mhurhangee/patent-ind-claim-en huggingface dataset:
A method of adapting autonomous control of an autonomous vehicle based on a determined yaw parameter of an additional vehicle , the method comprising: receiving , from a phase coherent Light Detection and Ranging (LIDAR) component of a vehicle, a group of LIDAR data points of a sensing cycle of the phase coherent LIDAR component, each of the LIDAR data points of the group indicating a corresponding instantaneous range and a corresponding instantaneous velocity for a corresponding point in an environment of the vehicle, and each of the LIDAR data points of the group being generated based on a corresponding sensing event of the phase coherent LIDAR component during the sensing cycle, wherein the corresponding instantaneous range and the corresponding instantaneous velocity for the corresponding point in the environment of the vehicle are based on the corresponding sensing event without reference to a prior or subsequent sensing event; determining that a subgroup (582A-B; 583A-B; 584A-C; 585A-C; 682A-H), of the LIDAR data points of the group, corresponds to an additional vehicle that is in addition to the vehicle; based on determining that the subgroup corresponds to the additional vehicle: determining an instantaneous yaw parameter of the additional vehicle based on a plurality of the LIDAR data points of the subgroup; and adapting autonomous control of the vehicle based on the determined instantaneous yaw parameter of the additional vehicle. receiving , from a phase coherent Light Detection and Ranging (LIDAR) component of a vehicle, a group of LIDAR data points of a sensing cycle of the phase coherent LIDAR component, each of the LIDAR data points of the group indicating a corresponding instantaneous range and a corresponding instantaneous velocity for a corresponding point in an environment of the vehicle, and each of the LIDAR data points of the group being generated based on a corresponding sensing event of the phase coherent LIDAR component during the sensing cycle, wherein the corresponding instantaneous range and the corresponding instantaneous velocity for the corresponding point in the environment of the vehicle are based on the corresponding sensing event without reference to a prior or subsequent sensing event; determining that a subgroup (582A-B; 583A-B; 584A-C; 585A-C; 682A-H), of the LIDAR data points of the group, corresponds to an additional vehicle that is in addition to the vehicle; based on determining that the subgroup corresponds to the additional vehicle: determining an instantaneous yaw parameter of the additional vehicle based on a plurality of the LIDAR data points of the subgroup; and adapting autonomous control of the vehicle based on the determined instantaneous yaw parameter of the additional vehicle. determining an instantaneous yaw parameter of the additional vehicle based on a plurality of the LIDAR data points of the subgroup; and adapting autonomous control of the vehicle based on the determined instantaneous yaw parameter of the additional vehicle.
A directed self-assembling composition for pattern formation comprising a block copolymer that includes a polystyrene block having a styrene unit, and a polyalkyl (meth)acrylate block having an alkyl (meth)acrylate unit, the block copolymer having a group (α) that is bound to at least one end of a main chain and includes a hetero atom, and the group (α) included in the block copolymer being represented by a formula : wherein, in the formula , R 1 represents a single bond or a divalent organic group having 1 to 30 carbon atoms; and R 2 represents a hydrogen atom or a monovalent organic group having 1 to 30 carbon atoms.
