mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless communication method by a user equipment, UE, , comprising: being configured with a gap by a base station , wherein the gap comprises a duration of 16 μs, the gap comprises a first slot and a second slot after the first slot in time domain, one of the first slot and the second slot comprises a duration of 7 μs, and the other of the first slot and the second slot comprises a duration of 9 μs; and performing a listen before talk, LBT, by performing a measurement in a part of at least one of the first slot and the second slot; wherein when the first slot comprises the duration of 7 μs and the second slot comprises the duration of 9 μs, the measurement is performed in at least x μs of the first slot and the measurement is performed in at least 4 μs of the second slot, respectively, where x is 1; the LBT is successful if a measured energy based on the measurement is lower than an energy detection, ED, threshold. being configured with a gap by a base station , wherein the gap comprises a duration of 16 μs, the gap comprises a first slot and a second slot after the first slot in time domain, one of the first slot and the second slot comprises a duration of 7 μs, and the other of the first slot and the second slot comprises a duration of 9 μs; and performing a listen before talk, LBT, by performing a measurement in a part of at least one of the first slot and the second slot; wherein when the first slot comprises the duration of 7 μs and the second slot comprises the duration of 9 μs, the measurement is performed in at least x μs of the first slot and the measurement is performed in at least 4 μs of the second slot, respectively, where x is 1; the LBT is successful if a measured energy based on the measurement is lower than an energy detection, ED, threshold.
An aerosol delivery device configured to yield an inhalable substance, the aerosol delivery device comprising: a control body having a closed distal end and an open engaging end; a heating member ; a control component located within the control body and configured to control the heating member; a power source located within the control body and configured to provide power to the control component; and a removable aerosol source member that includes a substrate portion , the aerosol source member being configured to be inserted into the engaging end of the control body and defining a heated end and a mouth end , the heated end configured, when inserted into the control body, to be positioned proximate the heating member, and the mouth end configured to extend beyond the engaging end of the control body, wherein the substrate portion includes a continuous thermally conductive framework integrated with an aerosol forming material , wherein the continuous thermally conductive framework is configured to enhance heat transfer from the heating member to the aerosol forming material, the aerosol delivery device characterised in that the continuous thermally conductive framework comprises a central elongate component having a plurality of spikes extending radially therefrom, and in that the central elongate component is made of different material than the plurality of spikes. a control body having a closed distal end and an open engaging end; a heating member ; a control component located within the control body and configured to control the heating member; a power source located within the control body and configured to provide power to the control component; and a removable aerosol source member that includes a substrate portion , the aerosol source member being configured to be inserted into the engaging end of the control body and defining a heated end and a mouth end , the heated end configured, when inserted into the control body, to be positioned proximate the heating member, and the mouth end configured to extend beyond the engaging end of the control body, wherein the substrate portion includes a continuous thermally conductive framework integrated with an aerosol forming material , wherein the continuous thermally conductive framework is configured to enhance heat transfer from the heating member to the aerosol forming material, the aerosol delivery device characterised in that the continuous thermally conductive framework comprises a central elongate component having a plurality of spikes extending radially therefrom, and in that the central elongate component is made of different material than the plurality of spikes.
A process comprising the following steps: (a) treating sodium carboxymethyl cellulose with a weak acid to form an acid form of carboxymethyl cellulose; and (b) treating the acid form of carboxymethyl cellulose with lithium chloride to form lithium carboxymethyl cellulose; wherein the acid form of the carboxymethyl cellulose is isolated by filtration after acidification in step (a) and before the treatment with the lithium chloride in step (b). (a) treating sodium carboxymethyl cellulose with a weak acid to form an acid form of carboxymethyl cellulose; and (b) treating the acid form of carboxymethyl cellulose with lithium chloride to form lithium carboxymethyl cellulose;
A cableway carriage for carrying a load by utilizing a cableway that has a main cable , and a rope including a trigger , the cableway carriage comprising: a base member ; a main cable braking member that has a braking face that comes into contact with the main cable and that is secured to the base member; characterised in that , a first lever that has a first fulcrum serving as a center of rotation and provided to the base member, a first lever braking face provided in a position facing the braking face, a biasing member that biases the first lever braking face in a direction of separation from the braking face, and a drive pulley capable of applying a force in the direction in which the first lever braking face is brought close to the braking face by the tensile force of the rope; and a second lever that has a second fulcrum secured to the base member and serving as a center of rotation, and a first lever pressing part capable of pressing the first lever in the direction in which the first lever braking face is separated from the braking face, wherein, when the trigger , which indicates that the load has reached a predetermined height, presses the second lever, the second lever causes the first lever to separate the first lever braking face from the braking face. a base member ; a main cable braking member that has a braking face that comes into contact with the main cable and that is secured to the base member; characterised in that , a first lever that has a first fulcrum serving as a center of rotation and provided to the base member, a first lever braking face provided in a position facing the braking face, a biasing member that biases the first lever braking face in a direction of separation from the braking face, and a drive pulley capable of applying a force in the direction in which the first lever braking face is brought close to the braking face by the tensile force of the rope; and a second lever that has a second fulcrum secured to the base member and serving as a center of rotation, and a first lever pressing part capable of pressing the first lever in the direction in which the first lever braking face is separated from the braking face, wherein, when the trigger , which indicates that the load has reached a predetermined height, presses the second lever, the second lever causes the first lever to separate the first lever braking face from the braking face.
