mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting and receiving a signal through user equipment, UE-to-UE communication by a UE in a wireless communication system, the method comprising: transmitting, by the UE , a first signal in a contention slot included in one contention section from among a plurality of contention sections in a frequency domain of the one contention section; in response to the first signal, receiving (S901), by the UE , a second signal in the contention slot and in the same frequency domain of the one contention section; and transmitting, by the UE , the UE-to-UE signals in a data subframe and in a frequency domain of the data subframe, wherein the frequency domain of the data subframe is selected among a plurality of frequency domains of the data subframe mapped to the frequency domain of the one contention section. transmitting, by the UE , a first signal in a contention slot included in one contention section from among a plurality of contention sections in a frequency domain of the one contention section; in response to the first signal, receiving (S901), by the UE , a second signal in the contention slot and in the same frequency domain of the one contention section; and transmitting, by the UE , the UE-to-UE signals in a data subframe and in a frequency domain of the data subframe, wherein the frequency domain of the data subframe is selected among a plurality of frequency domains of the data subframe mapped to the frequency domain of the one contention section.
Conjugate between stanozolol and hyaluronic acid or a hyaluronic acid salt, wherein stanozolol is conjugated with the carboxylic group of hyaluronic acid or of the hyaluronic acid salt via a spacer which forms an ester bond with the hydroxyl group of stanozolol and an ester or amide bond with the carboxyl group of hyaluronic acid or of the hyaluronic acid salt.
Hand-operated or automatic handgun with a small- or medium-caliber weapon barrel and a weapon barrel carrier receiving the weapon barrel , having the features: a) the weapon barrel and the weapon barrel carrier are connected to one another by a recoil brake and a recuperator ; b) the recoil brake comprises at least one hydraulic cylinder with a piston located therein having a piston rod and being axially displaceable relative to the hydraulic cylinder , wherein either the hydraulic cylinder is connected to the weapon barrel and the piston rod is connected to the weapon barrel carrier or the hydraulic cylinder is connected to the weapon barrel carrier and the piston rod is connected to the weapon barrel ; c) the inner wall of the hydraulic cylinder has at least one axial passage for continuous connection of a cylinder chamber of the hydraulic cylinder in front of the piston to the cylinder chamber behind the piston . a) the weapon barrel and the weapon barrel carrier are connected to one another by a recoil brake and a recuperator ; b) the recoil brake comprises at least one hydraulic cylinder with a piston located therein having a piston rod and being axially displaceable relative to the hydraulic cylinder , wherein either the hydraulic cylinder is connected to the weapon barrel and the piston rod is connected to the weapon barrel carrier or the hydraulic cylinder is connected to the weapon barrel carrier and the piston rod is connected to the weapon barrel ; c) the inner wall of the hydraulic cylinder has at least one axial passage for continuous connection of a cylinder chamber of the hydraulic cylinder in front of the piston to the cylinder chamber behind the piston .
A method of detecting human immunodeficiency virus (HIV) in a subject with HIV-1 or HIV-2, or a subject suspected of having an HIV infection (AIDS), the method comprising performing PCR amplification of R region nucleic acid in a biological sample obtained from the subject, wherein the amplification comprises forward and reverse primers which hybridise to sequences located within the R region of the long terminal repeats (LTRs) of HIV, and subsequently detecting any amplification, wherein detecting amplification is indicative of the presence of HIV in the subject, wherein the amplification will result in both R regions present within the 5' and 3' LTRs to be amplified, and wherein: (i) the forward primer is a HIV-1 primer consisting of the sequence SEQ ID NO:7, or SEQ ID NO:29; and the reverse primer is a HIV-1 primer consisting of the sequence SEQ ID NO:9, or SEQ ID NO:30; or (ii) the forward primer is a HIV-2 primer consisting of the sequence SEQ ID NO:14, SEQ ID NO:33, or SEQ ID NO:35; and the reverse primer is a HIV-2 primer consisting of the sequence SEQ ID NO:16, SEQ ID NO:32, SEQ ID NO:34 or SEQ ID NO:36. (i) the forward primer is a HIV-1 primer consisting of the sequence SEQ ID NO:7, or SEQ ID NO:29; and the reverse primer is a HIV-1 primer consisting of the sequence SEQ ID NO:9, or SEQ ID NO:30; or (ii) the forward primer is a HIV-2 primer consisting of the sequence SEQ ID NO:14, SEQ ID NO:33, or SEQ ID NO:35; and the reverse primer is a HIV-2 primer consisting of the sequence SEQ ID NO:16, SEQ ID NO:32, SEQ ID NO:34 or SEQ ID NO:36.
