mhurhangee/patent-ind-claim-en huggingface dataset:
A method of indicating a system timing of an access point, comprising: determining a subframe index value of a particular subframe, SF, relative to the system timing of the access point; determining a subframe offset value based on the subframe index value; indicating the subframe offset value using a Discovery Reference Signal, DRS; and transmitting the DRS to at least one access terminal during the particular SF, wherein the DRS includes a Physical Broadcast Channel, PBCH, payload that is configured to be generated in accordance with a plurality of redundancy versions, each redundancy version of the plurality of redundancy versions being associated with a particular redundancy version value, and indicating the subframe offset value using the DRS comprises: selecting a redundancy version value that is equal to the subframe offset value; and generating a redundancy version of the PBCH payload based on the selected redundancy version value. determining a subframe index value of a particular subframe, SF, relative to the system timing of the access point; determining a subframe offset value based on the subframe index value; indicating the subframe offset value using a Discovery Reference Signal, DRS; and transmitting the DRS to at least one access terminal during the particular SF, wherein the DRS includes a Physical Broadcast Channel, PBCH, payload that is configured to be generated in accordance with a plurality of redundancy versions, each redundancy version of the plurality of redundancy versions being associated with a particular redundancy version value, and indicating the subframe offset value using the DRS comprises: selecting a redundancy version value that is equal to the subframe offset value; and generating a redundancy version of the PBCH payload based on the selected redundancy version value. selecting a redundancy version value that is equal to the subframe offset value; and generating a redundancy version of the PBCH payload based on the selected redundancy version value.
A system for managing bird populations, the system comprising: (a) a drone ; characterized by (b) a disruptor comprising an extension arm having a proximal end and a distal end , the proximal end being operatively coupled with the drone , and the distal end comprising a tool portion , wherein the tool portion comprises a piercing element constructed for engagement with one or more eggs in a nest, wherein the tool portion comprises a hub with a distal surface and a plurality of piercing elements , wherein the plurality of piercing elements extend outwardly from the distal surface of the hub . (a) a drone ; characterized by (b) a disruptor comprising an extension arm having a proximal end and a distal end , the proximal end being operatively coupled with the drone , and the distal end comprising a tool portion ,
A method of making a supported carbon molecular sieve membrane, comprising: (i) contacting a film of a carbon forming polymer with a polymer textile to form a laminate; (ii) heating the laminate to a carbonization temperature for a time under an atmosphere sufficient to carbonize the film and polymer textile to form the supported carbon molecular sieve membrane comprised of a carbon separating layer supported on a carbon textile layer wherein the carbon forming polymer of the film and polymer textile are selected from the group consisting of polyvinylidene chloride copolymer, polyimide, or combinations thereof; the carbon forming polymer of the film and the polymer of the textile upon heating undergo expansion and contraction at the same temperatures in the same manner; and the carbon separating layer is a continuous film; the contacting is comprised of heating to a laminating temperature that fuses a portion of the film to the textile; the carbon separating layer supported on the carbon textile layer is graphitically bonded where the film is fused to the textile; and the carbon separating layer is a continuous film. (i) contacting a film of a carbon forming polymer with a polymer textile to form a laminate; (ii) heating the laminate to a carbonization temperature for a time under an atmosphere sufficient to carbonize the film and polymer textile to form the supported carbon molecular sieve membrane comprised of a carbon separating layer supported on a carbon textile layer wherein the carbon forming polymer of the film and polymer textile are selected from the group consisting of polyvinylidene chloride copolymer, polyimide, or combinations thereof; the carbon forming polymer of the film and the polymer of the textile upon heating undergo expansion and contraction at the same temperatures in the same manner; and the carbon separating layer is a continuous film; the contacting is comprised of heating to a laminating temperature that fuses a portion of the film to the textile; the carbon separating layer supported on the carbon textile layer is graphitically bonded where the film is fused to the textile; and the carbon separating layer is a continuous film.
