mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sorting a particle of interest in a solution, comprising: storing a sample solution in a sample solution reservoir and applying a constant pressure to the sample solution such that the sample solution stored in the sample solution reservoir flows through a sample solution flow path at a predetermined velocity; illuminating the sample solution flowing in an illumination region of the sample solution flow path upstream of a branched flow path region where a pair of branched flow paths are connected to the sample solution flow path, and detecting the particle of interest contained in the sample solution by identifying a scattered light or fluorescence generated from the particle of interest; and upon detecting the particle of interest, opening a first electromagnetic valve disposed between a constant-pressure pump with a positive pressure and the branched flow path region of the sample solution flow path, and a second electromagnetic valve disposed between a constant-pressure pump with a negative pressure and the branched flow path region of the sample solution, at a timing that the detected particle of interest reaches the branched flow path region such that a pulse pressure is applied to the branched flow path region to separate the detected particle of interest from the sample solution flow path. storing a sample solution in a sample solution reservoir and applying a constant pressure to the sample solution such that the sample solution stored in the sample solution reservoir flows through a sample solution flow path at a predetermined velocity; illuminating the sample solution flowing in an illumination region of the sample solution flow path upstream of a branched flow path region where a pair of branched flow paths are connected to the sample solution flow path, and detecting the particle of interest contained in the sample solution by identifying a scattered light or fluorescence generated from the particle of interest; and upon detecting the particle of interest, opening a first electromagnetic valve disposed between a constant-pressure pump with a positive pressure and the branched flow path region of the sample solution flow path, and a second electromagnetic valve disposed between a constant-pressure pump with a negative pressure and the branched flow path region of the sample solution, at a timing that the detected particle of interest reaches the branched flow path region such that a pulse pressure is applied to the branched flow path region to separate the detected particle of interest from the sample solution flow path.
A device for detecting, in an encoder part of a sound codec, an audio band-width of a sound signal to be coded, comprising: an analyser of the sound signal; and a final audio band-width decision module for delivering a final decision about the detected audio band-width using the result of the analysis of the sound signal; wherein, in the encoder part of the sound codec, the final audio band-width decision module is located upstream of the sound signal analyser. an analyser of the sound signal; and a final audio band-width decision module for delivering a final decision about the detected audio band-width using the result of the analysis of the sound signal; wherein, in the encoder part of the sound codec, the final audio band-width decision module is located upstream of the sound signal analyser.
A method for reporting a Power Headroom, PH, of a User Equipment, UE, in a wireless communication system having a plurality of aggregated uplink carriers, the method comprising the steps of: receiving a configuration message to activate an uplink carrier ; waiting a predetermined time after receiving the configuration message in order to trigger a Power Headroom Report, PHR, ; triggering the PHR, prior to receiving an uplink grant for the uplink carrier, after the predetermined time has elapsed ; determining whether the uplink grant is received after the PHR is triggered ; obtaining the PH of the PHR in case that the uplink grant is received ; generating the PHR based on the obtained PH ; and transmitting the generated PHR based on the uplink grant . receiving a configuration message to activate an uplink carrier ; waiting a predetermined time after receiving the configuration message in order to trigger a Power Headroom Report, PHR, ; triggering the PHR, prior to receiving an uplink grant for the uplink carrier, after the predetermined time has elapsed ; determining whether the uplink grant is received after the PHR is triggered ; obtaining the PH of the PHR in case that the uplink grant is received ; generating the PHR based on the obtained PH ; and transmitting the generated PHR based on the uplink grant .
