mhurhangee/ep-ind-claims huggingface dataset:
C 2 C 3 random copolymer composition comprising 70.0 to 99.9 wt% of a C 2 C 3 random copolymer having (a) an ethylene content in the range of from 2.0 to 4.5 wt%; (b) a melt flow rate MFR 2 (230°C/2.16kg) measured according to ISO 1133 in the range of from 4.0 to 12.0 g/10min; (c) a melting temperature Tm as determined by DSC according to ISO 11357 of from 120 to 135°C; (d) a xylene cold soluble fraction in the range of from 1.5 to 8.0 wt% 0.0 to 30.0 wt% of an ethylene-α-olefin plastomer having a density in the range of from 860 to 900 kg/m 3 and an MFR 2 (190°C/2.16kg) measured according to ISO 1133 in the range of 0.5 to 50.0 g/10min and one or more additives in a total amount of from 0.1 up to 5.0 wt%, based on the composition, selected from the group comprising slip agents, anti-block agents, UV stabilizers, antistatic agents, alpha-nucleating agents and antioxidants. 70.0 to 99.9 wt% of a C 2 C 3 random copolymer having (a) an ethylene content in the range of from 2.0 to 4.5 wt%; (b) a melt flow rate MFR 2 (230°C/2.16kg) measured according to ISO 1133 in the range of from 4.0 to 12.0 g/10min; (c) a melting temperature Tm as determined by DSC according to ISO 11357 of from 120 to 135°C; (d) a xylene cold soluble fraction in the range of from 1.5 to 8.0 wt% (a) an ethylene content in the range of from 2.0 to 4.5 wt%; (b) a melt flow rate MFR 2 (230°C/2.16kg) measured according to ISO 1133 in the range of from 4.0 to 12.0 g/10min; (c) a melting temperature Tm as determined by DSC according to ISO 11357 of from 120 to 135°C; (d) a xylene cold soluble fraction in the range of from 1.5 to 8.0 wt% 0.0 to 30.0 wt% of an ethylene-α-olefin plastomer having a density in the range of from 860 to 900 kg/m 3 and an MFR 2 (190°C/2.16kg) measured according to ISO 1133 in the range of 0.5 to 50.0 g/10min and one or more additives in a total amount of from 0.1 up to 5.0 wt%, based on the composition, selected from the group comprising slip agents, anti-block agents, UV stabilizers, antistatic agents, alpha-nucleating agents and antioxidants.
A bispecific antibody of the class IgG4 having improved stability over wild-type IgG4 molecules, comprising two heavy chains which each comprise a variable domain, C H 1 domain and hinge region, wherein in each heavy chain: the inter-chain cysteine at position 127 is substituted with another amino acid, and the cysteine at position 242 is substituted with another amino acid, said numbered according to the Kabat numbering system, and said heavy chains outside the variable domains have a sequence with 95% or greater identity, and the variable region in each heavy chain is different. the inter-chain cysteine at position 127 is substituted with another amino acid, and the cysteine at position 242 is substituted with another amino acid,
A printing device (100, 201, 403) comprising: a hopper (102, 202) to receive a colorant (222, 422); a supply (106, 406) to receive the colorant (222, 422) from the hopper (102, 202); an aperture (120, 220, 420) disposed between the hopper (102, 202) and the supply; a light emitter (110, 210, 410) to emit light (114, 214) that passes through the aperture (120, 420); and a light sensor (112, 212, 412) located on the opposite side of the aperture (120, 220, 420) relative to the light emitter (110, 210, 410) to sense a portion of the emitted light (114, 214) that passes through the aperture (120, 220, 420) to permit determination of whether colorant (222, 422) is present in the aperture (120, 220, 420) based on the portion of the emitted light (114, 214) sensed by the light sensor (112, 212, 412). a hopper (102, 202) to receive a colorant (222, 422); a supply (106, 406) to receive the colorant (222, 422) from the hopper (102, 202); an aperture (120, 220, 420) disposed between the hopper (102, 202) and the supply; a light emitter (110, 210, 410) to emit light (114, 214) that passes through the aperture (120, 420); and a light sensor (112, 212, 412) located on the opposite side of the aperture (120, 220, 420) relative to the light emitter (110, 210, 410) to sense a portion of the emitted light (114, 214) that passes through the aperture (120, 220, 420) to permit determination of whether colorant (222, 422) is present in the aperture (120, 220, 420) based on the portion of the emitted light (114, 214) sensed by the light sensor (112, 212, 412).
