mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a plurality of host computers (501-504) that are each configured to execute: (i) a first managed physical routing element, MPRE, (551-554) as a local instance of a first logical routing element, LRE, for routing packets between a first set of network segments in a first logical network, and (ii) a second MPRE as a local instance of a second LRE for routing packets between a second set of network segments in a second logical network, characterized in that at least one particular network segment connects the first and second LREs with an edge gateway that executes on a particular host computer and serves as a gateway node at an edge boundary between the first and second logical networks and a set of external networks , wherein the first LRE comprises a first backplane conduit and the second LRE comprises a second backplane conduit , wherein for the edge gateway to process packets, the particular host computer receives packets addressed to a shared MAC address as a shared L2 network address (i) from the first logical network through the first backplane conduit at the particular host computer's first MPRE and (ii) from the second logical network through the second backplane conduit at the particular host computer's second MPRE . a plurality of host computers (501-504) that are each configured to execute: (i) a first managed physical routing element, MPRE, (551-554) as a local instance of a first logical routing element, LRE, for routing packets between a first set of network segments in a first logical network, and (ii) a second MPRE as a local instance of a second LRE for routing packets between a second set of network segments in a second logical network, characterized in that at least one particular network segment connects the first and second LREs with an edge gateway that executes on a particular host computer and serves as a gateway node at an edge boundary between the first and second logical networks and a set of external networks , wherein the first LRE comprises a first backplane conduit and the second LRE comprises a second backplane conduit , wherein for the edge gateway to process packets, the particular host computer receives packets addressed to a shared MAC address as a shared L2 network address (i) from the first logical network through the first backplane conduit at the particular host computer's first MPRE and (ii) from the second logical network through the second backplane conduit at the particular host computer's second MPRE .
A processor comprising: a first core to execute instructions, the first core formed on a first die; and a programmable fabric such as field-programmable gate arrays (FPGA), field programmable neural arrays (FPNA), or field programmable analog arrays (FPAA) having a hierarchical arrangement including a first layer of programmable fabric formed on the first die and a second layer of programmable fabric formed on the first die, the programmable fabric including a fabric interface controller to: receive a first programmable fabric control instruction from the first core; and responsive thereto, cause a first programmable fabric unit of the first layer of programmable fabric to execute an operation on first input data, wherein the first programmable fabric control instruction comprises: a first field to identify the first programmable fabric unit; a second field to identify a number of cycles for the first programmable fabric unit to execute; a third field to indicate a size of the first input data; and a fourth field to indicate a size of first output data to be output by the first programmable fabric unit. a first core to execute instructions, the first core formed on a first die; and a programmable fabric such as field-programmable gate arrays (FPGA), field programmable neural arrays (FPNA), or field programmable analog arrays (FPAA) having a hierarchical arrangement including a first layer of programmable fabric formed on the first die and a second layer of programmable fabric formed on the first die, the programmable fabric including a fabric interface controller to: receive a first programmable fabric control instruction from the first core; and responsive thereto, cause a first programmable fabric unit of the first layer of programmable fabric to execute an operation on first input data, wherein the first programmable fabric control instruction comprises: a first field to identify the first programmable fabric unit; a second field to identify a number of cycles for the first programmable fabric unit to execute; a third field to indicate a size of the first input data; and a fourth field to indicate a size of first output data to be output by the first programmable fabric unit. receive a first programmable fabric control instruction from the first core; and responsive thereto, cause a first programmable fabric unit of the first layer of programmable fabric to execute an operation on first input data, wherein the first programmable fabric control instruction comprises: a first field to identify the first programmable fabric unit; a second field to identify a number of cycles for the first programmable fabric unit to execute; a third field to indicate a size of the first input data; and a fourth field to indicate a size of first output data to be output by the first programmable fabric unit. a first field to identify the first programmable fabric unit; a second field to identify a number of cycles for the first programmable fabric unit to execute; a third field to indicate a size of the first input data; and a fourth field to indicate a size of first output data to be output by the first programmable fabric unit.
