mhurhangee/patent-ind-claim-en huggingface dataset:
A system for storing and sharing elevator trips, comprising: a controller ; a database operationally coupled to the controller ; an elevator car in electronic communication with the controller and operationally located at a first location ; a network in electronic communication with the controller ; a blockchain implemented on the network , wherein the controller is configured to: store on the database , ride detail information indicative of an elevator ride experience of a passenger onboard the elevator car ; and characterised in that the controller is configured to: generate a nonfungible token linked to the ride detail information; upload the nonfungible token to the blockchain ; and provide the nonfungible token to a nonfungible token wallet on a mobile phone . a controller ; a database operationally coupled to the controller ; an elevator car in electronic communication with the controller and operationally located at a first location ; a network in electronic communication with the controller ; a blockchain implemented on the network , wherein the controller is configured to: store on the database , ride detail information indicative of an elevator ride experience of a passenger onboard the elevator car ; and characterised in that the controller is configured to: generate a nonfungible token linked to the ride detail information; upload the nonfungible token to the blockchain ; and provide the nonfungible token to a nonfungible token wallet on a mobile phone . store on the database , ride detail information indicative of an elevator ride experience of a passenger onboard the elevator car ; and characterised in that the controller is configured to: generate a nonfungible token linked to the ride detail information; upload the nonfungible token to the blockchain ; and provide the nonfungible token to a nonfungible token wallet on a mobile phone . generate a nonfungible token linked to the ride detail information; upload the nonfungible token to the blockchain ; and provide the nonfungible token to a nonfungible token wallet on a mobile phone .
A mould tool configured to form a polypropylene PCR plate comprising a channel , a main body and an overflow area ; wherein the channel is configured to facilitate the introduction of molten polypropylene plastics material into the main body and wherein the main body is configured to facilitate the flow of the said molten polypropylene plastics into the overflow area once the main body of the mould tool has been filled with the said molten polypropylene plastics; wherein the main body is open only to the channel and the overflow area , wherein the overflow area is only open to the main body such that the only entrance/exit to the mould tool is via the channel , wherein the main body of the mould tool comprises portions configured to create thick areas and thin areas in the said polypropylene PCR plate ; and wherein the main body is configured to facilitate the flow of the said molten polypropylene plastics material from the portions configured to create thin areas in the said polypropylene PCR plate through an exit point that would form the bottom of wells of said polypropylene PCR plate into the overflow area .
A positioning device for locating a planar light beam emitted by an optical triangulation sensor across the radial gap between a distal edge of a turbine blade and the inner surface of an annular casing in which the turbine blade is rotatably mounted, the positioning device comprising: an attachment device for mounting on the turbine blade, the attachment device having a frame for supporting an optical triangulation sensor in a fixed position relative to the attachment device; and an orientation sensing device mounted on the attachment device, the orientation sensing device being arranged to detect its orientation with respect to the direction in which gravity acts, thereby to sense an orientation of the turbine blade when the attachment device is mounted thereon, wherein the attachment device includes a shaped retention profile adapted to mate with the turbine blade at a fixed radial position thereon. an attachment device for mounting on the turbine blade, the attachment device having a frame for supporting an optical triangulation sensor in a fixed position relative to the attachment device; and an orientation sensing device mounted on the attachment device, the orientation sensing device being arranged to detect its orientation with respect to the direction in which gravity acts, thereby to sense an orientation of the turbine blade when the attachment device is mounted thereon, wherein the attachment device includes a shaped retention profile adapted to mate with the turbine blade at a fixed radial position thereon.
Process for the production of coated textiles, comprising at least the steps of a) bringing a textile substrate into contact with an aqueous solution A comprising at least one inorganic salt and at least one modified cellulose, b) bringing a textile substrate into contact with an aqueous dispersion B comprising at least one polymer selected from the group consisting of polyacrylate and polybutadiene and c) precipitation of the at least one polymer selected from the group consisting of polyacrylate and polybutadiene in or on the textile substrate. a) bringing a textile substrate into contact with an aqueous solution A comprising at least one inorganic salt and at least one modified cellulose, b) bringing a textile substrate into contact with an aqueous dispersion B comprising at least one polymer selected from the group consisting of polyacrylate and polybutadiene and c) precipitation of the at least one polymer selected from the group consisting of polyacrylate and polybutadiene in or on the textile substrate.
