mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting quality of service, QoS, of a border gateway protocol, BGP, anycast cluster, implemented by a detection device , the method comprising receiving (S101), by the detection device, detection-task information for the QoS of the BGP anycast cluster, wherein the detection-task information includes a BGP anycast IP address; sending (S102), by the detection device, detection-request information to the BGP anycast IP address, wherein the detection-request information is received by an entity server in the BGP anycast cluster that has a shortest autonomous system, AS, path from the detection device; the method characterized in that it further comprises: receiving (S103), by the detection device, detection-response information sent by the entity server in the BGP anycast cluster, wherein the detection-response information includes an IP address of the entity server; and generating (S104), by the detection device, detection index data according to the detection-request information and the detection-response information, wherein the detection index data includes the BGP anycast IP address and the IP address of the entity server. receiving (S101), by the detection device, detection-task information for the QoS of the BGP anycast cluster, wherein the detection-task information includes a BGP anycast IP address; sending (S102), by the detection device, detection-request information to the BGP anycast IP address, wherein the detection-request information is received by an entity server in the BGP anycast cluster that has a shortest autonomous system, AS, path from the detection device; the method characterized in that it further comprises: receiving (S103), by the detection device, detection-response information sent by the entity server in the BGP anycast cluster, wherein the detection-response information includes an IP address of the entity server; and generating (S104), by the detection device, detection index data according to the detection-request information and the detection-response information, wherein the detection index data includes the BGP anycast IP address and the IP address of the entity server.
A composite flame retardant, comprising a flame retardant component comprising a complex formed by phosphine oxide and transition metal salt, and an inorganic flame retardant component; wherein said phosphine oxide has the following molecular structural formula (I): wherein, R 1 , R 2 and R 3 are identical to or different from one another, and are each independently selected from C 1 -C 18 straight chain alkyl, C 3 -C 18 branched alkyl, C 1 -C 18 straight chain alkoxy, C 3 -C 18 branched alkoxy, C 6 -C 20 substituted or unsubstituted aryl, and C 6 -C 20 substituted or unsubstituted aryloxy; wherein the weight ratio of said complex to said inorganic flame retardant component is (1-5): 1, and wherein said inorganic flame retardant component is selected from group IIA and IIIA metal hydroxides. a flame retardant component comprising a complex formed by phosphine oxide and transition metal salt, and an inorganic flame retardant component; wherein said phosphine oxide has the following molecular structural formula (I): wherein, R 1 , R 2 and R 3 are identical to or different from one another, and are each independently selected from C 1 -C 18 straight chain alkyl, C 3 -C 18 branched alkyl, C 1 -C 18 straight chain alkoxy, C 3 -C 18 branched alkoxy, C 6 -C 20 substituted or unsubstituted aryl, and C 6 -C 20 substituted or unsubstituted aryloxy; wherein the weight ratio of said complex to said inorganic flame retardant component is (1-5): 1, and wherein said inorganic flame retardant component is selected from group IIA and IIIA metal hydroxides.
A medicament delivery member shield remover for a medicament delivery device, the medicament delivery member shield remover comprising a tubular body extending along an axis in an axial direction from a proximal end to a distal end and extending in a circumferential direction around the axis , a slit in the tubular body extending in the axial direction , characterized in that the medicament delivery member shield remover further comprises a first protruding element extending from the tubular body towards the axis , and a second protruding element, wherein the second protruding element comprises two protrusions extending from the tubular body away from the axis , and wherein the two protrusions are arranged on opposite sides of the slit in the circumferential direction . a slit in the tubular body extending in the axial direction , characterized in that the medicament delivery member shield remover further comprises a first protruding element extending from the tubular body towards the axis , and a second protruding element, wherein the second protruding element comprises two protrusions extending from the tubular body away from the axis , and wherein the two protrusions are arranged on opposite sides of the slit in the circumferential direction .
