mhurhangee/patent-ind-claim-en huggingface dataset:
An atomizer, comprising an e-liquid tank; the e-liquid tank comprising an e-liquid chamber and an air vent communicating with the e-liquid chamber ; wherein: the air vent is in the form of an air channel or a hole;the atomizer further comprises an airflow channel communicating with the air vent; the e-liquid tank comprises a main body and a sealing member ; the e-liquid chamber is disposed in the main body ; the sealing member is disposed on one end of the main body to seal the e-liquid chamber ; a junction between the sealing member and the main body comprises the air channel functioning as the air vent; characterised in that: the main body comprises at least one groove at the junction between the main body and sealing member , and/or the sealing member comprises at least one groove at the junction between the main body and sealing member ; and the at least one groove is a part of the air channel. the air vent is in the form of an air channel or a hole;the atomizer further comprises an airflow channel communicating with the air vent; the e-liquid tank comprises a main body and a sealing member ; the e-liquid chamber is disposed in the main body ; the sealing member is disposed on one end of the main body to seal the e-liquid chamber ; a junction between the sealing member and the main body comprises the air channel functioning as the air vent;
An apparatus for placing examination objects by blowing, comprising: - a container fixing means for holding a container , wherein the container is equipped with a first cap filter at the opening and contains a mixed solution with the examination objects ; wherein the container fixing means is configured to hold the container so that the cap filter faces down; - a suction unit positioned below the container fixing means with an air ejecting and sucking means, wherein the air ejecting and sucking means can be coupled to a filter for letting a solution through and blocking the examination objects , in a state where the opening of the container containing the mixed solution is coupled to the upper end of the filter ; - a blower unit comprising a nozzle , said blower unit being for generating, when a slide is located on the upper end of the filter on which the examination objects are placed, positive pressure in the lower end of the filter and placing the examination objects placed on the filter onto the slide ; and - a filter transfer means for sequentially transferring the filter onto the suction unit and the blower unit , - control means configured to control the filter transfer means, to control the air ejection amount, the air suction amount, the number of air ejections, and the number of air suctions by the air ejecting and sucking means; wherein the control means are configured, when the suction unit is coupled to the filter in a state where the opening of the container is coupled to the upper end of the filter , to control the air ejecting and sucking means so as to firstly expel air to the lower end of the filter so that the examination objects , settled in the first cap filter of the container , are floated and uniformly spread in the mixed solution; and to secondly suck the examination objects from the container to place the examination objects on the filter . - a container fixing means for holding a container , wherein the container is equipped with a first cap filter at the opening and contains a mixed solution with the examination objects ; wherein the container fixing means is configured to hold the container so that the cap filter faces down; - a suction unit positioned below the container fixing means with an air ejecting and sucking means, wherein the air ejecting and sucking means can be coupled to a filter for letting a solution through and blocking the examination objects , in a state where the opening of the container containing the mixed solution is coupled to the upper end of the filter ; - a blower unit comprising a nozzle , said blower unit being for generating, when a slide is located on the upper end of the filter on which the examination objects are placed, positive pressure in the lower end of the filter and placing the examination objects placed on the filter onto the slide ; and - a filter transfer means for sequentially transferring the filter onto the suction unit and the blower unit , - control means configured to control the filter transfer means, to control the air ejection amount, the air suction amount, the number of air ejections, and the number of air suctions by the air ejecting and sucking means;
A wireless communication method , comprising: receiving , by a terminal device , a first indication message sent by a network device , wherein the first indication message comprises information about a flight transmission characteristic supported by at least one cell; and reporting, by the terminal device , flight route information to the network device , wherein the flight route information comprises at least one of a three-dimensional flight speed, a three-dimensional flight direction, and information about an intermediate node location that are of the terminal device, receiving, by the terminal device , a second indication message determined and sent after receiving the flight route information by the network device , wherein the second indication message includes configuration information of a first resource for transmitting the data; receiving, by the terminal device , on the first resource and another preconfigured resource according to the second indication message, the data transmitted by the network device , wherein data transmitted on each of the resources is the same. receiving , by a terminal device , a first indication message sent by a network device , wherein the first indication message comprises information about a flight transmission characteristic supported by at least one cell; and reporting, by the terminal device , flight route information to the network device , wherein the flight route information comprises at least one of a three-dimensional flight speed, a three-dimensional flight direction, and information about an intermediate node location that are of the terminal device, receiving, by the terminal device , a second indication message determined and sent after receiving the flight route information by the network device , wherein the second indication message includes configuration information of a first resource for transmitting the data; receiving, by the terminal device , on the first resource and another preconfigured resource according to the second indication message, the data transmitted by the network device , wherein data transmitted on each of the resources is the same.
