mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining a tire type, which is the tire type of a tire , from an output of an acceleration sensor attached to an inner surface side of a tire tread of a tire mounted on a vehicle, the method comprising: a step of detecting an acceleration waveform from the output of the acceleration sensor ; a step of extracting a feature vector from the acceleration waveform; and a step of determining, from the extracted feature vector, the tire type of the tire by a machine learning algorithm, characterized in that , the step of determining the tire type includes determining the tire type of the tire on the basis of the extracted feature vector and a determination model in which a feature vector obtained in advance for each tire type has been configured as learning data. a step of detecting an acceleration waveform from the output of the acceleration sensor ; a step of extracting a feature vector from the acceleration waveform; and a step of determining, from the extracted feature vector, the tire type of the tire by a machine learning algorithm, characterized in that , the step of determining the tire type includes determining the tire type of the tire on the basis of the extracted feature vector and a determination model in which a feature vector obtained in advance for each tire type has been configured as learning data.
Earthing contact for the controlled steering of electrical current with a brush holder , wherein the brush holder comprises a base plate and at least one brush shaft for receiving a brush , and wherein the at least one brush shaft is connected form-fittingly with the base plate , wherein the brush shaft has clamping tongues , by means of which the brush shaft is clamped to the base plate , wherein the clamping tongues have hooks at their free ends which grip behind an edge of a brush shaft receptacle in the base plate , wherein the brush shaft has a support surface , for the support of its bottom on the base plate , wherein the brush shaft passes completely through the brush shaft receptacle , wherein the form-fitting connection with the clamping tongues is designed to create a connection between the base plate and the at least one brush shaft without screws and the use of tools.
Method for operating a motor vehicle locking system, in particular for locking a motor vehicle cover, preferably a motor vehicle door (T), in which a drive for a motor vehicle latch of the cover is applied depending on a pre-locked position, which is determined by a sensor, and a fully locked position of the motor vehicle latch, further reaching a second locked position beyond the fully locked position, which is determined by a sensor, causes reversing of the drive irrespective of the previously assumed fully locked position, and a normal locking process corresponds to the second locked position being assumed, which is determined by a sensor, after the fully locked position, characterized in that a normal locking process aborted as a result of overload corresponds to the second locked position being assumed, which is determined by a sensor, when the fully locked position is not detected by a sensor. a drive for a motor vehicle latch of the cover is applied depending on a pre-locked position, which is determined by a sensor, and a fully locked position of the motor vehicle latch, further reaching a second locked position beyond the fully locked position, which is determined by a sensor, causes reversing of the drive irrespective of the previously assumed fully locked position, and a normal locking process corresponds to the second locked position being assumed, which is determined by a sensor, after the fully locked position, characterized in that a normal locking process aborted as a result of overload corresponds to the second locked position being assumed, which is determined by a sensor, when the fully locked position is not detected by a sensor.
A polyethylene nanocomposite composition having a minimum required strength of at least 10 MPa when evaluated according to ISO 9080 statistical procedures as a pipe, comprising: (i) base polyethylene resin of medium density polyethylene or high density polyethylene resin, the polyethylene resin having a melt flow index in the range of from 0.10 to 0.9 g/10 min at 190°C and 5 kg as measured according to ISO 1133, high load melt flow index of from 4 to 20 g/10 min at 190°C and 21.6 kg as measured according to ISO 1133 and a density in the range of from 0.930 to 0.970 g/cm 3 at 23°C as measured according to ASTM D792; and (ii) planar carbon nanoparticles having a BET (from Brunauer-Emmett-Teller (BET) theory) surface area in the range of 200m 2 /g to 800m 2 /g, in an amount of from 0.1 % to 20 % by weight based on the weight of the polyethylene nanocomposite composition, wherein the polyethylene nanocomposite composition has a slow crack growth resistance of at least 1000 hours when measured according to ASTM F1473-97 at 80°C in air and 2.4 MPa tensile stress but with a notch depth of 5mm. (i) base polyethylene resin of medium density polyethylene or high density polyethylene resin, the polyethylene resin having a melt flow index in the range of from 0.10 to 0.9 g/10 min at 190°C and 5 kg as measured according to ISO 1133, high load melt flow index of from 4 to 20 g/10 min at 190°C and 21.6 kg as measured according to ISO 1133 and a density in the range of from 0.930 to 0.970 g/cm 3 at 23°C as measured according to ASTM D792; and (ii) planar carbon nanoparticles having a BET (from Brunauer-Emmett-Teller (BET) theory) surface area in the range of 200m 2 /g to 800m 2 /g, in an amount of from 0.1 % to 20 % by weight based on the weight of the polyethylene nanocomposite composition,
A method for transmitting a downlink signal in a wireless access system supporting an unlicensed band, the method comprising: performing (S3110) a carrier sensing procedure for determining whether a secondary cell, Scell, configured in the unlicensed band is in an idle state or not; and after the Scell is determined to be in the idle state,transmitting (S3130) a data transmission comprising the downlink signal on one or more consecutive subframes, SFs, wherein a last SF among the one or more consecutive SFs is configured as a partial SF, wherein a number of symbols included in the partial SF is smaller than a number of symbols included in a SF, wherein the number of the symbols included in the partial SF is configured according to downlink pilot time slot, DwPTS, configurations, and wherein information related to the number of the symbols included in the partial SF is transmitted through downlink control information. performing (S3110) a carrier sensing procedure for determining whether a secondary cell, Scell, configured in the unlicensed band is in an idle state or not; and after the Scell is determined to be in the idle state,transmitting (S3130) a data transmission comprising the downlink signal on one or more consecutive subframes, SFs, wherein a last SF among the one or more consecutive SFs is configured as a partial SF, wherein a number of symbols included in the partial SF is smaller than a number of symbols included in a SF, wherein the number of the symbols included in the partial SF is configured according to downlink pilot time slot, DwPTS, configurations, and wherein information related to the number of the symbols included in the partial SF is transmitted through downlink control information.