A system comprising: a first input sensor configured to (i) detect a first amount of force or torque applied by a user of an x-ray scanner gantry in a first direction, and (ii) generate a first input command signal, wherein the first input command signal indicates the first amount of force or torque; a first summer configured to generate a first error signal based on the first input command signal and a first feedback signal; a first controller configured to generate a motor command signal to control operation of a motor based at least on the first error signal to provide counterbalancing of the x-ray scanner gantry in the first direction; and a first feedback sensor configured to (i) detect a second amount of force or torque applied on the x-ray scanner gantry in the first direction as a result of the controlled operation of the motor, and (ii) generate the first feedback signal based on the detected second amount of force or torque. a first input sensor configured to (i) detect a first amount of force or torque applied by a user of an x-ray scanner gantry in a first direction, and (ii) generate a first input command signal, wherein the first input command signal indicates the first amount of force or torque; a first summer configured to generate a first error signal based on the first input command signal and a first feedback signal; a first controller configured to generate a motor command signal to control operation of a motor based at least on the first error signal to provide counterbalancing of the x-ray scanner gantry in the first direction; and a first feedback sensor configured to (i) detect a second amount of force or torque applied on the x-ray scanner gantry in the first direction as a result of the controlled operation of the motor, and (ii) generate the first feedback signal based on the detected second amount of force or torque.
Method (V) for detecting at least one object resting against a motor vehicle , wherein at least one camera image is captured by means of a camera using a control apparatus , wherein a capture region of the camera is directed into an exterior region of the motor vehicle and, in part or entirely, onto an exterior surface of the motor vehicle , characterized in that , for a free-standing check, a check is performed in the at least one camera image using an image analysis device of the control apparatus as to whether at least one predetermined own structure of the motor vehicle is depicted and, in the event that the at least one own structure cannot be found using the image analysis device , a blocking signal indicating that an object is resting against the motor vehicle is generated, wherein a starting signal for starting to drive is received by an autopilot of the motor vehicle and the autopilot starts to drive only in the absence of a blocking signal .
A computer-implemented method for processing data related to a motor vehicle , comprising: - retrieving, with respect to a first vehicle , first data (D1) from a database which are indicative of geographic positions of the first vehicle recorded during motion of the first vehicle on a first track , - retrieving second data (D2) from the database which are indicative of at least one roll and pitch angle of the first vehicle recorded during the motion of the first vehicle on the first track and associated with the first data (D1), - providing, by a processing device of a second vehicle , which is a motor vehicle and different from the first vehicle , at least one technical correlation between the retrieved second data (D2) and one or more vehicle specific technical parameters associated with the second vehicle , - providing, by the processing device of the second vehicle , information to a user interface of the second vehicle which is indicative of the at least one technical correlation, - characterized in that the processing device of the second vehicle provides at least part of the information to the user interface of the second vehicle in the form of a dynamic rating based on a user risk level previously entered by the user of the second vehicle . - retrieving, with respect to a first vehicle , first data (D1) from a database which are indicative of geographic positions of the first vehicle recorded during motion of the first vehicle on a first track , - retrieving second data (D2) from the database which are indicative of at least one roll and pitch angle of the first vehicle recorded during the motion of the first vehicle on the first track and associated with the first data (D1), - providing, by a processing device of a second vehicle , which is a motor vehicle and different from the first vehicle , at least one technical correlation between the retrieved second data (D2) and one or more vehicle specific technical parameters associated with the second vehicle , - providing, by the processing device of the second vehicle , information to a user interface of the second vehicle which is indicative of the at least one technical correlation, - characterized in that the processing device of the second vehicle provides at least part of the information to the user interface of the second vehicle in the form of a dynamic rating based on a user risk level previously entered by the user of the second vehicle .
Mechatronic actuator consisting of a case incorporating, in a shell , a three-phase electric motor formed by a stator excited by electric coils and by a magnetized rotor , driving an output shaft by means of a gear train, the axis of said rotor , the axis of the output shaft and the axes of the intermediate toothed wheels (18 to 20) being parallel, the shell having a longitudinal axis (L), the case having three attachment extensions arranged at three corners of the case (3 to 5), each of said extensions (3 to 5) having a bore (6 to 8) passing therethrough, the axis of which is parallel to the mechanical axes of the motor and of the toothed wheels, characterized in that one of said extensions has a tab for positioning in a complementary housing, another of said extensions has a clipping prong .
