mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic field sensor, comprising: at least one magnetoresistive sensor element ; and an electric conductor in the proximity of the magnetoresistive sensor element in order to generate a magnetic biasing field , wherein the magnetic field sensor is configured to generate a magnetic biasing field such that the magnetic offset field of the magnetoresistive sensor element is equal to the coercivity of the magnetoresistive sensor element , wherein the magnetic field sensor is configured to apply an electric current to the electric conductor to generate a magnetic biasing field or a magnetic biasing field component parallel to a sensing axis of the magnetoresistive sensor element , wherein the magnetic field sensor is configured to apply a first electric current to reset the magnetic field sensor, and wherein the magnetic field sensor is configured to apply a second electric current to calibrate the magnetic field sensor. at least one magnetoresistive sensor element ; and an electric conductor in the proximity of the magnetoresistive sensor element in order to generate a magnetic biasing field ,
A rotary electric shaver comprising: a main body having a drive shaft ; and a head having a plurality of blade units having an outer blade , an inner blade rotating while sliding on an inner surface of the outer blade , and a driven shaft that rotates the inner blade , having a built-in transmission drive system that transmits driving power of the drive shaft to rotate the driven shaft , and connected to the main body , wherein at least one of the blade units has an outer blade having a lock mechanism capable of changing height position, and characterized in that the lock mechanism comprises a fulcrum plate having a ring part in which first sloped parts are formed on an inner side at a predetermined interval, a turning plate having tube part in which second sloped parts are formed on an upper side at a predetermined interval and which engage with the fulcrum plate , a fixing plate having a through-hole into which the tube part is insertable, and a spring disposed in the fixing plate to press the turning plate in a pressing-up direction. a main body having a drive shaft ; and a head having a plurality of blade units having an outer blade , an inner blade rotating while sliding on an inner surface of the outer blade , and a driven shaft that rotates the inner blade , having a built-in transmission drive system that transmits driving power of the drive shaft to rotate the driven shaft , and connected to the main body , wherein at least one of the blade units has an outer blade having a lock mechanism capable of changing height position, and characterized in that the lock mechanism comprises a fulcrum plate having a ring part in which first sloped parts are formed on an inner side at a predetermined interval, a turning plate having tube part in which second sloped parts are formed on an upper side at a predetermined interval and which engage with the fulcrum plate , a fixing plate having a through-hole into which the tube part is insertable, and a spring disposed in the fixing plate to press the turning plate in a pressing-up direction.
A method for extracting and analyzing an analyte from a sample, the method comprising: introducing a solvent into a capillary; introducing a sample comprising an analyte into the capillary, wherein the solvent does not mix with the sample because the solvent is selected based on having a polarity that is different from the polarity of the sample and the solvent is compatible for both extraction and ionization of the analyte; moving the sample and the solvent within the capillary to induce circulation within the sample and the solvent, thereby causing the analyte to be extracted from the sample and into the solvent; and analyzing the extracted analyte, wherein analyzing comprises applying a voltage to the solvent comprising the extracted analyte in the capillary so that the analyte is expelled from the capillary, thereby generating ions of the analyte, and analyzing the ions in a mass spectrometer. introducing a solvent into a capillary; introducing a sample comprising an analyte into the capillary, wherein the solvent does not mix with the sample because the solvent is selected based on having a polarity that is different from the polarity of the sample and the solvent is compatible for both extraction and ionization of the analyte; moving the sample and the solvent within the capillary to induce circulation within the sample and the solvent, thereby causing the analyte to be extracted from the sample and into the solvent; and analyzing the extracted analyte, wherein analyzing comprises applying a voltage to the solvent comprising the extracted analyte in the capillary so that the analyte is expelled from the capillary, thereby generating ions of the analyte, and analyzing the ions in a mass spectrometer.
An arrangement for collecting and analyzing body fluid of a patient, with at least one analyzer and with at least one lancet , the lancet and the analyzer being associated with a holding means for the defined holding of a body portion relative to a defined puncture and measurement site, wherein said holding means has a housing-shaped receptacle (3A, 3B has) for insertion of a finger as a body portion, the housing-shaped receptacle having a support in the interior for a defined holding of the finger relative to the puncture and measurement site, characterized in that a relative movement between the support and the receptacle is provided so that the finger inside the receptacle is associated with the defined puncture and measurement site.
