mhurhangee/patent-ind-claim-en huggingface dataset:
An exhaust heat recovery structure comprising: a first pipe through which exhaust gas from an engine flows; a second pipe that branches from the first pipe , a heat exchanger configured to implement heat exchange with the exhaust gas being provided at the second pipe ; and an opening and closing valve provided at the first pipe , the opening and closing valve being configured to adjust flow amounts of the exhaust gas flowing into the second pipe by opening and closing, wherein the first pipe includes a first pipe body and a second pipe body that are adjacent in a flow direction of the exhaust gas, and a join portion between the first pipe body and the second pipe body is provided along a circumferential direction of the first pipe , characterized in that the opening and closing valve is disposed at the first pipe body side of the first pipe , the first pipe body is disposed at an upstream side of the flow direction of the exhaust gas, and the second pipe body is disposed at the downstream side of the flow direction of the exhaust gas; and the first pipe body and second pipe body are joined in a state in which an end portion of the first pipe body , at a side thereof at which the second pipe body is disposed, is superposed with an outer periphery face of the second pipe body . a first pipe through which exhaust gas from an engine flows; a second pipe that branches from the first pipe , a heat exchanger configured to implement heat exchange with the exhaust gas being provided at the second pipe ; and an opening and closing valve provided at the first pipe , the opening and closing valve being configured to adjust flow amounts of the exhaust gas flowing into the second pipe by opening and closing, wherein the first pipe includes a first pipe body and a second pipe body that are adjacent in a flow direction of the exhaust gas, and a join portion between the first pipe body and the second pipe body is provided along a circumferential direction of the first pipe , the opening and closing valve is disposed at the first pipe body side of the first pipe , the first pipe body is disposed at an upstream side of the flow direction of the exhaust gas, and the second pipe body is disposed at the downstream side of the flow direction of the exhaust gas; and the first pipe body and second pipe body are joined in a state in which an end portion of the first pipe body , at a side thereof at which the second pipe body is disposed, is superposed with an outer periphery face of the second pipe body .
A pharmaceutical composition for use in prophylaxis, treatment or both of a neoplasm, wherein the pharmaceutical composition comprises a nanoparticle formulation comprising quercetin, and at least one anti-cancer agent, wherein the at least one anti-cancer agent is temozolomide (Temodar)
An overvoltage protection circuit for a battery, comprising: a power circuit unit integrally comprising a voltage measurement unit configured to measure the voltage of a battery and a power control unit ; and a cut-off circuit unit configured to cut off the charge of the battery if the voltage value of the battery is equal to or greater than a second predetermined voltage value which is equal to or greater than a first predetermined voltage value, wherein the power control unit is configured: if the voltage of the battery measured by the voltage measurement unit is equal to or greater than the first predetermined voltage value, to supply power to the cut-off circuit unit so that the voltage of the battery is sensed through the cut-off circuit unit for a more precise sensing; if the voltage of the battery measured by the voltage measurement unit is not greater than the first predetermined voltage, not to supply power to the cut-off circuit unit so that the voltage of the battery is sensed through the voltage measurement unit only for a less precise sensing. a power circuit unit integrally comprising a voltage measurement unit configured to measure the voltage of a battery and a power control unit ; and a cut-off circuit unit configured to cut off the charge of the battery if the voltage value of the battery is equal to or greater than a second predetermined voltage value which is equal to or greater than a first predetermined voltage value, wherein the power control unit is configured: if the voltage of the battery measured by the voltage measurement unit is equal to or greater than the first predetermined voltage value, to supply power to the cut-off circuit unit so that the voltage of the battery is sensed through the cut-off circuit unit for a more precise sensing; if the voltage of the battery measured by the voltage measurement unit is not greater than the first predetermined voltage, not to supply power to the cut-off circuit unit so that the voltage of the battery is sensed through the voltage measurement unit only for a less precise sensing. if the voltage of the battery measured by the voltage measurement unit is equal to or greater than the first predetermined voltage value, to supply power to the cut-off circuit unit so that the voltage of the battery is sensed through the cut-off circuit unit for a more precise sensing; if the voltage of the battery measured by the voltage measurement unit is not greater than the first predetermined voltage, not to supply power to the cut-off circuit unit so that the voltage of the battery is sensed through the voltage measurement unit only for a less precise sensing.