A cellular signal booster , comprising: a cellular signal amplifier configured to amplify signals for a wireless device ; an integrated device antenna coupled to the cellular signal amplifier , wherein the integrated device antenna is configured to transmit signals from the cellular signal amplifier to the wireless device ; and an integrated node antenna coupled to the cellular signal amplifier, wherein the integrated node antenna is configured to transmit signals from the cellular signal amplifier to a base station ; said cellular signal booster further comprising a wireless charging circuitry configured to wirelessly charge the wireless device when the wireless device is placed in proximity to the signal booster ; said booster having a first extremity where said integrated node antenna is located and a second extremity opposite to said first extremity where said integrated device antenna is located; said cellular signal amplifier being coupled to both said antennas and said wireless charging circuit being provided between said integrated device antenna and said cellular signal amplifier. a cellular signal amplifier configured to amplify signals for a wireless device ; an integrated device antenna coupled to the cellular signal amplifier , wherein the integrated device antenna is configured to transmit signals from the cellular signal amplifier to the wireless device ; and an integrated node antenna coupled to the cellular signal amplifier, wherein the integrated node antenna is configured to transmit signals from the cellular signal amplifier to a base station ; said cellular signal booster further comprising a wireless charging circuitry configured to wirelessly charge the wireless device when the wireless device is placed in proximity to the signal booster ; said booster having a first extremity where said integrated node antenna is located and a second extremity opposite to said first extremity where said integrated device antenna is located; said cellular signal amplifier being coupled to both said antennas and said wireless charging circuit being provided between said integrated device antenna and said cellular signal amplifier.
A battery, comprising: a positive electrode assembly comprising a positive electrode substrate, a positive electrode active material coated at one surface of the positive electrode substrate, and a positive electrode tab attached to the one surface of the positive electrode substrate; a negative electrode assembly comprising a negative electrode substrate, a negative electrode active material coated at one surface of the negative electrode substrate, and a negative electrode tab attached to the one surface of the negative electrode substrate; and a separator located between the positive electrode assembly and the negative electrode assembly, wherein in a first area facing the positive electrode tab at the one surface of the negative electrode substrate, the negative electrode active material is not coated, and in a second area adjacent to the first area in a length direction of the positive electrode tab at the one surface of the negative electrode substrate, the negative electrode active material is coated. a positive electrode assembly comprising a positive electrode substrate, a positive electrode active material coated at one surface of the positive electrode substrate, and a positive electrode tab attached to the one surface of the positive electrode substrate; a negative electrode assembly comprising a negative electrode substrate, a negative electrode active material coated at one surface of the negative electrode substrate, and a negative electrode tab attached to the one surface of the negative electrode substrate; and a separator located between the positive electrode assembly and the negative electrode assembly, wherein in a first area facing the positive electrode tab at the one surface of the negative electrode substrate, the negative electrode active material is not coated, and in a second area adjacent to the first area in a length direction of the positive electrode tab at the one surface of the negative electrode substrate, the negative electrode active material is coated.
A composition comprising a copolyamide containing 60 to 70 mol% 2-methyl-1,5-pentamethyleneterephthalamide ("MPMD-T") units and 30 to 40 mol% 2-methyl-1,5-pentamethyleneisophthalamide ("MPMD-I") units, wherein the copolyamide has a relative viscosity ("RV"), as determined according to the ISO 307 (RV) method, of more than 1.90.
An apparatus for human identification, comprising: a receiver configured for receiving at least one wireless signal from a multipath channel that is impacted by a person to be identified; a processor ; and a memory communicatively coupled with the processor, wherein the processor is configured to: extract channel state information (CSI) from the at least one wireless signal, obtain radio biometric information based on the CSI, wherein the radio biometric information represents how the at least one wireless signal was impacted by at least part of a body of the person, map the radio biometric information into time-reversal, TR, space, quantify and evaluating a similarity between different radio biometrics using time-reversal resonance strength, TRRS, and determine an identity of the person based on the radio biometric information and the TRRS. a receiver configured for receiving at least one wireless signal from a multipath channel that is impacted by a person to be identified; a processor ; and a memory communicatively coupled with the processor, wherein the processor is configured to: extract channel state information (CSI) from the at least one wireless signal, obtain radio biometric information based on the CSI, wherein the radio biometric information represents how the at least one wireless signal was impacted by at least part of a body of the person, map the radio biometric information into time-reversal, TR, space, quantify and evaluating a similarity between different radio biometrics using time-reversal resonance strength, TRRS, and determine an identity of the person based on the radio biometric information and the TRRS. extract channel state information (CSI) from the at least one wireless signal, obtain radio biometric information based on the CSI, wherein the radio biometric information represents how the at least one wireless signal was impacted by at least part of a body of the person, map the radio biometric information into time-reversal, TR, space, quantify and evaluating a similarity between different radio biometrics using time-reversal resonance strength, TRRS, and determine an identity of the person based on the radio biometric information and the TRRS.