A valve assembly , comprising: a disk member ; a retainer having a first groove ; a seal that can be secured partly between a first surface of the disk member and a second surface of the retainer , a part of the seal protruding outwardly, away from the disk member and the retainer , the part of the seal protruding outwardly performing the sealing operation of the valve assembly when the valve assembly is actuated; a retaining ring ; wherein the disk member (202 has a second groove , and wherein the first groove and the second groove form a cavity in which the retaining ring is disposed, the retaining ring being disposed at a slant with respect to an inner surface of the cavity ; and wherein the retaining ring urges the retainer towards the seal . a disk member ; a retainer having a first groove ; a seal that can be secured partly between a first surface of the disk member and a second surface of the retainer , a part of the seal protruding outwardly, away from the disk member and the retainer , the part of the seal protruding outwardly performing the sealing operation of the valve assembly when the valve assembly is actuated; a retaining ring ; wherein the disk member (202 has a second groove , and wherein the first groove and the second groove form a cavity in which the retaining ring is disposed, the retaining ring being disposed at a slant with respect to an inner surface of the cavity ; and wherein the retaining ring urges the retainer towards the seal .
An audiologic test apparatus for performing an audiologic test in an ear canal, the audiologic test apparatus comprising: a housing , a processing unit , a tone generator connected to the processing unit , and a probe interface for connecting the audiologic test apparatus to a test probe; wherein the apparatus is configured to: generate by the tone generator a first electrical signal representative of a first signal with a first primary frequency component at a first primary frequency; receive a first response signal ; determine if a first insertion criterion is satisfied, wherein the first insertion criterion is based on the first signal and the first response signal ; and initiate the audiologic test if at least the first insertion criterion is satisfied, the audiologic test comprising generating a second electrical signal representative of a second signal with a second primary frequency component at a second primary frequency; characterised by the first primary frequency being within a range from 30 Hz to 80 Hz and lower than the second primary frequency. a housing , a processing unit , a tone generator connected to the processing unit , and a probe interface for connecting the audiologic test apparatus to a test probe; wherein the apparatus is configured to: generate by the tone generator a first electrical signal representative of a first signal with a first primary frequency component at a first primary frequency; receive a first response signal ; determine if a first insertion criterion is satisfied, wherein the first insertion criterion is based on the first signal and the first response signal ; and initiate the audiologic test if at least the first insertion criterion is satisfied, the audiologic test comprising generating a second electrical signal representative of a second signal with a second primary frequency component at a second primary frequency; characterised by the first primary frequency being within a range from 30 Hz to 80 Hz and lower than the second primary frequency. generate by the tone generator a first electrical signal representative of a first signal with a first primary frequency component at a first primary frequency; receive a first response signal ; determine if a first insertion criterion is satisfied, wherein the first insertion criterion is based on the first signal and the first response signal ; and initiate the audiologic test if at least the first insertion criterion is satisfied, the audiologic test comprising generating a second electrical signal representative of a second signal with a second primary frequency component at a second primary frequency; characterised by the first primary frequency being within a range from 30 Hz to 80 Hz and lower than the second primary frequency.
A device for treatment of body tissue comprising a light diffuser circumferentially and endoluminally irradiating said tissue by laser light energy, said diffuser being connectable at its proximal end to a source of laser light energy via a flexible wave guide comprising a fiber optic core covered by an optical cladding having a refractive index smaller than that of the core , and a protective sheath , the distal end of the wave guide having its protective sheath at least partially removed to bare the core and its optical cladding and being provided with grooves adapted to refract and/or reflect the light propagating within the core and its optical cladding in generally radial directions, a cap transparent to the laser light enclosing the distal end of the core and its optical cladding in a fluid tight manner, wherein said grooves comprise at least two spiral grooves , wherein said grooves extend through said optical cladding into said core , and wherein successive grooves of the respective spiral grooves are alternating along the longitudinally extending outer surface of the core and its optical cladding , wherein the outer surface of said optical cladding is fused in the region between said grooves to the inner diameter of the cap and/or wherein the outer surface of said optical cladding extending over a distance in front and/or behind the grooved region is fused to the inner diameter of the cap .
A dielectric phase shifter (1; 2), comprising a cavity (11; 21) having an elongated receiving space , a phase shifting circuit (12; 22) disposed inside the receiving space , and a dielectric element (13; 23) slidably mounted in the receiving space and parallel with the phase shifting circuit (12; 22), a rail (14; 24) disposed on an inner wall of the cavity (11; 21) for preventing contact between the slidably mounted dielectric element (13; 23) and the phase shifting circuit (12; 22); characterized in that a sliding groove is defined in the dielectric element (13; 23) at a location corresponding to the rail (14; 24) for realizing engagement between the rail (14; 24) and the sliding groove .