A programmable combination of tuning elements comprising: one or more first elements configured to deliver a first variable reactance, the one or more first elements comprising one or more solid-state-controlled devices that each comprise a solid-state switch coupled to one or more fixed-state capacitors; and one or more second elements configured to deliver a second variable reactance, the one or more second elements comprising one or more micro-electro-mechanical, MEMS, variable capacitors; wherein the first variable reactance of the one or more first elements and the second variable reactance of the one or more second elements deliver a combined variable reactance. one or more first elements configured to deliver a first variable reactance, the one or more first elements comprising one or more solid-state-controlled devices that each comprise a solid-state switch coupled to one or more fixed-state capacitors; and one or more second elements configured to deliver a second variable reactance, the one or more second elements comprising one or more micro-electro-mechanical, MEMS, variable capacitors; wherein the first variable reactance of the one or more first elements and the second variable reactance of the one or more second elements deliver a combined variable reactance.
A combination comprising an antibody specific for CD19 wherein said antibody comprises an HCDR1 region comprising sequence SYVMH (SEQ ID NO: 1), an HCDR2 region comprising sequence NPYNDG (SEQ ID NO: 2), an HCDR3 region comprising sequence GTYYYGTRVFDY (SEQ ID NO: 3), an LCDR1 region comprising sequence RSSKSLQNVNGNTYLY (SEQ ID NO: 4), an LCDR2 region comprising sequence RMSNLNS (SEQ ID NO: 5), and an LCDR3 region comprising sequence MQHLEYPIT (SEQ ID NO: 6) and venetoclax for use in the treatment of non-Hodgkin's lymphoma, chronic lymphocytic leukemia and/or acute lymphoblastic leukemia.
A composition sterilized by steam autoclaving, comprising at least one crosslinked hyaluronic acid or one of biologically acceptable salts thereof, alone or in a mixture and magnesium ascorbyl phosphate, in a ratio [HA]/[MAP] by mass of the amount of hyaluronic acid or salt thereof [HA] to the amount of magnesium ascorbyl phosphate [MAP] of greater than or equal to 1, the amount of magnesium ascorbyl phosphate being between 0.001% and 1% by weight, relative to the total weight of said composition, wherein the elastic component G' of the said composition is retained or improved after sterilization and is comprised from 5 to 400 Pa and wherein the at least crosslinked hyaluronic acid or one of biologically acceptable salts thereof has a degree of crosslinking comprised from 0.1 to 0.2 and wherein the molecular mass Mw of the said hyaluronic acid or one salts thereof is between 0.01 and 5 MDa.
A composition comprising a two-phase composite comprising a matrix phase comprising sintered hydroxyapatite and a discontinuous phase within said matrix phase, said hydroxyapatite comprising a Ca/P ratio of 1.67, said discontinuous phase comprising a plurality of elongated calcium carbonate inclusions.
Magazine for a firearm, comprising a magazine body having at least one slit in each of the two sides , a feeder comprising a slide receptacle , and a loading aid, characterized in that the loading aid comprises a first and second slide which are designed so as to be able to be coupled inside the slide receptacle by means of a latch , and the feeder comprises at least one hole in the direction of the slide receptacle , for uncoupling the latch .
An extracting method of extracting a beverage liquid from an extraction target, comprising: a charging step (S2) of charging the extraction target into an extraction container , a pouring step (S11, S12) of pouring liquid into the extraction container , wherein the extraction container in the charging step and in the pouring step is in a first posture (ST1), closing a sending portion of a lid unit of the extraction container , an immersion step (S14) of immersing, in a liquid in an extraction container with a first posture (ST1), the extraction target accumulated in the extraction container in a first form; a posture-change step (S16) of changing a posture of the extraction container from the first posture (ST1) to a second posture (ST3); opening the sending portion of the lid unit of the extraction container, and a sending step (S17) of sending the beverage liquid from the sending portion of the extraction container with the second posture (ST3), wherein the extraction target is accumulated in a second form in the extraction container with the second posture (ST3), the second form is a form in which an accumulation thickness of the extraction target is larger than in the first form, and wherein in the sending step (S17), the beverage liquid, which passes through the extraction target accumulated in the second form, is sent. a charging step (S2) of charging the extraction target into an extraction container , a pouring step (S11, S12) of pouring liquid into the extraction container , wherein the extraction container in the charging step and in the pouring step is in a first posture (ST1), closing a sending portion of a lid unit of the extraction container , an immersion step (S14) of immersing, in a liquid in an extraction container with a first posture (ST1), the extraction target accumulated in the extraction container in a first form; a posture-change step (S16) of changing a posture of the extraction container from the first posture (ST1) to a second posture (ST3); opening the sending portion of the lid unit of the extraction container, and a sending step (S17) of sending the beverage liquid from the sending portion of the extraction container with the second posture (ST3), wherein the extraction target is accumulated in a second form in the extraction container with the second posture (ST3), the second form is a form in which an accumulation thickness of the extraction target is larger than in the first form, and wherein in the sending step (S17), the beverage liquid, which passes through the extraction target accumulated in the second form, is sent.