Method for ultrasonic characterization of a medium in order to carry out a local spectral analysis in the medium, the method comprising: - a step of generating a series of incident ultrasonic waves (US in) in an area of said medium, by means of an array of transducers, said series of incident ultrasonic waves being an emission basis (i); and - a step of generating an experimental reflection matrix R ui (t) defined between the emission basis i as input and a reception basis u as output; - a step of determining a focused reflection matrix RFoc(r, δt) which comprises responses of the medium between an input virtual transducer (TV in) of spatial position r in and an output virtual transducer (TV out) of spatial position r out, the input and output virtual transducers being superimposed at the same spatial position r, with r in = r out = r, and the responses of the output virtual transducer (TV out) being obtained at a time instant that is shifted by an additional delay δt relative to a time instant of the responses of the input virtual transducer (TV in), - a step of determining a frequency matrix RFreq t ( r, ω) which is a temporal Fourier transform of each cell of the focused reflection matrix RFoc(r, δt), this temporal Fourier transform being: RFre q t r ω = TF t RFoc r δt where TFt is the temporal Fourier transform, and ω is a pulse with ω = 2πf, f being the frequency corresponding to said pulse. - a step of generating a series of incident ultrasonic waves (US in) in an area of said medium, by means of an array of transducers, said series of incident ultrasonic waves being an emission basis (i); and - a step of generating an experimental reflection matrix R ui (t) defined between the emission basis i as input and a reception basis u as output; - a step of determining a focused reflection matrix RFoc(r, δt) which comprises responses of the medium between an input virtual transducer (TV in) of spatial position r in and an output virtual transducer (TV out) of spatial position r out, the input and output virtual transducers being superimposed at the same spatial position r, with r in = r out = r, and the responses of the output virtual transducer (TV out) being obtained at a time instant that is shifted by an additional delay δt relative to a time instant of the responses of the input virtual transducer (TV in), - a step of determining a frequency matrix RFreq t ( r, ω) which is a temporal Fourier transform of each cell of the focused reflection matrix RFoc(r, δt), this temporal Fourier transform being: RFre q t r ω = TF t RFoc r δt where TFt is the temporal Fourier transform, and ω is a pulse with ω = 2πf, f being the frequency corresponding to said pulse. TFt is the temporal Fourier transform, and ω is a pulse with ω = 2πf, f being the frequency corresponding to said pulse.
A method of wireless communication performed by a user equipment, UE, comprising: receiving an indication of one or more standalone non-public network, SNPN, roaming groups associated with a network to which the UE is subscribed; determining that a transmission from an SNPN identifies a roaming group identifier associated with an SNPN roaming group of the one or more SNPN roaming groups; and registering with the SNPN based at least in part on determining that the transmission identifies the roaming group identifier. receiving an indication of one or more standalone non-public network, SNPN, roaming groups associated with a network to which the UE is subscribed; determining that a transmission from an SNPN identifies a roaming group identifier associated with an SNPN roaming group of the one or more SNPN roaming groups; and registering with the SNPN based at least in part on determining that the transmission identifies the roaming group identifier.
A portable telecommunication device comprising at least a fluid sensing device (100, 103,105); the fluid sensing device (100, 103,105) comprising: a fluid sensing means configured to analyze a sampling volume (41, 45, 53); and a fluid moving means comprising a motionless fluid pumping means using thermal transpiration for moving the sampling volume (41, 45, 47, 49, 51, 53); wherein the fluid sensing device (100, 103, 105) is positioned within the same opening of the portable device's housing as at least one other functional unit and further inside said housing than the at least one other functional unit. a fluid sensing means configured to analyze a sampling volume (41, 45, 53); and a fluid moving means comprising a motionless fluid pumping means using thermal transpiration for moving the sampling volume (41, 45, 47, 49, 51, 53);
An electrochromic device comprising: an electrochromic element including a protrusion on a periphery of the electrochromic element; and a frame holding the electrochromic element, characterized by an electrode pad wound around the protrusion, and a connecting member provided on the frame and configured to electrically connect to the electrode pad. an electrochromic element including a protrusion on a periphery of the electrochromic element; and a frame holding the electrochromic element, characterized by an electrode pad wound around the protrusion, and a connecting member provided on the frame and configured to electrically connect to the electrode pad.