A bone graft scaffold clip for use in performing minimally invasive posterolateral spinal fusion where a first pedicle screw is inserted into the pedicle of a first vertebra and a second pedicle screw is inserted into the pedicle of a second first vertebra , and a rod is inserted between the first and second pedicle screw and the tissue surrounding the rod and between the first and second pedicle screws is not exposed, the clip comprising a housing configured to clip onto the shaft of the rod such that, in use, the shaft supports the housing, and the housing further comprises: a first side wall , an opposing second side wall , and an outer wall spanning the first side wall and opposing second side wall and comprising an opening extending inward from the outer wall to receive the shaft such that in use the received shaft extends through the first side wall and the opposing second side wall , an inner surface wherein the radius of the inner surface is selected to approximately match a diameter of the shaft , a cavity defined by the first side wall , second side wall , inner surface and outer wall for receiving bone growth promoting materials via the opening ; and a plurality of apertures in at least the outer wall , which in use allow bone growth promoting material to move out into the surrounding tissue through the plurality of apertures and/or to allow bone to grow through the plurality of apertures . a first side wall , an opposing second side wall , and an outer wall spanning the first side wall and opposing second side wall and comprising an opening extending inward from the outer wall to receive the shaft such that in use the received shaft extends through the first side wall and the opposing second side wall , an inner surface wherein the radius of the inner surface is selected to approximately match a diameter of the shaft , a cavity defined by the first side wall , second side wall , inner surface and outer wall for receiving bone growth promoting materials via the opening ; and a plurality of apertures in at least the outer wall , which in use allow bone growth promoting material to move out into the surrounding tissue through the plurality of apertures and/or to allow bone to grow through the plurality of apertures .
A method for refueling of gas into a pressurized gas tank of a vehicle with repeated adjustment of a target pressure (Ptarget) for the refueling, said target pressure being the pressure that is used to stop the refueling before the vehicle tank is overfilled, said method comprising the steps of: - recording starting conditions for the refueling - establishing a mathematical relation between the recorded starting conditions, the actual refueling time (t refueling) passed and the target pressure (Ptarget) for the refueling - starting the refueling - repeatedly calculating the target pressure (Ptarget) corresponding to the actual refueling time passed (t refueling) and measuring the nozzle pressure of the refueling station, until the calculated target pressure (Ptarget) has been reached - recording starting conditions for the refueling - establishing a mathematical relation between the recorded starting conditions, the actual refueling time (t refueling) passed and the target pressure (Ptarget) for the refueling - starting the refueling - repeatedly calculating the target pressure (Ptarget) corresponding to the actual refueling time passed (t refueling) and measuring the nozzle pressure of the refueling station, until the calculated target pressure (Ptarget) has been reached
A method for steering a mobile agricultural machine to align a guidance point with a guidance line, the method comprising: Setting the guidance point; setting the guidance line; receiving , from an orientation sensor mounted on the mobile agricultural machine, orientation information including one or both of a pitch angle and a roll angle of the mobile agricultural machine; characterized in that the method further comprises: calculating an orientation correction based on the orientation information including calculating a header-based orientation correction based on a height of a header of the mobile agricultural machine and the orientation information; performing at least one of: modifying the guidance point using the orientation correction and steering the mobile agricultural machine to align the modified guidance point with the guidance line; and modifying the guidance line using the orientation correction and steering the mobile agricultural machine to align the guidance point with the modified guidance line. Setting the guidance point; setting the guidance line; receiving , from an orientation sensor mounted on the mobile agricultural machine, orientation information including one or both of a pitch angle and a roll angle of the mobile agricultural machine; characterized in that the method further comprises: calculating an orientation correction based on the orientation information including calculating a header-based orientation correction based on a height of a header of the mobile agricultural machine and the orientation information; performing at least one of: modifying the guidance point using the orientation correction and steering the mobile agricultural machine to align the modified guidance point with the guidance line; and modifying the guidance line using the orientation correction and steering the mobile agricultural machine to align the guidance point with the modified guidance line. calculating an orientation correction based on the orientation information including calculating a header-based orientation correction based on a height of a header of the mobile agricultural machine and the orientation information; performing at least one of: modifying the guidance point using the orientation correction and steering the mobile agricultural machine to align the modified guidance point with the guidance line; and modifying the guidance line using the orientation correction and steering the mobile agricultural machine to align the guidance point with the modified guidance line. modifying the guidance point using the orientation correction and steering the mobile agricultural machine to align the modified guidance point with the guidance line; and modifying the guidance line using the orientation correction and steering the mobile agricultural machine to align the guidance point with the modified guidance line.