An apparatus comprising: a first member with a first surface , the first member comprising a first magnet configured to generate a first magnetic field ; and a second member with a second surface , wherein the first member is movable relative to the second member, the second member comprising: a sensor operatively connected to a processor , the sensor being a Hall sensor and is configured to only detect magnetic fields that run perpendicular to the second surface of the second member; and a second magnet adjacent and oriented relative to the sensor, and is arranged to generate a second magnetic field that runs parallel to the second surface of the second member to be undetectable by the sensor, wherein in a first position, the first magnet and the second magnet are engaged to magnetically hold the first member to the second member such that at least a portion of the first surface of the first member opposes at least a portion of the second surface of the second member, and the first magnetic field generated by the first magnet is arranged to run perpendicular to the second surface of the second member; and wherein the sensor is positioned intermediate the first magnet and the second magnet in the first position, and is configured to detect the first magnetic field and to further send a signal to the processor, in response to detecting the first magnetic field. a first member with a first surface , the first member comprising a first magnet configured to generate a first magnetic field ; and a second member with a second surface , wherein the first member is movable relative to the second member, the second member comprising: a sensor operatively connected to a processor , the sensor being a Hall sensor and is configured to only detect magnetic fields that run perpendicular to the second surface of the second member; and a second magnet adjacent and oriented relative to the sensor, and is arranged to generate a second magnetic field that runs parallel to the second surface of the second member to be undetectable by the sensor, a sensor operatively connected to a processor , the sensor being a Hall sensor and is configured to only detect magnetic fields that run perpendicular to the second surface of the second member; and a second magnet adjacent and oriented relative to the sensor, and is arranged to generate a second magnetic field that runs parallel to the second surface of the second member to be undetectable by the sensor, wherein in a first position, the first magnet and the second magnet are engaged to magnetically hold the first member to the second member such that at least a portion of the first surface of the first member opposes at least a portion of the second surface of the second member, and the first magnetic field generated by the first magnet is arranged to run perpendicular to the second surface of the second member; and wherein the sensor is positioned intermediate the first magnet and the second magnet in the first position, and is configured to detect the first magnetic field and to further send a signal to the processor, in response to detecting the first magnetic field.
A method of operating by a user equipment, UE, in a wireless communication system , the method comprising: receiving (S100), by the UE from a base station , a first information element, IE, which includes at least one first channel state information, CSI, reference signal, RS, configuration and information indicating a first usage which is CSI measurement; receiving (S100), by the UE from the base station, a second IE which includes at least one second CSI RS configuration, which is different from the at least first CSI RS configuration, and information indicating a second usage which is interference measurement; measuring (S110), by the UE, CSI based on the at least one first CSI RS configuration; and measuring (S110), by the UE, interference based on the at least one second CSI RS configuration, wherein the first IE is received through at least one first node (25-1, 25-2, 25-3, 25-4, 25-5) of the base station, and wherein the second IE is received through at least one second node (25-1, 25-2, 25-3, 25-4, 25-5) of the base station. receiving (S100), by the UE from a base station , a first information element, IE, which includes at least one first channel state information, CSI, reference signal, RS, configuration and information indicating a first usage which is CSI measurement; receiving (S100), by the UE from the base station, a second IE which includes at least one second CSI RS configuration, which is different from the at least first CSI RS configuration, and information indicating a second usage which is interference measurement; measuring (S110), by the UE, CSI based on the at least one first CSI RS configuration; and measuring (S110), by the UE, interference based on the at least one second CSI RS configuration, wherein the first IE is received through at least one first node (25-1, 25-2, 25-3, 25-4, 25-5) of the base station, and wherein the second IE is received through at least one second node (25-1, 25-2, 25-3, 25-4, 25-5) of the base station.
A fused ring carbazole tetradentate metal platinum (II) complex having the general structure shown in formula (I): where X is selected from O or S; R 1 -R 9 each independently represent mono- to maximum substitution, or no substitution; R 1 -R 9 are each independently selected from the group consisting of hydrogen, deuterium, halogen, CN, C 1 -C 30 alkyl, C 1 -C 30 haloalkyl, C 1 -C 30 deuterated alkyl, C 6 -C 60 aryl, C 6 -C 60 arylsilane, and combinations thereof.