A method of providing a cell culture enriched for medial ganglionic eminence (MGE) precursor cells, the method comprising: culturing primate pluripotent stem cells in a serum-free culture medium; and introducing to the culture medium factors comprising: a) an activator of the sonic hedgehog (shh) pathway; b) a neural inducing supplement; c) two or more SMAD inhibitors; and d) a wnt pathway inhibitor; wherein the cell culture medium does not include a serum replacement, wherein the introduction of a) through d) results in a cell culture enriched in MGE precursor cells compared to a cell culture untreated by this combination of factors. culturing primate pluripotent stem cells in a serum-free culture medium; and introducing to the culture medium factors comprising: a) an activator of the sonic hedgehog (shh) pathway; b) a neural inducing supplement; c) two or more SMAD inhibitors; and d) a wnt pathway inhibitor; wherein the cell culture medium does not include a serum replacement, wherein the introduction of a) through d) results in a cell culture enriched in MGE precursor cells compared to a cell culture untreated by this combination of factors. a) an activator of the sonic hedgehog (shh) pathway; b) a neural inducing supplement; c) two or more SMAD inhibitors; and d) a wnt pathway inhibitor;
Method for controlling a motor vehicle equipped with a line centring assist and a means for determining the torque applied by the driver to the steering wheel , characterized in that it comprises the following steps: the torque applied by the driver to the steering wheel is determined, the absolute value of the derivative with respect to time of the determined torque is determined, it is determined whether the absolute value of the derivative of the torque is lower than a preset torque threshold, the length of time passed since the absolute value of the derivative with respect to time of the determined torque was lower than the preset torque threshold is determined, it is determined whether the length of time passed is at least equal to a preset length of time, if such is the case, an authorization signal regarding the activity of the driver is sent to the line centring assist , the preset torque threshold being comprised between -2 Nm/s and 2 Nm/s. the torque applied by the driver to the steering wheel is determined, the absolute value of the derivative with respect to time of the determined torque is determined, it is determined whether the absolute value of the derivative of the torque is lower than a preset torque threshold, the length of time passed since the absolute value of the derivative with respect to time of the determined torque was lower than the preset torque threshold is determined, it is determined whether the length of time passed is at least equal to a preset length of time, if such is the case, an authorization signal regarding the activity of the driver is sent to the line centring assist , the preset torque threshold being comprised between -2 Nm/s and 2 Nm/s.
A method for monitoring search spaces, the method being performed by a wireless device , the method comprising: receiving (S104) an orthogonal frequency-division multiplexing, OFDM, symbol, wherein the OFDM symbol is at least partially included in a device-specific search space of the wireless device and is at least partially included in a common search space used by the wireless device; monitoring (S106) the device-specific search space for at least one device-specific reference signal provided in the OFDM symbol; and monitoring (S108) the common search space for at least one non-device-specific reference signal provided in the same OFDM symbol; wherein the device-specific search space and the common search space are contained in a first and a second subband, respectively. receiving (S104) an orthogonal frequency-division multiplexing, OFDM, symbol, wherein the OFDM symbol is at least partially included in a device-specific search space of the wireless device and is at least partially included in a common search space used by the wireless device; monitoring (S106) the device-specific search space for at least one device-specific reference signal provided in the OFDM symbol; and monitoring (S108) the common search space for at least one non-device-specific reference signal provided in the same OFDM symbol; wherein the device-specific search space and the common search space are contained in a first and a second subband, respectively.
An on-board control system for operating a vehicle , the control system comprising processing circuitry and a plurality of sensors arranged with the vehicle , the processing circuitry arranged in communication with the plurality of sensors , wherein the processing circuitry implements a control function and a vehicle control model (M), wherein the processing circuitry is adapted to: - receive a reference control value (V1) for operating the vehicle , - receive vehicle state values (V2, V2', V2") from the plurality of sensors , - provide the reference control value (V1) as an input to the control function, - provide the reference control value (V1) and the vehicle state values (V2, V2', V2") as inputs to the vehicle control model (M), wherein the vehicle control model (M) is adapted to form a compensation control value (CCV) to be applied to an output from the control function to form of a control signal for operating the vehicle , - operate the vehicle based on the control signal, - receive vehicle data (VD) resulting from the operation of the vehicle , - determine a difference (Δ) between the reference control value (V1) and the vehicle data (VD), - provide the difference (Δ) to the control function, and - update the vehicle control model (M) if the determined difference (Δ) is above a predetermined threshold (T). - receive a reference control value (V1) for operating the vehicle , - receive vehicle state values (V2, V2', V2") from the plurality of sensors , - provide the reference control value (V1) as an input to the control function, - provide the reference control value (V1) and the vehicle state values (V2, V2', V2") as inputs to the vehicle control model (M), wherein the vehicle control model (M) is adapted to form a compensation control value (CCV) to be applied to an output from the control function to form of a control signal for operating the vehicle , - operate the vehicle based on the control signal, - receive vehicle data (VD) resulting from the operation of the vehicle , - determine a difference (Δ) between the reference control value (V1) and the vehicle data (VD), - provide the difference (Δ) to the control function, and - update the vehicle control model (M) if the determined difference (Δ) is above a predetermined threshold (T).