A method for terminating a wire (10; 210) with a contact element (20; 220), the wire comprising a conductor (12; 212) and an insulating layer (14; 214) surrounding the conductor, the conductor being formed of aluminum or an aluminum alloy, the method comprising: removing the insulating layer from the conductor to expose a portion (16; 216) of the conductor, the exposed portion having a circumference; installing a conductive foil layer (18; 218) on the exposed portion of the conductor such that the conductive foil layer (18; 218) entirely surrounds the circumference of the exposed portion of the conductor; welding the conductive foil layer (18; 218) and the exposed portion of the conductor together to form an amalgamated mass; and installing the contact element (20; 220) on the amalgamated mass, the contact element being formed of a different material than the conductor (12; 212) and the conductive foil layer (18; 218), wherein: the conductive foil layer (18; 218) is formed of copper, the method being characterized in that the conductive foil layer comprises a corrugated screen having a plurality of elevated portions distributed along upper and lower surfaces; and when the conductive foil layer is installed on the exposed portion , the elevated portions are configured to abrade the exposed portion of the conductor prior to the welding of the conductive foil layer and the exposed portion. removing the insulating layer from the conductor to expose a portion (16; 216) of the conductor, the exposed portion having a circumference; installing a conductive foil layer (18; 218) on the exposed portion of the conductor such that the conductive foil layer (18; 218) entirely surrounds the circumference of the exposed portion of the conductor; welding the conductive foil layer (18; 218) and the exposed portion of the conductor together to form an amalgamated mass; and installing the contact element (20; 220) on the amalgamated mass, the contact element being formed of a different material than the conductor (12; 212) and the conductive foil layer (18; 218), wherein: the conductive foil layer (18; 218) is formed of copper, the method being characterized in that the conductive foil layer comprises a corrugated screen having a plurality of elevated portions distributed along upper and lower surfaces; and when the conductive foil layer is installed on the exposed portion , the elevated portions are configured to abrade the exposed portion of the conductor prior to the welding of the conductive foil layer and the exposed portion. the conductive foil layer (18; 218) is formed of copper, the method being characterized in that the conductive foil layer comprises a corrugated screen having a plurality of elevated portions distributed along upper and lower surfaces; and when the conductive foil layer is installed on the exposed portion , the elevated portions are configured to abrade the exposed portion of the conductor prior to the welding of the conductive foil layer and the exposed portion.
An inorganic filler, comprising: a boron nitride agglomerate which is an agglomerate of planar boron nitride particles; and a coating layer formed on the surface of the agglomerate, and a hydroxyl group (-OH) is formed on the surface of the coating layer, characterized in that the coating layer comprises silicon oxycarbonitride(SiCNO) or silicon carbonitride(SiCN) formed in a void in the agglomerate. a boron nitride agglomerate which is an agglomerate of planar boron nitride particles; and a coating layer formed on the surface of the agglomerate, and a hydroxyl group (-OH) is formed on the surface of the coating layer, characterized in that the coating layer comprises silicon oxycarbonitride(SiCNO) or silicon carbonitride(SiCN) formed in a void in the agglomerate.
A process of synthesizing Compound (I): the process comprising: Step (i): treating a compound of formula : wherein each R is -CH(CH2R 1 )-OR 2 or tetrahydropyran-2-yl optionally substituted with one, two, or three alkyl; and wherein R 1 is hydrogen or alkyl, and R 2 is alkyl; with an acid to provide compound : Step (ii): reacting compound with a compound of formula wherein LG is a leaving group under alkylation reacting conditions to provide Compound (I); and Step (iii): optionally crystallizing Compound (I) from Step (ii) from heptane and methyl tert -butyl ether at 45° +/-5 °C to 55° +/-5 °C. Step (i): treating a compound of formula : wherein each R is -CH(CH2R 1 )-OR 2 or tetrahydropyran-2-yl optionally substituted with one, two, or three alkyl; and wherein R 1 is hydrogen or alkyl, and R 2 is alkyl; with an acid to provide compound : Step (ii): reacting compound with a compound of formula wherein LG is a leaving group under alkylation reacting conditions to provide Compound (I); and Step (iii): optionally crystallizing Compound (I) from Step (ii) from heptane and methyl tert -butyl ether at 45° +/-5 °C to 55° +/-5 °C.