A rock drilling machine comprising a flushing head , the rock drilling machine including a machine housing and, inside a cylinder , a to and fro moveable percussive piston arranged to exert percussive action against a shank adapter , wherein the shank adapter has symmetry axis and a flushing medium channel for co-operation with a flushing medium chamber in the flushing head surrounding the shank adapter , said flushing head being provided with a connection unit for the connection to a flushing hose , wherein the rock drilling machine is characterized in - that the flushing head and the machine housing exhibit co-operating fastening means and fastening elements , - that said co-operating fastening means and fastening elements are arranged essentially in line with a force direction of tensile forces (F) being exerted by the flushing medium hose on the connection unit , in operation of the rock drilling machine , and - that said co-operating fastening means and fastening elements are relatively moveable and thereby allow movability of the flushing head in respect of the machine housing in directions perpendicular to said symmetry axis . - that the flushing head and the machine housing exhibit co-operating fastening means and fastening elements , - that said co-operating fastening means and fastening elements are arranged essentially in line with a force direction of tensile forces (F) being exerted by the flushing medium hose on the connection unit , in operation of the rock drilling machine , and - that said co-operating fastening means and fastening elements are relatively moveable and thereby allow movability of the flushing head in respect of the machine housing in directions perpendicular to said symmetry axis .
A bio-impedance measurement device , comprising: a memory configured to store a plurality of compensation parameters; a plurality of probes configured to be coupled to a biological body (104a-d); a first detection channel configured to: receive a first detection signal representative of a bio-impedance, through one of the plurality of probes; and compensate the first detection signal using a first compensation parameter of the plurality of compensation parameters; and a second detection channel configured to: receive a second detection signal and a third detection signal both representative of a bio-impedance, through another two of the plurality of probes; and compensate the second and third detection signals using second and third compensation parameters of the plurality of compensation parameters and the compensated first detection signal; wherein the bio-impedance measurement device generates a first output signal representative of a first impedance measurement and a second output signal representative of a second impedance measurement based on the compensated first, second and third detection signals. a memory configured to store a plurality of compensation parameters; a plurality of probes configured to be coupled to a biological body (104a-d); a first detection channel configured to: receive a first detection signal representative of a bio-impedance, through one of the plurality of probes; and compensate the first detection signal using a first compensation parameter of the plurality of compensation parameters; and receive a first detection signal representative of a bio-impedance, through one of the plurality of probes; and compensate the first detection signal using a first compensation parameter of the plurality of compensation parameters; and a second detection channel configured to: receive a second detection signal and a third detection signal both representative of a bio-impedance, through another two of the plurality of probes; and compensate the second and third detection signals using second and third compensation parameters of the plurality of compensation parameters and the compensated first detection signal; receive a second detection signal and a third detection signal both representative of a bio-impedance, through another two of the plurality of probes; and compensate the second and third detection signals using second and third compensation parameters of the plurality of compensation parameters and the compensated first detection signal; wherein the bio-impedance measurement device generates a first output signal representative of a first impedance measurement and a second output signal representative of a second impedance measurement based on the compensated first, second and third detection signals.
An A 3 adenosine receptor (A 3 AR) ligand for use in a method for treating sexual dysfunction; wherein said A 3 AR ligand is an A 3 AR agonist selected from N 6 -2-(4-aminophenyl) ethyladenosine (APNEA), N 6 -(4-amino-3-iodobenzyl) adenosine-5'-(N-methyluronamide) (AB-MECA), N 6 -(3-iodobenzyl)-adenosine-5'-N-methyluronamide (IB-MECA) and 2-chloro-N 6 -(3-iodobenzyl)-adenosine-5'-N-methyluronamide (Cl-IB-MECA); and wherein said sexual dysfunction is erectile dysfunction.