A monitoring system for an escalator , the monitoring system comprising: a local gateway device ; an analytic engine in communication with the local gateway device through a cloud computing network ; a sensing apparatus in wireless communication with the local gateway device through a short-range wireless protocol , the sensing apparatus comprising: an inertial measurement unit sensor configured to detect acceleration data of the escalator , and a microphone configured to detect sound data of the escalator , wherein the sensing apparatus is configured to transmit the acceleration data and the sound data to the local gateway device and the local gateway device is configured to determine a condition based monitoring (CBM) health score of the escalator in response to at least one of the acceleration data and the sound data , and wherein the local gateway device is configured to wirelessly transmit the CBM health score of the escalator to the cloud computing network in a data package via a long-range wireless communication protocols . a local gateway device ; an analytic engine in communication with the local gateway device through a cloud computing network ; a sensing apparatus in wireless communication with the local gateway device through a short-range wireless protocol , the sensing apparatus comprising: an inertial measurement unit sensor configured to detect acceleration data of the escalator , and a microphone configured to detect sound data of the escalator , wherein the sensing apparatus is configured to transmit the acceleration data and the sound data to the local gateway device and the local gateway device is configured to determine a condition based monitoring (CBM) health score of the escalator in response to at least one of the acceleration data and the sound data , and wherein the local gateway device is configured to wirelessly transmit the CBM health score of the escalator to the cloud computing network in a data package via a long-range wireless communication protocols . an inertial measurement unit sensor configured to detect acceleration data of the escalator , and a microphone configured to detect sound data of the escalator , wherein the sensing apparatus is configured to transmit the acceleration data and the sound data to the local gateway device and the local gateway device is configured to determine a condition based monitoring (CBM) health score of the escalator in response to at least one of the acceleration data and the sound data , and wherein the local gateway device is configured to wirelessly transmit the CBM health score of the escalator to the cloud computing network in a data package via a long-range wireless communication protocols .
A method of site-specific modification of an endogenous target DNA of a eukaryotic cell, the method comprising: contacting the endogenous target DNA having an intended modification site with: (i) a gene editing system configured to introduce a double strand break in the endogenous target DNA at or near the intended modification site, and (ii) a donor DNA repair template, a. wherein the donor DNA repair template is a rolling circle amplification (RCA) product DNA comprising a plurality of tandem repeat sequences; b. wherein each of the plurality of tandem repeat sequences comprises an exogenous donor DNA sequence flanked by a donor 5' flanking sequence and a donor 3' flanking sequence; c. wherein the donor 5' flanking sequence and the donor 3' flanking sequence are homologous to a continuous DNA sequence on either side of the intended modification site in the endogenous target DNA; d. wherein each of the plurality of tandem repeat sequences comprises a thioated nucleotide; and e. wherein the RCA product DNA is processed to form single copy DNA fragments before employing it as a donor DNA repair template wherein the method does not encompass a process for modifying the germ line genetic identity of human beings. (i) a gene editing system configured to introduce a double strand break in the endogenous target DNA at or near the intended modification site, and (ii) a donor DNA repair template, a. wherein the donor DNA repair template is a rolling circle amplification (RCA) product DNA comprising a plurality of tandem repeat sequences; b. wherein each of the plurality of tandem repeat sequences comprises an exogenous donor DNA sequence flanked by a donor 5' flanking sequence and a donor 3' flanking sequence; c. wherein the donor 5' flanking sequence and the donor 3' flanking sequence are homologous to a continuous DNA sequence on either side of the intended modification site in the endogenous target DNA; d. wherein each of the plurality of tandem repeat sequences comprises a thioated nucleotide; and e. wherein the RCA product DNA is processed to form single copy DNA fragments before employing it as a donor DNA repair template wherein the method does not encompass a process for modifying the germ line genetic identity of human beings. a. wherein the donor DNA repair template is a rolling circle amplification (RCA) product DNA comprising a plurality of tandem repeat sequences; b. wherein each of the plurality of tandem repeat sequences comprises an exogenous donor DNA sequence flanked by a donor 5' flanking sequence and a donor 3' flanking sequence; c. wherein the donor 5' flanking sequence and the donor 3' flanking sequence are homologous to a continuous DNA sequence on either side of the intended modification site in the endogenous target DNA; d. wherein each of the plurality of tandem repeat sequences comprises a thioated nucleotide; and e. wherein the RCA product DNA is processed to form single copy DNA fragments before employing it as a donor DNA repair template
