off operation. The self-vibrating pH probe further comprising a pH probe member having a probe tip at a first end, the probe member extending from the housing and mechanically and electrically coupled by a second end to the electronic assembly so that at least a portion of vibrations propagating to the electronic assembly further propagate to the probe tip; and further including a processor coupled to the electronic assembly for coordinating operation of the vibration source element and operation of the pH probe member.

Abstract: A method includes receiving, from a client device, an input/output (I/O) request pursuant to a first protocol, the first protocol being a standards-based I/O protocol. The I/O request is communicated to a proxy communicatively coupled with a mainframe server, the mainframe server being configured to communicate using a second protocol, the second protocol being a proprietary, mainframe protocol that is inconsistent with the first protocol. The method further includes accessing a database having a mapping of a plurality of I/O requests of the first protocol to a plurality of corresponding capabilities of the second protocol, and converting the I/O request pursuant to the first protocol to a corresponding capability pursuant to the second protocol. Security and management policies associated with the mainframe server are enforced using the proxy and the I/O request is executed on the mainframe server, using the corresponding capability pursuant to the second protocol.

Abstract: Novel tools and techniques are provided for implementing signal encryption or signal authentication. In various embodiments, a second computing system might pack, using a packing function, two or more elements of a second vector associated with a third entity to generate a packed second vector; might individually encrypt, using a generated public key received from a first computing system, each element of the packed second vector to generate an encrypted packed second vector; might pack two or more elements of an encrypted first vector from the first computing system to generate a packed encrypted first vector; might combine the encrypted packed second vector with the packed encrypted first vector to generate a combined packed encrypted vector; and might send the combined packed encrypted vector to the first computing system for generating a similarity score that is indicative of differences between the second vector and the first vector.

Abstract: A method includes monitoring a job being executed at the source mainframe. A job comprises multiple tasks. A method includes monitoring a particular task of the multiple tasks being executed at a source mainframe and determining an application required to execute the particular task. In response to determining that the particular task requires an application to execute, determining a target mainframe where the application is installed. A method further includes validating the environment of the target mainframe to confirm that the particular task can be executed using the target mainframe, and upon validating the target mainframe, redirecting the particular task to the target mainframe for execution. A method also includes monitoring the particular task being executed at the target mainframe and returning the results of the particular task from the target mainframe to the source mainframe.

Abstract: An eight-transistor (8T) Static Random-Access Memory (SRAM) cell has four latch transistors, and pairs of n-channel and p-channel pass transistors in parallel to only one pair of bit lines. During read, only the read word line and the n-channel pass transistors are activated, but during a write both the read word line and an extra write word line are activated to turn on all four pass transistors. The cell is powered by VDDM, one threshold above the normal VDD power supply of the read sense and write drivers and interfaces. The bit lines are precharged to VDD but pulled up to VDDM by a latch of cross-coupled p-channel transistors. Any p-channel transistors that connect to the bit lines are driven inactive by VDDM. The read margin is largely decoupled from the write margin by two additional p-channel pass transistors and one extra word line versus a standard 6T cell.

Abstract: An example method comprises receiving, at a first digital device, video data, scanning video content of the video data for visual transitions within the video content between consecutive frames of the video data, each transition indicating significant visual transitions relative to other frames of the video data, timestamping each visual transition and create a first set of temporal video fingerprints, identifying items of metadata to be associated with the video data, identifying a location within the video data using the temporal video fingerprints for the identified items of metadata, generating a metadata index identifying each item of metadata and a location for each item of metadata relative to the video data using at least one of the temporal video fingerprints, and transmitting, at the first digital device, the video data, the first set of temporal video fingerprints, and the metadata index to a different digital device.

Abstract: A multi-pass UV inkjet printer for outputting high glossy varnish and a printing method using the same includes providing a side UV light irradiation device at a side of an inkjet module and a front UV light irradiation device in front of the inkjet module not overlapped by a varnish print head. During output of the varnish, varnish outputted on a substrate in the nth pass is passed under the side UV light irradiation device with a lower UV irradiation power during or after the n+1th pass performed by the UV inkjet printer for setting or temporarily no curing, and then during or after the next pass, the varnish is passed under the front UV light irradiation device with a higher UV irradiation power for complete curing, thereby increasing production yield.

Abstract: An example method comprises receiving, at a first digital device, video data, scanning video content of the video data for visual transitions within the video content between consecutive frames of the video data, each transition indicating significant visual transitions relative to other frames of the video data, timestamping each visual transition and create a first set of temporal video fingerprints, identifying items of metadata to be associated with the video data, identifying a location within the video data using the temporal video fingerprints for the identified items of metadata, generating a metadata index identifying each item of metadata and a location for each item of metadata relative to the video data using at least one of the temporal video fingerprints, and transmitting, at the first digital device, the video data, the first set of temporal video fingerprints, and the metadata index to a different digital device.

Abstract: An example method comprises receiving, at a first digital device, video data, scanning video content of the video data for visual transitions within the video content between consecutive frames of the video data, each transition indicating significant visual transitions relative to other frames of the video data, timestamping each visual transition and create a first set of temporal video fingerprints, identifying items of metadata to be associated with the video data, identifying a location within the video data using the temporal video fingerprints for the identified items of metadata, generating a metadata index identifying each item of metadata and a location for each item of metadata relative to the video data using at least one of the temporal video fingerprints, and transmitting, at the first digital device, the video data, the first set of temporal video fingerprints, and the metadata index to a different digital device.