A hybrid aircraft of the unmanned type, configured for the joint and optimized use of aerostatic and aerodynamic force, comprising an inflatable body including an outer shell and a load-bearing structure inside said outer shell , said inflatable body being adapted to take a closed wing operating configuration; wherein in said closed wing operating configuration, said inflatable body comprises a first arched portion adapted to define an arched wing having a leading edge and a trailing edge , a second straight portion adapted to define a straight wing having a leading edge and a trailing edge , a third and a fourth connecting portion arranged at opposite ends of the straight wing , which are adapted to join said arched wing and said straight wing to each other, wherein said load-bearing structure is an annular structure which extends through said arched wing , said straight wing and said third and fourth connecting portions ; characterised by said load-bearing structure comprising at least one main annular spar ; wherein in said closed wing operating configuration, said at least one main spar comprises an arched portion of main spar and a straight portion of main spar, wherein said arched portion of main spar is a tubular portion which is tapered from the middle of such a portion towards the third and fourth connecting portions , wherein said straight portion of main spar is a tubular portion which is tapered from the middle of such a portion towards the third and fourth connecting portions . wherein in said closed wing operating configuration, said inflatable body comprises a first arched portion adapted to define an arched wing having a leading edge and a trailing edge , a second straight portion adapted to define a straight wing having a leading edge and a trailing edge , a third and a fourth connecting portion arranged at opposite ends of the straight wing , which are adapted to join said arched wing and said straight wing to each other, wherein said load-bearing structure is an annular structure which extends through said arched wing , said straight wing and said third and fourth connecting portions ; characterised by said load-bearing structure comprising at least one main annular spar ; wherein in said closed wing operating configuration, said at least one main spar comprises an arched portion of main spar and a straight portion of main spar, wherein said arched portion of main spar is a tubular portion which is tapered from the middle of such a portion towards the third and fourth connecting portions , wherein said straight portion of main spar is a tubular portion which is tapered from the middle of such a portion towards the third and fourth connecting portions .
A system for heat source calibration of a three-dimensional (3-D) printer, comprising: a carriage comprising a first heat source and a second heat source to apply heat over a print bed ; a heat sensor to capture thermal data of the print bed ; and a computing device coupled to the heat sensor , characterized in that the computing device comprises a thermal image module configured to receive a plurality of thermal images (452-1, 452-2) of a print bed over a first period of time and a second period of time; a surface flux module configured to determine a first surface flux of the print bed for a first carriage cycle using the first heat source and a second surface flux of the print bed for a second carriage cycle using the second heat source, wherein the first carriage cycle is within the first period of time and the second carriage cycle is within the second period of time; a comparison module configured to compare the first surface flux to the second surface flux to determine a difference in radiated energy provided to the print bed between the first heat source and the second heat source. a carriage comprising a first heat source and a second heat source to apply heat over a print bed ; a heat sensor to capture thermal data of the print bed ; and a computing device coupled to the heat sensor , characterized in that the computing device comprises a thermal image module configured to receive a plurality of thermal images (452-1, 452-2) of a print bed over a first period of time and a second period of time; a surface flux module configured to determine a first surface flux of the print bed for a first carriage cycle using the first heat source and a second surface flux of the print bed for a second carriage cycle using the second heat source, wherein the first carriage cycle is within the first period of time and the second carriage cycle is within the second period of time; a comparison module configured to compare the first surface flux to the second surface flux to determine a difference in radiated energy provided to the print bed between the first heat source and the second heat source. a thermal image module configured to receive a plurality of thermal images (452-1, 452-2) of a print bed over a first period of time and a second period of time; a surface flux module configured to determine a first surface flux of the print bed for a first carriage cycle using the first heat source and a second surface flux of the print bed for a second carriage cycle using the second heat source, wherein the first carriage cycle is within the first period of time and the second carriage cycle is within the second period of time; a comparison module configured to compare the first surface flux to the second surface flux to determine a difference in radiated energy provided to the print bed between the first heat source and the second heat source.