A speaker comprising: a magnetic circuit having a magnetic gap; a voice coil disposed in the magnetic gap; a diaphragm that vibrates together with the voice coil; a case in which the magnetic circuit, the voice coil, and the diaphragm are disposed; and a duct protruding from the case, the duct including a sound port that is a distal open end of the duct, the sound port facing and protruding into an acoustic space, wherein the case is disposed in an outer space that is separated from the acoustic space by a partition wall made of a metal, wherein the speaker is installed in such a way that the duct is inserted into a hole that is formed in the partition wall, characterized in that a heat dissipation port in which an end surface of the magnetic circuit adjacent to the partition wall is exposed is formed in the case, and an elastically deformable thermal conductive sheet is inserted into the heat dissipation port so as to be sandwiched between the partition wall and the end surface of the magnetic circuit adjacent to the partition wall. a magnetic circuit having a magnetic gap; a voice coil disposed in the magnetic gap; a diaphragm that vibrates together with the voice coil; a case in which the magnetic circuit, the voice coil, and the diaphragm are disposed; and a duct protruding from the case, the duct including a sound port that is a distal open end of the duct, the sound port facing and protruding into an acoustic space,
A rocket motor 434; 534; 634; 734; 834; 934), comprising: a casing (40; 440; 540; 640; 740; 840; 940) comprising a plurality of gas exit apertures (401a-401i; 501a-501i; 601a-601e; 701a-701f; 801), wherein the casing has a length dimension a width dimension and a depth dimension, the length dimension being greater than the width dimension and the length dimension being greater than the depth dimension; solid propellant, located inside the casing, arranged to generate a force in a direction that is substantially perpendicular to the length dimension of the casing; and at least one filter (410; 868), positioned between the solid propellant and the plurality of gas exit apertures, configured to prevent unburnt solid propellant from being ejected through the plurality of gas exit apertures. a casing (40; 440; 540; 640; 740; 840; 940) comprising a plurality of gas exit apertures (401a-401i; 501a-501i; 601a-601e; 701a-701f; 801), wherein the casing has a length dimension a width dimension and a depth dimension, the length dimension being greater than the width dimension and the length dimension being greater than the depth dimension; solid propellant, located inside the casing, arranged to generate a force in a direction that is substantially perpendicular to the length dimension of the casing; and at least one filter (410; 868), positioned between the solid propellant and the plurality of gas exit apertures, configured to prevent unburnt solid propellant from being ejected through the plurality of gas exit apertures.
A method for the multiplexed detection of nucleic acid targets directly amplified in a reaction with a sample when the sample contains blood, the method characterized by excitation of the reaction at a wavelength greater than 620nm and wherein the excitation is effected with a power of at least 2mW.
A door hinge for rebated doors for locking buildings of wood, comprising a wing part for fastening to the longitudinal side of a door wing, a frame part connected to the wing part in a pivoting manner and an accommodating element for mounting in a cutout of a door frame, wherein the accommodating element comprises an accommodating housing, a tensioning plate as well as a clamping plate fastened to the tensioning plate by means of tensioning screws, wherein the frame part has a hinge strap, which is inserted into the accommodating element and which is adjustably arranged between the tensioning plate and the clamping plate and which, after setting its position, can be fixed by means of a tensioning movement of the clamping plate, wherein the tensioning plate is guided on threaded spindles, which are arranged so as to be rotatably supported in the accommodating housing, and which includes a setting device for vertically adjusting the hinge strap arranged between the tensioning plate and the clamping plate, and wherein the hinge strap is guided horizontally on the clamping plate in insertion direction, characterized in that the tensioning plate has a U-shaped cross sectional profile, which is defined by an upper edge and a lower edge, wherein the area between the two edges (21, 21') forms an accommodating space for the hinge strap and the clamping plate, that the threaded spindles engage through threaded holes in the edges (21, 21') of the tensioning plate and that the setting device is integrated in the lower edge of the tensioning plate for vertically adjusting the hinge strap and comprises an adjusting screw, which is arranged parallel to the threaded spindles, as well as a vertically guided push piece, wherein the push piece rests against the circumference of the hinge strap and, on its rearward end, has a wedge surface, which is supported on the adjusting screw.
A device to retransmit a television signal, comprising: a filtering section to filter the television signal received by the device; an input detector, adapted to detect the television signal filtered by the filtering section; a power amplifier section of the television signal filtered by the filtering section; an output detector, adapted to detect the television signal amplified from the power amplifier section; a microprocessor connected to i) the input detector to receive input parameters detected by the input detector, ii) the output detector to receive output parameters detected by the output detector and iii) the power amplifier section to control the power amplifier section on the basis of the input parameters detected by the input detector and the output parameters detected by the output detector, an antenna adapted to retransmit the television signal amplified by the power amplifier section, and a selector, controlled by the microprocessor, configured to direct the television signal amplified by the power amplifier section to the antenna or to an optional antenna output, wherein the filtering section, the input detector, the power amplifier section, the output detector, the microprocessor, and the antenna are placed inside a container, further comprising a microstrip matching circuit capable of connecting the antenna to the selector; and wherein the input and the output of the filtering section, the input of the input detector, the input and the output of the power amplifier section, the input of the output detector and the input of the antenna are radiofrequency signals. a filtering section to filter the television signal received by the device; an input detector, adapted to detect the television signal filtered by the filtering section; a power amplifier section of the television signal filtered by the filtering section; an output detector, adapted to detect the television signal amplified from the power amplifier section; a microprocessor connected to i) the input detector to receive input parameters detected by the input detector, ii) the output detector to receive output parameters detected by the output detector and iii) the power amplifier section to control the power amplifier section on the basis of the input parameters detected by the input detector and the output parameters detected by the output detector, an antenna adapted to retransmit the television signal amplified by the power amplifier section, and a selector, controlled by the microprocessor, configured to direct the television signal amplified by the power amplifier section to the antenna or to an optional antenna output, wherein the filtering section, the input detector, the power amplifier section, the output detector, the microprocessor, and the antenna are placed inside a container, further comprising a microstrip matching circuit capable of connecting the antenna to the selector; and wherein the input and the output of the filtering section, the input of the input detector, the input and the output of the power amplifier section, the input of the output detector and the input of the antenna are radiofrequency signals.