Method for producing a microtitration plate (MTX) having capture molecular coatings, wherein the capture molecules are antigens or antibodies, comprising the following steps: - providing a first carrier membrane (M1) and a second carrier membrane (M2); - coating the first carrier membrane (M1) with the respective first blot lines (BL1) which each comprise a respective capture molecule type; - coating the second carrier membrane (M2) with the respective second blot lines (BL2) which each comprise a respective capture molecule type; - removing from the first carrier membrane (M1) a first membrane segment (MS1) which comprises respective line portions (LA11, ..., LA14) of the respective first blot lines (BL1); - removing from the second carrier membrane (M2) a second membrane segment (MS2) which comprises respective line portions (LA21, ..., LA23) of the respective second blot lines (BL2); - positioning and fixing the first membrane segment (MS1) on a carrier layer (T); - positioning and fixing the second membrane segment (MS2) on the carrier layer (T); - removing from the carrier layer (T) a carrier layer segment (TS) which comprises the first and the second membrane segment (MS1, MS2); - positioning and fixing the carrier layer segment (TS) in a well (W, W2) of the microtitration plate (MTX). - providing a first carrier membrane (M1) and a second carrier membrane (M2); - coating the first carrier membrane (M1) with the respective first blot lines (BL1) which each comprise a respective capture molecule type; - coating the second carrier membrane (M2) with the respective second blot lines (BL2) which each comprise a respective capture molecule type; - removing from the first carrier membrane (M1) a first membrane segment (MS1) which comprises respective line portions (LA11, ..., LA14) of the respective first blot lines (BL1); - removing from the second carrier membrane (M2) a second membrane segment (MS2) which comprises respective line portions (LA21, ..., LA23) of the respective second blot lines (BL2); - positioning and fixing the first membrane segment (MS1) on a carrier layer (T); - positioning and fixing the second membrane segment (MS2) on the carrier layer (T); - removing from the carrier layer (T) a carrier layer segment (TS) which comprises the first and the second membrane segment (MS1, MS2); - positioning and fixing the carrier layer segment (TS) in a well (W, W2) of the microtitration plate (MTX).
A wavelength converter comprising: a substrate portion ; and an optical conversion layer including optical conversion inorganic particles and a binder portion that mutually holds the optical conversion inorganic particles , and being formed on the substrate portion , wherein the substrate portion and the binder portion bond to each other, and wherein the binder portion includes, as a main component, an inorganic polycrystalline substance composed in such a manner that inorganic material particles having an average particle size of 1 μm or less are bound to one another, and has thermal conductivity of 2 w/mK or more, wherein the inorganic polycrystalline substance is a dilute-acid pressed inorganic sintered body, and wherein, in the substrate portion and the binder portion , the substrate portion and the dilute-acid pressed inorganic sintered body in the binder portion directly bond to each other in at least a part of an interface between the substrate portion and the binder portion . a substrate portion ; and an optical conversion layer including optical conversion inorganic particles and a binder portion that mutually holds the optical conversion inorganic particles , and being formed on the substrate portion , wherein the substrate portion and the binder portion bond to each other, and wherein the binder portion includes, as a main component, an inorganic polycrystalline substance composed in such a manner that inorganic material particles having an average particle size of 1 μm or less are bound to one another, and has thermal conductivity of 2 w/mK or more, wherein the inorganic polycrystalline substance is a dilute-acid pressed inorganic sintered body, and wherein, in the substrate portion and the binder portion , the substrate portion and the dilute-acid pressed inorganic sintered body in the binder portion directly bond to each other in at least a part of an interface between the substrate portion and the binder portion .
A system comprising: a seismic streamer device configured to attach to a locking collar assembly , the device comprising a pylon ; and a latch mechanism and a seat component disposed in or coupled to the pylon , the latch mechanism comprising a pin member configured to attach to the locking collar assembly and a compression bias component , and the seat component configured to provide a seat to retain a first end of the compression bias component ; wherein the compression bias component is configured to apply a bias force on the pin member to attach the locking collar assembly to the device ; wherein the bias force is responsive to a position of the seat component, wherein the seat component is a separate component from the pylon , said seat component being inserted or installed within the pylon and being selectively removable from the pylon ; characterised in that: the seat component includes a seat plate inserted into a slot formed in the pylon , the seat plate configured to provide the seat. a seismic streamer device configured to attach to a locking collar assembly , the device comprising a pylon ; and a latch mechanism and a seat component disposed in or coupled to the pylon , the latch mechanism comprising a pin member configured to attach to the locking collar assembly and a compression bias component , and the seat component configured to provide a seat to retain a first end of the compression bias component ; wherein the compression bias component is configured to apply a bias force on the pin member to attach the locking collar assembly to the device ; wherein the bias force is responsive to a position of the seat component, wherein the seat component is a separate component from the pylon , said seat component being inserted or installed within the pylon and being selectively removable from the pylon ; characterised in that: the seat component includes a seat plate inserted into a slot formed in the pylon , the seat plate configured to provide the seat.