A method for receiving downlink control information by a user equipment in a wireless communication system, the method comprising: receiving beam configuration information for configuring a plurality of beams in at least one control resource set, CORESET, from a base station; blind detecting a downlink control channel transmitted by at least one of the plurality of beams in the at least one CORESET; and acquiring downlink control information from the blind detected downlink control channel, wherein a total number of blind detections executable by the user equipment is allocated to the plurality of beams, and the user equipment performs blind detection according to the number of blind detections allocated to each of the beams, characterised in that the plurality of beams comprises a primary beam and a secondary beam, wherein the user equipment attempts to detect control channel candidates corresponding to a first aggregation level among a plurality aggregation levels on the primary beam and the secondary beam, wherein, based on a total number of blind detections for the control channel candidates corresponding to the first aggregation level is N, a number of blind detections that can be performed on control channel candidates corresponding to the first aggregation level for the primary beam is K, and a number of blind detections that can be performed on control channel candidates corresponding to the first aggregation level for the secondary beam is N-k, and wherein the N and k are integers greater than or equal to 1. receiving beam configuration information for configuring a plurality of beams in at least one control resource set, CORESET, from a base station; blind detecting a downlink control channel transmitted by at least one of the plurality of beams in the at least one CORESET; and acquiring downlink control information from the blind detected downlink control channel, wherein a total number of blind detections executable by the user equipment is allocated to the plurality of beams, and the user equipment performs blind detection according to the number of blind detections allocated to each of the beams, characterised in that the plurality of beams comprises a primary beam and a secondary beam, wherein the user equipment attempts to detect control channel candidates corresponding to a first aggregation level among a plurality aggregation levels on the primary beam and the secondary beam, wherein, based on a total number of blind detections for the control channel candidates corresponding to the first aggregation level is N, a number of blind detections that can be performed on control channel candidates corresponding to the first aggregation level for the primary beam is K, and a number of blind detections that can be performed on control channel candidates corresponding to the first aggregation level for the secondary beam is N-k, and wherein the N and k are integers greater than or equal to 1.
An image forming apparatus comprising: a main body comprising a printing unit for printing an image on a recording medium and a pickup roller for picking up the recording medium (P); a paper feeding device , which comprises an elevatable plate on which recording media are stackable and a pressure member for elastically pressing the plate towards the pickup roller, wherein the paper feeding device is removably inserted into the main body; and a variable guide unit , which is supported by the main body, is fixed in a slope state so as to lower the plate in a direction away from the pickup roller when the paper feeding device is being withdrawn from the main body, and moves to maintain a contact state with the plate when the paper feeding device is inserted into the main body, wherein the variable guide unit comprises a variable guide member , which has a slope unit downwardly sloped in a withdrawal direction to lower the plate in a direction away from the pickup roller by contacting a contact unit of the plate when the paper feeding device is withdrawn from the main body, and is supported by the main body for the slope unit to maintain a contact state with the contact unit due to a rising state of the plate wherein the variable guide unit further comprises: a fixing member , which is supported by the main body, characterised in that the fixing member is arranged to move to a fixing position for fixing the variable guide member by coupling with the variable guide member when the paper feeding device is withdrawn from the main body and is arranged to move to a release position for releasing the variable guide member by decoupling from the variable guide member when the paper feeding device is inserted into the main body. a main body comprising a printing unit for printing an image on a recording medium and a pickup roller for picking up the recording medium (P); a paper feeding device , which comprises an elevatable plate on which recording media are stackable and a pressure member for elastically pressing the plate towards the pickup roller, wherein the paper feeding device is removably inserted into the main body; and a variable guide unit , which is supported by the main body, is fixed in a slope state so as to lower the plate in a direction away from the pickup roller when the paper feeding device is being withdrawn from the main body, and moves to maintain a contact state with the plate when the paper feeding device is inserted into the main body, a fixing member , which is supported by the main body, characterised in that the fixing member is arranged to move to a fixing position for fixing the variable guide member by coupling with the variable guide member when the paper feeding device is withdrawn from the main body and is arranged to move to a release position for releasing the variable guide member by decoupling from the variable guide member when the paper feeding device is inserted into the main body.