A roofing membrane comprising a blend composition of: (a) from 10 wt% to 50 wt% of a propylene-based elastomer comprising one or more comonomers selected from ethylene and/or C 4 -C 12 α-olefins, where the propylene-based elastomer has a comonomer content of from 5 to 30 wt%, based upon the weight of the propylene-based elastomer, wherein the propylene-based elastomer is a reactor blend of a first polymer component and a second polymer component, wherein the first polymer component has a comonomer content R 1 of from greater than 5 to less than 30 wt% comonomer, based upon the total weight of the first polymer component, and wherein the second polymer component has a comonomer content R 2 of from greater than 1 to less than 10 wt% comonomer, based upon the total weight of the second polymer component; (b) from 5 wt% to 40 wt% of a thermoplastic resin different from the a propylene-based elastomer; (c) at least one flame retardant; and (d) at least one ultraviolet stabilizer. wherein the blend composition further comprises from 1 wt% to 10 wt% of a polyalphaolefin being oligomers of α-olefins and having a kinematic viscosity (KV) at 100°C of from 3 to 3000 cSt, as measured by ASTM D445 at 100°C. (a) from 10 wt% to 50 wt% of a propylene-based elastomer comprising one or more comonomers selected from ethylene and/or C 4 -C 12 α-olefins, where the propylene-based elastomer has a comonomer content of from 5 to 30 wt%, based upon the weight of the propylene-based elastomer, wherein the propylene-based elastomer is a reactor blend of a first polymer component and a second polymer component, wherein the first polymer component has a comonomer content R 1 of from greater than 5 to less than 30 wt% comonomer, based upon the total weight of the first polymer component, and wherein the second polymer component has a comonomer content R 2 of from greater than 1 to less than 10 wt% comonomer, based upon the total weight of the second polymer component; (b) from 5 wt% to 40 wt% of a thermoplastic resin different from the a propylene-based elastomer; (c) at least one flame retardant; and (d) at least one ultraviolet stabilizer.
A steel H-shape for low temperature service, the steel comprising by mass%, C: 0.03% to 0.13%, Mn: 0.80% to 2.00%, Nb: 0.005% to 0.060%, Ti: 0.005% to 0.025%, O: 0.0005% to 0.0100%, V: 0% to 0.08%, Cu: 0% to 0.40%, Ni: 0% to 0.70%, Mo: 0% to 0.10%, Cr: 0% to 0.20%, Si: limited to 0.50% or less, Al: limited to 0.008% or less, Ca: limited to 0.0010% or less, REM: limited to 0.0010% or less, Mg: limited to 0.0010% or less, N: limited to 0.0120% or less, and a remainder being Fe and impurities, wherein a CEV obtained by the following Expression is 0.40 or less, wherein at a 1/4 position from an outer side across a thickness of a flange and a 1/6 position from an outer side across a flange width, a metallographic structure consists of a ferrite, a bainite, a hard phase, and, as a remainder, a pearlite, a sum of an area ratio of one or both of the ferrite and the bainite is 90% or more, and an area ratio of the hard phase is 10% or less, wherein an effective grain size is 20.0 μm or less, and a grain size of the hard phase is 10.0 μm or less, wherein the hard phase consists of one or both of a martensite-austenite constituent and a pseudo-pearlite, wherein the effective grain size is the equivalent circle diameter of a region surrounded by a large angle boundary having an orientation difference of 15° or greater, and the effective grain size is measured by electron backscattering diffraction pattern method without the ferrite, the bainite, the hard phase, and the pearlite being discriminated each other, wherein 30 to 100 pieces/mm 2 Ti oxides having an equivalent circle diameter ranging from 0.01 to 3.0 μm are included, and wherein a thickness of the flange is 12 to 50 mm, CEV = C + Mn / 6 + Cr + Mo + V / 5 + Ni + Cu / 15 where, C, Mn, Cr, Mo, V, Ni, and Cu each indicate an amount of the element by mass%. C: 0.03% to 0.13%, Mn: 0.80% to 2.00%, Nb: 0.005% to 0.060%, Ti: 0.005% to 0.025%, O: 0.0005% to 0.0100%, V: 0% to 0.08%, Cu: 0% to 0.40%, Ni: 0% to 0.70%, Mo: 0% to 0.10%, Cr: 0% to 0.20%, Si: limited to 0.50% or less, Al: limited to 0.008% or less, Ca: limited to 0.0010% or less, REM: limited to 0.0010% or less, Mg: limited to 0.0010% or less, N: limited to 0.0120% or less, and a remainder being