A method of prioritizing Downlink, DL, transmission in a Time Division Duplex, TDD, wireless communication system providing a channel sensing mechanism, the method comprising: - transmitting (S502), by an access network node of the wireless communication system, an Uplink, UL, grant to a wireless communication device , the UL grant indicating that an UL transmission is planned in one or more first subframes; and - prioritizing (S504), by the access network node , Downlink, DL, transmission in one or more second subframes over the planned UL transmission, the one or more second subframes at least partially overlapping with the one or more first subframes, characterized in that the step of prioritizing (S504) comprises adapting, by the access network node , at least one of: - one or more channel sensing parameters of the planned UL transmission, and - one or more channel sensing parameters of the DL transmission, wherein the step of adapting comprises at least one of: - decreasing a duration of sensing, by the access network node , a wireless communication medium before starting the DL transmission, and - increasing a duration of sensing, by the wireless communication device , a wireless communication medium before starting the planned UL transmission. - transmitting (S502), by an access network node of the wireless communication system, an Uplink, UL, grant to a wireless communication device , the UL grant indicating that an UL transmission is planned in one or more first subframes; and - prioritizing (S504), by the access network node , Downlink, DL, transmission in one or more second subframes over the planned UL transmission, the one or more second subframes at least partially overlapping with the one or more first subframes, - one or more channel sensing parameters of the planned UL transmission, and - one or more channel sensing parameters of the DL transmission, - decreasing a duration of sensing, by the access network node , a wireless communication medium before starting the DL transmission, and - increasing a duration of sensing, by the wireless communication device , a wireless communication medium before starting the planned UL transmission.
A battery module , comprising: a plurality of battery cells ; a plurality of cell tubes configured to accommodate the plurality of battery cells within the plurality of cell tubes so that individual of the plurality of battery cells are positioned within individual of the plurality of cell tubes, each battery cell having a first electric pole and a second electric pole, a first conductive plate which mutually electrically connects the first poles of each of the plurality of battery cells, said first conductive plate comprising a plurality of first holes so that individual of the plurality of cell tubes are facing individual of the plurality of first holes, a plurality of first spacers , each first spacer being mounted in one of said first holes and configured to support one said cell tube and one said battery cell, said first spacer providing thermal and electrical isolation between the corresponding battery cell and the first conductive plate . a plurality of battery cells ; a plurality of cell tubes configured to accommodate the plurality of battery cells within the plurality of cell tubes so that individual of the plurality of battery cells are positioned within individual of the plurality of cell tubes, each battery cell having a first electric pole and a second electric pole, a first conductive plate which mutually electrically connects the first poles of each of the plurality of battery cells, said first conductive plate comprising a plurality of first holes so that individual of the plurality of cell tubes are facing individual of the plurality of first holes, a plurality of first spacers , each first spacer being mounted in one of said first holes and configured to support one said cell tube and one said battery cell, said first spacer providing thermal and electrical isolation between the corresponding battery cell and the first conductive plate .
Method for constructing a fibrous scaffold of Poly(e-caprolactone) and Graphene Oxide by additive manufacturing and wet-spinning of comprising the steps of: a) Dispersing graphene oxide (GO) in Tetrahydrofuran (THF), solvent at a final concentration of 5% w/w to 7.5% w/w; b) Dissolving Poly(e-caprolactone) - PLC- in the previous mixture at a concentration of 7.5% to 15% w/v (weight of PCL per volume of solvent); c) Loading the previous mixture into a syringe or a 3D printer head d) Extruding the THF/PCL/GO mixture into a coagulation bath consisting of ethanol e) Rinsing PCL/GO scaffolds with ethanol and drying the scaffolds. a) Dispersing graphene oxide (GO) in Tetrahydrofuran (THF), solvent at a final concentration of 5% w/w to 7.5% w/w; b) Dissolving Poly(e-caprolactone) - PLC- in the previous mixture at a concentration of 7.5% to 15% w/v (weight of PCL per volume of solvent); c) Loading the previous mixture into a syringe or a 3D printer head d) Extruding the THF/PCL/GO mixture into a coagulation bath consisting of ethanol e) Rinsing PCL/GO scaffolds with ethanol and drying the scaffolds.
An adjustable bed comprising a frame and an adjustable mattress support platform having a plurality of articulated mattress support sections pivotally mounted for relative angular adjustment with respect to the frame, and a fixed seat section , said mattress support sections including at least one adjustable backrest support section and at least one adjustable mattress bend support section adjacent said backrest support section, an actuator mechanism for effecting co-ordinated pivotal movement to angularly adjust the at least one adjustable backrest support section relative to the at least one adjustable mattress bend support section for reconfiguring the bed between a flat lowered configuration and a raised configuration for supporting an occupant in flat or raised positions, wherein the actuator mechanism has connecting means operable to drive the backrest support section, the connecting means having a distal end, the backrest support section linearly moveable relative to, and pivotally about, the distal end to effect pivotal movement of the mattress bend support section, wherein the distal end includes a roller mounted thereon to enable linear movement of the connecting means and pivotal movement of the backrest support section.