Method for controlling a grain-cooking apparatus comprising a case closed by a cover , the case being provided with a main heating element , a tank placed in the case , an element heating the upper edge of the tank , an element heating the cover , a first temperature sensor located in the vicinity of the bottom of the tank and a second temperature sensor placed in the cover , the method characterised in that it comprises: - A step of soaking comprising a first phase during which the heating elements are controlled to maintain for a duration comprised between 15min and 80min a setpoint temperature comprised between 50 and 80°C inside the tank ; - A step of heating starting at the end of the determined duration of soaking during which the heating elements are controlled to reach a setpoint temperature comprised between 85°C and 99°C inside the tank ; - A step of cooking starting as soon as the setpoint temperature is reached during which the heating elements are controlled to maintain the setpoint temperature inside the tank during a determined duration comprised between 25 and 100 min. - A step of soaking comprising a first phase during which the heating elements are controlled to maintain for a duration comprised between 15min and 80min a setpoint temperature comprised between 50 and 80°C inside the tank ; - A step of heating starting at the end of the determined duration of soaking during which the heating elements are controlled to reach a setpoint temperature comprised between 85°C and 99°C inside the tank ; - A step of cooking starting as soon as the setpoint temperature is reached during which the heating elements are controlled to maintain the setpoint temperature inside the tank during a determined duration comprised between 25 and 100 min.
An antenna device (100; 100a; 100b; 100c; 100d; 100e) comprising: a rod-shaped conductor (2; 2a) configured to be disposed perpendicularly to a grounding face part ; a plurality of first linear members for supporting the rod-shaped conductor (2; 2a) by a tension structure; a first bent conductor (10; 10a) having a first linear conductor disposed so as to branch from the rod-shaped conductor (2; 2a) and disposed so as to be inclined with respect to the grounding face part , and a second linear conductor (9; 9a) disposed so as to be continuous with a distal end of the first linear conductor and disposed along a first linear member selected from among the plurality of first linear members ; a first selective transmission part disposed at an end of the first linear conductor on the same side as the rod-shaped conductor (2; 2a); and a second selective transmission part disposed in the rod-shaped conductor (2; 2a), wherein the rod-shaped conductor (2; 2a) and the first bent conductor (10; 10a) constitute a first antenna element part (E1) having a first electrical length (L1) corresponding to a first operation frequency (f1), and a second antenna element part (E2) having a second electrical length (L2) corresponding to a second operation frequency (f2). a rod-shaped conductor (2; 2a) configured to be disposed perpendicularly to a grounding face part ; a plurality of first linear members for supporting the rod-shaped conductor (2; 2a) by a tension structure; a first bent conductor (10; 10a) having a first linear conductor disposed so as to branch from the rod-shaped conductor (2; 2a) and disposed so as to be inclined with respect to the grounding face part , and a second linear conductor (9; 9a) disposed so as to be continuous with a distal end of the first linear conductor and disposed along a first linear member selected from among the plurality of first linear members ; a first selective transmission part disposed at an end of the first linear conductor on the same side as the rod-shaped conductor (2; 2a); and a second selective transmission part disposed in the rod-shaped conductor (2; 2a), wherein the rod-shaped conductor (2; 2a) and the first bent conductor (10; 10a) constitute a first antenna element part (E1) having a first electrical length (L1) corresponding to a first operation frequency (f1), and a second antenna element part (E2) having a second electrical length (L2) corresponding to a second operation frequency (f2).