A helmet comprising: a substantially spherical main hat body including an aperture window that opens forward to provide a field of view to a wearer; a shield connected to a pair of turning mechanisms protruding from two side faces of the main hat body , the shield being movable between a closed position at which the shield closes off the aperture window and an open position at which the shield opens the aperture window ; and a seal member that, when the shield is at the closed position, seals a gap between an upper edge of the shield and an upper edge of the aperture window from a vicinity of one of the turning mechanisms to a vicinity of another of the turning mechanisms of the main hat body , wherein at least a part of an upper end portion of the shield , at vicinities of upper edges of left and right end portions of the seal member , is inflected toward the main hat body , and the part of the upper end portion of the shield abuts the seal member when the shield is at the closed position, characterized in that , the helmet further comprises cover members that cover rear sides of the turning mechanisms , the cover members being connected with the left and right end portions of the seal member , and closing off gaps between the main hat body and left and right rear portions of the shield . a substantially spherical main hat body including an aperture window that opens forward to provide a field of view to a wearer; a shield connected to a pair of turning mechanisms protruding from two side faces of the main hat body , the shield being movable between a closed position at which the shield closes off the aperture window and an open position at which the shield opens the aperture window ; and a seal member that, when the shield is at the closed position, seals a gap between an upper edge of the shield and an upper edge of the aperture window from a vicinity of one of the turning mechanisms to a vicinity of another of the turning mechanisms of the main hat body , wherein at least a part of an upper end portion of the shield , at vicinities of upper edges of left and right end portions of the seal member , is inflected toward the main hat body , and the part of the upper end portion of the shield abuts the seal member when the shield is at the closed position, characterized in that , the helmet further comprises cover members that cover rear sides of the turning mechanisms , the cover members being connected with the left and right end portions of the seal member , and closing off gaps between the main hat body and left and right rear portions of the shield .
A data receiving circuit , comprising: a first amplification module , configured to: receive an enable signal (EnDfe), a feedback signal (fb), a data signal (DQ), a first reference signal (VR+), and a second reference signal (VR-); when the enable signal (EnDfe) is at a first level, in response to a sampling clock signal (clkN) and on the basis of the feedback signal (fb), select the data signal (DQ) and the first reference signal (VR+) for first comparison and output a first signal pair as a result of the first comparison, or select the data signal (DQ) and the second reference signal (VR-) for second comparison and output a second signal pair as a result of the second comparison; and when the enable signal (EnDfe) is at a second level, in response to the sampling clock signal (clkN) only select the data signal (DQ) and the first reference signal (VR+) for comparison and output the first signal pair; wherein, the first signal pair comprises a first signal (Sn+) and a second signal (Sp+), and the second signal pair comprises a third signal (Sn-) and a fourth signal (Sp-); and a second amplification module , configured to receive output signals of the first amplification module as input signal pairs, perform amplification processing on a voltage difference of the input signal pair, and output a first output signal (Vout) and a second output signal (VoutN) as a result of the amplification processing. a first amplification module , configured to: receive an enable signal (EnDfe), a feedback signal (fb), a data signal (DQ), a first reference signal (VR+), and a second reference signal (VR-); when the enable signal (EnDfe) is at a first level, in response to a sampling clock signal (clkN) and on the basis of the feedback signal (fb), select the data signal (DQ) and the first reference signal (VR+) for first comparison and output a first signal pair as a result of the first comparison, or select the data signal (DQ) and the second reference signal (VR-) for second comparison and output a second signal pair as a result of the second comparison; and when the enable signal (EnDfe) is at a second level, in response to the sampling clock signal (clkN) only select the data signal (DQ) and the first reference signal (VR+) for comparison and output the first signal pair; wherein, the first signal pair comprises a first signal (Sn+) and a second signal (Sp+), and the second signal pair comprises a third signal (Sn-) and a fourth signal (Sp-); and a second amplification module , configured to receive output signals of the first amplification module as input signal pairs, perform amplification processing on a voltage difference of the input signal pair, and output a first output signal (Vout) and a second output signal (VoutN) as a result of the amplification processing.