A device for analyzing particles in a sample by determining the concentration of particles in said sample and/or a physical or chemical characteristic of said particles in said sample; said device comprising: an at least partially transparent container for holding said sample containing said particles, said container having a center; an optical source for generating excitation light that is provided to said sample , thereby causing at least a portion of said particles to generate fluorescence ; a means for collecting fluorescence from an observation volume positioned within said container , wherein said means for collecting fluorescence from said observation volume is a confocal microscope ; a means for moving said container , thereby transporting at least a portion of said particles through said observation volume , wherein said means for moving said container simultaneously rotates said container about a rotational axis passing through the center of said container and vertically displaces said container along the rotational axis at a rate selected over the range of 0.01 centimeters per second to 5 centimeters per second; a photodetector in optical communication with said means for collecting fluorescence for receiving and measuring intensities of at least a portion of said fluorescence from said observation volume ; thereby generating a temporal profile of said fluorescence ; and a processor having a pattern recognition algorithm for receiving and analyzing said temporal profile generated by said photodetector , thereby determining the concentration of particles in said sample and/or a physical or chemical characteristic of said particles in said sample. an at least partially transparent container for holding said sample containing said particles, said container having a center; an optical source for generating excitation light that is provided to said sample , thereby causing at least a portion of said particles to generate fluorescence ; a means for collecting fluorescence from an observation volume positioned within said container , wherein said means for collecting fluorescence from said observation volume is a confocal microscope ; a means for moving said container , thereby transporting at least a portion of said particles through said observation volume , wherein said means for moving said container simultaneously rotates said container about a rotational axis passing through the center of said container and vertically displaces said container along the rotational axis at a rate selected over the range of 0.01 centimeters per second to 5 centimeters per second; a photodetector in optical communication with said means for collecting fluorescence for receiving and measuring intensities of at least a portion of said fluorescence from said observation volume ; thereby generating a temporal profile of said fluorescence ; and a processor having a pattern recognition algorithm for receiving and analyzing said temporal profile generated by said photodetector , thereby determining the concentration of particles in said sample and/or a physical or chemical characteristic of said particles in said sample.
A battery pre-heating apparatus for hybrid electric vehicle, the apparatus comprising: a battery comprised of a plurality of battery cells ; a power relay assembly including a first main relay connected to both electrode sides for charge/discharge control of the battery ; and a pre-heater including at least one plane heater formed through a heat generating paste composition to pre-heat the battery to a predetermined temperature using a power generated from regenerative braking by being connected between an output terminal of the first main relay and an output terminal of the second main relay , characterized in, that the heat generating paste composition includes a carbon nano tube particle 3∼6 parts by weight, a carbon nanoparticle 0.5∼30 parts by weight, a mixed binder 10∼30 parts by weight, an organic solvent 29∼83 parts by weight and a dispersant 0.5∼5 parts by weight, against a heat generating paste composition 100 parts by weight, and that the mixed binder is a mixture of epoxy acrylate, polyvinyl acetal and phenolic resin, or is a mixture of hexamethylene diisocyanate, polyvinyl acetal and phenolic resin. a battery comprised of a plurality of battery cells ; a power relay assembly including a first main relay connected to both electrode sides for charge/discharge control of the battery ; and a pre-heater including at least one plane heater formed through a heat generating paste composition to pre-heat the battery to a predetermined temperature using a power generated from regenerative braking by being connected between an output terminal of the first main relay and an output terminal of the second main relay , characterized in, that the heat generating paste composition includes a carbon nano tube particle 3∼6 parts by weight, a carbon nanoparticle 0.5∼30 parts by weight, a mixed binder 10∼30 parts by weight, an organic solvent 29∼83 parts by weight and a dispersant 0.5∼5 parts by weight, against a heat generating paste composition 100 parts by weight, and that the mixed binder is a mixture of epoxy acrylate, polyvinyl acetal and phenolic resin, or is a mixture of hexamethylene diisocyanate, polyvinyl acetal and phenolic resin.