A method of determining whether or not a subject has melanoma, including: determining an expression level of one or more miRNA biomarkers in a biological sample from a subject, wherein the one or more miRNA biomarkers are selected from the group consisting of miRNA-4487, miRNA-4706 and miRNA-4731, and wherein melanoma is detected if said expression level of one or more miRNA biomarkers is altered or modulated in the biological sample.
Home appliance, in particular laundry treatment apparatus, dish washer, dryer or washing machine, the home appliance comprising: an articles treatment chamber , a process air channel for guiding process air (A) to or from the articles treatment chamber for treating the articles using the process air (A), a liquid guiding device having an inlet and an outlet , wherein the liquid guiding device is adapted to guide liquid from the inlet to the outlet , wherein the outlet is adapted to direct the liquid to a component of the appliance and/or to a predefined location of the appliance , and wherein the liquid guiding device is formed by and is a portion of the process air channel characterized in that the liquid guiding device comprises at least one guiding shell formed in a process air channel section and the process air channel section is one or more of the following: a portion of the home appliance basement shell , the cover shell of the home appliance basement is housing, at least partially, at least one heat exchanger exchanging heat between two airflows, part of a heat pump battery channel , part of a home appliance bottom shell , or part of a stationary articles treatment chamber . an articles treatment chamber , a process air channel for guiding process air (A) to or from the articles treatment chamber for treating the articles using the process air (A), a liquid guiding device having an inlet and an outlet , wherein the liquid guiding device is adapted to guide liquid from the inlet to the outlet , wherein the outlet is adapted to direct the liquid to a component of the appliance and/or to a predefined location of the appliance , and wherein the liquid guiding device is formed by and is a portion of the process air channel a portion of the home appliance basement shell , the cover shell of the home appliance basement is housing, at least partially, at least one heat exchanger exchanging heat between two airflows, part of a heat pump battery channel , part of a home appliance bottom shell , or part of a stationary articles treatment chamber .
An aerosol-generating article comprising: an aerosol-forming substrate ; and a hollow tubular support element disposed immediately downstream of the aerosol-forming substrate , the hollow tubular support element comprising fibrous filtration material, wherein the hollow tubular support element defines an opening for aerosol to flow from the aerosol-forming substrate towards the mouth end of the article, and wherein at least a portion of the material of the hollow tubular support element inwardly projects into the opening to define one or more internal projections . an aerosol-forming substrate ; and a hollow tubular support element disposed immediately downstream of the aerosol-forming substrate , the hollow tubular support element comprising fibrous filtration material, wherein the hollow tubular support element defines an opening for aerosol to flow from the aerosol-forming substrate towards the mouth end of the article, and wherein at least a portion of the material of the hollow tubular support element inwardly projects into the opening to define one or more internal projections .
A method comprising: accessing, by a chromatographic alignment system , a target file including data representative of a plurality of chromatographic features detected from a first sample and a reference file including data representative of a plurality of chromatographic features detected from a second sample, identifying, by the chromatographic alignment system based on the target file and the reference file , a distinct retention time offset value for each chromatographic feature included in a first subset of the plurality of chromatographic features detected from the first sample, determining, based on the identified distinct retention time offset values for the chromatographic features included in the first subset and based on a machine learning model, a distinct predicted retention time offset value for each chromatographic feature included in a second subset of the plurality of chromatographic features detected from the first sample, and assigning, by the chromatographic alignment system , the distinct predicted retention time offset value for each chromatographic feature included in the second subset . accessing, by a chromatographic alignment system , a target file including data representative of a plurality of chromatographic features detected from a first sample and a reference file including data representative of a plurality of chromatographic features detected from a second sample, identifying, by the chromatographic alignment system based on the target file and the reference file , a distinct retention time offset value for each chromatographic feature included in a first subset of the plurality of chromatographic features detected from the first sample, determining, based on the identified distinct retention time offset values for the chromatographic features included in the first subset and based on a machine learning model, a distinct predicted retention time offset value for each chromatographic feature included in a second subset of the plurality of chromatographic features detected from the first sample, and assigning, by the chromatographic alignment system , the distinct predicted retention time offset value for each chromatographic feature included in the second subset .