Operator control device for a vehicle, in particular motor vehicle, having an operator control element which can be actuated by a user and is movably mounted on a carrier element , having at least one driveable actuator which is designed to move the operator control element relative to the carrier element , and having a first spring device which is arranged between the operator control element and the carrier element and the operator control element is movably mounted on the carrier element , wherein a compensation element is movably mounted on the carrier element , and wherein the actuator is connected to the operator control element and to the compensation element , characterized in that a second spring device is arranged between the compensation element and the carrier element , and the compensation element is mounted on the carrier element .
A sheet metal plate for making flooring , in particular of industrial vehicles, said sheet metal plate having on its upper face a plurality of raised patterns, each raised pattern comprising one or more protruding portion(s) , said raised patterns being arranged periodically, discreetly and in orderly fashion, the height h of said raised patterns being comprised between 0.3 and 3 mm, characterized in that it has on its lower face , intended to be bonded to a support, a rough surface whose roughness R max is comprised between 10 μm and 250 μm.
A frostbite prevention pad for a cryolipolysis procedure, which is used for a cryolipolysis procedure using a cryolipolysis device, the frostbite prevention pad comprising: a base member made of a fiber material; one or more waterproof members made of a resin material and placed to overlap the base member ; characterised by one or more sewn parts formed by sewing the base member and the waterproof member to couple the base member and the waterproof member in a state in which the base member and the waterproof member overlap each other, wherein while a negative pressure is being generated by the cryolipolysis device, so as to prevent the waterproof member from being torn or to prevent the waterproof member and the base member from being separated from each other, the one or more sewn parts comprise edge sewn parts formed by sewing edges of the waterproof member and a center sewn part formed by sewing a central portion of the waterproof member . a base member made of a fiber material; one or more waterproof members made of a resin material and placed to overlap the base member ; characterised by one or more sewn parts formed by sewing the base member and the waterproof member to couple the base member and the waterproof member in a state in which the base member and the waterproof member overlap each other, wherein while a negative pressure is being generated by the cryolipolysis device, so as to prevent the waterproof member from being torn or to prevent the waterproof member and the base member from being separated from each other, the one or more sewn parts comprise edge sewn parts formed by sewing edges of the waterproof member and a center sewn part formed by sewing a central portion of the waterproof member .
An apparatus for determining an arousal level of a subject, the apparatus comprising: (i) a receiver for receiving a bio-signal from the subject; (ii) a processor for calculating respective statistical variations of at least two physiological parameters derived from the bio-signal, one of which includes pulse pressure; and (iii) determining an arousal level of the subject based on the calculated statistical variations of the at least two physiological parameters, wherein the other of the at least two physiological parameters is selected from the group consisting of respiration rate and heart rate, wherein calculating the statistical variation of the at least two physiological parameter includes calculating the standard deviation of the pulse pressure, and characterised in that the arousal level is determined to be in a stress level if the calculated standard deviation of the pulse pressure is greater than a threshold value, in which the threshold value is within a range of about 3.0-12.0 mmHg mercury level. (i) a receiver for receiving a bio-signal from the subject; (ii) a processor for calculating respective statistical variations of at least two physiological parameters derived from the bio-signal, one of which includes pulse pressure; and (iii) determining an arousal level of the subject based on the calculated statistical variations of the at least two physiological parameters, wherein the other of the at least two physiological parameters is selected from the group consisting of respiration rate and heart rate, wherein calculating the statistical variation of the at least two physiological parameter includes calculating the standard deviation of the pulse pressure, and characterised in that the arousal level is determined to be in a stress level if the calculated standard deviation of the pulse pressure is greater than a threshold value, in which the threshold value is within a range of about 3.0-12.0 mmHg mercury level.