An energized biomedical ophthalmic device (200, 600) for monitoring and treating seasonal affective disorder symptoms, the device comprising: an energy source; a light source (202A, 602) energized by the energy source; a biomarker sensor, wherein the biomarker sensor can detect changes in biomolecules contained in the tear film of a user and generate signal data corresponding to the measured changes; a processor in logical communication with the biomarker sensor, wherein the processor is operative to receive and process said signal data by correlating the measured changes in tear film biomarkers to associated symptoms of seasonal affective disorder, and generating data from the measured changes related to a light therapy to treat seasonal affective disorder symptoms, and wherein the processor is operative to output the generated data related to the control of the light source; and wherein the light source is controlled by and in proximity to the processor. an energy source; a light source (202A, 602) energized by the energy source; a biomarker sensor, wherein the biomarker sensor can detect changes in biomolecules contained in the tear film of a user and generate signal data corresponding to the measured changes; a processor in logical communication with the biomarker sensor, wherein the processor is operative to receive and process said signal data by correlating the measured changes in tear film biomarkers to associated symptoms of seasonal affective disorder, and generating data from the measured changes related to a light therapy to treat seasonal affective disorder symptoms, and wherein the processor is operative to output the generated data related to the control of the light source; and wherein the light source is controlled by and in proximity to the processor.
A reception device for receiving wireless power, the reception device comprising: a power reception circuit configured to wirelessly receive power from a transmission device, rectify the received power, and output the rectified power; a charger configured to process the rectified power received from the power reception circuit and charge a battery of the reception device or output the rectified power to a system of the reception device; and a control circuit configured to, when an event for changing an input current limit of the charger is detected, gradually change the input current limit of the charger by stepping up or stepping down the input current limit to one or more intermediary values until the input current limit reaches a predetermined value, characterised in that the control circuit is further configured to when the event for changing the input current limit of the charger corresponds to an abrupt change of an input current of the charger or an abrupt change of an output current of the charger over a first time period, the input current of the charger is gradually changed over a second time period longer than the first time period, such that connection between the reception device and the transmission device is maintained. a power reception circuit configured to wirelessly receive power from a transmission device, rectify the received power, and output the rectified power; a charger configured to process the rectified power received from the power reception circuit and charge a battery of the reception device or output the rectified power to a system of the reception device; and a control circuit configured to, when an event for changing an input current limit of the charger is detected, gradually change the input current limit of the charger by stepping up or stepping down the input current limit to one or more intermediary values until the input current limit reaches a predetermined value, characterised in that the control circuit is further configured to when the event for changing the input current limit of the charger corresponds to an abrupt change of an input current of the charger or an abrupt change of an output current of the charger over a first time period, the input current of the charger is gradually changed over a second time period longer than the first time period, such that connection between the reception device and the transmission device is maintained.
An in-wheel motor driving device comprising: a motor section which rotates a motor-side rotation member; a speed reducer section which reduces and transmits rotation of the motor-side rotation member to a wheel-side rotation member; and a wheel hub connected and fixed to the wheel-side rotation member; the above three elements being disposed in series from an inboard side to an outboard side of a vehicle; wherein a terminal box for a power supply wire which supplies power to the motor section is disposed on an outboard-side end surface of a housing which supports the motor section, with a holder for anchoring the power supply wire routed out of the terminal box to an inboard side being provided on an inboard side of the outer circumference of the housing which supports the motor section.
A method of manufacturing a cartridge suitable for use with an aerosol-generating system, the method comprising the steps of: providing a liquid storage portion, providing an electrical component having a pre-defined resistance, forming the electrical component into an electrical inductor having a particular inductance, mounting the electrical inductor to the cartridge, providing an electrical heating element, mounting the electrical heating element to the cartridge, and connecting the electrical inductor in series to the electrical heating element, wherein the inductance of the electrical inductor is indicative of an aerosol-forming substrate comprised or to be filled in the liquid storage portion. providing a liquid storage portion, providing an electrical component having a pre-defined resistance, forming the electrical component into an electrical inductor having a particular inductance, mounting the electrical inductor to the cartridge, providing an electrical heating element, mounting the electrical heating element to the cartridge, and connecting the electrical inductor in series to the electrical heating element,