A regenerative frequency divider comprising: an in-phase mixer circuit , a phase-shifted mixer circuit ; wherein an LC tank load comprising first and second LC tank nodes , a mixer switching stage comprising an in-phase switching component forming part of the in-phase mixer circuit and a phase-shifted switching component forming part of the phase-shifted mixer circuit; and an input switching stage comprising at least one switching device forming part of the in-phase mixer circuit and at least one switching device forming a part of the phase-shifted mixer circuit; are connected in series from power supply to ground, the input switching stage is configured to receive a differential input signal , and the first and second LC tank nodes , which are coupled to the mixer switching stage , provide an output signal of the regenerative frequency divider; characterized in that at least one switching device of the phase-shifted mixer circuit is of a smaller scale than a corresponding switching device of the in-phase mixer circuit, wherein at least one switching device within the input switching stage of the regenerative frequency divider forming part of the phase-shifted mixer circuit is of a smaller scale than a respective corresponding switching device within the input switching stage forming part of the in-phase mixer circuit. an in-phase mixer circuit , a phase-shifted mixer circuit ; an LC tank load comprising first and second LC tank nodes , a mixer switching stage comprising an in-phase switching component forming part of the in-phase mixer circuit and a phase-shifted switching component forming part of the phase-shifted mixer circuit; and an input switching stage comprising at least one switching device forming part of the in-phase mixer circuit and at least one switching device forming a part of the phase-shifted mixer circuit; are connected in series from power supply to ground, the input switching stage is configured to receive a differential input signal , and the first and second LC tank nodes , which are coupled to the mixer switching stage , provide an output signal of the regenerative frequency divider; characterized in that at least one switching device of the phase-shifted mixer circuit is of a smaller scale than a corresponding switching device of the in-phase mixer circuit, wherein at least one switching device within the input switching stage of the regenerative frequency divider forming part of the phase-shifted mixer circuit is of a smaller scale than a respective corresponding switching device within the input switching stage forming part of the in-phase mixer circuit.
- A coffee machine that is suitable for use with capsules (K) that contain coffee and that comprise a folio to close the capsule, said coffee machine comprising a body ; a housing for placing a single use capsule (K), the housing being disposed in the upper portion of the body ; an opening apparatus for opening the capsule (K) placed on the housing by cutting the folio (F); a seating surface for bearing/seating the edges of the capsule (K) when the capsule (K) is placed into the housing , wherein the seating surface is configured to fully surround the opening apparatus and wherein the seating surface is adapted to move downwards by means of the pressure exerted on the capsule (K) such that the folio (F) contacts the opening apparatus , and the seating surface is further adapted to move upwards into an upward position above the level of the opening apparatus when the pressure on the capsule (K) is removed, after the capsule is opened and the coffee contained therein is discharged such that the seating surface is further adapted to conceal the opening apparatus when the seating surface is in the upward position, characterized by the opening apparatus being configured to enable the coffee contained in the capsule (K) to be transferred for brewing, the opening apparatus consisting of a cutter configured to cut the folio (F) and a stripper configured to fold the folio, wherein the stripper is below the lowermost level of the cutter .
An electronic device comprising: an audio input module configured to receive a speech of a user as a voice input; an audio output module configured to output content corresponding to the voice input; and a processor configured to determine a speed of movement of the user based on a volume of the speech, which is obtained from an analysis of the voice input; and adjust an output speed of the content based on the speed of movement of the user. an audio input module configured to receive a speech of a user as a voice input; an audio output module configured to output content corresponding to the voice input; and a processor configured to determine a speed of movement of the user based on a volume of the speech, which is obtained from an analysis of the voice input; and adjust an output speed of the content based on the speed of movement of the user.
A combination comprising emibetuzumab and merestinib, or a pharmaceutically acceptable salt thereof, for simultaneous, separate or sequential use in therapy.
Autonomous apparatus for cooking food, comprising a base body with a main heating element , a lid which can be associated with the base body in at least two positions and inside which a secondary heating element is installed and possible heat transfer and/or ventilation means , and a mixing device , the base body supporting and positioning a removable container , said lid and/or said container , in correspondence with a respective coupling edge, comprising at least an airtight packing to define a cooking chamber with a desired steam pressure, characterized in that said lid has a single size with airtight packings suitable to cooperate with different sizes of the container and/or of one container having different heights with respect to said base body .