Vehicle seat comprising at least: - a seat support structure which is adjustable between an initial upright position (P1) and at least a fully inclined position (P2), - a track assembly configured to adjust the seat support structure in a longitudinal direction (L), and - a slide assembly configured to adjust the seat support structure in a substantially vertical direction (V), wherein the seat support structure comprises at least - a seat pan (2.1) which is mounted to the track assembly , and - a backrest (2.2) which is mounted to the seat pan (2.1) and which is coupled to the slide assembly , wherein during a longitudinal adjustment of the seat support structure between a first horizontal position (HP1) and a second horizontal position (HP2), at least the backrest (2.2) is moved in the vertical direction (V) between a first vertical position (VP1) and a second vertical position (VP2), and wherein the backrest (2.2) is attached to the slide assembly through a free pivot such that the backrest (2.2) pivots and inclines as the seat support structure travels forward and partially lower, thereby a rear region (2.1.2) of the seat pan (2.1) drops and a front region (2.1.1) of the seat pan (2.1) raises while the backrest (2.2) is reclined. - a seat support structure which is adjustable between an initial upright position (P1) and at least a fully inclined position (P2), - a track assembly configured to adjust the seat support structure in a longitudinal direction (L), and - a slide assembly configured to adjust the seat support structure in a substantially vertical direction (V), wherein the seat support structure comprises at least - a seat pan (2.1) which is mounted to the track assembly , and - a backrest (2.2) which is mounted to the seat pan (2.1) and which is coupled to the slide assembly , wherein during a longitudinal adjustment of the seat support structure between a first horizontal position (HP1) and a second horizontal position (HP2), at least the backrest (2.2) is moved in the vertical direction (V) between a first vertical position (VP1) and a second vertical position (VP2), and wherein the backrest (2.2) is attached to the slide assembly through a free pivot such that the backrest (2.2) pivots and inclines as the seat support structure travels forward and partially lower, thereby a rear region (2.1.2) of the seat pan (2.1) drops and a front region (2.1.1) of the seat pan (2.1) raises while the backrest (2.2) is reclined.
A pharmaceutical composition comprising drospirenone for use as a contraceptive for a female patient in need thereof, wherein: (a) a daily active dosage unit of said composition comprises an amount of drospirenone of about 2 mg to about 6 mg of drospirenone, one or more pharmaceutically-acceptable excipients, and does not contain any estrogen, and wherein said daily active dosage unit is to be administered under a dosing regimen which comprises administering said daily active dosage unit for 24 consecutive days followed by 4 consecutive days wherein no active dosage unit is administered to said patient; and wherein (b) the dissolution rate of said daily active dosage unit is such that when subjected to an in vitro dissolution test according to the USP XXIII Paddle Method, (i) no more than 50% of the drospirenone initially present in said daily active dosage unit is dissolved within 30 minutes, and (ii) at least 50% of the drospirenone initially present in said daily active dosage unit is dissolved in a time range from 3 hours to 4 hours. (a) a daily active dosage unit of said composition comprises an amount of drospirenone of about 2 mg to about 6 mg of drospirenone, one or more pharmaceutically-acceptable excipients, and does not contain any estrogen, and wherein said daily active dosage unit is to be administered under a dosing regimen which comprises administering said daily active dosage unit for 24 consecutive days followed by 4 consecutive days wherein no active dosage unit is administered to said patient; and wherein (b) the dissolution rate of said daily active dosage unit is such that when subjected to an in vitro dissolution test according to the USP XXIII Paddle Method, (i) no more than 50% of the drospirenone initially present in said daily active dosage unit is dissolved within 30 minutes, and (ii) at least 50% of the drospirenone initially present in said daily active dosage unit is dissolved in a time range from 3 hours to 4 hours. (i) no more than 50% of the drospirenone initially present in said daily active dosage unit is dissolved within 30 minutes, and (ii) at least 50% of the drospirenone initially present in said daily active dosage unit is dissolved in a time range from 3 hours to 4 hours.