An arrangement for the deep strip tillage of a soil forming tilled channels in non-tilled soil, wherein a secondary working element includes one or more working element sections , wherein, in a working position, a first working element section exhibits a larger working depth than a primary working element , characterized in that each working element section comprises a share arrangement arranged between plate-shaped first and second shanks , said first and second shanks being attached to side edges of the share arrangement and forming borders between a loose-soil channel and a portion of the non-tilled soil , each working element section of the share arrangement forming the desired width of the channel , further working element sections each exhibiting a larger working depth than the preceding working element section , the working element sections exhibiting a horizontal spacing, viewed rearwards from the first working element sections relative to the working direction (WD) of the secondary working element , and the centre lines of successive working element sections being arranged in the same plane. a first working element section exhibits a larger working depth than a primary working element , characterized in that each working element section comprises a share arrangement arranged between plate-shaped first and second shanks , said first and second shanks being attached to side edges of the share arrangement and forming borders between a loose-soil channel and a portion of the non-tilled soil , each working element section of the share arrangement forming the desired width of the channel , further working element sections each exhibiting a larger working depth than the preceding working element section , the working element sections exhibiting a horizontal spacing, viewed rearwards from the first working element sections relative to the working direction (WD) of the secondary working element , and the centre lines of successive working element sections being arranged in the same plane.
A method of wireless communication performed by an apparatus of a user equipment, UE, the method comprising: receiving a configuration from a first base station for the UE to perform a conditional handover; determining that a first unlicensed frequency channel is unavailable for a transmission to the first base station or from the first base station, wherein the determining that the first unlicensed frequency channel is unavailable for the transmission comprises determining the first unlicensed frequency channel is unavailable for the transmission based on at least one of a listen before talk, LBT, protocol failing due to a number of failed attempts exceeding a first threshold number of failed attempts or a duration of failed attempts exceeding a first threshold duration ; and switching from the first unlicensed frequency channel to a second cell for communication through the second cell in the conditional handover upon receiving the configuration and upon determining that the first unlicensed frequency channel is unavailable for the transmission. receiving a configuration from a first base station for the UE to perform a conditional handover; determining that a first unlicensed frequency channel is unavailable for a transmission to the first base station or from the first base station, wherein the determining that the first unlicensed frequency channel is unavailable for the transmission comprises determining the first unlicensed frequency channel is unavailable for the transmission based on at least one of a listen before talk, LBT, protocol failing due to a number of failed attempts exceeding a first threshold number of failed attempts or a duration of failed attempts exceeding a first threshold duration ; and switching from the first unlicensed frequency channel to a second cell for communication through the second cell in the conditional handover upon receiving the configuration and upon determining that the first unlicensed frequency channel is unavailable for the transmission.
A medical device , comprising: a handle ; an actuator movably coupled to the handle ; a shaft extending distally from the handle ; and a sheath including a distal end disposed within the shaft and a proximal end disposed within the handle , wherein the sheath includes a plurality of branches (128A-D) secured to one another at the distal end and separated from one another at the proximal end, wherein the plurality of branches (128A-D) form a closed lumen along the distal end of the sheath and an open lumen at the proximal end of the sheath ; wherein the actuator is coupled to each of the plurality of branches (128A-D) at the proximal end of the sheath , and the actuator is configured to move each of the plurality of branches (128A-D) relative to one another to articulate the shaft in a plurality of directions. a handle ; an actuator movably coupled to the handle ; a shaft extending distally from the handle ; and a sheath including a distal end disposed within the shaft and a proximal end disposed within the handle , wherein the sheath includes a plurality of branches (128A-D) secured to one another at the distal end and separated from one another at the proximal end, wherein the plurality of branches (128A-D) form a closed lumen along the distal end of the sheath and an open lumen at the proximal end of the sheath ; wherein the actuator is coupled to each of the plurality of branches (128A-D) at the proximal end of the sheath , and the actuator is configured to move each of the plurality of branches (128A-D) relative to one another to articulate the shaft in a plurality of directions.
A method of forming a device, the method comprising: growing a p-type layer ; forming a mask layer on a surface of the p-type layer ; growing a light emitting layer and an n-type layer on the mask layer and the p-type layer , the light emitting layer being sandwiched between the p-type layer and the n-type layer ; forming at least one embedded trench by removing the mask layer , the at least one embedded trench exposing at least one portion of the p-type layer to an ambient environment; and then annealing the device. growing a p-type layer ; forming a mask layer on a surface of the p-type layer ; growing a light emitting layer and an n-type layer on the mask layer and the p-type layer , the light emitting layer being sandwiched between the p-type layer and the n-type layer ; forming at least one embedded trench by removing the mask layer , the at least one embedded trench exposing at least one portion of the p-type layer to an ambient environment; and then annealing the device.