A bypass valve for an engine with turbocharging for use in a pipe section of a bypass comprising a sealing device which has a flap , and a pipe section of a bypass, characterized in that the flap is mounted to be doubly rotatable via a first axis of rotation and via a second axis of rotation ; in that the flap is arranged in the pipe section , and wherein both the first and also the second axes of rotation extend offset with respect to the center axis (Z) of the pipe section , wherein the center axis (Z) of the pipe section extends between the first and second axes of rotation ; and in that the second axis of rotation is realized by a hole-pin connection.
Ultrasonic welding device , comprising: a sonotrode ; an anvil ; a receiving chamber in which joining partners to be welded are to be received and which is defined on opposing sides by the sonotrode on the one hand and by the anvil on the other hand; a camera assembly with at least one camera which is integrated in the ultrasonic welding device; wherein the camera assembly is configured to record images of at least a partial region of the receiving chamber for the optical monitoring of welding conditions which have an impact on welds of the joining partners, characterised in that the camera assembly is modularly composed of several components including a camera and a light source , which are replaceable as necessary. a sonotrode ; an anvil ; a receiving chamber in which joining partners to be welded are to be received and which is defined on opposing sides by the sonotrode on the one hand and by the anvil on the other hand; a camera assembly with at least one camera which is integrated in the ultrasonic welding device; wherein the camera assembly is configured to record images of at least a partial region of the receiving chamber for the optical monitoring of welding conditions which have an impact on welds of the joining partners, characterised in that the camera assembly is modularly composed of several components including a camera and a light source , which are replaceable as necessary.
An inkjet recording apparatus comprising: an ink ejector which includes a nozzle (N) and which is configured to eject ink from the nozzle (N); a first conveyor which is configured to convey a first recording medium (M1) in a predetermined first direction facing an ink ejecting surface of the ink ejector ; a second conveyor which is configured to move a second recording medium (M2) between the ink ejector and a conveying path of the first recording medium (M1) along a predetermined second direction, the first direction and the second direction being parallel; characterised in that the inkjet recording apparatus comprises: an imager which includes a one-dimensional imaging sensor and which is positioned on a moving path along the second direction of the second recording medium (M2) and which is configured to image a surface of the second recording medium (M2) throughout a width in which the ink ejector can record on the second recording medium (M2) in a direction intersecting with the second direction; and a controller which is configured to move the second recording medium (M2), which is configured to control the ink ejector to record a test image on the second recording medium (M2), and which is configured to control the imager to image the test image. an ink ejector which includes a nozzle (N) and which is configured to eject ink from the nozzle (N); a first conveyor which is configured to convey a first recording medium (M1) in a predetermined first direction facing an ink ejecting surface of the ink ejector ; a second conveyor which is configured to move a second recording medium (M2) between the ink ejector and a conveying path of the first recording medium (M1) along a predetermined second direction, the first direction and the second direction being parallel; characterised in that the inkjet recording apparatus comprises: an imager which includes a one-dimensional imaging sensor and which is positioned on a moving path along the second direction of the second recording medium (M2) and which is configured to image a surface of the second recording medium (M2) throughout a width in which the ink ejector can record on the second recording medium (M2) in a direction intersecting with the second direction; and a controller which is configured to move the second recording medium (M2), which is configured to control the ink ejector to record a test image on the second recording medium (M2), and which is configured to control the imager to image the test image. an imager which includes a one-dimensional imaging sensor and which is positioned on a moving path along the second direction of the second recording medium (M2) and which is configured to image a surface of the second recording medium (M2) throughout a width in which the ink ejector can record on the second recording medium (M2) in a direction intersecting with the second direction; and a controller which is configured to move the second recording medium (M2), which is configured to control the ink ejector to record a test image on the second recording medium (M2), and which is configured to control the imager to image the test image.