A method for isolating a cell or tissue from a culture preparation comprising a medium composition permitting culture of a cell or a tissue in suspension, wherein the medium composition comprises deacylated gellan gum or a salt thereof, and an acidic polysaccharide or a salt thereof capable of maintaining a random coil state in a divalent metal cation medium and cross-linking via a divalent metal ion, wherein a concentration of the deacylated gellan gum or a salt thereof in the medium composition is 0.002 - 0.01 (w/v)%, a concentration of the aforementioned acidic polysaccharide or a salt thereof is 0.004 - 0.1 (w/v)%, and a mass ratio of the aforementioned acidic polysaccharide or a salt thereof to the deacylated gellan gum or a salt thereof is not less than 2, wherein the aforementioned acidic polysaccharide is alginic acid, and, a cell or a tissue, comprising applying a shear force to the culture preparation.
A sensor, comprising: a sensor chip including a plurality of pixels (10;30) of the backside illumination type, the plurality of pixels (10; 30) being arranged in an array in a pixel region (A1) of the sensor chip , and an isolation region , each pixel (10; 30) including: an avalanche photodiode (21c; 21-1, 21-2) to convert incident light into electric charge and including an anode and a cathode at a side opposite to a back surface side of the avalanche photodiode , wherein the cathode is in a well region of the sensor chip , wherein the isolation region isolates the well region (103 of each pixel of the plurality of pixels from the one or more adjacent pixels of the plurality of pixels (10; 30); characterised in that each pixel includes a negative fixed charge film formed between the isolation region and the well region at side surfaces of the isolation region, the negative fixed charge film inducing a hole accumulation region between the isolation region and the well region , wherein the hole accumulation region is physically and electrically connected to the anode ; and in that the sensor further comprises: a logic chip stacked on the sensor chip including a circuit configured to process signals from the avalanche photodiodes (21c; 21-1, 21-2) and to supply electric power to the avalanche photodiodes (21c; 21-1, 21-2), wherein the sensor chip and the logic chip are electrically connected via respective wiring layers abutting each other. an avalanche photodiode (21c; 21-1, 21-2) to convert incident light into electric charge and including an anode and a cathode at a side opposite to a back surface side of the avalanche photodiode , wherein the cathode is in a well region of the sensor chip , wherein the isolation region isolates the well region (103 of each pixel of the plurality of pixels from the one or more adjacent pixels of the plurality of pixels (10; 30); characterised in that each pixel includes a negative fixed charge film formed between the isolation region and the well region at side surfaces of the isolation region, the negative fixed charge film inducing a hole accumulation region between the isolation region and the well region , wherein the hole accumulation region is physically and electrically connected to the anode ; and in that the sensor further comprises: a logic chip stacked on the sensor chip including a circuit configured to process signals from the avalanche photodiodes (21c; 21-1, 21-2) and to supply electric power to the avalanche photodiodes (21c; 21-1, 21-2), wherein the sensor chip and the logic chip are electrically connected via respective wiring layers abutting each other. a logic chip stacked on the sensor chip including a circuit configured to process signals from the avalanche photodiodes (21c; 21-1, 21-2) and to supply electric power to the avalanche photodiodes (21c; 21-1, 21-2), wherein the sensor chip and the logic chip are electrically connected via respective wiring layers abutting each other.
A thin-film element with multilayer structure for security papers or value documents, comprising a trilayer with two semitransparent metallic layers and a dielectric spacer layer arranged between the two semitransparent metallic layers, wherein the multilayer structure has at least one nanostructured region in which the multilayer structure is configured into aperiodically, i.e. not uniformly spaced, arranged, cone-shaped or cone-like elevations and the multilayer structure has at least one plane region, wherein the nanostructured region appears dark and the plane region appears metallically lustrous.
A method of converting an analog input signal to a high fidelity digital output signal, comprising the steps of: transmitting an analog input signal from an analog signal source; providing the analog input signal in at least two stages having distinct levels of amplification; converting each resultant amplified analog input signal to a digital input signal for the respective stage, wherein the digital input signal for the respective stage comprises digital data samples; assigning the digital data samples for each stage for a given frame of time to a frame of data overlapping in time with a previous frame of data for the stage and a subsequent frame of data for the stage, where each frame of data is stored in a buffer for the respective stage; translating a frame of data in at least one buffer for one stage to match a frame of data from another buffer for another stage, on a frame by frame basis; applying a window function overlapping in time to each frame of data to create windowed data packets for each respective stage: wherein the sum of sequential window functions is unity; providing the windowed data packets as inputs to a combiner; selecting a windowed data packet for one of the stages to be used by the combiner to generate the digital output signal; wherein the decision on which windowed data packets to select for a given frame of time is based at least in part on an accuracy of fit parameter created during the translation of a frame of data from one buffer to match another, wherein translating a frame of data includes adjusting at least one of gain, DC offset, slope or delay. transmitting an analog input signal from an analog signal source; providing the analog input signal in at least two stages having distinct levels of amplification; converting each resultant amplified analog input signal to a digital input signal for the respective stage, wherein the digital input signal for the respective stage comprises digital data samples; assigning the digital data samples for each stage for a given frame of time to a frame of data overlapping in time with a previous frame of data for the stage and a subsequent frame of data for the stage, where each frame of data is stored in a buffer for the respective stage; translating a frame of data in at least one buffer for one stage to match a frame of data from another buffer for another stage, on a frame by frame basis; applying a window function overlapping in time to each frame of data to create windowed data packets for each respective stage: wherein the sum of sequential window functions is unity; providing the windowed data packets as inputs to a combiner; selecting a windowed data packet for one of the stages to be used by the combiner to generate the digital output signal; wherein the decision on which windowed data packets to select for a given frame of time is based at least in part on an accuracy of fit parameter created during the translation of a frame of data from one buffer to match another, wherein translating a frame of data includes adjusting at least one of gain, DC offset, slope or delay.