Angled electrical plug-in connector for attachment to an assembly housing, comprising an angled plug housing and a flange base , wherein the plug housing has a connection limb for an electrical plug-in connector and also a connecting limb for the flange base , and the flange base has a fastening flange for the assembly housing and also a receiving sleeve for the connecting limb , and the connecting limb which passes through at least the receiving sleeve , by way of a free end-side limb portion , projects beyond the fastening flange and is fixed to the flange base rotatably in the circumferential direction, and wherein at least one annular seal is arranged between the receiving sleeve and the connecting limb and also an annular sealing element is attached at the end side to the fastening flange on a contact side associated with the assembly housing, characterized in that the annular sealing element is designed as a moulded seal with an axial pressing portion and a radial pressing portion , wherein the axial pressing portion creates a sealing effect between the fastening flange and the assembly housing and the radial pressing portion creates a sealing effect between the fastening flange and the end-side limb portion of the connecting limb .
A medical device system comprising: a medical device interface (216; 310; 410; 1100) configured to download data from an implanted medical device (100; 214; 314; 401; 1146), memory storing electrode location identification rules and display definitions, wherein each of the display definitions correspond to possible electrode placement locations of the implanted medical device, characterised in that said downloaded data comprises patient physiological data (10; 20; 30) including electrogram data sensed by electrodes (112; 113; 222; 1132; 1134) of the implanted medical device, the electrode location identification rules comprise an algorithm to correlate the morphology of the physiological data with actual electrode placement locations; processing circuitry configured to compare the downloaded data from the implanted medical device to the electrode location identification rules to identify one or more actual electrode placement locations of the possible electrode placement locations of the implanted medical device, and wherein the processing circuitry is configured to compare the patient physiological data to the algorithm; and a user output interface (460; 901) in communication with the processing circuitry, wherein the processing circuitry is configured to cause the user output interface to display the one or more actual electrode placement locations. a medical device interface (216; 310; 410; 1100) configured to download data from an implanted medical device (100; 214; 314; 401; 1146), memory storing electrode location identification rules and display definitions, wherein each of the display definitions correspond to possible electrode placement locations of the implanted medical device, characterised in that said downloaded data comprises patient physiological data (10; 20; 30) including electrogram data sensed by electrodes (112; 113; 222; 1132; 1134) of the implanted medical device, the electrode location identification rules comprise an algorithm to correlate the morphology of the physiological data with actual electrode placement locations; processing circuitry configured to compare the downloaded data from the implanted medical device to the electrode location identification rules to identify one or more actual electrode placement locations of the possible electrode placement locations of the implanted medical device, and wherein the processing circuitry is configured to compare the patient physiological data to the algorithm; and a user output interface (460; 901) in communication with the processing circuitry, wherein the processing circuitry is configured to cause the user output interface to display the one or more actual electrode placement locations.
A method of regulating a pitch angle of the blades of a propulsion element of a turbomachine, comprising the generation of a pitch command (i final ) as a function of a propeller rotation speed (XN mes ) and a speed setpoint (XN cons ), and comprising a nominal control chain in which the pitch command is generated also as a function of a value of a pitch angle (βmes) of the blades of the propulsion element, the method being characterized in that it comprises a degraded control chain in which the pitchcommand is generated independently of a value of a pitch pitchangle of the blades of the propulsion element.
A method of evaluating an object disposed on an upper surface of an object holder, the method comprising: - acquiring at least one first frame representing a captured portion of the object disposed on the upper surface of the object holder, while the object holder is positioned successively at each of a plurality of locations; - acquiring at least one second frame representing a captured portion of at least one other surface of the object holder while the object holder is positioned at each of the plurality of locations, wherein the at least one other surface of the object holder is a lower surface of the object holder; and - determining at least one spatial characteristic associated with the captured portion of the object, based on at least one of the acquired frames. - acquiring at least one first frame representing a captured portion of the object disposed on the upper surface of the object holder, while the object holder is positioned successively at each of a plurality of locations; - acquiring at least one second frame representing a captured portion of at least one other surface of the object holder while the object holder is positioned at each of the plurality of locations, wherein the at least one other surface of the object holder is a lower surface of the object holder; and - determining at least one spatial characteristic associated with the captured portion of the object, based on at least one of the acquired frames.