A surfactant system comprising: - at least one nonionic alcohol alkoxylate according to the following formulae: R 1 -O-(EO) x3 (PO) y3 -H (A) wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 3 is from 5 to 8, and wherein y 3 is from 2 to 5, and/or R 1 -O-(EO) x4 (PO) y4 -H (A2) wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 4 is from 4 to 6, and wherein y 4 is from 3 to 5, and - a nonionic alcohol alkoxylate according to the following formula: R 2 -O-(EO) x1 -H (B) wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 1 is from 5 to 10; and - optionally, one surfactant according to the following formulae: R 2 -O-(EO) x2 -H (C) wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 2 is from 2 to 4, or R 7 -O-(PO)y 5 (EO)x 5 (PO)y 6 -H (D) wherein R 7 is a branched C 8 -C 16 Guerbet alcohol, x 5 is from 5 to 30, y 5 is from 1 to 4, and y 6 is from 10 to 20. - at least one nonionic alcohol alkoxylate according to the following formulae: R 1 -O-(EO) x3 (PO) y3 -H (A) wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 3 is from 5 to 8, and wherein y 3 is from 2 to 5, and/or R 1 -O-(EO) x4 (PO) y4 -H (A2) wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 4 is from 4 to 6, and wherein y 4 is from 3 to 5, and wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 3 is from 5 to 8, and wherein y 3 is from 2 to 5, and/or R 1 -O-(EO) x4 (PO) y4 -H (A2) wherein R 1 is a straight-chain C 10 -C 16 alkyl, wherein x 4 is from 4 to 6, and wherein y 4 is from 3 to 5, and - a nonionic alcohol alkoxylate according to the following formula: R 2 -O-(EO) x1 -H (B) wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 1 is from 5 to 10; and wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 1 is from 5 to 10; and - optionally, one surfactant according to the following formulae: R 2 -O-(EO) x2 -H (C) wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 2 is from 2 to 4, or R 7 -O-(PO)y 5 (EO)x 5 (PO)y 6 -H (D) wherein R 7 is a branched C 8 -C 16 Guerbet alcohol, x 5 is from 5 to 30, y 5 is from 1 to 4, and y 6 is from 10 to 20. wherein R 2 is a C 10 -C 14 alkyl with an average of at least 2 branches per residue, and wherein x 2 is from 2 to 4, or R 7 -O-(PO)y 5 (EO)x 5 (PO)y 6 -H (D) wherein R 7 is a branched C 8 -C 16 Guerbet alcohol, x 5 is from 5 to 30, y 5 is from 1 to 4, and y 6 is from 10 to 20.
Tap-holding chuck for synchronized thread cutting, comprising a receiving part for machine-side driving, and a clamping means for receiving a tap , between which an intermediate part is arranged, wherein the intermediate part is connected to the receiving part in axial direction via at least one elastomer element (48; 60, 62), in an elastic way, wherein at least one first ball is received with a play in axial direction between the receiving part and the intermediate part for transferring torque, characterized in that the at least one first ball is received in rotary direction with play, in that at least one second ball is received movably in radial direction within the receiving part , and is coupled via the elastomer element (48; 60, 62) with the clamping means so that a yielding in axial direction and in rotary direction results which is resilient by means of the elastomer element (48; 60, 62).
A seating monitoring system, comprising: at least one sensor (105; 306; 513) associated with at least one seat (102; 507); the sensor(s) (105; 306; 513) configured to communicate with at least one control circuit (108; 302; 506); and wherein the control circuit (108; 302; 506) is configured to determine the occupancy states of the seats (102; 507) using input from the associated sensors (105; 306; 513), characterized in that the control circuit is further configured to adjust the determination of the occupancy state of each of the passenger seats according to a measured altitude input. at least one sensor (105; 306; 513) associated with at least one seat (102; 507); the sensor(s) (105; 306; 513) configured to communicate with at least one control circuit (108; 302; 506); and wherein the control circuit (108; 302; 506) is configured to determine the occupancy states of the seats (102; 507) using input from the associated sensors (105; 306; 513), characterized in that the control circuit is further configured to adjust the determination of the occupancy state of each of the passenger seats according to a measured altitude input.