A method for monitoring a seed application rate of a seed planter planting seeds from a seed meter , comprising: measuring a rotation of a seed disc of the seed meter ; determining a performance value (R m ) corresponding to the seed meter , wherein said performance value (R m ) is determined based on an expected time (T nom ) between seeds deposited and an actual time (T act ) between seeds deposited; and calculating a population value (P c ) based on said measured rotation and said performance value (R m ), wherein said population value (P c ) is determined by calculating a nominal population value (P nom , P ave ) and applying said performance value (R m ) to said nominal population value (P nom , P ave ); wherein: the expected time (T nom ) between seeds deposited is determined based on the measured rotation of the seed disc; the nominal population value (P nom , P ave ) is calculated based on the expected time (T nom ) between seeds deposited; and the actual time (T act ) between seeds deposited is determined based on a signal generated by a seed sensor, the signal corresponding to deposition of seeds. measuring a rotation of a seed disc of the seed meter ; determining a performance value (R m ) corresponding to the seed meter , wherein said performance value (R m ) is determined based on an expected time (T nom ) between seeds deposited and an actual time (T act ) between seeds deposited; and calculating a population value (P c ) based on said measured rotation and said performance value (R m ), wherein said population value (P c ) is determined by calculating a nominal population value (P nom , P ave ) and applying said performance value (R m ) to said nominal population value (P nom , P ave ); the expected time (T nom ) between seeds deposited is determined based on the measured rotation of the seed disc; the nominal population value (P nom , P ave ) is calculated based on the expected time (T nom ) between seeds deposited; and the actual time (T act ) between seeds deposited is determined based on a signal generated by a seed sensor, the signal corresponding to deposition of seeds.
An air conditioner comprising: a housing ; a heat exchanger configured to heat-exchange air drawn into an inside of the housing of the air conditioner; a blower fan configured to move the heat-exchanged air towards an outside of the housing ; a first outlet hole configured to discharge the heat-exchanged air from the blower fan to the outside of the housing ; a discharge area around the first outlet hole ; a second outlet hole in the discharge area and configured to discharge the heat-exchanged air from the blower fan to the outside of the housing ; closing means configured to close the first outlet hole ; temperature detecting means configured to detect a room temperature; and a controller configured to control the closing means to directly contact the first outlet hole to close the first outlet hole based on the room temperature being less than or equal to a predetermined value, and to discharge the heat-exchanged air through the second outlet hole such that the room temperature is maintained at the predetermined value. a housing ; a heat exchanger configured to heat-exchange air drawn into an inside of the housing of the air conditioner; a blower fan configured to move the heat-exchanged air towards an outside of the housing ; a first outlet hole configured to discharge the heat-exchanged air from the blower fan to the outside of the housing ; a discharge area around the first outlet hole ; a second outlet hole in the discharge area and configured to discharge the heat-exchanged air from the blower fan to the outside of the housing ; closing means configured to close the first outlet hole ; temperature detecting means configured to detect a room temperature; and a controller configured to control the closing means to directly contact the first outlet hole to close the first outlet hole based on the room temperature being less than or equal to a predetermined value, and to discharge the heat-exchanged air through the second outlet hole such that the room temperature is maintained at the predetermined value.
Rail vehicle , comprising a sand removal device having at least one air conducting device for the production of an air flow, which comprises fastening means for arranging the air conducting device on the rail vehicle , wherein the air conducting device is embodied as an air baffle, characterised in that the at least one air conducting device is embodied such that the air flow produced by the movement of the rail vehicle is conducted to a position directly in front of the wheels of a leading axle of the rail vehicle in the direction of travel, and wherein the air flow produced has a horizontal speed component normal to the direction of movement of the rail vehicle , wherein the air baffle is arranged at an angle to the longitudinal axis of the rail vehicle .
A microorganism which is a Bacillus sp. ITB105 strain (NITE BP-01727).