A semiconductor device , comprising: an isolation structure ; a first active area formed on the isolation structure ; a protection area formed on the isolation structure and laterally surrounding the first active area ; a second active area formed on the isolation structure and laterally surrounding the protection area ; a first trench isolation structure electrically separating the first active area and the protection area ; a second trench isolation structure electrically separating the protection area and the second active area ; and a protection structure in the protection area , wherein a first pin of the protection structure is electrically connected to the first active area and a second pin of the protection structure is electrically connected to the second active area , characterized in that the protection structure comprises a plurality of protection elements consecutively arranged substantially along a sidewall of the first trench isolation structure and serially connected to one another substantially along the sidewall of the first trench isolation structure ,and each of or groups of the plurality of protection elements are laterally surrounded by a closed-loop trench device isolation structure not surrounding the first active area . an isolation structure ; a first active area formed on the isolation structure ; a protection area formed on the isolation structure and laterally surrounding the first active area ; a second active area formed on the isolation structure and laterally surrounding the protection area ; a first trench isolation structure electrically separating the first active area and the protection area ; a second trench isolation structure electrically separating the protection area and the second active area ; and a protection structure in the protection area , wherein a first pin of the protection structure is electrically connected to the first active area and a second pin of the protection structure is electrically connected to the second active area , characterized in that the protection structure comprises a plurality of protection elements consecutively arranged substantially along a sidewall of the first trench isolation structure and serially connected to one another substantially along the sidewall of the first trench isolation structure ,and each of or groups of the plurality of protection elements are laterally surrounded by a closed-loop trench device isolation structure not surrounding the first active area .
A first device comprising: means for receiving at least one transport block from a second device on a predetermined bandwidth part for a transmission to the first device , the at least one transport block is transmitted in a set of subbands of the predetermined bandwidth part; means for generating at least one feedback based on a set of reception states of the at least one transport block in the set of subbands; and means for transmitting the at least one feedback to the second device wherein the at least one feedback is configured to cause the second device to adjust a contention window size for a further transmission from the second device to the first device , wherein the at least one feedback is configured to reset the contention window size for a subband in the set of subbands for a successful reception of the at least one transport block in the subband of the set of subbands and to increase the contention window size for an unsuccessful reception of the at least one transport block in the subband of the set of subbands. means for receiving at least one transport block from a second device on a predetermined bandwidth part for a transmission to the first device , the at least one transport block is transmitted in a set of subbands of the predetermined bandwidth part; means for generating at least one feedback based on a set of reception states of the at least one transport block in the set of subbands; and means for transmitting the at least one feedback to the second device wherein the at least one feedback is configured to cause the second device to adjust a contention window size for a further transmission from the second device to the first device , wherein the at least one feedback is configured to reset the contention window size for a subband in the set of subbands for a successful reception of the at least one transport block in the subband of the set of subbands and to increase the contention window size for an unsuccessful reception of the at least one transport block in the subband of the set of subbands.
Method for starting up a heating appliance , having a conveying device for conveying a combustion mixture of combustion gas and combustion air to a burner and a gas valve for controlling a flow rate of combustion gas, the method comprising at least the following steps: a) detecting a volume flow of combustion air V̇ Air ( t 0 ) supplied to the burner before the gas valve of the heating appliance is opened at a time t 0 , b) Detecting the volume flow of combustion air V̇ Air ( t ) after the gas valve is opened at a time t, c) determining a ratio R(t) with R t = V ̇ Air t V ̇ Air t 0 and d) determining a virtual combustion air ratio λ (V) ( t) by means of λ V t = R t A × 1 − R t , where the factor A represents a minimum air volume of the combustion of the fuel gas. a) detecting a volume flow of combustion air V̇ Air ( t 0 ) supplied to the burner before the gas valve of the heating appliance is opened at a time t 0 , b) Detecting the volume flow of combustion air V̇ Air ( t ) after the gas valve is opened at a time t, c) determining a ratio R(t) with R t = V ̇ Air t V ̇ Air t 0 and d) determining a virtual combustion air ratio λ (V) ( t) by means of λ V t = R t A × 1 − R t ,
A method comprising: determining a position of a user in a virtual reality, VR, environment; determining a position of objects (10A - 10C) in the VR environment; identifying collision volumes , each associated with one of the objects (10A - 10C) and each permitting the user to interact with the respective associated object (10A - 10C) by interacting with the collision volume ; modifying the collision volumes along a direction between the object and the position of the user to define modified collision volumes (30A - 30C), the method being characterized in that the modifying includes elongating the collision volume associated with each object (10A - 10C) at least one of toward or away from the position of the user , wherein when the user moves from a first position to a second position, moving the modified collision volumes (30A - 30C) associated with the objects (10A-10C) such that the modified collision volumes (30A-30C) are aligned with corresponding vectors (19, 19', 19") which are aligned between the position of the user and the positions of the objects (10A-10C), and causing the modified collision volumes (30A-30C) to overlap to permit the user to interact with multiple objects (10A - 10C) simultaneously. determining a position of a user in a virtual reality, VR, environment; determining a position of objects (10A - 10C) in the VR environment; identifying collision volumes , each associated with one of the objects (10A - 10C) and each permitting the user to interact with the respective associated object (10A - 10C) by interacting with the collision volume ; modifying the collision volumes along a direction between the object and the position of the user to define modified collision volumes (30A - 30C), the method being characterized in that the modifying includes elongating the collision volume associated with each object (10A - 10C) at least one of toward or away from the position of the user , wherein when the user moves from a first position to a second position, moving the modified collision volumes (30A - 30C) associated with the objects (10A-10C) such that the modified collision volumes (30A-30C) are aligned with corresponding vectors (19, 19', 19") which are aligned between the position of the user and the positions of the objects (10A-10C), and causing the modified collision volumes (30A-30C) to overlap to permit the user to interact with multiple objects (10A - 10C) simultaneously.