A chronic disease monitoring system comprising: a sensor (7010, 4272; 4274) configured to generate a respiratory signal indicative of a patient's respiration during a monitoring session; and a processor configured to: extract, for each of a plurality of monitoring sessions, one or more respiratory features from the respiratory signal, wherein the one or more respiratory features comprise one or more of: a percentile of breathing rate, a total number of sleep disordered breathing events, and a percentile of duration of Cheyne-Stokes respiration cycles; and compute a stability measure of the patient for a monitoring session, the stability measure representing an indication of a change point having occurred at the monitoring session in a statistical distribution of a respiratory feature of the one or more respiratory features, wherein the statistical distribution of the respiratory feature is a posterior distribution of run length for the monitoring session given values of the respiratory feature up to and including the monitoring session. a sensor (7010, 4272; 4274) configured to generate a respiratory signal indicative of a patient's respiration during a monitoring session; and a processor configured to: extract, for each of a plurality of monitoring sessions, one or more respiratory features from the respiratory signal, wherein the one or more respiratory features comprise one or more of: a percentile of breathing rate, a total number of sleep disordered breathing events, and a percentile of duration of Cheyne-Stokes respiration cycles; and compute a stability measure of the patient for a monitoring session, the stability measure representing an indication of a change point having occurred at the monitoring session in a statistical distribution of a respiratory feature of the one or more respiratory features, wherein the statistical distribution of the respiratory feature is a posterior distribution of run length for the monitoring session given values of the respiratory feature up to and including the monitoring session. extract, for each of a plurality of monitoring sessions, one or more respiratory features from the respiratory signal, wherein the one or more respiratory features comprise one or more of: a percentile of breathing rate, a total number of sleep disordered breathing events, and a percentile of duration of Cheyne-Stokes respiration cycles; and compute a stability measure of the patient for a monitoring session, the stability measure representing an indication of a change point having occurred at the monitoring session in a statistical distribution of a respiratory feature of the one or more respiratory features, wherein the statistical distribution of the respiratory feature is a posterior distribution of run length for the monitoring session given values of the respiratory feature up to and including the monitoring session.
A system for performing electron paramagnetic resonance on an object under test , the system comprising - a first field generator adapted for generating an orienting magnetic field for orienting the magnetization of the object under study and - a second field generator adapted for generating RF excitation signals at a frequency to generate electron paramagnetic resonance (EPR) in the object under test , - a detection unit adapted for detecting the EPR signals emitted by the object under test , a control unit adapted for controlling and altering the relative orientation of the orienting magnetic field induced by the first field generator with respect to the detection unit - characterized in that the control unit is adapted for controlling the timing of said step of altering the relative orientation and of the RF excitations and detection so as to be able to detect and combine EPR signals obtained using different relative orientations of the orienting magnetic field with respect to the detection unit , and the system furthermore comprising a processing unit programmed for combining detected EPR signals obtained using different relative orientations of the orienting magnetic field with respect to the detection unit so as to filter out a contribution of the exciting signals to the detected EPR signals. - a first field generator adapted for generating an orienting magnetic field for orienting the magnetization of the object under study and - a second field generator adapted for generating RF excitation signals at a frequency to generate electron paramagnetic resonance (EPR) in the object under test , - a detection unit adapted for detecting the EPR signals emitted by the object under test , a control unit adapted for controlling and altering the relative orientation of the orienting magnetic field induced by the first field generator with respect to the detection unit - characterized in that the control unit is adapted for controlling the timing of said step of altering the relative orientation and of the RF excitations and detection so as to be able to detect and combine EPR signals obtained using different relative orientations of the orienting magnetic field with respect to the detection unit , and the system furthermore comprising a processing unit programmed for combining detected EPR signals obtained using different relative orientations of the orienting magnetic field with respect to the detection unit so as to filter out a contribution of the exciting signals to the detected EPR signals.
A recombinant adeno-associated virus (rAAV) for use in a method for the treatment of an ocular neovascular disease in a human subject having ocular neovascularization, the method comprising: i) administering by intravitreal or subretinal injection at least one dose of a Vascular Endothelial Growth Factor (VEGF) inhibitor prior to administering the rAAV to the human subject; ii) administering to the eye of the human subject a unit dose comprising at least 1 × 10 6 and at most 1 × 10 15 vector genomes of the rAAV and a pharmaceutically acceptable carrier, wherein the rAAV comprises a nucleic acid sequence encoding an anti-VEGF protein, and wherein the anti-VEGF protein comprises human soluble fms-like tyrosine kinase 1 (sFLT1) or a functional fragment thereof; and iii) administering by intravitreal or subretinal injection one or two doses of a VEGF inhibitor in a 30 day interval following administration of the rAAV. i) administering by intravitreal or subretinal injection at least one dose of a Vascular Endothelial Growth Factor (VEGF) inhibitor prior to administering the rAAV to the human subject; ii) administering to the eye of the human subject a unit dose comprising at least 1 × 10 6 and at most 1 × 10 15 vector genomes of the rAAV and a pharmaceutically acceptable carrier, wherein the rAAV comprises a nucleic acid sequence encoding an anti-VEGF protein, and wherein the anti-VEGF protein comprises human soluble fms-like tyrosine kinase 1 (sFLT1) or a functional fragment thereof; and iii) administering by intravitreal or subretinal injection one or two doses of a VEGF inhibitor in a 30 day interval following administration of the rAAV.