Tyre for a heavy-duty vehicle, this tyre comprising a tread having a thickness E of wearable material and a tread surface intended to come into contact with a roadway, this tread having at least one raised element , this raised element having a contact face forming part of the tread surface , lateral faces intersecting the contact face along edge corners, each raised element having a height at least equal to the thickness E of wearable material, this at least one raised element comprising a plurality of sipes distributed in the circumferential direction, these sipes being inclined through the thickness of the tread, namely making an angle (A) other than zero degrees with a radial plane (ZZ') perpendicular to the contact face of the raised element , these inclined sipes intersecting the contact face of the raised element to form edge corners, these inclined sipes having suitable widths such that they close up at least partially when they enter the contact patch in contact with the roadway, this tyre being characterized in that the material which, when new, forms the radially external part (Ce) of the tread and is intended to be in contact, when new, with a roadway is chosen such that it has the following physical properties: - a tan(δ)max/(G ∗ 25%) ratio is at most equal to 0.065, in which tan(δ)max is the measurement, at 60°C, of the loss factor of the material of which the tread is made, and G ∗ 25% is the complex dynamic shear modulus at 25% strain, expressed in MPa, of this material as obtained according to the recommendations of standard ASTM D 5992-96, and - a deformation at break under tensile testing that is at least equal to 530%, this value being obtained at a temperature of 60°C according to the recommendations of French standard NF T 46-002. - a tan(δ)max/(G ∗ 25%) ratio is at most equal to 0.065, in which tan(δ)max is the measurement, at 60°C, of the loss factor of the material of which the tread is made, and G ∗ 25% is the complex dynamic shear modulus at 25% strain, expressed in MPa, of this material as obtained according to the recommendations of standard ASTM D 5992-96, and - a deformation at break under tensile testing that is at least equal to 530%, this value being obtained at a temperature of 60°C according to the recommendations of French standard NF T 46-002.
A method of providing ballasted clarification of water or wastewater, comprising: introducing an influent into a first zone , the influent comprising the water or wastewater and a coagulant ; agitating or mixing the influent in the first zone , wherein flocs develop in the influent caused at least in part by the coagulant ; providing the influent from the first zone into a second zone ; introducing polymer and ballast particles into the influent in the second zone , wherein the ballast particles have an aspect ratio of less than 1.15; agitating or mixing the influent in the second zone , causing the ballast to move through the influent and penetrate the flocs; providing the influent from the second zone into a third zone ; agitating or mixing the influent in the third zone , wherein the agitation or mixing in the third zone causes larger flocs to form through collision of smaller flocs among the flocs; providing the influent into a clarifying tank having a bottom and a top, wherein the ballast particles in flocs cause the flocs to settle to the bottom of the clarifier ; outputting an effluent from the top of the clarifying tank , the effluent comprising clear or substantially clear water . introducing an influent into a first zone , the influent comprising the water or wastewater and a coagulant ; agitating or mixing the influent in the first zone , wherein flocs develop in the influent caused at least in part by the coagulant ; providing the influent from the first zone into a second zone ; introducing polymer and ballast particles into the influent in the second zone , wherein the ballast particles have an aspect ratio of less than 1.15; agitating or mixing the influent in the second zone , causing the ballast to move through the influent and penetrate the flocs; providing the influent from the second zone into a third zone ; agitating or mixing the influent in the third zone , wherein the agitation or mixing in the third zone causes larger flocs to form through collision of smaller flocs among the flocs; providing the influent into a clarifying tank having a bottom and a top, wherein the ballast particles in flocs cause the flocs to settle to the bottom of the clarifier ; outputting an effluent from the top of the clarifying tank , the effluent comprising clear or substantially clear water .
Tool for producing a fiber composite component having at least two tool parts which have partial cavities and which are moved together in a production position in such a manner that said two tool parts form a cavity in which the fiber composite component is able to be produced, wherein at least a first tool part is assigned a retention element which is able to retain the produced fiber composite component in first tool part when the tool parts are moved apart after the production of the fiber composite component, and which is pivotable between a starting position and a holding position.
A portable device for detection of biomarkers in exhaled air, provided with a control module (S), interface system (I), a mouthpiece (U), a sensor unit (M) and an air line, leading the air from mouthpiece (U) through a sensor unit (M) to an outlet port (O1), wherein the air line includes a moisture filter (F) and the sensor unit (M) is configured for detection of biomarkers and is connected with a control module (S) connected to an interface system (I), wherein the air line also includes a pre-concentrator (P) and a carbon dioxide sensor (CO2) connected with the control module (S), which is provided with a measurement triggering module (W) configured to trigger a measurement executed with the sensor unit (M) when the carbon dioxide sensor (CO 2 ) indication exceeds a threshold, the carbon dioxide sensor (CO2) is located in the air line upstream of the sensor unit (M) the device further has a second outlet port (O2) and a three-way valve (Z3) located in the air line downstream of the carbon dioxide sensor (CO2), directing air to the second outlet port (O2) in its first position (A), a controlled valve cutting off air flow to the sensor unit, and to the pre-concentrator (P), the sensor unit (M) and the first outlet port (O1) in its second position (B), wherein the pre-concentrator (P) is integrated with the moisture filter (F) in a single module including an air duct filled with absorbing and adsorbing compounds. to the second outlet port (O2) in its first position (A), a controlled valve cutting off air flow to the sensor unit, and to the pre-concentrator (P), the sensor unit (M) and the first outlet port (O1) in its second position (B),