A kit comprising: (a) a Toxoplasma gondii-derived antigen composition selected from the group consisting of: a. isolated and purified SEQ ID NO: 2 (MIC1), b. a fusion protein comprising MIC1 fused to a moiety that enhances or facilitates purification, recombinant production, or immune cell stimulation, and c. combinations thereof; and (b) an applicator device comprising a patch and/or a needle and/or a prong and wherein the applicator device is configured for administration of the Toxoplasma gondii -derived antigen percutaneously, by puncturing skin of a subject. (a) a Toxoplasma gondii-derived antigen composition selected from the group consisting of: a. isolated and purified SEQ ID NO: 2 (MIC1), b. a fusion protein comprising MIC1 fused to a moiety that enhances or facilitates purification, recombinant production, or immune cell stimulation, and c. combinations thereof; and a. isolated and purified SEQ ID NO: 2 (MIC1), b. a fusion protein comprising MIC1 fused to a moiety that enhances or facilitates purification, recombinant production, or immune cell stimulation, and c. combinations thereof; and (b) an applicator device comprising a patch and/or a needle and/or a prong and wherein the applicator device is configured for administration of the Toxoplasma gondii -derived antigen percutaneously, by puncturing skin of a subject.
A pharmaceutical composition including: an amphiphilic pyridinium compound selected from the group consisting of and wherein X - is acetate, mesylate, oxylate, chloride, bromide or iodide, and a pharmaceutically acceptable carrier for use in treating epilepsy or related neurological disorders characterized by epileptic seizures in a mammal, wherein a therapeutically effective amount of the pharmaceutical composition is to be administered to the mammal. an amphiphilic pyridinium compound selected from the group consisting of and wherein X - is acetate, mesylate, oxylate, chloride, bromide or iodide, and a pharmaceutically acceptable carrier for use in treating epilepsy or related neurological disorders characterized by epileptic seizures in a mammal, wherein a therapeutically effective amount of the pharmaceutical composition is to be administered to the mammal.
A composition for use for the protection of a cornea, comprising a compound of formula (I): wherein Ra is selected from the group consisting of halo, hydroxy, alkyl, halo-substituted alkyl, aryl, halo- or alkyl-substituted aryl, alkoxy, hydroxy- or carboxy-substituted alkoxy, aryloxy, halo- or alkyl-substituted aryloxy, CHO, C(O)-alkyl, C(O)-aryl, C(O)-alkyl-carboxyl, C(O)-alkylene-carboxy ester, and cyano, and m is an integer selected from 0 to 4, or an ester, oxide, pharmaceutically acceptable salt or solvate thereof. Ra is selected from the group consisting of halo, hydroxy, alkyl, halo-substituted alkyl, aryl, halo- or alkyl-substituted aryl, alkoxy, hydroxy- or carboxy-substituted alkoxy, aryloxy, halo- or alkyl-substituted aryloxy, CHO, C(O)-alkyl, C(O)-aryl, C(O)-alkyl-carboxyl, C(O)-alkylene-carboxy ester, and cyano, and m is an integer selected from 0 to 4, or an ester, oxide, pharmaceutically acceptable salt or solvate thereof.
An amusement park attraction system , comprising: a railing extending along a user path extending through at least a portion of the amusement park attraction system ; characterised by a platform slidingly and rotatably coupled to the railing , wherein the platform is configured to translate along the railing to position the platform relative to the user path , and the platform is configured to rotate relative to the user path to adjust between a stowed configuration and a deployed configuration. a railing extending along a user path extending through at least a portion of the amusement park attraction system ; characterised by a platform slidingly and rotatably coupled to the railing , wherein the platform is configured to translate along the railing to position the platform relative to the user path , and the platform is configured to rotate relative to the user path to adjust between a stowed configuration and a deployed configuration.