A wireless local area network, WLAN, association method, comprising: receiving , by a central access point, AP, multiple association requests, wherein the multiple association requests are from at least two APs receiving the association request sent by a terminal, and the multiple association requests have a same basic service set identifier, BSSID; selecting , by the central AP, one association request from the multiple association requests as a to-be-replied association request; and sending , by the central AP, a first association response to a to-be-associated AP, wherein the first association response is a reply to the to-be-replied association request, and the to-be-associated AP is an AP in the at least two APs that sends the to-be-replied association request; wherein the selecting one association request from the multiple association requests as a to-be-replied association request comprises: obtaining respective signal strength that is of the multiple association requests and that is measured by the at least two APs; and selecting, as the to-be-replied association request, an association request in the multiple association requests that has maximum signal strength. receiving , by a central access point, AP, multiple association requests, wherein the multiple association requests are from at least two APs receiving the association request sent by a terminal, and the multiple association requests have a same basic service set identifier, BSSID; selecting , by the central AP, one association request from the multiple association requests as a to-be-replied association request; and sending , by the central AP, a first association response to a to-be-associated AP, wherein the first association response is a reply to the to-be-replied association request, and the to-be-associated AP is an AP in the at least two APs that sends the to-be-replied association request; wherein the selecting one association request from the multiple association requests as a to-be-replied association request comprises: obtaining respective signal strength that is of the multiple association requests and that is measured by the at least two APs; and selecting, as the to-be-replied association request, an association request in the multiple association requests that has maximum signal strength. obtaining respective signal strength that is of the multiple association requests and that is measured by the at least two APs; and selecting, as the to-be-replied association request, an association request in the multiple association requests that has maximum signal strength.
Thread draw-off nozzle for an open-end rotor spinning device with an entrance-side nozzle funnel and an exit-side nozzle bore adjoining the nozzle funnel , with notches extending in a manner essentially radial to the nozzle bore arranged in the area of the nozzle funnel ; these feature an inlet wall and a baffle wall , along with a radially outer notch inlet and a radially inner notch outlet , characterized in that a notch bottom that is preferably formed to be flat, preferably even, is arranged between the inlet wall and the baffle wall .
An audio system for an ear mountable playback device (HP) comprising a speaker (SP), a feedforward microphone (FF_MIC) configured to predominantly sense ambient sound and an error microphone (FB_MIC) configured to sense sound being output from the speaker (SP), the audio system being configured to perform noise cancellation and comprising a sound control processor that is configured to - recording a noise signal from the feedforward microphone (FF_MIC) and using the noise signal as a detection signal; - filtering the detection signal with a feedforward filter; - using the filtered detection signal as an identification signal; - filtering the identification signal with an adjustable filter; - controlling a playback of the filtered detection signal via the speaker (SP); - recording an error signal from the error microphone (FB_MIC); - adjusting the adjustable filter based on a difference between the filtered identification signal and the error signal such that the adjustable filter approximates an acoustic transfer function between the speaker (SP) and the error microphone (FB_MIC); and - determining whether the playback device (HP) is in a first state, where the playback device (HP) is worn by a user, or in a second state, where the playback device (HP) is not worn by a user, based on processing of the error signal, wherein determining the second state is based on an evaluation of a filter response of the adjustable filter at at least one predetermined frequency. - recording a noise signal from the feedforward microphone (FF_MIC) and using the noise signal as a detection signal; - filtering the detection signal with a feedforward filter; - using the filtered detection signal as an identification signal; - filtering the identification signal with an adjustable filter; - controlling a playback of the filtered detection signal via the speaker (SP); - recording an error signal from the error microphone (FB_MIC); - adjusting the adjustable filter based on a difference between the filtered identification signal and the error signal such that the adjustable filter approximates an acoustic transfer function between the speaker (SP) and the error microphone (FB_MIC); and - determining whether the playback device (HP) is in a first state, where the playback device (HP) is worn by a user, or in a second state, where the playback device (HP) is not worn by a user, based on processing of the error signal, wherein determining the second state is based on an evaluation of a filter response of the adjustable filter at at least one predetermined frequency.