A method for producing rare earth permanent magnet comprising the steps of applying a slurry of a powder in a solvent to sintered magnet bodies of R 1 -Fe-B composition, wherein R 1 is one or more elements selected from Y, Sc and rare earth elements, the powder containing one or more compounds selected from an oxide, fluoride, oxyfluoride, hydroxide and hydride of R 2 , wherein R 2 is one or more elements selected from Y, Sc and rare earth elements, drying the slurry to coat the sintered magnet bodies with the powder, and heat treating the coated bodies for causing R 2 to be absorbed in the sintered magnet bodies , the method characterized in that it further comprises the steps of: providing a conveyor drum having a plurality of holding pockets circumferentially arranged in its periphery, rotating the conveyor drum while a portion of the drum is immersed in the slurry , placing a sintered magnet body in one holding pocket at a predetermined position of the drum prior to entry into the slurry , so that the sintered magnet body is held in the holding pocket , the sintered magnet body being conveyed along the rotational track of the conveyor drum , immersed in the slurry , then withdrawn from the slurry , and conveyed further whereby the slurry is dried and the sintered magnet body is coated with the powder, recovering the sintered magnet body from the pocket at a predetermined position after the drying treatment and prior to re-entry into the slurry , and subjecting the sintered magnet body to the subsequent heat treatment. providing a conveyor drum having a plurality of holding pockets circumferentially arranged in its periphery, rotating the conveyor drum while a portion of the drum is immersed in the slurry , placing a sintered magnet body in one holding pocket at a predetermined position of the drum prior to entry into the slurry , so that the sintered magnet body is held in the holding pocket , the sintered magnet body being conveyed along the rotational track of the conveyor drum , immersed in the slurry , then withdrawn from the slurry , and conveyed further whereby the slurry is dried and the sintered magnet body is coated with the powder, recovering the sintered magnet body from the pocket at a predetermined position after the drying treatment and prior to re-entry into the slurry , and subjecting the sintered magnet body to the subsequent heat treatment.
Mounting for a radar of a vehicle comprising a main element and a receiving element , the main element comprising two parts , the first part being capable of cooperating with the receiving element arranged at the front of the vehicle , the second part being capable of cooperating with the radar , characterized in that the two parts of the main element are joined by at least one retractable lug comprising at least one fold line.
A wireless power transmitter adapted to wirelessly transmit power to a wireless power receiver , the wireless power transmitter comprising: a power source configured to generate power and to input an input voltage (Vrms) to the wireless power transmitter ; a transmission coil configured to wirelessly transmit the power to a reception coil included in the wireless power receiver ; a detecting unit , and a power control unit , characterized in that the detecting unit is configured to measure a first input impedance (Z1) seen by the power source to the wireless power transmitter and to detect a coupling coefficient (K2) between the transmission coil and a reception coil based on the measured first input impedance (Z1), the power control unit is configured to control the power source to change the input voltage (Vrms) according to the detected coupling coefficient (K2) such that the power transmitted from the wireless power transmitter to the wireless power receiver is kept at a predetermined level. a power source configured to generate power and to input an input voltage (Vrms) to the wireless power transmitter ; a transmission coil configured to wirelessly transmit the power to a reception coil included in the wireless power receiver ; a detecting unit , and a power control unit , characterized in that the detecting unit is configured to measure a first input impedance (Z1) seen by the power source to the wireless power transmitter and to detect a coupling coefficient (K2) between the transmission coil and a reception coil based on the measured first input impedance (Z1), the power control unit is configured to control the power source to change the input voltage (Vrms) according to the detected coupling coefficient (K2) such that the power transmitted from the wireless power transmitter to the wireless power receiver is kept at a predetermined level.