A method for improving colour stability of an end use composition by reducing composition discoloration which originates from an active which is present in the end use composition, the method comprising preparing the end use composition with a dispersed nanoemulsion dispersed therein, the nanoemulsion being prepared by mixing (a) the active; (b) water; (c) water soluble humectant (d) oil; and (e) emulsifier using a high-pressure homogenizer with homogenization pressure set at 10,34214 to 41,36854 megapascals (1500 to 6000 psi); wherein the active is soluble in the oil, the nanoemulsion has a particle size from 0.05 to less than 1.5 microns and comprises at least 30% by weight oil; wherein the oil is a mineral oil, and wherein the active is retinyl propionate, and wherein the water soluble humectant is glycerine. (a) the active; (b) water; (c) water soluble humectant (d) oil; and (e) emulsifier using a high-pressure homogenizer with homogenization pressure set at 10,34214 to 41,36854 megapascals (1500 to 6000 psi); wherein the active is soluble in the oil, the nanoemulsion has a particle size from 0.05 to less than 1.5 microns and comprises at least 30% by weight oil; wherein the oil is a mineral oil, and wherein the active is retinyl propionate, and wherein the water soluble humectant is glycerine.
Integrated process for the production of urea and urea-ammonium nitrate, comprising: a) the production of aqueous solution of urea starting from ammonia and carbon dioxide, in a urea synthesis process; b) the production of ammonium nitrate from ammonia and nitric acid in a ammonium nitrate stage (AN), c) wherein at least part of said aqueous solution of urea is mixed with at least part of the ammonium nitrate to produce urea-ammonium nitrate in a urea-ammonium nitrate stage (UAN), d) said urea synthesis process comprising the reaction of ammonia and carbon dioxide at a synthesis pressure to form a urea reaction mixture containing urea and unconverted materials, and also comprising the recovery of unconverted materials in a plurality of recovery stages including at least a first recovery stage (MPR) operating at a first recovery pressure lower than said synthesis pressure, and a second recovery stage (AR) operating at a second recovery pressure lower than said first recovery pressure, the process being characterized by the following: e) offgas released by a step of carbamate decomposition (AD) in the second recovery stage, and containing unconverted ammonia, are at least partially condensed at said second recovery pressure, obtaining condensate offgas ; f) recycling at least part of said condensate offgas , or a solution containing at least part of said condensate offgas , to said first recovery stage (MPR); g) withdrawing an ammonia-containing stream from said first recovery stage (MPR) at said first recovery pressure, and feeding said ammonia-containing stream to the ammonium nitrate stage (AN). a) the production of aqueous solution of urea starting from ammonia and carbon dioxide, in a urea synthesis process; b) the production of ammonium nitrate from ammonia and nitric acid in a ammonium nitrate stage (AN), c) wherein at least part of said aqueous solution of urea is mixed with at least part of the ammonium nitrate to produce urea-ammonium nitrate in a urea-ammonium nitrate stage (UAN), d) said urea synthesis process comprising the reaction of ammonia and carbon dioxide at a synthesis pressure to form a urea reaction mixture containing urea and unconverted materials, and also comprising the recovery of unconverted materials in a plurality of recovery stages including at least a first recovery stage (MPR) operating at a first recovery pressure lower than said synthesis pressure, and a second recovery stage (AR) operating at a second recovery pressure lower than said first recovery pressure, e) offgas released by a step of carbamate decomposition (AD) in the second recovery stage, and containing unconverted ammonia, are at least partially condensed at said second recovery pressure, obtaining condensate offgas ; f) recycling at least part of said condensate offgas , or a solution containing at least part of said condensate offgas , to said first recovery stage (MPR); g) withdrawing an ammonia-containing stream from said first recovery stage (MPR) at said first recovery pressure, and feeding said ammonia-containing stream to the ammonium nitrate stage (AN).