A unit pixel circuit, comprising: a first photodiode (SPD); a first floating diffusion node (FD3) configured to accumulate charges generated in the first photodiode; a capacitor (SC) connected to the first floating diffusion node and a first voltage node (VSC), the capacitor configured to accumulate overflowed charges of the photodiode; a first switch transistor (SW1) for connecting the first floating diffusion node to a third floating diffusion node; a reset transistor (RG) for connecting the third floating diffusion node to a second voltage node (VRD); characterised by a second switch transistor (CTG) connected to both the first voltage node and the second voltage node. a first photodiode (SPD); a first floating diffusion node (FD3) configured to accumulate charges generated in the first photodiode; a capacitor (SC) connected to the first floating diffusion node and a first voltage node (VSC), the capacitor configured to accumulate overflowed charges of the photodiode; a first switch transistor (SW1) for connecting the first floating diffusion node to a third floating diffusion node; a reset transistor (RG) for connecting the third floating diffusion node to a second voltage node (VRD); characterised by a second switch transistor (CTG) connected to both the first voltage node and the second voltage node.
A computer-implemented method for generating virtual data for components or sections of an industrial automation system (40; 80) that lack awareness or communication capabilities, the method comprising: receiving design data associated with industrial automation components in an industrial automation system (40; 80), wherein the design data includes electrical and/or communication information or drawings that specify how the industrial automation components within the industrial automation system are connected and interact with each other; receiving a first set of data acquired by a first portion of the industrial automation components; identifying a second portion of the industrial automation components lacking communication abilities based on the design data and the first set of data, wherein the second portion of the industrial automation components are stand-alone components that do not receive data from other components; generating virtual data associated with the second portion of the industrial automation components based on the first set of data and based on the design data, wherein generating said virtual data comprises determining how the second portion of the industrial automation components should be performing or comprises determining data that the second portion of the industrial automation components should be receiving; and adjusting at least one operation of at least one of the first portion of industrial automation components based on the first set of data and the virtual data. receiving design data associated with industrial automation components in an industrial automation system (40; 80), wherein the design data includes electrical and/or communication information or drawings that specify how the industrial automation components within the industrial automation system are connected and interact with each other; receiving a first set of data acquired by a first portion of the industrial automation components; identifying a second portion of the industrial automation components lacking communication abilities based on the design data and the first set of data, wherein the second portion of the industrial automation components are stand-alone components that do not receive data from other components; generating virtual data associated with the second portion of the industrial automation components based on the first set of data and based on the design data, wherein generating said virtual data comprises determining how the second portion of the industrial automation components should be performing or comprises determining data that the second portion of the industrial automation components should be receiving; and adjusting at least one operation of at least one of the first portion of industrial automation components based on the first set of data and the virtual data.
An implantable medical device (IMD) configured for use as part of a cardiac therapy system comprising a leadless cardiac pacemaker (LCP) and the IMD, the IMD comprising: a plurality of electrodes for sensing cardiac activity; communication circuitry for communicating with at least the LCP; operational circuitry configured to receive signals from the plurality of electrodes and analyze cardiac activity, the operational circuitry comprising: sensing means to sense QRS complexes; QRS complex analysis means to determine whether a selected QRS complex represents a fusion beat; and interval change means to cause the communication circuitry to communicate a pacing interval change to the LCP in order to promote fusion beats if the QRS complex does not represent a fusion beat; characterized in that the operational circuitry is configured to use either template means to determine whether a sensed QRS complex matches a template indicative of fusion, or characteristics means to determine whether a sensed QRS complex has features indicative of fusion, to thereby determine whether a selected QRS com plex represents a fusion beat. a plurality of electrodes for sensing cardiac activity; communication circuitry for communicating with at least the LCP; operational circuitry configured to receive signals from the plurality of electrodes and analyze cardiac activity, the operational circuitry comprising: sensing means to sense QRS complexes; QRS complex analysis means to determine whether a selected QRS complex represents a fusion beat; and interval change means to cause the communication circuitry to communicate a pacing interval change to the LCP in order to promote fusion beats if the QRS complex does not represent a fusion beat; sensing means to sense QRS complexes; QRS complex analysis means to determine whether a selected QRS complex represents a fusion beat; and interval change means to cause the communication circuitry to communicate a pacing interval change to the LCP in order to promote fusion beats if the QRS complex does not represent a fusion beat; characterized in that the operational circuitry is configured to use either template means to determine whether a sensed QRS complex matches a template indicative of fusion, or characteristics means to determine whether a sensed QRS complex has features indicative of fusion, to thereby determine whether a selected QRS com plex represents a fusion beat.