A method for generating a shared key, the method comprising: establishing a key negotiation connection between a sender and a receiver; determining an algorithm code by negotiating with the receiver using the key negotiation connection; searching for an algorithm corresponding to the algorithm code in a pre-stored algorithm library; and calculating the shared key using the algorithm, wherein a seed key is used as a parameter of the algorithm, wherein the determining an algorithm code by negotiating with the receiver using the key negotiation connection comprises: sending an algorithm code to the receiver using the key negotiation connection; receiving information indicating if the algorithm code is agreed to from the receiver; and selecting the algorithm code when the algorithm code is agreed to; and wherein the sending an algorithm code to the receiver using the key negotiation connection comprises: encrypting the algorithm code using a preset key to generate an encrypted algorithm code; and sending the encrypted algorithm code to the receiver using the key negotiation connection. establishing a key negotiation connection between a sender and a receiver; determining an algorithm code by negotiating with the receiver using the key negotiation connection; searching for an algorithm corresponding to the algorithm code in a pre-stored algorithm library; and calculating the shared key using the algorithm, wherein a seed key is used as a parameter of the algorithm, sending an algorithm code to the receiver using the key negotiation connection; receiving information indicating if the algorithm code is agreed to from the receiver; and selecting the algorithm code when the algorithm code is agreed to; and encrypting the algorithm code using a preset key to generate an encrypted algorithm code; and sending the encrypted algorithm code to the receiver using the key negotiation connection.
A method for Time of Day, ToD, management in an Optical Line Terminal, OLT, wherein the method comprises: obtaining (S11) ToD management parameters configured based on extended management objects in the Management Information Base, MIB; generating (S12) an Optical Network Unit Management and Control Interface, OMCI, message based on an extended OLT-G managed entity and sending said OMCI message to said Optical Network Unit, ONU, wherein said OMCI message carries therein said ToD management parameters, wherein said ToD management parameters include at least a ToD distribution time interval.
A method for measuring a magnetic transformation rate of a steel sheet in an annealing furnace before the steel sheet is subjected to a heating treatment in the annealing furnace, by using an air-core driving coil and at least one pair of air-core receiving coils arranged on one surface side of the steel sheet so that the receiving coils are arranged on both sides of the driving coil and parallel to a surface of the steel sheet, wherein one of a pair of receiving coils is provided closer to the steel sheet than the driving coil and the other of the pair of receiving coils is provided further from the steel sheet than the driving coil, the method comprising: delivering an alternating-current driving signal to the surface of the steel sheet by using the air-core driving coil having a size larger than a width of the steel sheet; measuring the driving signal reflected by the steel sheet by using the air-core receiving coils having a size larger than the width of the steel sheet; and determining the magnetic transformation rate of the steel sheet by using a measurement processing unit based on a distance between the steel sheet and the driving coil which has been corrected by using the measured values of the driving signal obtained by using the receiving coils. receiving coils arranged on one surface side of the steel sheet so that the receiving coils are arranged on both sides of the driving coil and parallel to a surface of the steel sheet, wherein one of a pair of receiving coils is provided closer to the steel sheet than the driving coil and the other of the pair of receiving coils is provided further from the steel sheet than the driving coil, the method comprising: delivering an alternating-current driving signal to the surface of the steel sheet by using the air-core driving coil having a size larger than a width of the steel sheet; measuring the driving signal reflected by the steel sheet by using the air-core receiving coils having a size larger than the width of the steel sheet; and determining the magnetic transformation rate of the steel sheet by using a measurement processing unit based on a distance between the steel sheet and the driving coil which has been corrected by using the measured values of the driving signal obtained by using the receiving coils.
A combination comprising a therapeutically effective amount of ibudilast or a pharmaceutically acceptable salt thereof, and a therapeutically effective amount of riluzole or a pharmaceutically acceptable salt thereof for use in a method of treating a human patient suffering from amyotrophic lateral sclerosis (ALS) wherein the treatment results in stabilization of the patient's scleroses state.